diff --git a/Makefile b/Makefile index c18e361b..768d627e 100644 --- a/Makefile +++ b/Makefile @@ -1,6 +1,6 @@ .PHONY: format -Brick.ttl: bricksrc/*.py bricksrc/definitions.csv generate_brick.py +Brick.ttl: bricksrc/*.py bricksrc/*.ttl bricksrc/definitions.csv generate_brick.py mkdir -p extensions python generate_brick.py cd shacl && python generate_shacl.py @@ -8,6 +8,9 @@ Brick.ttl: bricksrc/*.py bricksrc/definitions.csv generate_brick.py shacl/BrickShape.ttl: bricksrc/*.py generate_brick.py shacl/generate_shacl.py cd shacl && python generate_shacl.py +clean: + rm Brick.ttl Brick+extensions.ttl + format: black generate_brick.py black shacl/ diff --git a/RELEASE.md b/RELEASE.md new file mode 100644 index 00000000..44e06fad --- /dev/null +++ b/RELEASE.md @@ -0,0 +1,61 @@ +# Release Notes + +This document contains the items that need to be done to prepare Brick for a release. + +## Version Number + +Change the version number in `bricksrc/version.py`; this will usually involve changing either the **patch** version or the **minor** version. + +## Branch + +Create a new branch to centralize the final changes for the release; something like `v1.2.1` or `v1.2.1-release` is appropriate. Push this branch to GitHub and use it as the merge target for any outstanding PRs. + +When the branch is finished and the release is ready, merge it into the `master` branch on GitHub. + +## Release Notes + +Now the release notes can be prepared. + +Use the output of the `tools/compare_versions` tool to generate a list of what has changed since the last release of Brick. This *can* be a URL, and in fact this is the easist way of comparing the current build with the previous build: specifically, what classes/concepts are added or removed. Take a look at the bottom of https://github.com/BrickSchema/Brick/releases/tag/v1.2.0 as an example for what this should look like in the release. + +Due to a limitation of the `compare_versions` tool, it is currently necessary to download all Brick.ttl files that will be compared and to manually adjust the namespaces so that they are versioned, e.g. `https://brickschema.org/schema/Brick#` becomes `https://brickschema.org/schema/1.2.1/Brick#`. + +After this is done, the tool can be run as follows + +```bash +$ make # generate Brick +$ python tools/compare_versions/compare_versions.py --oldbrick 1.2.0 Brick120.ttl --newbrick 1.2.1 Brick.ttl +``` + +This will generate a `history/` directory containing files with the added and removed class lists. + +Put together the release notes. This should summarize the changes to Brick since the last release. Be sure to thank all contributors since the previous release. This can be computed by the following git command: + +``` +git shortlog ..HEAD -n -s +``` + +for example, using the git tag for the `v1.2.0` release: + +``` +git shortlog v1.2.0..HEAD -n -s +``` + +Include the added/removed classes at the bottom of the release notes. Be sure to tag the release following the usual naming schema `vMAJOR.MINOR.PATCH`. + +## Update `brickschema` + +Checkout the [brickschema repository](https://github.com/BrickSchema/py-brickschema). Edit `tools/update_auxiliary.sh` to identify the internal folder where the copy of Brick should go. Usually this will just involve changing the version number at the end. + +Then, run `update_auxiliary.sh` from the root directory of the repository: + +```bash +$ ./tools/update_auxiliary.sh +``` + +Update the version number of the package (`poetry version `), build and publish. + + +## Update Website + +Instructions coming soon... diff --git a/bricksrc/definitions.csv b/bricksrc/definitions.csv index 8ab990d2..249dcdb8 100644 --- a/bricksrc/definitions.csv +++ b/bricksrc/definitions.csv @@ -10,6 +10,7 @@ https://brickschema.org/schema/Brick#Adjust_Sensor,Measures user-provided adjust https://brickschema.org/schema/Brick#Air,"the invisible gaseous substance surrounding the earth, a mixture mainly of oxygen and nitrogen.", https://brickschema.org/schema/Brick#Air_Alarm,, https://brickschema.org/schema/Brick#Air_Differential_Pressure_Sensor,Measures the difference in pressure between two regions of air, +https://brickschema.org/schema/Brick#Air_Differential_Pressure_Setpoint,Sets the target air differential pressure between an upstream and downstream point in a air duct or conduit, https://brickschema.org/schema/Brick#Air_Diffuser,A device that is a component of the air distribution system that controls the delivery of conditioned and/or ventilating air into a room, https://brickschema.org/schema/Brick#Air_Enthalpy_Sensor,Measures the total heat content of air, https://brickschema.org/schema/Brick#Air_Flow_Deadband_Setpoint,Sets the size of a deadband of air flow, @@ -107,9 +108,9 @@ https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Load_Sh https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Load_Shed_Status,, https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Proportional_Band_Parameter,, https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Sensor,Measures the difference in water pressure on either side of a chilled water valve, -https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Setpoint,Sets differential pressure of chilled water, +https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Setpoint,Sets the target water differential pressure between an upstream and downstream point in a water pipe or conduit used to carry chilled water, https://brickschema.org/schema/Brick#Chilled_Water_Differential_Pressure_Step_Parameter,, -https://brickschema.org/schema/Brick#Chilled_Water_Differential_Temperature_Sensor,Measures the difference in temperature between return water (to the cooling tower) and supply water (from the chiller), +https://brickschema.org/schema/Brick#Chilled_Water_Differential_Temperature_Sensor,Measures the difference in temperature between the entering water to the chiller or other water cooling device and leaving water from the same chiller or other water cooling device, https://brickschema.org/schema/Brick#Chilled_Water_Discharge_Flow_Sensor,Measures the rate of flow of chilled discharge water, https://brickschema.org/schema/Brick#Chilled_Water_Discharge_Flow_Setpoint,Sets the target flow rate of chilled discharge water, https://brickschema.org/schema/Brick#Chilled_Water_Flow_Sensor,Measures the rate of flow in a chilled water circuit, @@ -126,6 +127,7 @@ https://brickschema.org/schema/Brick#Chilled_Water_Supply_Temperature_Sensor,Mea https://brickschema.org/schema/Brick#Chilled_Water_System,"The equipment, devices and conduits that handle the production and distribution of chilled water in a building", https://brickschema.org/schema/Brick#Chilled_Water_System_Enable_Command,Enables operation of the chilled water system, https://brickschema.org/schema/Brick#Chilled_Water_Temperature_Sensor,Measures the temperature of chilled water, +https://brickschema.org/schema/Brick#Chilled_Water_Temperature_Setpoint,Sets the temperature of chilled water, https://brickschema.org/schema/Brick#Chilled_Water_Valve,A valve that modulates the flow of chilled water, https://brickschema.org/schema/Brick#Chiller,Refrigerating machine used to transfer heat between fluids. Chillers are either direct expansion with a compressor or absorption type., https://brickschema.org/schema/Brick#Cloudage,The fraction of the sky obscured by clouds when observed from a particular location, @@ -178,6 +180,8 @@ https://brickschema.org/schema/Brick#Cooling_Tower,"A cooling tower is a heat re https://brickschema.org/schema/Brick#Cooling_Tower_Fan,A fan that pulls air through a cooling tower and across the louvers where the water falls to aid in heat exchange by the process of evaporation,https://highperformancehvac.com/cooling-tower-fan/ https://brickschema.org/schema/Brick#Cooling_Valve,A valve that controls air temperature by modulating the amount of cold water flowing through a cooling coil, https://brickschema.org/schema/Brick#Copy_Room,"A room set aside for common office equipment, including printers and copiers", +https://brickschema.org/schema/Brick#Core_Temperature_Sensor,Measures the internal temperature of the radiant layer at the heat source or sink level of the radiant heating and cooling HVAC system., +https://brickschema.org/schema/Brick#Core_Temperature_Setpoint,"Sets temperature for the core, i.e. the temperature at the heat source or sink level, of the radiant panel.", https://brickschema.org/schema/Brick#Cubicle,"A smaller space set aside for an individual, but not with a door and without full-height walls", https://brickschema.org/schema/Brick#Current,, https://brickschema.org/schema/Brick#Current_Angle,Angle of current phasor, @@ -222,7 +226,7 @@ https://brickschema.org/schema/Brick#Differential_Pressure_Setpoint,Sets differe https://brickschema.org/schema/Brick#Differential_Pressure_Step_Parameter,, https://brickschema.org/schema/Brick#Differential_Speed_Sensor,, https://brickschema.org/schema/Brick#Differential_Speed_Setpoint,Sets differential speed, -https://brickschema.org/schema/Brick#Differential_Supply_Return_Water_Temperature_Sensor,Measures the difference in temperature between return and supply water, +https://brickschema.org/schema/Brick#Differential_Supply_Return_Water_Temperature_Sensor,Measures the difference in temperature between return and supply water of water a circuit, https://brickschema.org/schema/Brick#Dimmer,A switch providing continuous control over all or part of a lighting installation; typically potentiometer-based, https://brickschema.org/schema/Brick#Direction,, https://brickschema.org/schema/Brick#Direction_Command,Commands that affect the direction of some phenomenon, @@ -312,6 +316,8 @@ https://brickschema.org/schema/Brick#Elevator,"A device that provides vertical t https://brickschema.org/schema/Brick#Elevator_Shaft,The vertical space in which an elevator ascends and descends, https://brickschema.org/schema/Brick#Elevator_Space,The vertical space in whcih an elevator ascends and descends, https://brickschema.org/schema/Brick#Embedded_Surface_System_Panel,Radiant panel heating and cooling system where the energy heat source or sink is embedded in a radiant layer which is thermally insulated from the building structure.,https://www.rehva.eu/eshop/detail/no07-low-temperature-heating-and-high-temperature-cooling +https://brickschema.org/schema/Brick#Embedded_Temperature_Sensor,Measures the internal temperature of the radiant layer of the radiant heating and cooling HVAC system., +https://brickschema.org/schema/Brick#Embedded_Temperature_Setpoint,"Sets temperature for the internal material, e.g. concrete slab, of the radiant panel.", https://brickschema.org/schema/Brick#Emergency_Alarm,Alarms that indicate off-normal conditions associated with emergency systems, https://brickschema.org/schema/Brick#Emergency_Generator_Alarm,An alarm that indicates off-normal conditions associated with an emergency generator, https://brickschema.org/schema/Brick#Emergency_Generator_Status,Indicates if an emergency generator is active, @@ -352,6 +358,8 @@ https://brickschema.org/schema/Brick#Even_Month_Status,, https://brickschema.org/schema/Brick#Exercise_Room,An indoor room used for exercise and physical activities, https://brickschema.org/schema/Brick#Exhaust_Air,"air that must be removed from a space due to contaminants, regardless of pressurization", https://brickschema.org/schema/Brick#Exhaust_Air_Dewpoint_Sensor,Measures dewpoint of exhaust air, +https://brickschema.org/schema/Brick#Exhaust_Air_Differential_Pressure_Sensor,Measures the difference in pressure between an upstream and downstream of an air duct or other air conduit used to exhaust air from the building, +https://brickschema.org/schema/Brick#Exhaust_Air_Differential_Pressure_Setpoint,Sets the target air differential pressure between an upstream and downstream point in a exhaust air duct or conduit, https://brickschema.org/schema/Brick#Exhaust_Air_Flow_Integral_Time_Parameter,, https://brickschema.org/schema/Brick#Exhaust_Air_Flow_Proportional_Band_Parameter,, https://brickschema.org/schema/Brick#Exhaust_Air_Flow_Sensor,Measures the rate of flow of exhaust air, @@ -473,7 +481,8 @@ https://brickschema.org/schema/Brick#Hot_Water_Differential_Pressure_Load_Shed_R https://brickschema.org/schema/Brick#Hot_Water_Differential_Pressure_Load_Shed_Status,, https://brickschema.org/schema/Brick#Hot_Water_Differential_Pressure_Proportional_Band_Parameter,, https://brickschema.org/schema/Brick#Hot_Water_Differential_Pressure_Sensor,Measures the difference in water pressure on either side of a hot water valve, -https://brickschema.org/schema/Brick#Hot_Water_Differential_Pressure_Setpoint,Sets differential pressure of hot water, +https://brickschema.org/schema/Brick#Hot_Water_Differential_Pressure_Setpoint,Sets the target water differential pressure between an upstream and downstream point in a water pipe or conduit used to carry hot water, +https://brickschema.org/schema/Brick#Hot_Water_Differential_Temperature_Sensor,Measures the difference in temperature between the entering water to the boiler or other water heating device and leaving water from the same boiler or other water heating device, https://brickschema.org/schema/Brick#Hot_Water_Discharge_Flow_Sensor,Measures the rate of flow of hot discharge water, https://brickschema.org/schema/Brick#Hot_Water_Discharge_Flow_Setpoint,Sets the target flow rate of hot discharge water, https://brickschema.org/schema/Brick#Hot_Water_Discharge_Temperature_Load_Shed_Status,, @@ -494,6 +503,7 @@ https://brickschema.org/schema/Brick#Hot_Water_Supply_Temperature_Low_Reset_Setp https://brickschema.org/schema/Brick#Hot_Water_Supply_Temperature_Sensor,Measures the temperature of water supplied by a hot water system, https://brickschema.org/schema/Brick#Hot_Water_System,"The equipment, devices and conduits that handle the production and distribution of hot water in a building", https://brickschema.org/schema/Brick#Hot_Water_System_Enable_Command,Enables operation of the hot water system, +https://brickschema.org/schema/Brick#Hot_Water_Temperature_Setpoint,Sets the temperature of hot water, https://brickschema.org/schema/Brick#Hot_Water_Usage_Sensor,"Measures the amount of hot water that is consumed, over some period of time", https://brickschema.org/schema/Brick#Hot_Water_Valve,A valve regulating the flow of hot water, https://brickschema.org/schema/Brick#Humidifier,A device that adds moisture to air or other gases, @@ -512,6 +522,8 @@ https://brickschema.org/schema/Brick#Illuminance,, https://brickschema.org/schema/Brick#Illuminance_Sensor,"Measures the total luminous flux incident on a surface, per unit area", https://brickschema.org/schema/Brick#Imbalance_Sensor,"A sensor which measures difference (imbalance) between phases of an electrical system", https://brickschema.org/schema/Brick#Information_Area,An information booth or kiosk where visitors would look for information, +https://brickschema.org/schema/Brick#Inside_Face_Surface_Temperature_Sensor,Measures the inside surface (relative to the space) of the radiant panel of the radiant heating and cooling HVAC system., +https://brickschema.org/schema/Brick#Inside_Face_Surface_Temperature_Setpoint,Sets temperature for the inside face surface temperature of the radiant panel., https://brickschema.org/schema/Brick#Intake_Air_Filter,Filters air intake, https://brickschema.org/schema/Brick#Intake_Air_Temperature_Sensor,Measures air at the interface between the building and the outside, https://brickschema.org/schema/Brick#Integral_Gain_Parameter,, @@ -690,6 +702,8 @@ https://brickschema.org/schema/Brick#Outside_Air_Temperature_Sensor,Measures the https://brickschema.org/schema/Brick#Outside_Air_Temperature_Setpoint,Sets temperature of outside air, https://brickschema.org/schema/Brick#Outside_Air_Wet_Bulb_Temperature_Sensor,A sensor measuring the wet-bulb temperature of outside air, https://brickschema.org/schema/Brick#Outside_Damper,A damper that modulates the flow of outside air, +https://brickschema.org/schema/Brick#Outside_Face_Surface_Temperature_Sensor,Measures the outside surface (relative to the space) of the radiant panel of a radiant heating and cooling HVAC system., +https://brickschema.org/schema/Brick#Outside_Face_Surface_Temperature_Setpoint,Sets temperature for the outside face surface temperature of the radiant panel., https://brickschema.org/schema/Brick#Outside_Illuminance_Sensor,"Measures the total luminous flux incident on an outside, per unit area", https://brickschema.org/schema/Brick#Overload_Alarm,An alarm that can indicate when a full-load current is exceeded., https://brickschema.org/schema/Brick#Overridden_Off_Status,"Indicates if a control loop, relay or equipment has been turned off when it would otherwise be scheduled to be on", @@ -760,6 +774,8 @@ https://brickschema.org/schema/Brick#RVAV,See Variable_Air_Volume_Box_With_Rehea https://brickschema.org/schema/Brick#Radiance,, https://brickschema.org/schema/Brick#Radiant_Ceiling_Panel,Radiant panel heating and cooling system that are usually made from metal and suspended under the ceiling or insulated from the building structure.,https://www.rehva.eu/eshop/detail/no07-low-temperature-heating-and-high-temperature-cooling https://brickschema.org/schema/Brick#Radiant_Panel,A temperature-controlled surface that provides fifty percent (50%) or more of the design heat transfer by thermal radiation.,https://en.wikipedia.org/wiki/Radiant_heating_and_cooling +https://brickschema.org/schema/Brick#Radiant_Panel_Temperature_Sensor,Measures the temperature of the radiant panel of the radiant heating and cooling HVAC system., +https://brickschema.org/schema/Brick#Radiant_Panel_Temperature_Setpoint,Sets temperature of radiant panel., https://brickschema.org/schema/Brick#Radiant_Temperature,the uniform temperature of an imaginary enclosure in which the radiant heat transfer from the human body is equal to the radiant heat transfer in the actual non-uniform enclosure. (https://en.wikipedia.org/wiki/Mean_radiant_temperature), https://brickschema.org/schema/Brick#Radiator,Heat exchangers designed to transfer thermal energy from one medium to another, https://brickschema.org/schema/Brick#Rain_Duration_Sensor,Measures the duration of precipitation within some time frame, @@ -788,6 +804,7 @@ https://brickschema.org/schema/Brick#Return_Air_CO_Sensor,Measures the concentra https://brickschema.org/schema/Brick#Return_Air_CO2_Setpoint,Sets some property of CO2 in Return Air, https://brickschema.org/schema/Brick#Return_Air_Dewpoint_Sensor,Senses the dewpoint temperature of return air, https://brickschema.org/schema/Brick#Return_Air_Differential_Pressure_Sensor,Measures the difference in pressure between the return and supply side, +https://brickschema.org/schema/Brick#Return_Air_Differential_Pressure_Setpoint,Sets the target air differential pressure between an upstream and downstream point in a return air duct or conduit, https://brickschema.org/schema/Brick#Return_Air_Enthalpy_Sensor,Measures the total heat content of return air, https://brickschema.org/schema/Brick#Return_Air_Filter,Filters return air, https://brickschema.org/schema/Brick#Return_Air_Flow_Sensor,Measures the rate of flow of return air, @@ -800,6 +817,7 @@ https://brickschema.org/schema/Brick#Return_Air_Temperature_High_Reset_Setpoint, https://brickschema.org/schema/Brick#Return_Air_Temperature_Low_Reset_Setpoint,, https://brickschema.org/schema/Brick#Return_Air_Temperature_Sensor,Measures the temperature of return air, https://brickschema.org/schema/Brick#Return_Air_Temperature_Setpoint,"The target temperature for return air, often used as an approximation of zone air temperature", +https://brickschema.org/schema/Brick#Return_Chilled_Water_Temperature_Setpoint,Sets the temperature of return (downstream of the chilled water load) chilled water, https://brickschema.org/schema/Brick#Return_Condenser_Water,"In a condenser water loop, this is water being brought away from the condenser side of a heat-rejection device (e.g. chiller). It is the 'warm' side.", https://brickschema.org/schema/Brick#Return_Condenser_Water_Flow_Sensor,Measures the flow of the return condenser water, https://brickschema.org/schema/Brick#Return_Condenser_Water_Temperature_Sensor,Measures the temperature of the return condenser water, @@ -807,9 +825,10 @@ https://brickschema.org/schema/Brick#Return_Damper,A damper that modulates the f https://brickschema.org/schema/Brick#Return_Fan,Fan moving return air -- air that is circulated from the building back into the HVAC system, https://brickschema.org/schema/Brick#Return_Heating_Valve,A valve installed on the return side of a heat exchanger, https://brickschema.org/schema/Brick#Return_Hot_Water,, -https://brickschema.org/schema/Brick#Return_Hot_Water_Temperature_Setpoint,, -https://brickschema.org/schema/Brick#Return_Water,, +https://brickschema.org/schema/Brick#Return_Hot_Water_Temperature_Setpoint,Sets the temperature of return (downstream of the hot water load) hot water, +https://brickschema.org/schema/Brick#Return_Water,The water is a system after it is used in a heat transfer cycle, https://brickschema.org/schema/Brick#Return_Water_Temperature_Sensor,Measures the temperature of return water, +https://brickschema.org/schema/Brick#Return_Water_Temperature_Setpoint,Sets the temperature of return water, https://brickschema.org/schema/Brick#Riser,"A vertical shaft indented for installing building infrastructure e.g., electrical wire, network communication wire, plumbing, etc", https://brickschema.org/schema/Brick#Rooftop_Unit,"Packaged air conditioner mounted on a roof, the conditioned air being discharged directly into the rooms below or through a duct system.", https://brickschema.org/schema/Brick#Room,Base class for all more specific room types., @@ -878,6 +897,8 @@ https://brickschema.org/schema/Brick#Storage_Room,A class of spaces used for sto https://brickschema.org/schema/Brick#Studio,"A room used for the production or media, usually with either a specialized set or a specialized sound booth for recording", https://brickschema.org/schema/Brick#Substance,, https://brickschema.org/schema/Brick#Supply_Air,"(1) air delivered by mechanical or natural ventilation to a space, composed of any combination of outdoor air, recirculated air, or transfer air. (2) air entering a space from an air-conditioning, heating, or ventilating apparatus for the purpose of comfort conditioning. Supply air is generally filtered, fan forced, and either heated, cooled, humidified, or dehumidified as necessary to maintain specified conditions. Only the quantity of outdoor air within the supply airflow may be used as replacement air.", +https://brickschema.org/schema/Brick#Supply_Air_Differential_Pressure_Sensor,Measures the difference in pressure between an upstream and downstream of an air duct or other air conduit used to supply air into the building, +https://brickschema.org/schema/Brick#Supply_Air_Differential_Pressure_Setpoint,Sets the target air differential pressure between an upstream and downstream point in a supply air duct or conduit, https://brickschema.org/schema/Brick#Supply_Air_Duct_Pressure_Status,Indicates if air pressure in supply duct is within expected bounds, https://brickschema.org/schema/Brick#Supply_Air_Flow_Demand_Setpoint,Sets the rate of supply air flow required for a process, https://brickschema.org/schema/Brick#Supply_Air_Flow_Sensor,Measures the rate of flow of supply air, @@ -1004,6 +1025,9 @@ https://brickschema.org/schema/Brick#Warmest_Zone_Air_Temperature_Sensor,The zon https://brickschema.org/schema/Brick#Waste_Storage,A room used for storing waste such as trash or recycling, https://brickschema.org/schema/Brick#Water,"transparent, odorless, tasteless liquid; a compound of hydrogen and oxygen (H2O), containing 11.188% hydrogen and 88.812% oxygen by mass; freezing at 32°F (0°C); boiling near 212°F (100°C).", https://brickschema.org/schema/Brick#Water_Alarm,"Alarm that indicates an undesirable event with a pipe, container, or equipment carrying water e.g. water leak", +https://brickschema.org/schema/Brick#Water_Differential_Pressure_Setpoint,Sets the target water differential pressure between an upstream and downstream point in a water pipe or conduit, +https://brickschema.org/schema/Brick#Water_Differential_Temperature_Sensor,Measures the difference in water temperature between an upstream and downstream point in a pipe or conduit, +https://brickschema.org/schema/Brick#Water_Differential_Temperature_Setpoint,Sets the target differential temperature between the start and end of a heat transfer cycle in a water circuit, https://brickschema.org/schema/Brick#Water_Distribution,Utilize a water distribution source to represent how water is distributed across multiple destinations (pipes), https://brickschema.org/schema/Brick#Water_Flow_Sensor,Measures the rate of flow of water, https://brickschema.org/schema/Brick#Water_Flow_Setpoint,Sets the target flow rate of water, @@ -1041,7 +1065,6 @@ https://brickschema.org/schema/Brick#Zone_Air_Temperature_Sensor,Measures the te https://brickschema.org/schema/Brick#Zone_Air_Temperature_Setpoint,Sets temperature of zone air, https://brickschema.org/schema/Brick#Zone_Standby_Load_Shed_Command,, https://brickschema.org/schema/Brick#Zone_Unoccupied_Load_Shed_Command,, -https://brickschema.org/schema/Brick#controls,, https://brickschema.org/schema/Brick#feeds,The subject is upstream of the object in the context of some sequential process; some media is passed between them, https://brickschema.org/schema/Brick#feedsAir,Passes air, https://brickschema.org/schema/Brick#hasAddress,To specify the address of a building., @@ -1056,7 +1079,6 @@ https://brickschema.org/schema/Brick#hasTag,The subject has the given tag, https://brickschema.org/schema/Brick#hasTimeseriesId,The unique identifier (primary key) for this TimeseriesReference in some database, https://brickschema.org/schema/Brick#hasUnit,The QUDT unit associated with this Brick entity (usually a Brick Point instance or Entity Property), https://brickschema.org/schema/Brick#isAssociatedWith,The tag is associated with the given class, -https://brickschema.org/schema/Brick#isControlledBy,, https://brickschema.org/schema/Brick#isFedBy,, https://brickschema.org/schema/Brick#isLocationOf,Subject is the physical location encapsulating the object, https://brickschema.org/schema/Brick#isMeasuredBy,, diff --git a/bricksrc/entity_properties.py b/bricksrc/entity_properties.py index d5b6ca10..d3ca7307 100644 --- a/bricksrc/entity_properties.py +++ b/bricksrc/entity_properties.py @@ -2,7 +2,7 @@ Entity property definitions """ from rdflib import Literal -from .namespaces import BRICK, RDFS, SKOS, UNIT, XSD, SH +from .namespaces import BRICK, RDFS, SKOS, UNIT, XSD, SH, BSH, QUDT # these are the "relationship"/predicates/OWL properties that # relate a Brick entity to a structured value. @@ -143,18 +143,18 @@ RDFS.range: BRICK.YearBuiltShape, RDFS.seeAlso: Literal("https://project-haystack.org/tag/yearBuilt"), }, - BRICK.thermalTransmittence: { + BRICK.thermalTransmittance: { SKOS.definition: Literal( "The area-weighted average heat transfer coefficient (commonly referred to as a U-value)" ), - RDFS.range: BRICK.ThermalTransmittenceShape, + RDFS.range: BRICK.ThermalTransmittanceShape, RDFS.seeAlso: Literal( "https://www.iso.org/obp/ui/#iso:std:iso:13789:ed-3:v1:en" ), "subproperties": { - BRICK.buildingThermalTransmittence: { + BRICK.buildingThermalTransmittance: { RDFS.domain: BRICK.Building, - RDFS.range: BRICK.ThermalTransmittenceShape, + RDFS.range: BRICK.ThermalTransmittanceShape, SKOS.definition: Literal( "The area-weighted average heat transfer coefficient (commonly referred to as a U-value) for a building envelope" ), @@ -265,8 +265,8 @@ # These are the shapes that govern what values of Entity Properties should look like shape_properties = { - BRICK.AreaShape: {"units": [UNIT.FT2, UNIT.M2], "datatype": XSD.double}, - BRICK.VolumeShape: {"units": [UNIT.FT3, UNIT.M3], "datatype": XSD.double}, + BRICK.AreaShape: {"units": [UNIT.FT2, UNIT.M2], "datatype": BSH.NumericValue}, + BRICK.VolumeShape: {"units": [UNIT.FT3, UNIT.M3], "datatype": BSH.NumericValue}, BRICK.PowerComplexityShape: {"values": ["real", "reactive", "apparent"]}, BRICK.PowerFlowShape: {"values": ["import", "export", "net", "absolute"]}, BRICK.PhasesShape: {"values": ["A", "B", "C", "AB", "BC", "AC", "ABC"]}, @@ -276,31 +276,34 @@ BRICK.BuildingPrimaryFunctionShape: {"values": building_primary_function_values}, BRICK.CoordinateShape: { "properties": { - BRICK.latitude: {"datatype": XSD.double}, - BRICK.longitude: {"datatype": XSD.double}, + BRICK.latitude: {"datatype": BSH.NumericValue}, + BRICK.longitude: {"datatype": BSH.NumericValue}, }, }, - BRICK.TiltShape: {"units": [UNIT.DEG], "datatype": XSD.double}, - BRICK.TemperatureShape: {"units": [UNIT.DEG_C, UNIT.DEG_F], "datatype": XSD.double}, + BRICK.TiltShape: {"unitsFromQuantity": BRICK.Angle, "datatype": BSH.NumericValue}, + BRICK.TemperatureShape: { + "unitsFromQuantity": BRICK.Temperature, + "datatype": BSH.NumericValue, + }, BRICK.TemperatureCoefficientPerDegreeCelsiusShape: { "units": [UNIT.PERCENT], - "datatype": XSD.double, + "datatype": BSH.NumericValue, }, BRICK.AzimuthShape: { - "units": [UNIT.DEG], - "datatype": XSD.double, + "unitsFromQuantity": BRICK.Angle, + "datatype": BSH.NumericValue, "rotationalDirection": {"values": ["clockwise", "counterclockwise"]}, "referenceDirection": {"values": ["North", "South", "East", "West"]}, "range": {"minInclusive": 0, "maxInclusive": 360}, }, - BRICK.YearBuiltShape: {"datatype": XSD.integer}, - BRICK.ThermalTransmittenceShape: { - "datatype": XSD.double, + BRICK.YearBuiltShape: {"datatype": XSD.nonNegativeInteger}, + BRICK.ThermalTransmittanceShape: { + "datatype": BSH.NumericValue, "units": [UNIT.BTU_IT, UNIT["W-PER-M2-K"]], }, BRICK.PowerOutputShape: { - "datatype": XSD.double, - "units": [UNIT.KiloW, UNIT.W, UNIT.MegaW], + "datatype": BSH.NumericValue, + "unitsFromQuantity": BRICK.Power, "properties": { BRICK.ambientTemperatureOfMeasurement: { "optional": True, @@ -312,12 +315,12 @@ }, }, BRICK.EfficiencyShape: { - "datatype": XSD.decimal, + "datatype": BSH.NumericValue, "units": [UNIT.PERCENT], "range": {"minInclusive": 0}, }, BRICK.CoolingCapacityShape: { - "datatype": XSD.double, + "datatype": BSH.NumericValue, "units": [UNIT.TON_FG, UNIT["BTU_IT-PER-HR"], UNIT["BTU_TH-PER-HR"], UNIT.W], }, BRICK.AggregationShape: { diff --git a/bricksrc/location.py b/bricksrc/location.py index cd988a7b..93b6bbec 100644 --- a/bricksrc/location.py +++ b/bricksrc/location.py @@ -87,6 +87,7 @@ "subclasses": { "Majlis": { "tags": [ + TAG.Majlis, TAG.Lounge, TAG.Common, TAG.Space, @@ -219,7 +220,7 @@ "tags": [TAG.Massage, TAG.Room, TAG.Space, TAG.Location] }, "Media_Room": { - "tags": [TAG.Massage, TAG.Room, TAG.Space, TAG.Location], + "tags": [TAG.Media, TAG.Room, TAG.Space, TAG.Location], "subclasses": { "Broadcast_Room": { "tags": [ diff --git a/bricksrc/properties.py b/bricksrc/properties.py index 8fea9aee..73b42303 100644 --- a/bricksrc/properties.py +++ b/bricksrc/properties.py @@ -26,14 +26,6 @@ A: [OWL.AsymmetricProperty, OWL.IrreflexiveProperty], RDFS.range: BRICK.Substance, }, - "controls": { - A: [OWL.AsymmetricProperty, OWL.IrreflexiveProperty], - OWL.inverseOf: BRICK["isControlledBy"], - }, - "isControlledBy": { - A: [OWL.AsymmetricProperty, OWL.IrreflexiveProperty], - OWL.inverseOf: BRICK["controls"], - }, "feeds": { A: [OWL.AsymmetricProperty, OWL.IrreflexiveProperty], OWL.inverseOf: BRICK["isFedBy"], diff --git a/bricksrc/quantities.py b/bricksrc/quantities.py index 37d95c66..662408d0 100644 --- a/bricksrc/quantities.py +++ b/bricksrc/quantities.py @@ -579,6 +579,19 @@ def get_units(qudt_quantity): BRICK.hasQUDTReference: QUDTQK["AtmosphericPressure"] }, "Dynamic_Pressure": {}, + "Differential_Pressure": { + QUDT.isDeltaQuantity: Literal(True), + SKOS.narrower: { + "Differential_Static_Pressure": { + BRICK.hasQUDTReference: QUDTQK["StaticPressure"], + QUDT.isDeltaQuantity: Literal(True), + }, + "Differential_Dynamic_Pressure": { + BRICK.hasQUDTReference: QUDTQK["DynamicPressure"], + QUDT.isDeltaQuantity: Literal(True), + }, + }, + }, "Static_Pressure": { BRICK.hasQUDTReference: QUDTQK["StaticPressure"], SKOS.narrower: { @@ -593,6 +606,12 @@ def get_units(qudt_quantity): QUDTQK["DynamicPressure"], BRICK["Dynamic_Pressure"], ], + SKOS.narrower: { + "Differential_Dynamic_Pressure": { + BRICK.hasQUDTReference: QUDTQK["DynamicPressure"], + QUDT.isDeltaQuantity: Literal(True), + }, + } }, }, }, @@ -636,10 +655,10 @@ def get_units(qudt_quantity): }, }, "Temperature": { - BRICK.hasQUDTReference: QUDTQK["ThermodynamicTemperature"], + BRICK.hasQUDTReference: QUDTQK["Temperature"], SKOS.narrower: { "Differential_Temperature": { - BRICK.hasQUDTReference: QUDTQK["ThermodynamicTemperature"], + BRICK.hasQUDTReference: QUDTQK["Temperature"], QUDT.isDeltaQuantity: Literal(True), }, "Operative_Temperature": { @@ -650,7 +669,7 @@ def get_units(qudt_quantity): QUDT.hasDimensionVector: QUDTDV["A0E0L0I0M0H1T0D0"], RDFS.isDefinedBy: URIRef(str(BRICK).strip("#")), RDFS.label: Literal("Operative_Temperature"), - SKOS.broader: QUDTQK.ThermodynamicTemperature, + SKOS.broader: QUDTQK.Temperature, }, "Radiant_Temperature": { QUDT.applicableUnit: [UNIT["DEG_F"], UNIT["DEG_C"], UNIT["K"]], @@ -660,7 +679,7 @@ def get_units(qudt_quantity): QUDT.hasDimensionVector: QUDTDV["A0E0L0I0M0H1T0D0"], RDFS.isDefinedBy: URIRef(str(BRICK).strip("#")), RDFS.label: Literal("Radiant_Temperature"), - SKOS.broader: QUDTQK.ThermodynamicTemperature, + SKOS.broader: QUDTQK.Temperature, }, "Dry_Bulb_Temperature": { QUDT.applicableUnit: [UNIT["DEG_F"], UNIT["DEG_C"], UNIT["K"]], @@ -670,7 +689,7 @@ def get_units(qudt_quantity): QUDT.hasDimensionVector: QUDTDV["A0E0L0I0M0H1T0D0"], RDFS.isDefinedBy: URIRef(str(BRICK).strip("#")), RDFS.label: Literal("Dry_Bulb_Temperature"), - SKOS.broader: QUDTQK.ThermodynamicTemperature, + SKOS.broader: QUDTQK.Temperature, SKOS.narrower: { "Differential_Dry_Bulb_Temperature": { BRICK.hasQUDTReference: QUDTQK["Dry_Bulb_Temperature"], @@ -686,7 +705,7 @@ def get_units(qudt_quantity): QUDT.hasDimensionVector: QUDTDV["A0E0L0I0M0H1T0D0"], RDFS.isDefinedBy: URIRef(str(BRICK).strip("#")), RDFS.label: Literal("Wet_Bulb_Temperature"), - SKOS.broader: QUDTQK.ThermodynamicTemperature, + SKOS.broader: QUDTQK.Temperature, }, }, }, diff --git a/bricksrc/sensor.py b/bricksrc/sensor.py index 5d2ff091..891a5e4a 100644 --- a/bricksrc/sensor.py +++ b/bricksrc/sensor.py @@ -1163,15 +1163,13 @@ "subclasses": { "Differential_Pressure_Sensor": { "tags": [TAG.Point, TAG.Sensor, TAG.Pressure, TAG.Differential], - "substances": [ - [BRICK.measures, BRICK.Differential_Static_Pressure] - ], + "substances": [[BRICK.measures, BRICK.Differential_Pressure]], "subclasses": { "Air_Differential_Pressure_Sensor": { "substances": [ [ BRICK.measures, - BRICK.Differential_Static_Pressure, + BRICK.Differential_Pressure, ], [BRICK.measures, BRICK.Air], ], @@ -1183,11 +1181,28 @@ TAG.Differential, ], "subclasses": { + "Exhaust_Air_Differential_Pressure_Sensor": { + "substances": [ + [ + BRICK.measures, + BRICK.Differential_Pressure, + ], + [BRICK.measures, BRICK.Exhaust_Air], + ], + "tags": [ + TAG.Point, + TAG.Exhaust, + TAG.Air, + TAG.Sensor, + TAG.Pressure, + TAG.Differential, + ], + }, "Return_Air_Differential_Pressure_Sensor": { "substances": [ [ BRICK.measures, - BRICK.Differential_Static_Pressure, + BRICK.Differential_Pressure, ], [BRICK.measures, BRICK.Return_Air], ], @@ -1200,6 +1215,23 @@ TAG.Differential, ], }, + "Supply_Air_Differential_Pressure_Sensor": { + "substances": [ + [ + BRICK.measures, + BRICK.Differential_Pressure, + ], + [BRICK.measures, BRICK.Supply_Air], + ], + "tags": [ + TAG.Point, + TAG.Supply, + TAG.Air, + TAG.Sensor, + TAG.Pressure, + TAG.Differential, + ], + }, }, }, "Chilled_Water_Differential_Pressure_Sensor": { @@ -1214,7 +1246,7 @@ "substances": [ [ BRICK.measures, - BRICK.Differential_Static_Pressure, + BRICK.Differential_Pressure, ], [BRICK.measures, BRICK.Chilled_Water], ], @@ -1240,7 +1272,7 @@ "substances": [ [ BRICK.measures, - BRICK.Differential_Static_Pressure, + BRICK.Differential_Pressure, ], [BRICK.measures, BRICK.Hot_Water], ], @@ -1813,6 +1845,58 @@ }, }, }, + "Radiant_Panel_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Sensor, + TAG.Temperature, + TAG.Radiant, + TAG.Panel, + ], + "constraints": { + BRICK.isPointOf: [BRICK.Radiant_Panel], + }, + "subclasses": { + "Inside_Face_Surface_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Inside, + TAG.Face, + TAG.Surface, + TAG.Temperature, + TAG.Sensor, + ], + }, + "Outside_Face_Surface_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Outside, + TAG.Face, + TAG.Surface, + TAG.Temperature, + TAG.Sensor, + ], + }, + "Embedded_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Embedded, + TAG.Temperature, + TAG.Sensor, + ], + "subclasses": { + "Core_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Core, + TAG.Temperature, + TAG.Sensor, + ], + }, + }, + }, + }, + }, "Water_Temperature_Sensor": { "tags": [TAG.Point, TAG.Sensor, TAG.Temperature, TAG.Water], "substances": [ @@ -1820,6 +1904,19 @@ [BRICK.measures, BRICK.Water], ], "subclasses": { + "Water_Differential_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Water, + TAG.Differential, + TAG.Temperature, + TAG.Sensor, + ], + "substances": [ + [BRICK.measures, BRICK.Differential_Temperature], + [BRICK.measures, BRICK.Water], + ], + }, "Heat_Exchanger_Supply_Water_Temperature_Sensor": { "tags": [ TAG.Point, @@ -1845,6 +1942,19 @@ [BRICK.measures, BRICK.Supply_Hot_Water], ], "subclasses": { + "Hot_Water_Differential_Temperature_Sensor": { + "tags": [ + TAG.Point, + TAG.Hot, + TAG.Water, + TAG.Differential, + TAG.Temperature, + TAG.Sensor, + ], + "parents": [ + BRICK.Water_Differential_Temperature_Sensor + ], + }, "Domestic_Hot_Water_Supply_Temperature_Sensor": { "tags": [ TAG.Point, @@ -1911,6 +2021,9 @@ TAG.Temperature, TAG.Sensor, ], + "parents": [ + BRICK.Water_Differential_Temperature_Sensor + ], }, "Chilled_Water_Supply_Temperature_Sensor": { "tags": [ @@ -2066,6 +2179,9 @@ TAG.Temperature, TAG.Sensor, ], + "parents": [ + BRICK.Water_Differential_Temperature_Sensor + ], }, }, }, diff --git a/bricksrc/setpoint.py b/bricksrc/setpoint.py index 6317e6f3..5c8f434d 100644 --- a/bricksrc/setpoint.py +++ b/bricksrc/setpoint.py @@ -850,25 +850,91 @@ "subclasses": { "Differential_Pressure_Setpoint": { "subclasses": { - "Chilled_Water_Differential_Pressure_Setpoint": { + "Air_Differential_Pressure_Setpoint": { "tags": [ TAG.Point, - TAG.Chilled, - TAG.Water, + TAG.Air, TAG.Differential, TAG.Pressure, TAG.Setpoint, ], + "subclasses": { + "Exhaust_Air_Differential_Pressure_Setpoint": { + "tags": [ + TAG.Point, + TAG.Exhaust, + TAG.Air, + TAG.Setpoint, + TAG.Pressure, + TAG.Differential, + ], + }, + "Return_Air_Differential_Pressure_Setpoint": { + "tags": [ + TAG.Point, + TAG.Return, + TAG.Air, + TAG.Setpoint, + TAG.Pressure, + TAG.Differential, + ], + }, + "Supply_Air_Differential_Pressure_Setpoint": { + "tags": [ + TAG.Point, + TAG.Supply, + TAG.Air, + TAG.Setpoint, + TAG.Pressure, + TAG.Differential, + ], + }, + }, }, - "Hot_Water_Differential_Pressure_Setpoint": { + "Water_Differential_Pressure_Setpoint": { "tags": [ TAG.Point, - TAG.Hot, TAG.Water, TAG.Differential, TAG.Pressure, TAG.Setpoint, ], + "subclasses": { + "Chilled_Water_Differential_Pressure_Setpoint": { + "tags": [ + TAG.Point, + TAG.Chilled, + TAG.Water, + TAG.Differential, + TAG.Pressure, + TAG.Setpoint, + ], + }, + "Hot_Water_Differential_Pressure_Setpoint": { + "tags": [ + TAG.Point, + TAG.Hot, + TAG.Water, + TAG.Differential, + TAG.Pressure, + TAG.Setpoint, + ], + "subclasses": { + "Medium_Temperature_Hot_Water_Differential_Pressure_Setpoint": { + "tags": [ + TAG.Point, + TAG.Medium, + TAG.Temperature, + TAG.Hot, + TAG.Water, + TAG.Differential, + TAG.Pressure, + TAG.Setpoint, + ], + }, + }, + }, + }, }, "Load_Shed_Differential_Pressure_Setpoint": { "parents": [BRICK.Load_Shed_Setpoint], @@ -1793,6 +1859,55 @@ TAG.Schedule, ], }, + "Radiant_Panel_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Radiant, + TAG.Panel, + TAG.Temperature, + TAG.Setpoint, + ], + "subclasses": { + "Inside_Face_Surface_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Inside, + TAG.Face, + TAG.Surface, + TAG.Temperature, + TAG.Setpoint, + ], + }, + "Outside_Face_Surface_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Outside, + TAG.Face, + TAG.Surface, + TAG.Temperature, + TAG.Setpoint, + ], + }, + "Embedded_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Embedded, + TAG.Temperature, + TAG.Setpoint, + ], + "subclasses": { + "Core_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Core, + TAG.Temperature, + TAG.Setpoint, + ], + }, + }, + }, + }, + }, "Water_Temperature_Setpoint": { "subclasses": { "Domestic_Hot_Water_Temperature_Setpoint": { @@ -1804,6 +1919,7 @@ TAG.Temperature, TAG.Setpoint, ], + "parents": [BRICK.Hot_Water_Temperature_Setpoint], "subclasses": { "Domestic_Hot_Water_Supply_Temperature_Setpoint": { "tags": [ @@ -1821,15 +1937,69 @@ } }, }, - "Return_Hot_Water_Temperature_Setpoint": { + "Water_Differential_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Water, + TAG.Differential, + TAG.Temperature, + TAG.Setpoint, + ], + }, + "Chilled_Water_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Chilled, + TAG.Water, + TAG.Temperature, + TAG.Setpoint, + ], + }, + "Hot_Water_Temperature_Setpoint": { "tags": [ TAG.Point, TAG.Hot, TAG.Water, TAG.Temperature, TAG.Setpoint, + ], + }, + "Return_Water_Temperature_Setpoint": { + "tags": [ + TAG.Point, TAG.Return, + TAG.Water, + TAG.Temperature, + TAG.Setpoint, ], + "subclasses": { + "Return_Hot_Water_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Hot, + TAG.Water, + TAG.Temperature, + TAG.Setpoint, + TAG.Return, + ], + "parents": [ + BRICK.Hot_Water_Temperature_Setpoint + ], + }, + "Return_Chilled_Water_Temperature_Setpoint": { + "tags": [ + TAG.Point, + TAG.Return, + TAG.Chilled, + TAG.Water, + TAG.Temperature, + TAG.Setpoint, + ], + "parents": [ + BRICK.Chilled_Water_Temperature_Setpoint + ], + }, + }, }, "Discharge_Water_Temperature_Setpoint": { "tags": [ @@ -1858,6 +2028,9 @@ TAG.Setpoint, TAG.Hot, ], + "parents": [ + BRICK.Hot_Water_Temperature_Setpoint + ], }, "Supply_Chilled_Water_Temperature_Setpoint": { "tags": [ @@ -1868,6 +2041,9 @@ TAG.Setpoint, TAG.Chilled, ], + "parents": [ + BRICK.Chilled_Water_Temperature_Setpoint + ], }, "Supply_Condenser_Water_Temperature_Setpoint": { "tags": [ diff --git a/bricksrc/types.ttl b/bricksrc/types.ttl new file mode 100644 index 00000000..dab437a3 --- /dev/null +++ b/bricksrc/types.ttl @@ -0,0 +1,16 @@ +@prefix bsh: . +@prefix rdf: . +@prefix sh: . +@prefix xsd: . + + +bsh:NumericValue a rdf:List ; + rdf:first [ + sh:datatype xsd:float + ] ; + rdf:rest ( + [ sh:datatype xsd:decimal ] + [ sh:datatype xsd:integer ] + [ sh:datatype xsd:double ] + ) +. diff --git a/bricksrc/version.py b/bricksrc/version.py index fd2aec69..84b98ac2 100644 --- a/bricksrc/version.py +++ b/bricksrc/version.py @@ -7,7 +7,7 @@ # Patch version: increment for minor additions/changes to the ontology that # are largely backwards compatible (bug-fixes exempted) -BRICK_PATCH_VERSION = 0 +BRICK_PATCH_VERSION = 1 # the simplified (no patch version) version number for Brick. Intended for # inclusion in the Brick namespace URI diff --git a/generate_brick.py b/generate_brick.py index 760a0053..df64a8bb 100755 --- a/generate_brick.py +++ b/generate_brick.py @@ -73,6 +73,13 @@ def add_properties(item, propdefs): G.add((item, propname, propval)) +def units_for_quantity(quantity): + """ + Given a Brick Quantity (the full URI), returns the list of applicable units + """ + return list(G.objects(subject=quantity, predicate=QUDT.applicableUnit)) + + def add_restriction(klass, definition): """ Defines OWL.Restrictions linked to Brick classes @@ -229,7 +236,8 @@ def define_concept_hierarchy(definitions, typeclasses, broader=None, related=Non G.add((concept, SKOS.related, related)) # add label class_label = concept.split("#")[-1].replace("_", " ") - G.add((concept, RDFS.label, Literal(class_label))) + if not G.objects(concept, RDFS.label): + G.add((concept, RDFS.label, Literal(class_label))) # define mapping to substances + quantities if it exists # "substances" property is a list of (predicate, object) pairs @@ -285,7 +293,9 @@ def define_classes(definitions, parent, pun_classes=False): G.add((classname, RDFS.subClassOf, parent)) # add label class_label = classname.split("#")[-1].replace("_", " ") - G.add((classname, RDFS.label, Literal(class_label))) + + if not G.objects(classname, RDFS.label): + G.add((classname, RDFS.label, Literal(class_label))) if pun_classes: G.add((classname, A, classname)) @@ -389,6 +399,32 @@ def define_entity_properties(definitions, superprop=None): G.add((entprop, prop, values)) +def define_shape_property_property(shape_name, definitions): + for prop_name, prop_defn in definitions.items(): + ps = BNode() + G.add((shape_name, SH.property, ps)) + G.add((ps, A, SH.PropertyShape)) + G.add((ps, SH.path, prop_name)) + if "optional" in prop_defn: + if not prop_defn.pop("optional"): + G.add((ps, SH.minCount, Literal(1))) + else: + G.add((ps, SH.minCount, Literal(1))) + + if "datatype" in prop_defn: + dtype = prop_defn.pop("datatype") + if dtype == BSH.NumericValue: + G.add((ps, SH["or"], BSH.NumericValue)) + else: + G.add((ps, SH.datatype, dtype)) + elif "values" in prop_defn: + enumeration = BNode() + G.add((ps, SH["in"], enumeration)) + G.add((ps, SH.minCount, Literal(1))) + Collection(G, enumeration, map(Literal, prop_defn.pop("values"))) + add_properties(ps, prop_defn) + + def define_shape_properties(definitions): """ Defines the NodeShapes that govern what the values of @@ -396,6 +432,8 @@ def define_shape_properties(definitions): keys are: - values: defines the set of possible values of this property as an enumeration - units: verifies that the units of the value are one of the given enumeration. + - unitsFromQuantity: verifies that the units of the value are compatible with the units + for the given Brick quantity - datatype: specifies the expected kind of data type of prop:value - properties: defines other epected properties of the Shape. These properties can have 'datatype' or 'values', in addition to other standard properties like @@ -447,30 +485,27 @@ def define_shape_properties(definitions): G.add((ps, SH["in"], enumeration)) G.add((ps, SH.minCount, Literal(1))) Collection(G, enumeration, defn.pop("units")) + if "unitsFromQuantity" in defn: + ps = BNode() + enumeration = BNode() + G.add((shape_name, SH.property, ps)) + G.add((ps, A, SH.PropertyShape)) + G.add((ps, SH.path, BRICK.hasUnit)) + G.add((ps, SH["in"], enumeration)) + G.add((ps, SH.minCount, Literal(1))) + Collection(G, enumeration, units_for_quantity(defn.pop("unitsFromQuantity"))) if "properties" in defn: - for prop_name, prop_defn in defn.pop("properties").items(): - ps = BNode() - G.add((shape_name, SH.property, ps)) - G.add((ps, A, SH.PropertyShape)) - G.add((ps, SH.path, prop_name)) - if "optional" in prop_defn: - if not prop_defn.pop("optional"): - G.add((ps, SH.minCount, Literal(1))) - else: - G.add((ps, SH.minCount, Literal(1))) - if "datatype" in prop_defn: - G.add((ps, SH.datatype, prop_defn.pop("datatype"))) - elif "values" in prop_defn: - enumeration = BNode() - G.add((ps, SH["in"], enumeration)) - G.add((ps, SH.minCount, Literal(1))) - Collection(G, enumeration, map(Literal, prop_defn.pop("values"))) - add_properties(ps, prop_defn) + prop_defns = defn.pop("properties") + define_shape_property_property(shape_name, prop_defns) elif "datatype" in defn: G.add((shape_name, SH.property, v)) G.add((v, A, SH.PropertyShape)) G.add((v, SH.path, BRICK.value)) - G.add((v, SH.datatype, defn.pop("datatype"))) + dtype = defn.pop("datatype") + if dtype == BSH.NumericValue: + G.add((v, SH["or"], BSH.NumericValue)) + else: + G.add((v, SH.datatype, dtype)) G.add((v, SH.minCount, Literal(1))) if "range" in defn: for prop_name, prop_value in defn.pop("range").items(): @@ -662,14 +697,6 @@ def add_definitions(): G.add((BRICK.Substance, RDFS.subClassOf, BRICK.Measurable)) G.add((BRICK.Substance, A, OWL.Class)) -# entity property definitions -G.add((BRICK.value, A, OWL.DatatypeProperty)) -G.add((BRICK.value, SKOS.definition, Literal("The basic value of an entity property"))) -G.add((BRICK.EntityProperty, RDFS.subClassOf, OWL.ObjectProperty)) -G.add((BRICK.EntityProperty, A, OWL.Class)) -define_shape_properties(shape_properties) -define_entity_properties(entity_properties) - # define timeseries model define_timeseries_model(G) @@ -700,9 +727,18 @@ def add_definitions(): G.add((unit, A, UNIT.Unit)) if symb is not None: G.add((unit, QUDT.symbol, symb)) - if label is not None: + if label is not None and not G.objects(unit, RDFS.label): G.add((unit, RDFS.label, label)) + +# entity property definitions (must happen after units are defined) +G.add((BRICK.value, A, OWL.DatatypeProperty)) +G.add((BRICK.value, SKOS.definition, Literal("The basic value of an entity property"))) +G.add((BRICK.EntityProperty, RDFS.subClassOf, OWL.ObjectProperty)) +G.add((BRICK.EntityProperty, A, OWL.Class)) +define_shape_properties(shape_properties) +define_entity_properties(entity_properties) + logging.info("Adding class definitions") add_definitions() diff --git a/shacl/README.md b/shacl/README.md index e355b8d5..feb3b8f1 100644 --- a/shacl/README.md +++ b/shacl/README.md @@ -19,7 +19,6 @@ SHACL shapes for Brick should validate the following: - idioms, semantic checks: - these may be optional; users can "opt-in" to check for certain idioms - equipment along a chain of `brick:feeds` should all operate on the same substance - - proper relationships exist between equipment: e.g. thermostat should have `controls` relationship to RTU ## Use SHACL to validate Brick ontology diff --git a/support/SCHEMA_QUDT-v2.1.ttl b/support/SCHEMA_QUDT-v2.1.ttl index b4f96f4e..b5c9af91 100644 --- a/support/SCHEMA_QUDT-v2.1.ttl +++ b/support/SCHEMA_QUDT-v2.1.ttl @@ -1,10 +1,11 @@ # baseURI: http://qudt.org/2.1/schema/qudt +# imports: http://qudt.org/2.1/schema/extensions/imports # imports: http://www.linkedmodel.org/schema/dtype # imports: http://www.linkedmodel.org/schema/vaem # imports: http://www.w3.org/2004/02/skos/core @prefix dc: . -@prefix dct: . +@prefix dcterms: . @prefix dtype: . @prefix owl: . @prefix prov: . @@ -19,59 +20,58 @@ @prefix voag: . @prefix xsd: . -dct:abstract +dcterms:abstract a owl:AnnotationProperty ; - rdfs:isDefinedBy dct: ; + rdfs:isDefinedBy dcterms: ; rdfs:label "abstract" ; rdfs:range xsd:string ; . -dct:author - a rdf:Property ; - rdfs:range xsd:string ; -. -dct:contributor +dcterms:contributor a rdf:Property ; rdfs:label "contributor" ; rdfs:range xsd:string ; . -dct:created +dcterms:created a rdf:Property ; rdfs:label "created" ; rdfs:range xsd:date ; . -dct:creator +dcterms:creator a owl:AnnotationProperty ; rdfs:isDefinedBy ; rdfs:label "creator" ; rdfs:range xsd:string ; . -dct:description - a rdf:Property ; +dcterms:description a owl:AnnotationProperty ; rdfs:label "description" ; . -dct:modified +dcterms:isReplacedBy + a owl:ObjectProperty ; + rdfs:label "is replaced by" ; +. +dcterms:modified a rdf:Property ; rdfs:label "modified" ; rdfs:range xsd:date ; . -dct:rights +dcterms:rights a owl:AnnotationProperty ; rdfs:label "rights" ; rdfs:range xsd:string ; . -dct:source +dcterms:source a owl:AnnotationProperty ; - rdfs:isDefinedBy dct: ; + rdfs:isDefinedBy dcterms: ; rdfs:label "source" ; rdfs:range xsd:anyURI ; . -dct:subject +dcterms:subject a owl:AnnotationProperty ; rdfs:label "subject" ; rdfs:range xsd:string ; . -dct:title +dcterms:title a owl:AnnotationProperty ; rdfs:label "title" ; rdfs:range xsd:string ; @@ -80,12 +80,34 @@ dct:title a owl:Ontology ; vaem:hasGraphMetadata vaem:GMD_QUDT-SCHEMA ; rdfs:isDefinedBy ; - rdfs:label "QUDT Schema - Version 2.1.2" ; + rdfs:label "QUDT Schema - Version 2.1.12" ; + owl:imports ; owl:imports ; owl:imports ; owl:imports ; owl:versionIRI ; . +qudt:AbstractQuantityKind + a owl:Class ; + rdfs:isDefinedBy ; + rdfs:label "Quantity Kind (abstract)" ; + rdfs:subClassOf qudt:Concept ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:allValuesFrom qudt:QuantityKind ; + owl:onProperty skos:broader ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:minCardinality "0"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:latexSymbol ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:minCardinality "0"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:symbol ; + ] ; +. qudt:Aspect a qudt:AspectClass ; rdfs:comment "An aspect is an abstract type class that defines properties that can be reused."^^rdf:HTML ; @@ -129,50 +151,22 @@ qudt:BaseDimensionMagnitude owl:onProperty qudt:vectorMagnitude ; ] ; . -qudt:BaseUnit - a owl:Class ; - qudt:informativeReference "http://aurora.regenstrief.org/~ucum/ucum.html#section-Base-Units"^^xsd:anyURI ; - qudt:informativeReference "http://dbpedia.org/resource/Category:SI_base_units"^^xsd:anyURI ; - rdfs:comment "A Base Unit is a unit adopted by convention for a base quantity."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "Base Unit" ; - rdfs:subClassOf qudt:Unit ; -. qudt:BigEndian a qudt:EndianType ; dtype:literal "big" ; rdfs:isDefinedBy ; rdfs:label "Big Endian" ; . -qudt:BinaryPrefixUnit +qudt:BinaryPrefix a owl:Class ; - qudt:dbpediaMatch "http://dbpedia.org/resource/Binary_prefix"^^xsd:anyURI ; - qudt:informativeReference "https://en.wikipedia.org/wiki/Binary_prefix"^^xsd:anyURI ; - rdfs:comment "A Binary Prefix Unit is a unit prefix for multiples of units in data processing, data transmission, and digital information, notably the bit and the byte, to indicate multiplication by a power of 2."^^rdf:HTML ; + rdfs:comment "A Binary Prefix is a prefix for multiples of units in data processing, data transmission, and digital information, notably the bit and the byte, to indicate multiplication by a power of 2." ; rdfs:isDefinedBy ; - rdfs:label "Binary Prefix Unit" ; - rdfs:subClassOf qudt:PrefixUnit ; -. -qudt:BinaryScaledUnit - a owl:Class ; - rdfs:comment "A Binary Scaled Unit specifies a binary multipler for scaling."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "Binary scaled unit" ; - rdfs:subClassOf qudt:ScaledUnit ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:allValuesFrom qudt:BinaryPrefixUnit ; - owl:onProperty qudt:hasPrefixUnit ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:cardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:hasPrefixUnit ; - ] ; + rdfs:label "Binary Prefix" ; + rdfs:subClassOf qudt:Prefix ; . qudt:BitEncodingType a owl:Class ; - dct:description "A bit encoding is a correspondence between the two possible values of a bit, 0 or 1, and some interpretation. For example, in a boolean encoding, a bit denotes a truth value, where 0 corresponds to False and 1 corresponds to True." ; + dcterms:description "A bit encoding is a correspondence between the two possible values of a bit, 0 or 1, and some interpretation. For example, in a boolean encoding, a bit denotes a truth value, where 0 corresponds to False and 1 corresponds to True." ; rdfs:isDefinedBy ; rdfs:label "Bit Encoding" ; rdfs:subClassOf qudt:Encoding ; @@ -190,30 +184,14 @@ qudt:BooleanEncodingType . qudt:ByteEncodingType a owl:Class ; - dct:description "This class contains the various ways that information may be encoded into bytes." ; + dcterms:description "This class contains the various ways that information may be encoded into bytes." ; rdfs:isDefinedBy ; rdfs:label "Byte Encoding" ; rdfs:subClassOf qudt:Encoding ; . -qudt:CGS-Unit - a owl:Class ; - qudt:citation "http://scienceworld.wolfram.com/physics/cgs.html" ; - qudt:citation "https://en.wikipedia.org/wiki/Centimetre%E2%80%93gram%E2%80%93second_system_of_units" ; - qudt:citation "https://www.unc.edu/~rowlett/units/cgsmks.html" ; - rdfs:comment """

The C.G.S. System of Units defined four units of measure as a basic set from which all otherC.G.S units are derived. These are:

-
    -
  1. length: cm = centimetre;
    2. -
  2. mass: g = gram;
    3. -
  3. time: s = second;
    4. -
  4. luminous intensity: cd = candela, originally new candle.
    5. -
"""^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "CGS Unit" ; - rdfs:subClassOf qudt:NonSI-Unit ; -. qudt:CT_COUNTABLY-INFINITE a qudt:CardinalityType ; - dct:description "A set of numbers is called countably infinite if there is a way to enumerate them. Formally this is done with a bijection function that associates each number in the set with exactly one of the positive integers. The set of all fractions is also countably infinite. In other words, any set \\(X\\) that has the same cardinality as the set of the natural numbers, or \\(| X | \\; = \\; | \\mathbb N | \\; = \\; \\aleph0\\), is said to be a countably infinite set."^^qudt:LatexString ; + dcterms:description "A set of numbers is called countably infinite if there is a way to enumerate them. Formally this is done with a bijection function that associates each number in the set with exactly one of the positive integers. The set of all fractions is also countably infinite. In other words, any set \\(X\\) that has the same cardinality as the set of the natural numbers, or \\(| X | \\; = \\; | \\mathbb N | \\; = \\; \\aleph0\\), is said to be a countably infinite set."^^qudt:LatexString ; qudt:informativeReference "http://www.math.vanderbilt.edu/~schectex/courses/infinity.pdf"^^xsd:anyURI ; qudt:literal "countable" ; rdfs:isDefinedBy ; @@ -221,21 +199,21 @@ qudt:CT_COUNTABLY-INFINITE . qudt:CT_FINITE a qudt:CardinalityType ; - dct:description "Any set \\(X\\) with cardinality less than that of the natural numbers, or \\(| X | \\\\; < \\; | \\\\mathbb N | \\), is said to be a finite set."^^qudt:LatexString ; + dcterms:description "Any set \\(X\\) with cardinality less than that of the natural numbers, or \\(| X | \\\\; < \\; | \\\\mathbb N | \\), is said to be a finite set."^^qudt:LatexString ; qudt:literal "finite" ; rdfs:isDefinedBy ; rdfs:label "Finite Cardinality Type" ; . qudt:CT_UNCOUNTABLE a qudt:CardinalityType ; - dct:description "Any set with cardinality greater than that of the natural numbers, or \\(| X | \\; > \\; | \\mathbb N | \\), for example \\(| R| \\; = \\; c \\; > |\\mathbb N |\\), is said to be uncountable."^^qudt:LatexString ; + dcterms:description "Any set with cardinality greater than that of the natural numbers, or \\(| X | \\; > \\; | \\mathbb N | \\), for example \\(| R| \\; = \\; c \\; > |\\mathbb N |\\), is said to be uncountable."^^qudt:LatexString ; qudt:literal "uncountable" ; rdfs:isDefinedBy ; rdfs:label "Uncountable Cardinality Type" ; . qudt:CardinalityType a owl:Class ; - dct:description "In mathematics, the cardinality of a set is a measure of the number of elements of the set. For example, the set \\(A = {2, 4, 6}\\) contains 3 elements, and therefore \\(A\\) has a cardinality of 3. There are two approaches to cardinality – one which compares sets directly using bijections and injections, and another which uses cardinal numbers."^^qudt:LatexString ; + dcterms:description "In mathematics, the cardinality of a set is a measure of the number of elements of the set. For example, the set \\(A = {2, 4, 6}\\) contains 3 elements, and therefore \\(A\\) has a cardinality of 3. There are two approaches to cardinality – one which compares sets directly using bijections and injections, and another which uses cardinal numbers."^^qudt:LatexString ; qudt:informativeReference "http://en.wikipedia.org/wiki/Cardinal_number"^^xsd:anyURI ; qudt:informativeReference "http://en.wikipedia.org/wiki/Cardinality"^^xsd:anyURI ; qudt:plainTextDescription "In mathematics, the cardinality of a set is a measure of the number of elements of the set. For example, the set 'A = {2, 4, 6}' contains 3 elements, and therefore 'A' has a cardinality of 3. There are two approaches to cardinality – one which compares sets directly using bijections and injections, and another which uses cardinal numbers." ; @@ -257,7 +235,7 @@ qudt:CharEncoding . qudt:CharEncodingType a owl:Class ; - dct:description "The class of all character encoding schemes, each of which defines a rule or algorithm for encoding character data as a sequence of bits or bytes." ; + dcterms:description "The class of all character encoding schemes, each of which defines a rule or algorithm for encoding character data as a sequence of bits or bytes." ; rdfs:isDefinedBy ; rdfs:label "Char Encoding Type" ; rdfs:subClassOf qudt:Encoding ; @@ -288,7 +266,7 @@ qudt:Comment rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:int ; - owl:onProperty dct:description ; + owl:onProperty dcterms:description ; ] ; rdfs:subClassOf [ a owl:Restriction ; @@ -315,7 +293,7 @@ qudt:Concept rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:int ; - owl:onProperty dct:description ; + owl:onProperty dcterms:description ; ] ; rdfs:subClassOf [ a owl:Restriction ; @@ -356,7 +334,6 @@ qudt:CountingUnit rdfs:isDefinedBy ; rdfs:label "Counting Unit" ; rdfs:subClassOf qudt:DimensionlessUnit ; - rdfs:subClassOf qudt:ResourceUnit ; . qudt:CurrencyUnit a owl:Class ; @@ -365,8 +342,6 @@ qudt:CurrencyUnit rdfs:isDefinedBy ; rdfs:label "Currency Unit" ; rdfs:subClassOf qudt:DimensionlessUnit ; - rdfs:subClassOf qudt:ResourceUnit ; - rdfs:subClassOf qudt:Unit ; . qudt:DataEncoding a owl:Class ; @@ -402,7 +377,7 @@ qudt:DataEncoding . qudt:Datatype a owl:Class ; - dct:description "A data type is a definition of a set of values (for example, \"all integers between 0 and 10\"), and the allowable operations on those values; the meaning of the data; and the way values of that type can be stored. Some types are primitive - built-in to the language, with no visible internal structure - e.g. Boolean; others are composite - constructed from one or more other types (of either kind) - e.g. lists, arrays, structures, unions. Object-oriented programming extends this with classes which encapsulate both the structure of a type and the operations that can be performed on it. Some languages provide strong typing, others allow implicit type conversion and/or explicit type conversion." ; + dcterms:description "A data type is a definition of a set of values (for example, \"all integers between 0 and 10\"), and the allowable operations on those values; the meaning of the data; and the way values of that type can be stored. Some types are primitive - built-in to the language, with no visible internal structure - e.g. Boolean; others are composite - constructed from one or more other types (of either kind) - e.g. lists, arrays, structures, unions. Object-oriented programming extends this with classes which encapsulate both the structure of a type and the operations that can be performed on it. Some languages provide strong typing, others allow implicit type conversion and/or explicit type conversion." ; qudt:informativeReference "http://en.wikipedia.org/wiki/Data_type"^^xsd:anyURI ; qudt:informativeReference "http://foldoc.org/data+type"^^xsd:anyURI ; qudt:informativeReference "http://www.princeton.edu/~achaney/tmve/wiki100k/docs/Data_type.html"^^xsd:anyURI ; @@ -517,7 +492,7 @@ qudt:Datatype . qudt:DateTimeStringEncodingType a owl:Class ; - dct:description "Date Time encodings are logical encodings for expressing date/time quantities as strings by applying unambiguous formatting and parsing rules." ; + dcterms:description "Date Time encodings are logical encodings for expressing date/time quantities as strings by applying unambiguous formatting and parsing rules." ; rdfs:isDefinedBy ; rdfs:label "Date Time String Encoding Type" ; rdfs:subClassOf qudt:StringEncodingType ; @@ -527,42 +502,12 @@ qudt:DateTimeStringEncodingType owl:onProperty qudt:allowedPattern ; ] ; . -qudt:DecimalPrefixUnit +qudt:DecimalPrefix a owl:Class ; - rdfs:comment "A Decimal Prefix Unit is a unit prefix for multiples of units that are powers of 10."^^rdf:HTML ; + rdfs:comment "A Decimal Prefix is a prefix for multiples of units that are powers of 10." ; rdfs:isDefinedBy ; - rdfs:label "Decimal Prefix Unit" ; - rdfs:subClassOf qudt:PrefixUnit ; -. -qudt:DecimalScaledUnit - a owl:Class ; - rdfs:isDefinedBy ; - rdfs:label "Decimal scaled unit" ; - rdfs:subClassOf qudt:ScaledUnit ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:allValuesFrom qudt:DecimalPrefixUnit ; - owl:onProperty qudt:hasPrefixUnit ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:cardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:hasPrefixUnit ; - ] ; -. -qudt:DerivedCoherentUnit - a owl:Class ; - rdfs:isDefinedBy ; - rdfs:label "Derived coherent unit" ; - rdfs:subClassOf qudt:DerivedUnit ; - owl:disjointWith qudt:DerivedNonCoherentUnit ; -. -qudt:DerivedNonCoherentUnit - a owl:Class ; - rdfs:isDefinedBy ; - rdfs:label "Derived non coherent unit" ; - rdfs:subClassOf qudt:DerivedUnit ; - owl:disjointWith qudt:DerivedCoherentUnit ; + rdfs:label "Decimal Prefix" ; + rdfs:subClassOf qudt:Prefix ; . qudt:DerivedUnit a owl:Class ; @@ -586,13 +531,6 @@ qudt:Discipline rdfs:label "Discipline" ; rdfs:subClassOf qudt:Concept ; . -qudt:DomainSpecificUnit - a owl:Class ; - rdfs:comment "A domain-specific unit is a categorization of how units may be associated with an area of science, engineering or other discipline."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "Domain-specific Unit" ; - rdfs:subClassOf qudt:Unit ; -. qudt:DoublePrecisionEncoding a qudt:FloatingPointEncodingType ; qudt:bytes 64 ; @@ -601,10 +539,10 @@ qudt:DoublePrecisionEncoding . qudt:Encoding a owl:Class ; - dct:description "An encoding is a rule or algorithm that is used to convert data from a native, or unspecified form into a specific form that satisfies the encoding rules. Examples of encodings include character encodings, such as UTF-8." ; + dcterms:description "An encoding is a rule or algorithm that is used to convert data from a native, or unspecified form into a specific form that satisfies the encoding rules. Examples of encodings include character encodings, such as UTF-8." ; rdfs:isDefinedBy ; rdfs:label "Encoding" ; - rdfs:subClassOf skos:Concept ; + rdfs:subClassOf qudt:Concept ; rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality 1 ; @@ -630,7 +568,7 @@ qudt:EndianType . qudt:EnumeratedValue a owl:Class ; - dct:Description """

This class is for all enumerated and/or coded values. For example, it contains the dimension objects that are the basis elements in some abstract vector space associated with a quantity kind system. Another use is for the base dimensions for quantity systems. Each quantity kind system that defines a base set has a corresponding ordered enumeration whose elements are the dimension objects for the base quantity kinds. The order of the dimensions in the enumeration determines the canonical order of the basis elements in the corresponding abstract vector space.

+ dcterms:description """

This class is for all enumerated and/or coded values. For example, it contains the dimension objects that are the basis elements in some abstract vector space associated with a quantity kind system. Another use is for the base dimensions for quantity systems. Each quantity kind system that defines a base set has a corresponding ordered enumeration whose elements are the dimension objects for the base quantity kinds. The order of the dimensions in the enumeration determines the canonical order of the basis elements in the corresponding abstract vector space.

An enumeration is a set of literals from which a single value is selected. Each literal can have a tag as an integer within a standard encoding appropriate to the range of integer values. Consistency of enumeration types will allow them, and the enumerated values, to be referred to unambiguously either through symbolic name or encoding. Enumerated values are also controlled vocabularies and as such need to be standardized. Without this consistency enumeration literals can be stated differently and result in data conflicts and misinterpretations.

@@ -744,7 +682,7 @@ qudt:Figure . qudt:FloatingPointEncodingType a owl:Class ; - dct:description "A \"Encoding\" with the following instance(s): \"Double Precision Encoding\", \"Single Precision Real Encoding\"." ; + dcterms:description "A \"Encoding\" with the following instance(s): \"Double Precision Encoding\", \"Single Precision Real Encoding\"." ; rdfs:isDefinedBy ; rdfs:label "Floating Point Encoding" ; rdfs:subClassOf qudt:Encoding ; @@ -762,27 +700,13 @@ qudt:ISO8601-UTCDateTime-BasicFormat rdfs:isDefinedBy ; rdfs:label "ISO 8601 UTC Date Time - Basic Format" ; . -qudt:ImperialUnit - a owl:Class ; - rdfs:comment "British/Imperial units where these are not aligned to international customary units." ; - rdfs:isDefinedBy ; - rdfs:label "Imperial Unit" ; - rdfs:subClassOf qudt:NonSI-Unit ; -. qudt:IntegerEncodingType a owl:Class ; - dct:description "The encoding scheme for integer types" ; + dcterms:description "The encoding scheme for integer types" ; rdfs:isDefinedBy ; rdfs:label "Integer Encoding" ; rdfs:subClassOf qudt:Encoding ; . -qudt:International-CustomaryUnit - a owl:Class ; - rdfs:comment "Customary units defined in terms of exact multiplers with SI metric units, as specified in the 1959 International Yard and Pound agreement." ; - rdfs:isDefinedBy ; - rdfs:label "Customary Unit" ; - rdfs:subClassOf qudt:NonSI-Unit ; -. qudt:IntervalScale a owl:Class ; qudt:informativeReference "https://en.wikipedia.org/wiki/Level_of_measurement"^^xsd:anyURI ; @@ -814,7 +738,7 @@ qudt:LogarithmicUnit rdfs:comment "Logarithmic units are abstract mathematical units that can be used to express any quantities (physical or mathematical) that are defined on a logarithmic scale, that is, as being proportional to the value of a logarithm function. Examples of logarithmic units include common units of information and entropy, such as the bit, and the byte, as well as units of relative signal strength magnitude such as the decibel."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "Logarithmic Unit" ; - rdfs:subClassOf qudt:Unit ; + rdfs:subClassOf qudt:DimensionlessUnit ; . qudt:LongUnsignedIntegerEncoding a qudt:IntegerEncodingType ; @@ -822,15 +746,6 @@ qudt:LongUnsignedIntegerEncoding rdfs:isDefinedBy ; rdfs:label "Long Unsigned Integer Encoding" ; . -qudt:MKS-Unit - a owl:Class ; - qudt:citation "http://scienceworld.wolfram.com/physics/MKS.html" ; - qudt:citation "https://en.wikipedia.org/wiki/MKS_system_of_units" ; - rdfs:comment "The MKS system of units is a physical system of units that expresses any given measurement using fundamental units of the metre, kilogram, and/or second (MKS)."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "MKS-Unit" ; - rdfs:subClassOf qudt:NonSI-Unit ; -. qudt:MathFunctionType a owl:Class ; rdfs:isDefinedBy ; @@ -855,13 +770,6 @@ qudt:NominalScale rdfs:seeAlso qudt:RatioScale ; rdfs:subClassOf qudt:Scale ; . -qudt:NonSI-Unit - a owl:Class ; - rdfs:comment "

A parent class for all units that are not SI Units

"^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "Non-SI Unit" ; - rdfs:subClassOf qudt:StandardsUnit ; -. qudt:OctetEncoding a qudt:BooleanEncodingType ; a qudt:ByteEncodingType ; @@ -871,7 +779,7 @@ qudt:OctetEncoding . qudt:OrderedType a owl:Class ; - dct:description "Describes how a data or information structure is ordered." ; + dcterms:description "Describes how a data or information structure is ordered." ; rdfs:isDefinedBy ; rdfs:label "Ordered type" ; rdfs:subClassOf qudt:EnumeratedValue ; @@ -922,12 +830,48 @@ qudt:PhysicalConstant rdfs:isDefinedBy ; rdfs:label "Physical Constant" ; rdfs:subClassOf qudt:Quantity ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:latexDefinition ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:latexSymbol ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:mathMLdefinition ; + ] ; . -qudt:PrefixUnit +qudt:Prefix a owl:Class ; rdfs:isDefinedBy ; - rdfs:label "Prefix unit" ; - rdfs:subClassOf qudt:Unit ; + rdfs:label "Prefix" ; + rdfs:subClassOf qudt:Concept ; + rdfs:subClassOf qudt:Verifiable ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:allValuesFrom qudt:UCUMcs-term ; + owl:onProperty qudt:ucumCode ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:prefixMultiplier ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:minCardinality "0"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:latexSymbol ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:minCardinality "0"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:symbol ; + ] ; . qudt:Quantifiable a owl:Class ; @@ -935,6 +879,11 @@ qudt:Quantifiable rdfs:isDefinedBy ; rdfs:label "Quantifiable" ; rdfs:subClassOf qudt:Aspect ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:allValuesFrom qudt:DataEncoding ; + owl:onProperty qudt:dataEncoding ; + ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:Datatype ; @@ -945,11 +894,6 @@ qudt:Quantifiable owl:allValuesFrom qudt:Unit ; owl:onProperty qudt:unit ; ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:allValuesFrom qudt:valueUnion ; - owl:onProperty qudt:value ; - ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom xsd:double ; @@ -960,11 +904,6 @@ qudt:Quantifiable owl:allValuesFrom xsd:double ; owl:onProperty qudt:standardUncertainty ; ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:cardinality "1"^^xsd:int ; - owl:onProperty qudt:unit ; - ] ; rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:int ; @@ -980,6 +919,16 @@ qudt:Quantifiable owl:maxCardinality "1"^^xsd:int ; owl:onProperty qudt:standardUncertainty ; ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:dataEncoding ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:unit ; + ] ; rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:nonNegativeInteger ; @@ -999,18 +948,12 @@ qudt:Quantity rdfs:label "Quantity" ; rdfs:subClassOf qudt:Concept ; rdfs:subClassOf qudt:Quantifiable ; - rdfs:subClassOf qudt:Verifiable ; rdfs:subClassOf [ a owl:Restriction ; - dct:description "a reference to the dimension that quantifies the property"^^rdf:HTML ; + dcterms:description "a reference to the dimension that quantifies the property"^^rdf:HTML ; owl:allValuesFrom qudt:QuantityValue ; owl:onProperty qudt:quantityValue ; ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:allValuesFrom qudt:DataEncoding ; - owl:onProperty qudt:dataEncoding ; - ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:QuantityKind ; @@ -1018,23 +961,8 @@ qudt:Quantity ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:maxCardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:baseUnitDimensions ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:maxCardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:dataEncoding ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:maxCardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:latexDefinition ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:maxCardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:mathMLdefinition ; + owl:allValuesFrom xsd:boolean ; + owl:onProperty qudt:isDeltaQuantity ; ] ; rdfs:subClassOf [ a owl:Restriction ; @@ -1048,18 +976,13 @@ qudt:QuantityKind rdfs:comment "A Quantity Kind is any observable property that can be measured and quantified numerically. Familiar examples include physical properties such as length, mass, time, force, energy, power, electric charge, etc. Less familiar examples include currency, interest rate, price to earning ratio, and information capacity."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "Quantity Kind" ; - rdfs:subClassOf qudt:Concept ; + rdfs:subClassOf qudt:AbstractQuantityKind ; rdfs:subClassOf qudt:Verifiable ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:QuantityKind ; owl:onProperty qudt:generalization ; ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:allValuesFrom qudt:QuantityKind ; - owl:onProperty skos:broader ; - ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:QuantityKindDimensionVector ; @@ -1172,16 +1095,6 @@ qudt:QuantityKind owl:minCardinality "0"^^xsd:nonNegativeInteger ; owl:onProperty qudt:expression ; ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:minCardinality "0"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:latexSymbol ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:minCardinality "0"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:symbol ; - ] ; . qudt:QuantityKindDimensionVector a owl:Class ; @@ -1301,7 +1214,7 @@ qudt:QuantityKindDimensionVector_SI . qudt:QuantityType a owl:Class ; - dct:description "\\(\\textit{Quantity Type}\\) is an enumeration of quanity kinds. It specializes \\(\\boxed{dtype:EnumeratedValue}\\) by constrinaing \\(\\boxed{dtype:value}\\) to instances of \\(\\boxed{qudt:QuantityKind}\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Quantity Type}\\) is an enumeration of quanity kinds. It specializes \\(\\boxed{dtype:EnumeratedValue}\\) by constrinaing \\(\\boxed{dtype:value}\\) to instances of \\(\\boxed{qudt:QuantityKind}\\)."^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Quantity type" ; rdfs:subClassOf qudt:EnumeratedValue ; @@ -1318,6 +1231,11 @@ qudt:QuantityValue rdfs:label "Quantity value" ; rdfs:subClassOf qudt:Concept ; rdfs:subClassOf qudt:Quantifiable ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:cardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:unit ; + ] ; . qudt:RatioScale a owl:Class ; @@ -1358,54 +1276,15 @@ qudt:RuleType rdfs:label "Rule Type" ; rdfs:subClassOf qudt:EnumeratedValue ; . -qudt:SI-Unit - a owl:Class ; - qudt:dbpediaMatch "http://dbpedia.org/resource/Category:SI_units"^^xsd:anyURI ; - rdfs:comment "The International System of Units (SI) defines seven units of measure as a basic set from which all other SI units are derived. These SI base units and their physical quantities are: metre for length kilogram for mass second for time ampere for electric current kelvin for temperature candela for luminous intensity mole for the amount of substance. The SI base quantities form a set of mutually independent dimensions as required by dimensional analysis commonly employed in science and technology."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "SI Unit" ; - rdfs:subClassOf qudt:StandardsUnit ; -. qudt:SIGNED a qudt:SignednessType ; dtype:literal "signed" ; rdfs:isDefinedBy ; rdfs:label "Signed" ; . -qudt:SOU_CGS - a qudt:SystemOfUnits ; - qudt:informativeReference "https://en.wikipedia.org/wiki/Centimetre–gram–second_system_of_units"^^xsd:anyURI ; - rdfs:label "CGS System of Units" ; -. -qudt:SOU_IMPERIAL - a qudt:SystemOfUnits ; - qudt:informativeReference "https://en.wikipedia.org/wiki/Imperial_units"^^xsd:anyURI ; - rdfs:label "Imperial System of Units" ; -. -qudt:SOU_NATURAL_UNITS - a qudt:SystemOfUnits ; - qudt:dbpediaMatch "http://dbpedia.org/resource/Natural_units"^^xsd:anyURI ; - rdfs:comment """

In physics, natural units are physical units of measurement based only on universal physical constants. For example the elementary charge e is a natural unit of electric charge, or the speed of light c is a natural unit of speed.

-

A purely natural system of units is defined in such a way that some set of selected universal physical constants are normalized to unity; that is, their numerical values in terms of these units become exactly 1.

-

Examples are Planck Units and Atomic Units. Atomic units (au or a.u.) form a system of natural units which is especially convenient for atomic physics calculations. There are two different kinds of atomic units, which one might name Hartree atomic units and Rydberg atomic units, which differ in the choice of the unit of mass and charge.

-

Planck units are unique among systems of natural units, because they are not defined in terms of properties of any prototype, physical object, or even elementary particle.

"""^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "System of Natural Units" ; -. -qudt:SOU_SI - a qudt:SystemOfUnits ; - qudt:informativeReference "https://en.wikipedia.org/wiki/International_System_of_Units"^^xsd:anyURI ; - rdfs:label "SI International System of Units" ; -. -qudt:SOU_USCS - a qudt:SystemOfUnits ; - qudt:informativeReference "https://en.wikipedia.org/wiki/United_States_customary_units"^^xsd:anyURI ; - rdfs:isDefinedBy ; - rdfs:label "US Customary System of Units" ; -. qudt:ScalarDatatype a owl:Class ; - dct:description "Scalar data types are those that have a single value. The permissible values are defined over a domain that may be integers, float, character or boolean. Often a scalar data type is referred to as a primitive data type." ; + dcterms:description "Scalar data types are those that have a single value. The permissible values are defined over a domain that may be integers, float, character or boolean. Often a scalar data type is referred to as a primitive data type." ; rdfs:isDefinedBy ; rdfs:label "Scalar Datatype" ; rdfs:subClassOf qudt:Datatype ; @@ -1509,22 +1388,6 @@ qudt:ScaleType owl:onProperty qudt:dataStructure ; ] ; . -qudt:ScaledUnit - a owl:Class ; - rdfs:isDefinedBy ; - rdfs:label "Scaled unit" ; - rdfs:subClassOf qudt:Unit ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:allValuesFrom qudt:Unit ; - owl:onProperty qudt:isScalingOf ; - ] ; - rdfs:subClassOf [ - a owl:Restriction ; - owl:cardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:isScalingOf ; - ] ; -. qudt:ShortSignedIntegerEncoding a qudt:IntegerEncodingType ; qudt:bytes 2 ; @@ -1546,7 +1409,7 @@ qudt:SignedIntegerEncoding . qudt:SignednessType a owl:Class ; - dct:description "Specifics whether a value should be signed or unsigned." ; + dcterms:description "Specifics whether a value should be signed or unsigned." ; rdfs:isDefinedBy ; rdfs:label "Signedness type" ; rdfs:subClassOf qudt:EnumeratedValue ; @@ -1561,12 +1424,6 @@ qudt:SinglePrecisionRealEncoding rdfs:isDefinedBy ; rdfs:label "Single Precision Real Encoding" ; . -qudt:StandardsUnit - a owl:Class ; - rdfs:isDefinedBy ; - rdfs:label "Standards unit" ; - rdfs:subClassOf qudt:Unit ; -. qudt:Statement a rdfs:Class ; rdfs:isDefinedBy ; @@ -1575,14 +1432,14 @@ qudt:Statement . qudt:StringEncodingType a owl:Class ; - dct:description "A \"Encoding\" with the following instance(s): \"UTF-16 String\", \"UTF-8 Encoding\"." ; + dcterms:description "A \"Encoding\" with the following instance(s): \"UTF-16 String\", \"UTF-8 Encoding\"." ; rdfs:isDefinedBy ; rdfs:label "String Encoding Type" ; rdfs:subClassOf qudt:Encoding ; . qudt:StructuredDatatype a owl:Class ; - dct:description "A \"Structured Datatype\", in contrast to scalar data types, is used to characterize classes of more complex data structures, such as linked or indexed lists, trees, ordered trees, and multi-dimensional file formats." ; + dcterms:description "A \"Structured Datatype\", in contrast to scalar data types, is used to characterize classes of more complex data structures, such as linked or indexed lists, trees, ordered trees, and multi-dimensional file formats." ; rdfs:isDefinedBy ; rdfs:label "Structured Data Type" ; rdfs:subClassOf qudt:Datatype ; @@ -1640,38 +1497,38 @@ qudt:SystemOfUnits rdfs:subClassOf qudt:Concept ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:BaseUnit ; - owl:onProperty qudt:hasBaseUnit ; + owl:allValuesFrom qudt:PhysicalConstant ; + owl:onProperty qudt:applicablePhysicalConstant ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:DerivedUnit ; - owl:onProperty qudt:hasDerivedCoherentUnit ; + owl:allValuesFrom qudt:Unit ; + owl:onProperty qudt:hasAllowedUnit ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:DerivedUnit ; - owl:onProperty qudt:hasDerivedUnit ; + owl:allValuesFrom qudt:Unit ; + owl:onProperty qudt:hasBaseUnit ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:PhysicalConstant ; - owl:onProperty qudt:applicablePhysicalConstant ; + owl:allValuesFrom qudt:Unit ; + owl:onProperty qudt:hasCoherentUnit ; ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:Unit ; - owl:onProperty qudt:hasAllowedUnit ; + owl:onProperty qudt:hasDefinedUnit ; ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:Unit ; - owl:onProperty qudt:hasCoherentUnit ; + owl:onProperty qudt:hasDerivedCoherentUnit ; ] ; rdfs:subClassOf [ a owl:Restriction ; owl:allValuesFrom qudt:Unit ; - owl:onProperty qudt:hasDefinedUnit ; + owl:onProperty qudt:hasDerivedUnit ; ] ; rdfs:subClassOf [ a owl:Restriction ; @@ -1692,6 +1549,7 @@ qudt:UCUMci rdfs:isDefinedBy ; rdfs:label "case-insensitive UCUM code" ; rdfs:subClassOf rdfs:Resource ; + owl:deprecated true ; owl:onDatatype xsd:string ; owl:withRestrictions ( [ @@ -1705,6 +1563,7 @@ qudt:UCUMci-term rdfs:isDefinedBy ; rdfs:label "case-insensitive UCUM term" ; rdfs:subClassOf rdfs:Resource ; + owl:deprecated true ; owl:onDatatype xsd:string ; owl:withRestrictions ( [ @@ -1714,9 +1573,11 @@ qudt:UCUMci-term . qudt:UCUMcs a rdfs:Datatype ; + dcterms:source "https://ucum.org/ucum.html"^^xsd:anyURI ; rdfs:comment "Lexical pattern for the case-sensitive version of UCUM code" ; rdfs:isDefinedBy ; rdfs:label "case-sensitive UCUM code" ; + rdfs:seeAlso ; rdfs:subClassOf rdfs:Resource ; owl:onDatatype xsd:string ; owl:withRestrictions ( @@ -1727,9 +1588,11 @@ qudt:UCUMcs . qudt:UCUMcs-term a rdfs:Datatype ; + dcterms:source "https://ucum.org/ucum.html"^^xsd:anyURI ; rdfs:comment "Lexical pattern for the terminal symbols in the case-sensitive version of UCUM code" ; rdfs:isDefinedBy ; rdfs:label "case-sensitive UCUM terminal" ; + rdfs:seeAlso ; rdfs:subClassOf rdfs:Resource ; owl:onDatatype xsd:string ; owl:withRestrictions ( @@ -1744,23 +1607,6 @@ qudt:UNSIGNED rdfs:isDefinedBy ; rdfs:label "Unsigned" ; . -qudt:US-CustomaryUnit - a owl:Class ; - rdfs:comment "Customary units used in USA not including those aligned to the SI system as specified in the 1960 agreement" ; - rdfs:isDefinedBy ; - rdfs:label "US-Customary unit" ; - rdfs:subClassOf qudt:NonSI-Unit ; -. -qudt:US-SurveyUnit - a owl:Class ; - rdfs:comment """US survey units (length and area) are defined slightly different to the International Customary units agreed in 1960. They retain earlier multipliers relative to the metre: -1 mile = 5280 feet -1 foot = 1200/3297 metres -1 inch = 1/12 foot""" ; - rdfs:isDefinedBy ; - rdfs:label "US-Survey unit" ; - rdfs:subClassOf qudt:StandardsUnit ; -. qudt:UTF16-StringEncoding a qudt:StringEncodingType ; rdfs:isDefinedBy ; @@ -1788,29 +1634,34 @@ qudt:Unit ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:SystemOfUnits ; - owl:onProperty qudt:isUnitOfSystem ; + owl:allValuesFrom qudt:QuantityKindDimensionVector ; + owl:onProperty qudt:denominatorDimensionVector ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:UCUMci-term ; - owl:onProperty qudt:ucumCaseInsensitiveCode ; + owl:allValuesFrom qudt:QuantityKindDimensionVector ; + owl:onProperty qudt:hasDimensionVector ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom qudt:UCUMcs-term ; - owl:onProperty qudt:ucumCaseSensitiveCode ; + owl:allValuesFrom qudt:QuantityKindDimensionVector ; + owl:onProperty qudt:numeratorDimensionVector ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom xsd:string ; - owl:onProperty qudt:iec61360Code ; + owl:allValuesFrom qudt:SystemOfUnits ; + owl:onProperty qudt:unitOfSystem ; ] ; rdfs:subClassOf [ a owl:Restriction ; - owl:allValuesFrom xsd:string ; + owl:allValuesFrom qudt:UCUMcs ; owl:onProperty qudt:ucumCode ; ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:allValuesFrom xsd:string ; + owl:onProperty qudt:iec61360Code ; + ] ; rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:int ; @@ -1826,6 +1677,16 @@ qudt:Unit owl:maxCardinality "1"^^xsd:int ; owl:onProperty qudt:conversionOffset ; ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:denominatorDimensionVector ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:maxCardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:hasDimensionVector ; + ] ; rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:nonNegativeInteger ; @@ -1834,7 +1695,7 @@ qudt:Unit rdfs:subClassOf [ a owl:Restriction ; owl:maxCardinality "1"^^xsd:nonNegativeInteger ; - owl:onProperty qudt:uneceCommonCode ; + owl:onProperty qudt:numeratorDimensionVector ; ] ; rdfs:subClassOf [ a owl:Restriction ; @@ -1875,6 +1736,22 @@ qudt:UnsignedIntegerEncoding rdfs:isDefinedBy ; rdfs:label "Unsigned Integer Encoding" ; . +qudt:UserQuantityKind + a owl:Class ; + rdfs:isDefinedBy ; + rdfs:label "User Quantity Kind" ; + rdfs:subClassOf qudt:AbstractQuantityKind ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:allValuesFrom qudt:QuantityKind ; + owl:onProperty qudt:hasQuantityKind ; + ] ; + rdfs:subClassOf [ + a owl:Restriction ; + owl:cardinality "1"^^xsd:nonNegativeInteger ; + owl:onProperty qudt:hasQuantityKind ; + ] ; +. qudt:Verifiable a qudt:AspectClass ; rdfs:comment "An aspect class that holds properties that provide external knowledge and specifications of a given resource." ; @@ -1919,7 +1796,7 @@ qudt:Wikipedia . qudt:abbreviation a owl:DatatypeProperty ; - dct:description "An abbreviation for a unit is a short ASCII string that is used in place of the full name for the unit in contexts where non-ASCII characters would be problematic, or where using the abbreviation will enhance readability. When a power of abase unit needs to be expressed, such as squares this can be done using abbreviations rather than symbols. For example, sq ft means square foot, and cu ft means cubic foot."^^rdf:HTML ; + dcterms:description "An abbreviation for a unit is a short ASCII string that is used in place of the full name for the unit in contexts where non-ASCII characters would be problematic, or where using the abbreviation will enhance readability. When a power of abase unit needs to be expressed, such as squares this can be done using abbreviations rather than symbols. For example, sq ft means square foot, and cu ft means cubic foot."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "abbreviation" ; rdfs:range xsd:string ; @@ -1933,6 +1810,15 @@ qudt:acronym qudt:allowedPattern a rdf:Property ; rdfs:isDefinedBy ; + rdfs:label "allowed pattern" ; +. +qudt:allowedUnitOfSystem + a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure with a unit system that does not define the unit, but allows its use within the system. An allowed unit must be convertible to some dimensionally eqiuvalent unit that is defined by the system."^^rdf:HTML ; + rdfs:isDefinedBy ; + rdfs:label "allowed unit of system" ; + rdfs:subPropertyOf qudt:unitOfSystem ; + owl:inverseOf qudt:hasAllowedUnit ; . qudt:ansiSQLName a rdf:Property ; @@ -1995,58 +1881,60 @@ qudt:applicableUnit . qudt:baseCGSUnitDimensions a owl:DatatypeProperty ; - dct:description "qudt:baseCGSUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the CGS System."^^rdf:HTML ; + dcterms:description "qudt:baseCGSUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the CGS System."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base CGS unit dimensions" ; - rdfs:range xsd:string ; rdfs:subPropertyOf qudt:baseUnitDimensions ; . qudt:baseDimensionEnumeration a owl:FunctionalProperty ; a owl:ObjectProperty ; - dct:description "This property associates a system of quantities with an enumeration that enumerates the base dimensions of the system in canonical order."^^rdf:HTML ; + dcterms:description "This property associates a system of quantities with an enumeration that enumerates the base dimensions of the system in canonical order."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base dimension enumeration" ; rdfs:range qudt:Enumeration ; . qudt:baseISOUnitDimensions a owl:DatatypeProperty ; - dct:description "qudt:baseISOUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the ISO System."^^rdf:HTML ; + dcterms:description "qudt:baseISOUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the ISO System."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base ISO unit dimensions" ; - rdfs:range qudt:LatexString ; rdfs:subPropertyOf qudt:baseUnitDimensions ; . qudt:baseImperialUnitDimensions a owl:DatatypeProperty ; - dct:description "qudt:baseImperialUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the Imperial System."^^rdf:HTML ; + dcterms:description "qudt:baseImperialUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the Imperial System."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base Imperial unit dimensions" ; - rdfs:range xsd:string ; rdfs:subPropertyOf qudt:baseUnitDimensions ; . qudt:baseSIUnitDimensions a owl:DatatypeProperty ; - dct:description "qudt:baseSIUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units. For example, in the SI system \\(capacitance\\) has the unit \\(Farad\\) and base unit dimensions of \\(C^2 \\cdot s^2 / (kg \\cdot m^2)\\)."^^qudt:LatexString ; + dcterms:description "qudt:baseSIUnitDimensions is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units. For example, in the SI system \\(capacitance\\) has the unit \\(Farad\\) and base unit dimensions of \\(C^2 \\cdot s^2 / (kg \\cdot m^2)\\)."^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "base SI unit dimensions" ; - rdfs:range xsd:string ; rdfs:subPropertyOf qudt:baseUnitDimensions ; . qudt:baseUSCustomaryUnitDimensions a owl:DatatypeProperty ; - dct:description "\"qudt:baseUSCustomaryUnitDimensions\" is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the US Customary System."^^rdf:HTML ; + dcterms:description "\"qudt:baseUSCustomaryUnitDimensions\" is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units in the US Customary System."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base US Customary unit dimensions" ; - rdfs:range xsd:string ; rdfs:subPropertyOf qudt:baseUnitDimensions ; . qudt:baseUnitDimensions a owl:DatatypeProperty ; - dct:description "\"qudt:baseUnitDimensions\" is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units."^^rdf:HTML ; + dcterms:description "\"qudt:baseUnitDimensions\" is a string datatype property expressing the dimensions of a unit, or quantity, as a vector over the base units."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base unit dimensions" ; - rdfs:range xsd:string ; +. +qudt:baseUnitOfSystem + a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure to the system of units in which it is defined as a base unit for the system. The base units of a system are used to define the derived units of the system by expressing the derived units as products of the base units raised to a rational power."^^rdf:HTML ; + rdfs:isDefinedBy ; + rdfs:label "is base unit of system" ; + rdfs:subPropertyOf qudt:coherentUnitOfSystem ; + owl:inverseOf qudt:hasBaseUnit ; . qudt:basis a rdf:Property ; @@ -2079,7 +1967,7 @@ qudt:bounded . qudt:byteOrder a owl:ObjectProperty ; - dct:description "Byte order is an enumeration of two values: 'Big Endian' and 'Little Endian' and is used to denote whether the most signiticant byte is either first or last, respectively." ; + dcterms:description "Byte order is an enumeration of two values: 'Big Endian' and 'Little Endian' and is used to denote whether the most signiticant byte is either first or last, respectively." ; rdfs:isDefinedBy ; rdfs:label "byte order" ; rdfs:range qudt:EndianType ; @@ -2109,7 +1997,7 @@ qudt:categorizedAs rdfs:label "categorized as" ; . qudt:citation - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; qudt:plainTextDescription "Used to provide an annotation for an informative reference." ; rdfs:isDefinedBy ; rdfs:label "citation" ; @@ -2117,15 +2005,26 @@ qudt:citation . qudt:code a owl:DatatypeProperty ; - dct:description "A code is a string that uniquely identifies a QUDT concept. The code is constructed from the designator."^^rdf:HTML ; + dcterms:description "A code is a string that uniquely identifies a QUDT concept. The code is constructed from the designator. The use of this property has been deprecated."^^rdf:HTML ; rdfs:domain qudt:Concept ; rdfs:isDefinedBy ; rdfs:label "code" ; + owl:deprecated true ; +. +qudt:coherentUnitOfSystem + a owl:DeprecatedProperty ; + a owl:ObjectProperty ; + dcterms:description "A coherent unit of measurement for a unit system is a defined unit that may be expressed as a product of powers of the system's base units with the proportionality factor of one. A system of units is coherent with respect to a system of quantities and equations if the system of units is chosen in such a way that the equations between numerical values have exactly the same form (including the numerical factors) as the corresponding equations between the quantities. For example, the 'newton' and the 'joule'. These two are, respectively, the force that causes one kilogram to be accelerated at 1 metre per second per second, and the work done by 1 newton acting over 1 metre. Being coherent refers to this consistent use of 1. In the old c.g.s. system , with its base units the centimetre and the gram, the corresponding coherent units were the dyne and the erg, respectively the force that causes 1 gram to be accelerated at 1 centimetre per second per second, and the work done by 1 dyne acting over 1 centimetre. So \\(1 newton = 10^5\\,dyne\\), \\(1 joule = 10^7\\,erg\\), making each of the four compatible in a decimal sense within its respective other system, but not coherent therein."^^qudt:LatexString ; + rdfs:isDefinedBy ; + rdfs:label "is coherent unit of system" ; + rdfs:range qudt:SystemOfUnits ; + rdfs:subPropertyOf qudt:definedUnitOfSystem ; + owl:inverseOf qudt:hasCoherentUnit ; . qudt:coherentUnitSystem a owl:FunctionalProperty ; a owl:ObjectProperty ; - dct:description "

A system of units is coherent with respect to a system of quantities and equations if the system of units is chosen in such a way that the equations between numerical values have exactly the same form (including the numerical factors) as the corresponding equations between the quantities. In such a coherent system, no numerical factor other than the number 1 ever occurs in the expressions for the derived units in terms of the base units. For example, the \\(newton\\) and the \\(joule\\). These two are, respectively, the force that causes one kilogram to be accelerated at 1 metre per (1) second per (1) second, and the work done by 1 newton acting over 1 metre. Being coherent refers to this consistent use of 1. In the old c.g.s. system , with its base units the centimetre and the gram, the corresponding coherent units were the dyne and the erg, respectively the force that causes 1 gram to be accelerated at 1 centimetre per (1) second per (1) second, and the work done by 1 dyne acting over 1 centimetre. So \\(1\\,newton = 10^5 dyne\\), \\(1 joule = 10^7 erg\\), making each of the four compatible in a decimal sense within its respective other system, but not coherent therein.

"^^qudt:LatexString ; + dcterms:description "

A system of units is coherent with respect to a system of quantities and equations if the system of units is chosen in such a way that the equations between numerical values have exactly the same form (including the numerical factors) as the corresponding equations between the quantities. In such a coherent system, no numerical factor other than the number 1 ever occurs in the expressions for the derived units in terms of the base units. For example, the \\(newton\\) and the \\(joule\\). These two are, respectively, the force that causes one kilogram to be accelerated at 1 metre per (1) second per (1) second, and the work done by 1 newton acting over 1 metre. Being coherent refers to this consistent use of 1. In the old c.g.s. system , with its base units the centimetre and the gram, the corresponding coherent units were the dyne and the erg, respectively the force that causes 1 gram to be accelerated at 1 centimetre per (1) second per (1) second, and the work done by 1 dyne acting over 1 centimetre. So \\(1\\,newton = 10^5 dyne\\), \\(1 joule = 10^7 erg\\), making each of the four compatible in a decimal sense within its respective other system, but not coherent therein.

"^^qudt:LatexString ; qudt:informativeReference "https://en.wikipedia.org/wiki/Coherence_(units_of_measurement)"^^xsd:anyURI ; rdfs:isDefinedBy ; rdfs:label "coherent unit system" ; @@ -2142,19 +2041,19 @@ qudt:conversionMultiplier a owl:FunctionalProperty ; rdfs:isDefinedBy ; rdfs:label "conversion multiplier" ; - rdfs:range xsd:double ; + rdfs:range xsd:decimal ; . qudt:conversionOffset a owl:DatatypeProperty ; a owl:FunctionalProperty ; rdfs:isDefinedBy ; rdfs:label "conversion offset" ; - rdfs:range xsd:double ; + rdfs:range xsd:decimal ; . qudt:currencyExponent a owl:DatatypeProperty ; a owl:FunctionalProperty ; - dct:description "The currency exponent indicates the number of decimal places between a major currency unit and its minor currency unit. For example, the US dollar is the major currency unit of the United States, and the US cent is the minor currency unit. Since one cent is 1/100 of a dollar, the US dollar has a currency exponent of 2. However, the Japanese Yen has no minor currency units, so the yen has a currency exponent of 0."^^rdf:HTML ; + dcterms:description "The currency exponent indicates the number of decimal places between a major currency unit and its minor currency unit. For example, the US dollar is the major currency unit of the United States, and the US cent is the minor currency unit. Since one cent is 1/100 of a dollar, the US dollar has a currency exponent of 2. However, the Japanese Yen has no minor currency units, so the yen has a currency exponent of 0."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "currency exponent" ; rdfs:range xsd:integer ; @@ -2177,21 +2076,24 @@ qudt:dataType rdfs:label "datatype" ; . qudt:dbpediaMatch - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; rdfs:isDefinedBy ; rdfs:label "dbpedia match" ; rdfs:range xsd:anyURI ; . qudt:default a owl:ObjectProperty ; - dct:description "The default element in an enumeration"^^rdf:HTML ; + dcterms:description "The default element in an enumeration"^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "default" ; . -qudt:definitionReference +qudt:definedUnitOfSystem a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure with the unit system that defines the unit."^^rdf:HTML ; rdfs:isDefinedBy ; - rdfs:label "definition reference" ; + rdfs:label "defined unit of system" ; + rdfs:subPropertyOf qudt:unitOfSystem ; + owl:inverseOf qudt:hasDefinedUnit ; . qudt:denominatorDimensionVector a owl:ObjectProperty ; @@ -2199,6 +2101,24 @@ qudt:denominatorDimensionVector rdfs:label "denominator dimension vector" ; rdfs:range qudt:QuantityKindDimensionVector ; . +qudt:derivedCoherentUnitOfSystem + a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure to the unit system in which the unit is derived from the system's base units with a proportionality constant of one."^^rdf:HTML ; + rdfs:isDefinedBy ; + rdfs:label "is coherent derived unit of system" ; + rdfs:subPropertyOf qudt:coherentUnitOfSystem ; + rdfs:subPropertyOf qudt:derivedUnitOfSystem ; + owl:inverseOf qudt:hasDerivedCoherentUnit ; +. +qudt:derivedNonCoherentUnitOfSystem + a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure to the unit system in which the unit is derived from the system's base units without proportionality constant of one."^^rdf:HTML ; + rdfs:isDefinedBy ; + rdfs:label "is non-coherent derived unit of system" ; + rdfs:range qudt:SystemOfUnits ; + rdfs:subPropertyOf qudt:derivedUnitOfSystem ; + owl:inverseOf qudt:hasDerivedNonCoherentUnit ; +. qudt:derivedQuantityKindOfSystem a owl:ObjectProperty ; rdfs:isDefinedBy ; @@ -2206,12 +2126,20 @@ qudt:derivedQuantityKindOfSystem rdfs:subPropertyOf qudt:isQuantityKindOf ; owl:inverseOf qudt:systemDerivedQuantityKind ; . +qudt:derivedUnitOfSystem + a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure to the system of units in which it is defined as a derived unit. That is, the derived unit is defined as a product of the base units for the system raised to some rational power."^^rdf:HTML ; + rdfs:isDefinedBy ; + rdfs:label "is derived unit of system" ; + rdfs:subPropertyOf qudt:unitOfSystem ; + owl:inverseOf qudt:hasDerivedUnit ; +. qudt:description - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; rdfs:isDefinedBy ; rdfs:label "qudt description" ; rdfs:range rdf:HTML ; - rdfs:subPropertyOf dct:description ; + rdfs:subPropertyOf dcterms:description ; . qudt:dimensionExponent a owl:DatatypeProperty ; @@ -2285,7 +2213,7 @@ qudt:dimensionlessExponent . qudt:element a owl:ObjectProperty ; - dct:description "An element of an enumeration"^^rdf:HTML ; + dcterms:description "An element of an enumeration"^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "element" ; . @@ -2324,20 +2252,20 @@ qudt:example . qudt:expression a owl:AnnotationProperty ; - dct:description "An 'expression' is a finite combination of symbols that are well-formed according to rules that apply to units of measure, quantity kinds and their dimensions."^^rdf:HTML ; + dcterms:description "An 'expression' is a finite combination of symbols that are well-formed according to rules that apply to units of measure, quantity kinds and their dimensions."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "expression" ; . qudt:fieldCode - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; qudt:plainTextDescription "A field code is a generic property for representing unique codes that make up other identifers. For example each QuantityKind class caries a domain code as its field code." ; rdfs:isDefinedBy ; rdfs:label "field code" ; rdfs:range xsd:string ; . qudt:figure - a owl:AnnotationProperty ; - dct:description "Provides a link to an image."^^rdf:HTML ; + a owl:ObjectProperty ; + dcterms:description "Provides a link to an image."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "figure" ; rdfs:range qudt:Figure ; @@ -2375,7 +2303,7 @@ qudt:floatPercentage . qudt:generalization a owl:ObjectProperty ; - dct:description """This property relates a quantity kind to its generalization. A quantity kind, PARENT, is a generalization of the quantity kind CHILD only if: + dcterms:description """This property relates a quantity kind to its generalization. A quantity kind, PARENT, is a generalization of the quantity kind CHILD only if: 1. PARENT and CHILD have the same dimensions in every system of quantities; 2. Every unit that is a measure of quantities of kind CHILD is also a valid measure of quantities of kind PARENT."""^^rdf:HTML ; @@ -2384,7 +2312,7 @@ qudt:generalization owl:inverseOf qudt:specialization ; . qudt:guidance - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; rdfs:domain qudt:Concept ; rdfs:isDefinedBy ; rdfs:label "guidance" ; @@ -2392,7 +2320,7 @@ qudt:guidance . qudt:hasAllowedUnit a owl:ObjectProperty ; - dct:description "This property relates a unit system with a unit of measure that is not defined by or part of the system, but is allowed for use within the system. An allowed unit must be convertible to some dimensionally eqiuvalent unit that is defined by the system."^^rdf:HTML ; + dcterms:description "This property relates a unit system with a unit of measure that is not defined by or part of the system, but is allowed for use within the system. An allowed unit must be convertible to some dimensionally eqiuvalent unit that is defined by the system."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "allowed unit" ; rdfs:subPropertyOf qudt:hasUnit ; @@ -2407,23 +2335,23 @@ qudt:hasBaseQuantityKind . qudt:hasBaseUnit a owl:ObjectProperty ; - dct:description "This property relates a system of units to a base unit defined within the system. The base units of a system are used to define the derived units of the system by expressing the derived units as products of the base units raised to a rational power."^^rdf:HTML ; + dcterms:description "This property relates a system of units to a base unit defined within the system. The base units of a system are used to define the derived units of the system by expressing the derived units as products of the base units raised to a rational power."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "base unit" ; rdfs:subPropertyOf qudt:hasCoherentUnit ; - owl:inverseOf qudt:isBaseUnitOfSystem ; + owl:inverseOf qudt:baseUnitOfSystem ; . qudt:hasCoherentUnit a owl:ObjectProperty ; - dct:description "A coherent unit of measurement for a unit system is a defined unit that may be expressed as a product of powers of the system's base units with the proportionality factor of one."^^rdf:HTML ; + dcterms:description "A coherent unit of measurement for a unit system is a defined unit that may be expressed as a product of powers of the system's base units with the proportionality factor of one."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "coherent unit" ; rdfs:subPropertyOf qudt:hasDefinedUnit ; - owl:inverseOf qudt:isCoherentUnitOfSystem ; + owl:inverseOf qudt:coherentUnitOfSystem ; . qudt:hasDefinedUnit a owl:ObjectProperty ; - dct:description "This property relates a unit system with a unit of measure that is defined by the system."^^rdf:HTML ; + dcterms:description "This property relates a unit system with a unit of measure that is defined by the system."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "defined unit" ; rdfs:subPropertyOf qudt:hasUnit ; @@ -2439,26 +2367,32 @@ qudt:hasDerivedCoherentUnit rdfs:label "derived coherent unit" ; rdfs:subPropertyOf qudt:hasCoherentUnit ; rdfs:subPropertyOf qudt:hasDerivedUnit ; - owl:inverseOf qudt:isDerivedCoherentUnitOfSystem ; + owl:inverseOf qudt:derivedCoherentUnitOfSystem ; . qudt:hasDerivedNonCoherentUnit a owl:ObjectProperty ; rdfs:isDefinedBy ; rdfs:label "has coherent derived unit" ; rdfs:subPropertyOf qudt:hasDerivedUnit ; - owl:inverseOf qudt:isDerivedNonCoherentUnitOfSystem ; + owl:inverseOf qudt:derivedNonCoherentUnitOfSystem ; . qudt:hasDerivedUnit a owl:ObjectProperty ; - dct:description "This property relates a system of units to a unit of measure that is defined within the system in terms of the base units for the system. That is, the derived unit is defined as a product of the base units for the system raised to some rational power."^^rdf:HTML ; + dcterms:description "This property relates a system of units to a unit of measure that is defined within the system in terms of the base units for the system. That is, the derived unit is defined as a product of the base units for the system raised to some rational power."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "derived unit" ; + owl:inverseOf qudt:derivedUnitOfSystem ; . qudt:hasDimension a owl:ObjectProperty ; rdfs:isDefinedBy ; rdfs:label "has dimension" ; . +qudt:hasDimensionExpression + a owl:ObjectProperty ; + rdfs:isDefinedBy ; + rdfs:label "dimension expression" ; +. qudt:hasDimensionVector a owl:ObjectProperty ; rdfs:isDefinedBy ; @@ -2468,11 +2402,11 @@ qudt:hasDimensionVector qudt:hasNonCoherentUnit a owl:DeprecatedProperty ; a owl:ObjectProperty ; - dct:description "A coherent unit of measurement for a unit system is a defined unit that may be expressed as a product of powers of the system's base units with the proportionality factor of one."^^rdf:HTML ; + dcterms:description "A coherent unit of measurement for a unit system is a defined unit that may be expressed as a product of powers of the system's base units with the proportionality factor of one."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "has non-coherent unit" ; rdfs:subPropertyOf qudt:hasDefinedUnit ; - owl:inverseOf qudt:isCoherentUnitOfSystem ; + owl:inverseOf qudt:coherentUnitOfSystem ; . qudt:hasNumeratorPart a owl:ObjectProperty ; @@ -2510,10 +2444,10 @@ qudt:hasRule . qudt:hasUnit a owl:ObjectProperty ; - dct:description "This property relates a system of units with a unit of measure that is either a) defined by the system, or b) accepted for use by the system and is convertible to a unit of equivalent dimension that is defined by the system. Systems of units may distinguish between base and derived units. Base units are the units which measure the base quantities for the corresponding system of quantities. The base units are used to define units for all other quantities as products of powers of the base units. Such units are called derived units for the system."^^rdf:HTML ; + dcterms:description "This property relates a system of units with a unit of measure that is either a) defined by the system, or b) accepted for use by the system and is convertible to a unit of equivalent dimension that is defined by the system. Systems of units may distinguish between base and derived units. Base units are the units which measure the base quantities for the corresponding system of quantities. The base units are used to define units for all other quantities as products of powers of the base units. Such units are called derived units for the system."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "has unit" ; - owl:inverseOf qudt:isUnitOfSystem ; + owl:inverseOf qudt:unitOfSystem ; . qudt:hasUnitSystem a owl:FunctionalProperty ; @@ -2522,7 +2456,7 @@ qudt:hasUnitSystem rdfs:label "has unit system" ; . qudt:hasVocabulary - a owl:AnnotationProperty ; + a owl:ObjectProperty ; qudt:plainTextDescription "Used to relate a class to one or more graphs where vocabularies for the class are defined." ; rdfs:isDefinedBy ; rdfs:label "has vocabulary" ; @@ -2536,7 +2470,7 @@ qudt:height . qudt:id a owl:DatatypeProperty ; - dct:description "The \"qudt:id\" is an identifier string that uniquely identifies a QUDT concept. The identifier is constructed using a prefix. For example, units are coded using the pattern: \"UCCCENNNN\", where \"CCC\" is a numeric code or a category and \"NNNN\" is a digit string for a member element of that category. For scaled units there may be an addition field that has the format \"QNN\" where \"NN\" is a digit string representing an exponent power, and \"Q\" is a qualifier that indicates with the code \"P\" that the power is a positive decimal exponent, or the code \"N\" for a negative decimal exponent, or the code \"B\" for binary positive exponents."^^rdf:HTML ; + dcterms:description "The \"qudt:id\" is an identifier string that uniquely identifies a QUDT concept. The identifier is constructed using a prefix. For example, units are coded using the pattern: \"UCCCENNNN\", where \"CCC\" is a numeric code or a category and \"NNNN\" is a digit string for a member element of that category. For scaled units there may be an addition field that has the format \"QNN\" where \"NN\" is a digit string representing an exponent power, and \"Q\" is a qualifier that indicates with the code \"P\" that the power is a positive decimal exponent, or the code \"N\" for a negative decimal exponent, or the code \"B\" for binary positive exponents."^^rdf:HTML ; rdfs:domain qudt:Concept ; rdfs:isDefinedBy ; rdfs:label "qudt id" ; @@ -2561,8 +2495,8 @@ qudt:imageLocation rdfs:range xsd:anyURI ; . qudt:informativeReference - a owl:AnnotationProperty ; - dct:description "Provides a way to reference a source that provided useful but non-normative information."^^rdf:HTML ; + a owl:DatatypeProperty ; + dcterms:description "Provides a way to reference a source that provided useful but non-normative information."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "informative reference" ; rdfs:range xsd:anyURI ; @@ -2586,14 +2520,6 @@ qudt:integerPercentage ) ; ] ; . -qudt:isAllowedUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure with a unit system that does not define the unit, but allows its use within the system. An allowed unit must be convertible to some dimensionally eqiuvalent unit that is defined by the system."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "allowed unit of system" ; - rdfs:subPropertyOf qudt:isUnitOfSystem ; - owl:inverseOf qudt:hasAllowedUnit ; -. qudt:isBaseQuantityKindOfSystem a owl:ObjectProperty ; rdfs:isDefinedBy ; @@ -2601,57 +2527,12 @@ qudt:isBaseQuantityKindOfSystem rdfs:subPropertyOf qudt:isQuantityKindOf ; owl:inverseOf qudt:hasBaseQuantityKind ; . -qudt:isBaseUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure to the system of units in which it is defined as a base unit for the system. The base units of a system are used to define the derived units of the system by expressing the derived units as products of the base units raised to a rational power."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "is base unit of system" ; - rdfs:subPropertyOf qudt:isCoherentUnitOfSystem ; - owl:inverseOf qudt:hasBaseUnit ; -. -qudt:isCoherentUnitOfSystem - a owl:DeprecatedProperty ; - a owl:ObjectProperty ; - dct:description "A coherent unit of measurement for a unit system is a defined unit that may be expressed as a product of powers of the system's base units with the proportionality factor of one. A system of units is coherent with respect to a system of quantities and equations if the system of units is chosen in such a way that the equations between numerical values have exactly the same form (including the numerical factors) as the corresponding equations between the quantities. For example, the 'newton' and the 'joule'. These two are, respectively, the force that causes one kilogram to be accelerated at 1 metre per second per second, and the work done by 1 newton acting over 1 metre. Being coherent refers to this consistent use of 1. In the old c.g.s. system , with its base units the centimetre and the gram, the corresponding coherent units were the dyne and the erg, respectively the force that causes 1 gram to be accelerated at 1 centimetre per second per second, and the work done by 1 dyne acting over 1 centimetre. So \\(1 newton = 10^5\\,dyne\\), \\(1 joule = 10^7\\,erg\\), making each of the four compatible in a decimal sense within its respective other system, but not coherent therein."^^qudt:LatexString ; - rdfs:isDefinedBy ; - rdfs:label "is coherent unit of system" ; - rdfs:range qudt:DerivedCoherentUnit ; - rdfs:subPropertyOf qudt:isDefinedUnitOfSystem ; - owl:inverseOf qudt:hasCoherentUnit ; -. -qudt:isDefinedUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure with the unit system that defines the unit."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "defined unit of system" ; - rdfs:subPropertyOf qudt:isUnitOfSystem ; - owl:inverseOf qudt:hasDefinedUnit ; -. -qudt:isDerivedCoherentUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure to the unit system in which the unit is derived from the system's base units with a proportionality constant of one."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "is coherent derived unit of system" ; - rdfs:subPropertyOf qudt:isCoherentUnitOfSystem ; - rdfs:subPropertyOf qudt:isDerivedUnitOfSystem ; - owl:inverseOf qudt:hasDerivedCoherentUnit ; -. -qudt:isDerivedNonCoherentUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure to the unit system in which the unit is derived from the system's base units without proportionality constant of one."^^rdf:HTML ; - rdfs:isDefinedBy ; - rdfs:label "is non-coherent derived unit of system" ; - rdfs:range qudt:DerivedNonCoherentUnit ; - rdfs:subPropertyOf qudt:isDerivedUnitOfSystem ; - owl:inverseOf qudt:hasDerivedNonCoherentUnit ; -. -qudt:isDerivedUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure to the system of units in which it is defined as a derived unit. That is, the derived unit is defined as a product of the base units for the system raised to some rational power."^^rdf:HTML ; +qudt:isDeltaQuantity + a owl:DatatypeProperty ; + rdfs:comment "This property is used to identify a Quantity instance that is a measure of a change, or interval, of some property, rather than a measure of its absolute value. This is important for measurements such as temperature differences where the conversion among units would be calculated differently because of offsets." ; rdfs:isDefinedBy ; - rdfs:label "is derived unit of system" ; - rdfs:subPropertyOf qudt:isUnitOfSystem ; - owl:inverseOf qudt:hasDerivedUnit ; + rdfs:label "is Delta Quantity" ; + rdfs:range xsd:boolean ; . qudt:isDimensionInSystem a owl:ObjectProperty ; @@ -2676,18 +2557,9 @@ qudt:isScalingOf rdfs:isDefinedBy ; rdfs:label "is scaling of" ; . -qudt:isUnitOfSystem - a owl:ObjectProperty ; - dct:description "This property relates a unit of measure with a system of units that either a) defines the unit or b) allows the unit to be used within the system."^^rdf:HTML ; - rdfs:domain qudt:Unit ; - rdfs:isDefinedBy ; - rdfs:label "is unit of system" ; - rdfs:range qudt:SystemOfUnits ; - owl:inverseOf qudt:hasUnit ; -. qudt:isoNormativeReference - a owl:AnnotationProperty ; - dct:description "Provides a way to reference the ISO unit definition."^^rdf:HTML ; + a owl:DatatypeProperty ; + dcterms:description "Provides a way to reference the ISO unit definition."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "normative reference (ISO)" ; rdfs:range xsd:anyURI ; @@ -2712,18 +2584,17 @@ qudt:landscape rdfs:range xsd:boolean ; . qudt:latexDefinition - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; rdfs:isDefinedBy ; rdfs:label "latex definition" ; rdfs:range qudt:LatexString ; . qudt:latexSymbol a owl:DatatypeProperty ; - dct:description "The symbol is a glyph that is used to represent some concept, typically a unit or a quantity, in a compact form. For example, the symbol for an Ohm is \\(ohm\\). This contrasts with 'unit:abbreviation', which gives a short alphanumeric abbreviation for the unit, 'ohm' for Ohm."^^qudt:LatexString ; + dcterms:description "The symbol is a glyph that is used to represent some concept, typically a unit or a quantity, in a compact form. For example, the symbol for an Ohm is \\(ohm\\). This contrasts with 'unit:abbreviation', which gives a short alphanumeric abbreviation for the unit, 'ohm' for Ohm."^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "latex symbol" ; - rdfs:range xsd:string ; - rdfs:subPropertyOf qudt:literal ; + rdfs:range qudt:LatexString ; . qudt:length a rdf:Property ; @@ -2764,7 +2635,7 @@ qudt:matlabName . qudt:maxExclusive a owl:DatatypeProperty ; - dct:description "maxExclusive is the exclusive upper bound of the value space for a datatype with the ordered property. The value of maxExclusive must be in the value space of the base type or be equal to {value} in {base type definition}." ; + dcterms:description "maxExclusive is the exclusive upper bound of the value space for a datatype with the ordered property. The value of maxExclusive must be in the value space of the base type or be equal to {value} in {base type definition}." ; rdfs:isDefinedBy ; rdfs:label "max exclusive" ; rdfs:range xsd:string ; @@ -2772,7 +2643,7 @@ qudt:maxExclusive . qudt:maxInclusive a owl:DatatypeProperty ; - dct:description "maxInclusive is the inclusive upper bound of the value space for a datatype with the ordered property. The value of maxInclusive must be in the value space of the base type." ; + dcterms:description "maxInclusive is the inclusive upper bound of the value space for a datatype with the ordered property. The value of maxInclusive must be in the value space of the base type." ; rdfs:isDefinedBy ; rdfs:label "max inclusive" ; rdfs:subPropertyOf qudt:upperBound ; @@ -2786,14 +2657,14 @@ qudt:microsoftSQLServerName qudt:minExclusive a rdf:Property ; a owl:DatatypeProperty ; - dct:description "minExclusive is the exclusive lower bound of the value space for a datatype with the ordered property. The value of minExclusive must be in the value space of the base type or be equal to {value} in {base type definition}." ; + dcterms:description "minExclusive is the exclusive lower bound of the value space for a datatype with the ordered property. The value of minExclusive must be in the value space of the base type or be equal to {value} in {base type definition}." ; rdfs:isDefinedBy ; rdfs:label "min exclusive" ; rdfs:subPropertyOf qudt:lowerBound ; . qudt:minInclusive a owl:DatatypeProperty ; - dct:description "minInclusive is the inclusive lower bound of the value space for a datatype with the ordered property. The value of minInclusive must be in the value space of the base type." ; + dcterms:description "minInclusive is the inclusive lower bound of the value space for a datatype with the ordered property. The value of minInclusive must be in the value space of the base type." ; rdfs:isDefinedBy ; rdfs:label "min inclusive" ; rdfs:subPropertyOf qudt:lowerBound ; @@ -2806,14 +2677,14 @@ qudt:mySQLName . qudt:negativeDeltaLimit a owl:DatatypeProperty ; - dct:description "A negative change limit between consecutive sample values for a parameter. The Negative Delta may be the encoded value or engineering units value depending on whether or not a Calibrator is defined."^^rdf:HTML ; + dcterms:description "A negative change limit between consecutive sample values for a parameter. The Negative Delta may be the encoded value or engineering units value depending on whether or not a Calibrator is defined."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "negative delta limit" ; rdfs:range xsd:string ; . qudt:normativeReference - a owl:AnnotationProperty ; - dct:description "Provides a way to reference information that is an authorative source providing a standard definition"^^rdf:HTML ; + a owl:DatatypeProperty ; + dcterms:description "Provides a way to reference information that is an authorative source providing a standard definition"^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "normative reference" ; rdfs:range xsd:anyURI ; @@ -2838,7 +2709,7 @@ qudt:odbcName . qudt:oleDBName a owl:DatatypeProperty ; - dct:description "OLE DB (Object Linking and Embedding, Database, sometimes written as OLEDB or OLE-DB), an API designed by Microsoft, allows accessing data from a variety of sources in a uniform manner. The API provides a set of interfaces implemented using the Component Object Model (COM); it is otherwise unrelated to OLE. " ; + dcterms:description "OLE DB (Object Linking and Embedding, Database, sometimes written as OLEDB or OLE-DB), an API designed by Microsoft, allows accessing data from a variety of sources in a uniform manner. The API provides a set of interfaces implemented using the Component Object Model (COM); it is otherwise unrelated to OLE. " ; qudt:informativeReference "http://en.wikipedia.org/wiki/OLE_DB"^^xsd:anyURI ; qudt:informativeReference "http://msdn.microsoft.com/en-us/library/windows/desktop/ms714931(v=vs.85).aspx"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -2852,7 +2723,7 @@ qudt:omUnit rdfs:label "om unit" ; . qudt:onlineReference - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; rdfs:isDefinedBy ; rdfs:label "online reference" ; rdfs:range xsd:anyURI ; @@ -2875,7 +2746,7 @@ qudt:orderedType rdfs:label "ordered type" ; . qudt:outOfScope - a owl:AnnotationProperty ; + a owl:DatatypeProperty ; rdfs:isDefinedBy ; rdfs:label "out of scope" ; rdfs:range xsd:boolean ; @@ -2892,18 +2763,32 @@ qudt:permissibleTransformation . qudt:plainTextDescription a owl:DatatypeProperty ; - dct:description "A plain text description is used to provide a description with only simple ASCII characters for cases where LaTeX , HTML or other markup would not be appropriate."^^rdf:HTML ; + dcterms:description "A plain text description is used to provide a description with only simple ASCII characters for cases where LaTeX , HTML or other markup would not be appropriate."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "description (plain text)" ; rdfs:range xsd:string ; . qudt:positiveDeltaLimit a owl:DatatypeProperty ; - dct:description "A positive change limit between consecutive sample values for a parameter. The Positive Delta may be the encoded value or engineering units value depending on whether or not a Calibrator is defined."^^rdf:HTML ; + dcterms:description "A positive change limit between consecutive sample values for a parameter. The Positive Delta may be the encoded value or engineering units value depending on whether or not a Calibrator is defined."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "Positive delta limit" ; rdfs:range xsd:string ; . +qudt:prefix + a owl:ObjectProperty ; + rdfs:comment "Associates a unit with the appropriate prefix, if any." ; + rdfs:isDefinedBy ; + rdfs:label "prefix" ; + rdfs:range qudt:Prefix ; +. +qudt:prefixMultiplier + a owl:DatatypeProperty ; + a owl:FunctionalProperty ; + rdfs:isDefinedBy ; + rdfs:label "prefix multiplier" ; + rdfs:range xsd:double ; +. qudt:protocolBuffersName a rdf:Property ; rdfs:isDefinedBy ; @@ -2930,7 +2815,7 @@ qudt:qkdvNumerator . qudt:quantity a owl:ObjectProperty ; - dct:description "a property to relate an observable thing with a quantity (qud:Quantity)"^^rdf:HTML ; + dcterms:description "a property to relate an observable thing with a quantity (qud:Quantity)"^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "quantity" ; . @@ -2964,7 +2849,7 @@ qudt:referenceUnit . qudt:relativeStandardUncertainty a owl:DatatypeProperty ; - dct:description "The relative standard uncertainty of a measurement is the (absolute) standard uncertainty divided by the magnitude of the exact value."^^rdf:HTML ; + dcterms:description "The relative standard uncertainty of a measurement is the (absolute) standard uncertainty divided by the magnitude of the exact value."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "relative standard uncertainty" ; rdfs:range xsd:double ; @@ -2975,6 +2860,13 @@ qudt:relevantQuantityKind rdfs:label "relevant quantity kind" ; rdfs:range qudt:QuantityKind ; . +qudt:relevantUnit + a owl:ObjectProperty ; + rdfs:comment "This property is used for qudt:Discipline instances to identify the Unit instances that are used within a given discipline." ; + rdfs:isDefinedBy ; + rdfs:label "Relevant Unit" ; + rdfs:range qudt:Unit ; +. qudt:ruleType a owl:ObjectProperty ; rdfs:isDefinedBy ; @@ -2993,21 +2885,21 @@ qudt:siUnitsExpression . qudt:specialization a owl:ObjectProperty ; - dct:description "This property relates a quantity kind to its specialization(s). For example, linear velocity and angular velocity are both specializations of velocity."^^rdf:HTML ; + dcterms:description "This property relates a quantity kind to its specialization(s). For example, linear velocity and angular velocity are both specializations of velocity."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "specialization" ; owl:inverseOf qudt:generalization ; . qudt:standardUncertainty a owl:DatatypeProperty ; - dct:description "The standard uncertainty of a quantity is the estimated standard deviation of the mean taken from a series of measurements."^^rdf:HTML ; + dcterms:description "The standard uncertainty of a quantity is the estimated standard deviation of the mean taken from a series of measurements."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "standard uncertainty" ; rdfs:range xsd:double ; . qudt:symbol a owl:DatatypeProperty ; - dct:description "The symbol is a glyph that is used to represent some concept, typically a unit or a quantity, in a compact form. For example, the symbol for an Ohm is \\(ohm\\). This contrasts with 'unit:abbreviation', which gives a short alphanumeric abbreviation for the unit, 'ohm' for Ohm."^^qudt:LatexString ; + dcterms:description "The symbol is a glyph that is used to represent some concept, typically a unit or a quantity, in a compact form. For example, the symbol for an Ohm is \\(ohm\\). This contrasts with 'unit:abbreviation', which gives a short alphanumeric abbreviation for the unit, 'ohm' for Ohm."^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "symbol" ; rdfs:range xsd:string ; @@ -3032,24 +2924,35 @@ qudt:systemDimension rdfs:label "system dimension" ; . qudt:ucumCaseInsensitiveCode - a owl:DatatypeProperty ; - dct:description "ucumCode associates a QUDT unit with a UCUM case-insensitive code."^^rdf:HTML ; + a owl:AnnotationProperty ; + dcterms:description "ucumCode associates a QUDT unit with a UCUM case-insensitive code."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "ucum case-insensitive code" ; rdfs:subPropertyOf qudt:ucumCode ; + owl:deprecated true ; . qudt:ucumCaseSensitiveCode - a owl:DatatypeProperty ; - dct:description "ucumCode associates a QUDT unit with with a UCUM case-sensitive code."^^rdf:HTML ; + a owl:AnnotationProperty ; + dcterms:description "ucumCode associates a QUDT unit with with a UCUM case-sensitive code."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "ucum case-sensitive code" ; rdfs:subPropertyOf qudt:ucumCode ; + owl:deprecated true ; . qudt:ucumCode a owl:DatatypeProperty ; - dct:description "

ucumCode associates a QUDT unit with its UCUM counterpart.

In SHACL the values are derived from specifi ucum properties using 'sh:values'.

"^^rdf:HTML ; + dcterms:description "

ucumCode associates a QUDT unit with its UCUM code (case-sensitive).

In SHACL the values are derived from specific ucum properties using 'sh:values'.

"^^rdf:HTML ; + dcterms:source "https://ucum.org/ucum.html"^^xsd:anyURI ; rdfs:isDefinedBy ; rdfs:label "ucum code" ; + rdfs:range [ + a owl:Class ; + owl:unionOf ( + qudt:UCUMcs + qudt:UCUMcs-term + ) ; + ] ; + rdfs:seeAlso ; rdfs:subPropertyOf skos:notation ; . qudt:uneceCommonCode @@ -3060,7 +2963,7 @@ qudt:uneceCommonCode . qudt:unit a owl:ObjectProperty ; - dct:description "A reference to the unit of measure of a quantity (variable or constant) of interest."^^rdf:HTML ; + dcterms:description "A reference to the unit of measure of a quantity (variable or constant) of interest."^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "unit" ; rdfs:range qudt:Unit ; @@ -3072,6 +2975,15 @@ qudt:unitFor rdfs:label "unit for" ; owl:inverseOf qudt:unit ; . +qudt:unitOfSystem + a owl:ObjectProperty ; + dcterms:description "This property relates a unit of measure with a system of units that either a) defines the unit or b) allows the unit to be used within the system."^^rdf:HTML ; + rdfs:domain qudt:Unit ; + rdfs:isDefinedBy ; + rdfs:label "is unit of system" ; + rdfs:range qudt:SystemOfUnits ; + owl:inverseOf qudt:hasUnit ; +. qudt:upperBound a owl:DatatypeProperty ; rdfs:isDefinedBy ; @@ -3086,7 +2998,7 @@ qudt:url . qudt:value a owl:ObjectProperty ; - dct:description "A property to relate an observable thing with a value that can be of any simple XSD type"^^rdf:HTML ; + dcterms:description "A property to relate an observable thing with a value that can be of any simple XSD type"^^rdf:HTML ; rdfs:isDefinedBy ; rdfs:label "value" ; . @@ -3098,7 +3010,7 @@ qudt:valueQuantity . qudt:valueUnion a rdfs:Datatype ; - dct:description "A datatype that is the union of numeric xsd data types. \"numericUnion\" is equivalent to the xsd specification that uses an xsd:union of memberTypes=\"xsd:decimal xsd:double xsd:float xsd:integer\"." ; + dcterms:description "A datatype that is the union of numeric xsd data types. \"numericUnion\" is equivalent to the xsd specification that uses an xsd:union of memberTypes=\"xsd:decimal xsd:double xsd:float xsd:integer\"." ; rdfs:isDefinedBy ; rdfs:label "value union" ; rdfs:subClassOf rdfs:Resource ; @@ -3145,65 +3057,68 @@ voag:supersededBy . vaem:GMD_QUDT-SCHEMA a vaem:GraphMetaData ; - dct:author "Ralph Hodgson" ; - dct:contributor "Daniel Mekonnen" ; - dct:contributor "David Price" ; - dct:contributor "Jack Hodges" ; - dct:contributor "James E. Masters" ; - dct:contributor "Simon Cox" ; - dct:contributor "Steve Ray" ; - dct:created "2011-04-20"^^xsd:date ; - dct:creator "Ralph Hodgson" ; - dct:description """

The QUDT, or \"Quantity, Unit, Dimension and Type\" schema defines the base classes properties, and restrictions used for modeling physical quantities, units of measure, and their dimensions in various measurement systems. The goal of the QUDT ontology is to provide a unified model of, measurable quantities, units for measuring different kinds of quantities, the numerical values of quantities in different units of measure and the data structures and data types used to store and manipulate these objects in software.

+ dcterms:contributor "Daniel Mekonnen" ; + dcterms:contributor "David Price" ; + dcterms:contributor "Jack Hodges" ; + dcterms:contributor "James E. Masters" ; + dcterms:contributor "Simon J D Cox" ; + dcterms:contributor "Steve Ray" ; + dcterms:created "2011-04-20"^^xsd:date ; + dcterms:creator "Ralph Hodgson" ; + dcterms:description """

The QUDT, or \"Quantity, Unit, Dimension and Type\" schema defines the base classes properties, and restrictions used for modeling physical quantities, units of measure, and their dimensions in various measurement systems. The goal of the QUDT ontology is to provide a unified model of, measurable quantities, units for measuring different kinds of quantities, the numerical values of quantities in different units of measure and the data structures and data types used to store and manipulate these objects in software.

Except for unit prefixes, all units are specified in separate vocabularies. Descriptions are provided in both HTML and LaTeX formats. A quantity is a measure of an observable phenomenon, that, when associated with something, becomes a property of that thing; a particular object, event, or physical system.

A quantity has meaning in the context of a measurement (i.e. the thing measured, the measured value, the accuracy of measurement, etc.) whereas the underlying quantity kind is independent of any particular measurement. Thus, length is a quantity kind while the height of a rocket is a specific quantity of length; its magnitude that may be expressed in meters, feet, inches, etc. Or, as stated at Wikipedia, in the language of measurement, quantities are quantifiable aspects of the world, such as time, distance, velocity, mass, momentum, energy, and weight, and units are used to describe their measure. Many of these quantities are related to each other by various physical laws, and as a result the units of some of the quantities can be expressed as products (or ratios) of powers of other units (e.g., momentum is mass times velocity and velocity is measured in distance divided by time).

"""^^rdf:HTML ; - dct:modified "2020-04-06T12:30:51.335-07:00"^^xsd:dateTime ; - dct:rights "The QUDT Ontologies are issued under a Creative Commons Attribution 4.0 International License (CC BY 4.0), available at https://creativecommons.org/licenses/by/4.0/. Attribution should be made to QUDT.org" ; - dct:subject "QUDT" ; - dct:title "QUDT Schema - Version 2.1.2" ; + dcterms:modified "2021-07-20T15:33:10.827-07:00"^^xsd:dateTime ; + dcterms:rights """ + This product includes all or a portion of the UCUM table, UCUM codes, and UCUM definitions or is derived from it, subject to a license from Regenstrief Institute, Inc. and The UCUM Organization. Your use of the UCUM table, UCUM codes, UCUM definitions also is subject to this license, a copy of which is available at ​http://unitsofmeasure.org. The current complete UCUM table, UCUM Specification are available for download at ​http://unitsofmeasure.org. The UCUM table and UCUM codes are copyright © 1995-2009, Regenstrief Institute, Inc. and the Unified Codes for Units of Measures (UCUM) Organization. All rights reserved. + +THE UCUM TABLE (IN ALL FORMATS), UCUM DEFINITIONS, AND SPECIFICATION ARE PROVIDED 'AS IS.' ANY EXPRESS OR IMPLIED WARRANTIES ARE DISCLAIMED, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE. + """ ; + dcterms:rights "The QUDT Ontologies are issued under a Creative Commons Attribution 4.0 International License (CC BY 4.0), available at https://creativecommons.org/licenses/by/4.0/. Attribution should be made to QUDT.org" ; + dcterms:subject "QUDT" ; + dcterms:title "QUDT Schema - Version 2.1.12" ; qudt:informativeReference "http://unitsofmeasure.org/trac"^^xsd:anyURI ; qudt:informativeReference "http://www.bipm.org/en/publications/si-brochure"^^xsd:anyURI ; qudt:informativeReference "http://www.bipm.org/utils/common/documents/jcgm/JCGM_200_2008.pdf"^^xsd:anyURI ; qudt:informativeReference "https://books.google.com/books?id=pIlCAAAAIAAJ&dq=dimensional+analysis&hl=en"^^xsd:anyURI ; qudt:informativeReference "https://www.nist.gov/physical-measurement-laboratory/special-publication-811"^^xsd:anyURI ; vaem:graphName "qudt" ; - vaem:graphTitle "Quantities, Units, Dimensions and Types (QUDT) Schema - Version 2.1.2" ; + vaem:graphTitle "Quantities, Units, Dimensions and Types (QUDT) Schema - Version 2.1.12" ; vaem:hasGraphRole vaem:SchemaGraph ; vaem:hasOwner vaem:QUDT ; vaem:hasSteward vaem:QUDT ; vaem:intent "Specifies the schema for quantities, units and dimensions. Types are defined in other schemas." ; vaem:isMetadataFor ; - vaem:latestPublishedVersion "http://www.qudt.org/doc/2020/04/DOC_SCHEMA-QUDT-v2.1.html"^^xsd:anyURI ; + vaem:latestPublishedVersion "http://www.qudt.org/doc/2021/07/DOC_SCHEMA-QUDT-v2.1.html"^^xsd:anyURI ; vaem:logo "http://www.linkedmodel.org/lib/lm/images/logos/qudt_logo-300x110.png"^^xsd:anyURI ; vaem:namespace "http://qudt.org/schema/qudt/" ; vaem:namespacePrefix "qudt" ; vaem:owner "qudt.org" ; - vaem:previousPublishedVersion "http://www.qudt.org/doc/2019/10/DOC_SCHEMA-QUDT-v2.1.html"^^xsd:anyURI ; - vaem:revision "2.1.2" ; + vaem:previousPublishedVersion "http://www.qudt.org/doc/2021/06/DOC_SCHEMA-QUDT-v2.1.html"^^xsd:anyURI ; + vaem:revision "2.1" ; vaem:turtleFileURL "http://qudt.org/2.1/schema/qudt"^^xsd:anyURI ; - vaem:usesNonImportedResource dct:abstract ; - vaem:usesNonImportedResource dct:author ; - vaem:usesNonImportedResource dct:contributor ; - vaem:usesNonImportedResource dct:created ; - vaem:usesNonImportedResource dct:description ; - vaem:usesNonImportedResource dct:modified ; - vaem:usesNonImportedResource dct:rights ; - vaem:usesNonImportedResource dct:source ; - vaem:usesNonImportedResource dct:subject ; - vaem:usesNonImportedResource dct:title ; + vaem:usesNonImportedResource dcterms:abstract ; + vaem:usesNonImportedResource dcterms:contributor ; + vaem:usesNonImportedResource dcterms:created ; + vaem:usesNonImportedResource dcterms:description ; + vaem:usesNonImportedResource dcterms:modified ; + vaem:usesNonImportedResource dcterms:rights ; + vaem:usesNonImportedResource dcterms:source ; + vaem:usesNonImportedResource dcterms:subject ; + vaem:usesNonImportedResource dcterms:title ; vaem:usesNonImportedResource voag:QUDT-Attribution ; vaem:withAttributionTo voag:QUDT-Attribution ; rdfs:isDefinedBy ; - rdfs:label "QUDT Schema - Version 2.1.2" ; + rdfs:label "QUDT Schema - Version 2.1.12" ; owl:versionIRI ; . vaem:QUDT a vaem:Party ; - dct:description "QUDT is a non-profit organization that governs the QUDT ontologies."^^rdf:HTML ; + dcterms:description "QUDT is a non-profit organization that governs the QUDT ontologies."^^rdf:HTML ; vaem:graphName "qudt.org" ; - vaem:website "http:/www.qudt.org"^^xsd:anyURI ; + vaem:website "http://www.qudt.org"^^xsd:anyURI ; rdfs:isDefinedBy ; rdfs:label "QUDT" ; . diff --git a/support/VOCAB_QUDT-QUANTITY-KINDS-ALL-v2.1.ttl b/support/VOCAB_QUDT-QUANTITY-KINDS-ALL-v2.1.ttl index 5e78031a..59c24f4f 100644 --- a/support/VOCAB_QUDT-QUANTITY-KINDS-ALL-v2.1.ttl +++ b/support/VOCAB_QUDT-QUANTITY-KINDS-ALL-v2.1.ttl @@ -23,7 +23,7 @@ a owl:Ontology ; vaem:hasGraphMetadata vaem:GMD_QUDT-QUANTITY-KINDS-ALL ; rdfs:isDefinedBy ; - rdfs:label "QUDT VOCAB Quantity Kinds Release 2.1" ; + rdfs:label "QUDT VOCAB Quantity Kinds Release 2.1.12" ; owl:imports ; owl:imports ; owl:versionIRI ; @@ -95,8 +95,8 @@ quantitykind:AbsorbedDoseRate qudt:applicableUnit unit:ERG-PER-GM-SEC ; qudt:applicableUnit unit:GRAY-PER-SEC ; qudt:applicableUnit unit:W-PER-KiloGM ; - qudt:baseUnitDimensions "L^2/T^3" ; - qudt:baseUnitDimensions "m^2/s^3" ; + qudt:baseUnitDimensions "\\(L^2/T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^2/s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-3D0 ; qudt:informativeReference "http://www.answers.com/topic/absorbed-dose-rate"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; @@ -109,6 +109,7 @@ quantitykind:AbsorbedDoseRate quantitykind:Absorptance a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "https://en.wikipedia.org/wiki/Absorptance"^^xsd:anyURI ; qudt:informativeReference "https://www.researchgate.net/post/Absorptance_or_absorbance"^^xsd:anyURI ; qudt:latexDefinition "\\(\\alpha = \\frac{\\Phi_a}{\\Phi_m}\\), where \\(\\Phi_a\\) is the absorbed radiant flux or the absorbed luminous flux, and \\(\\Phi_m\\) is the radiant flux or luminous flux of the incident radiation."^^qudt:LatexString ; @@ -126,7 +127,7 @@ quantitykind:Acceleration qudt:applicableUnit unit:CentiM-PER-SEC2 ; qudt:applicableUnit unit:FT-PER-SEC2 ; qudt:applicableUnit unit:G ; - qudt:applicableUnit unit:GAL ; + qudt:applicableUnit unit:GALILEO ; qudt:applicableUnit unit:IN-PER-SEC2 ; qudt:applicableUnit unit:KN-PER-SEC ; qudt:applicableUnit unit:KiloPA-M2-PER-GM ; @@ -143,6 +144,17 @@ quantitykind:Acceleration . quantitykind:AccelerationOfGravity a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-SEC2 ; + qudt:applicableUnit unit:FT-PER-SEC2 ; + qudt:applicableUnit unit:G ; + qudt:applicableUnit unit:GALILEO ; + qudt:applicableUnit unit:IN-PER-SEC2 ; + qudt:applicableUnit unit:KN-PER-SEC ; + qudt:applicableUnit unit:KiloPA-M2-PER-GM ; + qudt:applicableUnit unit:M-PER-SEC2 ; + qudt:applicableUnit unit:MicroG ; + qudt:applicableUnit unit:MilliG ; + qudt:applicableUnit unit:MilliGAL ; qudt:plainTextDescription "The acceleration of freely falling bodies under the influence of terrestrial gravity, equal to approximately 9.81 meters (32 feet) per second per second." ; qudt:symbol "g" ; rdfs:isDefinedBy ; @@ -353,6 +365,7 @@ Variation \\(dN\\) of spontaneous number of nuclei \\(N\\) in a particular energ quantitykind:ActivityCoefficient a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Activity_coefficient"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(f_B = \\frac{\\lambda_B}{(\\lambda_B^*x_B)}\\), where \\(\\lambda_B\\) the absolute activity of substance \\(B\\), \\(\\lambda_B^*\\) is the absolute activity of the pure substance \\(B\\) at the same temperature and pressure, and \\(x_B\\) is the amount-of-substance fraction of substance \\(B\\)."^^qudt:LatexString ; @@ -380,7 +393,7 @@ quantitykind:ActivityConcentration quantitykind:ActivityThresholds a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_t\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_t}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Activity Thresholds\" are thresholds of sensitivity for radioactivity." ; rdfs:isDefinedBy ; rdfs:label "Activity Thresholds"@en ; @@ -397,17 +410,19 @@ quantitykind:Admittance a qudt:QuantityKind ; dcterms:description "\"Admittance\" is a measure of how easily a circuit or device will allow a current to flow. It is defined as the inverse of the impedance (\\(Z\\)). "^^qudt:LatexString ; qudt:applicableUnit unit:S ; + qudt:hasDimensionVector qkdv:A0E2L-3I0M-1H0T3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Admittance"^^xsd:anyURI ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-51"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\underline{Y} = \\frac{1}{\\underline{Z}}\\), where \\(\\underline{Z}\\) is impedance."^^qudt:LatexString ; - qudt:latexSymbol "\\(\\underline{Y}\\)"^^qudt:LatexString ; + qudt:latexDefinition "\\(Y = \\frac{1}{Z}\\), where \\(Z\\) is impedance." ; + qudt:latexSymbol "\\(Y\\)" ; rdfs:isDefinedBy ; rdfs:label "Admittance"@en ; rdfs:seeAlso quantitykind:Impedance ; . quantitykind:AlphaDisintegrationEnergy a qudt:QuantityKind ; + dcterms:description "The \"Alpha Disintegration Energy\" is the sum of the kinetic energy of the \\(\\alpha\\)-particle produced in the disintegration process and the recoil energy of the product atom in the reference frame in which the emitting nucleus is at rest before its disintegration."^^qudt:LatexString ; qudt:applicableUnit unit:AttoJ ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_TH ; @@ -452,8 +467,8 @@ quantitykind:AlphaDisintegrationEnergy qudt:applicableUnit unit:W-SEC ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:normativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; - qudt:plainTextDescription "The \"Alpha Disintegration Energy\" is the sum of the kinetic energy of the \\(\\alpha-particle\\) produced in the disintegration process and the recoil energy of the product atom in the reference frame in which the emitting nucleus is at rest before its disintegration." ; - qudt:symbol "Q_a" ; + qudt:plainTextDescription "The \"Alpha Disintegration Energy\" is the sum of the kinetic energy of the alpha-particle produced in the disintegration process and the recoil energy of the product atom in the reference frame in which the emitting nucleus is at rest before its disintegration." ; + qudt:symbol "\\(Q_a\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Alpha Disintegration Energy"@en ; skos:broader quantitykind:Energy ; @@ -528,6 +543,7 @@ The SI unit of pressure is the pascal (Pa), which is a very small unit relative qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -563,14 +579,14 @@ The SI unit of pressure is the pascal (Pa), which is a very small unit relative . quantitykind:AmountOfSubstance a qudt:QuantityKind ; - dcterms:description "\"Amount of Substance\" is a standards-defined quantity that measures the size of an ensemble of elementary entities, such as atoms, molecules, electrons, and other particles. It is sometimes referred to as chemical amount. The International System of Units (SI) defines the amount of substance to be proportional to the number of elementary entities present. The SI unit for amount of substance is \\(mole\\). It has the unit symbol \\(mol\\). The mole is defined as the amount of substance that contains an equal number of elementary entities as there are atoms in 0.012kg of the isotope carbon-12. This number is called Avogadro's number and has the value \\(6.02214179(30) \\times 10\\). The only other unit of amount of substance in current use is the \\(pound-mole\\) with the symbol \\(lb-mol\\), which is sometimes used in chemical engineering in the United States. One \\(pound-mole\\) is exactly \\(453.59237 mol\\)."^^qudt:LatexString ; + dcterms:description "\"Amount of Substance\" is a standards-defined quantity that measures the size of an ensemble of elementary entities, such as atoms, molecules, electrons, and other particles. It is sometimes referred to as chemical amount. The International System of Units (SI) defines the amount of substance to be proportional to the number of elementary entities present. The SI unit for amount of substance is \\(mole\\). It has the unit symbol \\(mol\\). The mole is defined as the amount of substance that contains an equal number of elementary entities as there are atoms in 0.012kg of the isotope carbon-12. This number is called Avogadro's number and has the value \\(6.02214179(30) \\times 10^{23}\\). The only other unit of amount of substance in current use is the \\(pound-mole\\) with the symbol \\(lb-mol\\), which is sometimes used in chemical engineering in the United States. One \\(pound-mole\\) is exactly \\(453.59237 mol\\)."^^qudt:LatexString ; qudt:applicableUnit unit:IU ; qudt:applicableUnit unit:KiloMOL ; qudt:applicableUnit unit:MOL ; qudt:applicableUnit unit:MicroMOL ; qudt:applicableUnit unit:MilliMOL ; - qudt:baseUnitDimensions "M" ; - qudt:baseUnitDimensions "mol" ; + qudt:baseUnitDimensions "\\(M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(mol\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Amount_of_substance"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A1E0L0I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Amount_of_substance"^^xsd:anyURI ; @@ -594,6 +610,7 @@ quantitykind:AmountOfSubstanceConcentrationOfB quantitykind:AmountOfSubstanceFractionOfB a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Amount_fraction"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(x_B = \\frac{n_B}{n}\\), where \\(n_B\\) is the amount of substance \\(B\\) and \\(n\\) is the total amount of substance."^^qudt:LatexString ; @@ -612,7 +629,7 @@ quantitykind:AmountOfSubstancePerUnitMass qudt:applicableUnit unit:MilliMOL-PER-KiloGM ; qudt:applicableUnit unit:NanoMOL-PER-KiloGM ; qudt:applicableUnit unit:PicoMOL-PER-KiloGM ; - qudt:baseUnitDimensions "N/M" ; + qudt:baseUnitDimensions "\\(N/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A1E0L0I0M-1H0T0D0 ; vaem:todo "fix the numerator and denominator dimensions" ; rdfs:isDefinedBy ; @@ -631,8 +648,8 @@ quantitykind:AmountOfSubstancePerUnitVolume qudt:applicableUnit unit:MilliMOL-PER-M3 ; qudt:applicableUnit unit:PicoMOL-PER-L ; qudt:applicableUnit unit:PicoMOL-PER-M3 ; - qudt:baseUnitDimensions "M/L^3" ; - qudt:baseUnitDimensions "mol/m^3" ; + qudt:baseUnitDimensions "\\(M/L^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(mol/m^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A1E0L-3I0M0H0T0D0 ; qudt:informativeReference "http://www.ask.com/answers/72367781/what-is-defined-as-the-amount-of-substance-per-unit-of-volume"^^xsd:anyURI ; qudt:informativeReference "https://en.wikipedia.org/wiki/Molar_concentration"^^xsd:anyURI ; @@ -657,6 +674,7 @@ quantitykind:Angle qudt:applicableUnit unit:RAD ; qudt:applicableUnit unit:REV ; qudt:dbpediaMatch "http://dbpedia.org/resource/Angle"^^xsd:anyURI ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; rdfs:isDefinedBy ; rdfs:label "Angle"@en ; owl:sameAs quantitykind:PlaneAngle ; @@ -712,7 +730,7 @@ quantitykind:AngularAcceleration qudt:applicableUnit unit:REV-PER-SEC2 ; qudt:baseCGSUnitDimensions "U/T^2" ; qudt:baseSIUnitDimensions "\\(/s^2\\)"^^qudt:LatexString ; - qudt:baseUnitDimensions "U/T^2" ; + qudt:baseUnitDimensions "\\(U/T^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Angular_acceleration"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-2D0 ; qudt:qkdvDenominator qkdv:A0E0L1I0M0H0T2D0 ; @@ -772,7 +790,7 @@ quantitykind:AngularFrequency qudt:informativeReference "http://en.wikipedia.org/wiki/Angular_frequency"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; qudt:latexDefinition "\\(\\omega = 2\\pi f\\), where \\(f\\) is frequency."^^qudt:LatexString ; - qudt:latexSymbol "\\(\\(\\omega\\)\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\omega\\)" ; vaem:todo "belongs to SOQ-ISO" ; rdfs:isDefinedBy ; rdfs:label "Angular Frequency"@en ; @@ -800,8 +818,8 @@ quantitykind:AngularMomentum qudt:applicableUnit unit:J-SEC ; qudt:applicableUnit unit:KiloGM-M2-PER-SEC ; qudt:applicableUnit unit:N-M-SEC ; - qudt:baseUnitDimensions "L^2 \\cdot M/T" ; - qudt:baseUnitDimensions "kg \\cdot m^2/s" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/s\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Angular_momentum"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Angular_momentum"^^xsd:anyURI ; @@ -837,8 +855,8 @@ quantitykind:AngularVelocity qudt:applicableUnit unit:REV-PER-HR ; qudt:applicableUnit unit:REV-PER-MIN ; qudt:applicableUnit unit:REV-PER-SEC ; - qudt:baseUnitDimensions "/s" ; - qudt:baseUnitDimensions "U/T" ; + qudt:baseUnitDimensions "\\(/s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(U/T\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Angular_velocity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; qudt:informativeReference "https://en.wikipedia.org/wiki/Angular_velocity"^^xsd:anyURI ; @@ -942,11 +960,12 @@ quantitykind:Area qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:baseCGSUnitDimensions "cm^2" ; qudt:baseSIUnitDimensions "\\(m^2\\)"^^qudt:LatexString ; - qudt:baseUnitDimensions "L^2" ; + qudt:baseUnitDimensions "\\(L^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Area"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; qudt:plainTextDescription "Area is a quantity expressing the two-dimensional size of a defined part of a surface, typically a region bounded by a closed curve." ; @@ -956,8 +975,8 @@ quantitykind:Area quantitykind:AreaAngle a qudt:QuantityKind ; qudt:applicableUnit unit:M2-SR ; - qudt:baseUnitDimensions "L^2 \\cdot U" ; - qudt:baseUnitDimensions "m^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot U\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; rdfs:isDefinedBy ; rdfs:label "Area Angle"@en ; @@ -992,8 +1011,8 @@ quantitykind:AreaTemperature a qudt:QuantityKind ; qudt:applicableUnit unit:FT2-DEG_F ; qudt:applicableUnit unit:M2-K ; - qudt:baseUnitDimensions "K \\cdot m^2" ; - qudt:baseUnitDimensions "\\Theta \\cdot L^2" ; + qudt:baseUnitDimensions "\\(K \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot L^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H1T0D0 ; rdfs:isDefinedBy ; rdfs:label "Area Temperature"@en ; @@ -1001,8 +1020,8 @@ quantitykind:AreaTemperature quantitykind:AreaThermalExpansion a qudt:QuantityKind ; qudt:applicableUnit unit:M2-PER-K ; - qudt:baseUnitDimensions "L^2/\\Theta" ; - qudt:baseUnitDimensions "m^2/K" ; + qudt:baseUnitDimensions "\\(L^2/\\Theta\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^2/K\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T0D0 ; qudt:informativeReference "http://en.wikipedia.org/area_thermal_expansion"^^xsd:anyURI ; qudt:plainTextDescription "When the temperature of a substance changes, the energy that is stored in the intermolecular bonds between atoms changes. When the stored energy increases, so does the length of the molecular bonds. As a result, solids typically expand in response to heating and contract on cooling; this dimensional response to temperature change is expressed by its coefficient of thermal expansion." ; @@ -1015,8 +1034,8 @@ quantitykind:AreaTime qudt:applicableUnit unit:CentiM2-SEC ; qudt:applicableUnit unit:HR-FT2 ; qudt:applicableUnit unit:SEC-FT2 ; - qudt:baseUnitDimensions "L^2 \\cdot T" ; - qudt:baseUnitDimensions "m^2 \\cdot s" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^2 \\cdot s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T1D0 ; rdfs:isDefinedBy ; rdfs:label "Area Time"@en ; @@ -1089,6 +1108,7 @@ quantitykind:AtmosphericPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -1127,6 +1147,7 @@ quantitykind:AtmosphericPressure quantitykind:AtomScatteringFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://reference.iucr.org/dictionary/Atomic_scattering_factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexDefinition "\\(f = \\frac{E_a}{E_e}\\), where \\(E_a\\) is the radiation amplitude scattered by the atom and \\(E_e\\) is the radiation ampliture scattered by a single electron."^^qudt:LatexString ; @@ -1151,6 +1172,7 @@ quantitykind:AtomicAttenuationCoefficient qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -1274,6 +1296,7 @@ quantitykind:AtomicNumber quantitykind:AttenuationCoefficient a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Attenuation_coefficient"^^xsd:anyURI ; qudt:latexDefinition "\\(F(x) = Ae^{-\\alpha x} \\cos{[\\beta (x - x_0)]}\\), then \\(\\alpha\\) is the attenuation coefficient and \\(\\beta\\) is the phase coefficient."^^qudt:LatexString ; qudt:latexSymbol "\\(\\alpha\\)"^^qudt:LatexString ; @@ -1286,7 +1309,7 @@ quantitykind:AuditoryThresholds a qudt:QuantityKind ; qudt:applicableUnit unit:DeciB ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_a\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_a}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Auditory Thresholds\" is the thresholds of sensitivity to auditory signals and other input to the ear or the sense of hearing." ; rdfs:isDefinedBy ; rdfs:label "Auditory Thresholds"@en ; @@ -1303,13 +1326,12 @@ quantitykind:AuxillaryMagneticField qudt:applicableUnit unit:MilliA-PER-IN ; qudt:applicableUnit unit:MilliA-PER-MilliM ; qudt:applicableUnit unit:OERSTED ; - qudt:applicableUnit unit:T_Ab ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:latexSymbol "H"^^qudt:LatexString ; qudt:plainTextDescription "Magnetic Fields surround magnetic materials and electric currents and are detected by the force they exert on other magnetic materials and moving electric charges. The electric and magnetic fields are two interrelated aspects of a single object, called the electromagnetic field. A pure electric field in one reference frame is observed as a combination of both an electric field and a magnetic field in a moving reference frame. The Auxillary Magnetic Field, H characterizes how the true Magnetic Field B influences the organization of magnetic dipoles in a given medium." ; rdfs:isDefinedBy ; rdfs:label "Auxillary Magnetic Field"@en ; - skos:broader quantitykind:MagneticFieldStrength ; + skos:broader quantitykind:MagneticFieldStrength_H ; . quantitykind:AverageEnergyLossPerElementaryChargeProduced a qudt:QuantityKind ; @@ -1389,6 +1411,7 @@ quantitykind:AverageHeadEndPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -1425,6 +1448,7 @@ quantitykind:AverageHeadEndPressure quantitykind:AverageLogarithmicEnergyDecrement a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://everything2.com/title/Average+logarithmic+energy+decrement+per+collision"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexSymbol "\\(\\xi\\)"^^qudt:LatexString ; @@ -1566,6 +1590,7 @@ quantitykind:BevelGearPitchAngle quantitykind:BindingFraction a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://encyclopedia2.thefreedictionary.com/binding+fraction"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(b = \\frac{B_r}{A}\\), where \\(B_r\\) is the relative mass defect and \\(A\\) is the nucleon number."^^qudt:LatexString ; @@ -1577,13 +1602,24 @@ quantitykind:BindingFraction quantitykind:BloodGlucoseLevel a qudt:QuantityKind ; dcterms:description "The blood sugar level, blood sugar concentration, or blood glucose level is the amount of glucose present in the blood of humans and other animals. Glucose is a simple sugar and approximately 4 grams of glucose are present in the blood of humans at all times. The body tightly regulates blood glucose levels as a part of metabolic homeostasis. Glucose is stored in skeletal muscle and liver cells in the form of glycogen;[2] in fasted individuals, blood glucose is maintained at a constant level at the expense of glycogen stores in the liver and skeletal muscle. [Wikipedia] \\(\\\\\\) There are two main methods of describing concentrations: by weight, and by molecular count. Weights are in grams, molecular counts in moles. A mole is \\(6.022\\times 10^{23}\\) molecules.) In both cases, the unit is usually modified by \\(milli-\\) or \\(micro-\\) or other prefix, and is always \\(per\\) some volume, often a liter. Conversion factors depend on the molecular weight of the substance in question. \\(\\\\\\) \\(mmol/L\\) is millimoles/liter, and is the world standard unit for measuring glucose in blood. Specifically, it is the designated SI (Systeme International) unit. 'World standard' is not universal; not only the US but a number of other countries use mg/dl. A mole is about \\(6\\times 10^{23}\\) molecules. \\(\\\\\\) \\(mg/dL\\) (milligrams/deciliter) is the traditional unit for measuring bG (blood glucose). There is a trend toward using \\(mmol/L\\) however mg/dL is much in practice. Some use is made of \\(mmol/L\\) as the primary unit with \\(mg/dL\\) quoted in parentheses. This acknowledges the large base of health care providers, researchers and patients who are already familiar with \\(mg/dL|)."^^qudt:LatexString ; - qudt:applicableUnit unit:MilliGM-PER-DeciL ; qudt:applicableUnit unit:MilliMOL-PER-L ; + qudt:hasDimensionVector qkdv:A1E0L-3I0M0H0T0D0 ; qudt:informativeReference "http://www.faqs.org/faqs/diabetes/faq/part1/section-9.html"^^xsd:anyURI ; rdfs:comment "citation: https://en.wikipedia.org/wiki/Blood_sugar_level" ; rdfs:isDefinedBy ; rdfs:label "Blood Glucose Level"@en ; - rdfs:seeAlso quantitykind:SystolicBloodPressure ; + rdfs:seeAlso quantitykind:BloodGlucoseLevel_Mass ; +. +quantitykind:BloodGlucoseLevel_Mass + a qudt:QuantityKind ; + dcterms:description "The blood sugar level, blood sugar concentration, or blood glucose level is the amount of glucose present in the blood of humans and other animals. Glucose is a simple sugar and approximately 4 grams of glucose are present in the blood of humans at all times. The body tightly regulates blood glucose levels as a part of metabolic homeostasis. Glucose is stored in skeletal muscle and liver cells in the form of glycogen;[2] in fasted individuals, blood glucose is maintained at a constant level at the expense of glycogen stores in the liver and skeletal muscle. [Wikipedia] \\(\\\\\\) There are two main methods of describing concentrations: by weight, and by molecular count. Weights are in grams, molecular counts in moles. A mole is \\(6.022\\times 10^{23}\\) molecules.) In both cases, the unit is usually modified by \\(milli-\\) or \\(micro-\\) or other prefix, and is always \\(per\\) some volume, often a liter. Conversion factors depend on the molecular weight of the substance in question. \\(\\\\\\) \\(mmol/L\\) is millimoles/liter, and is the world standard unit for measuring glucose in blood. Specifically, it is the designated SI (Systeme International) unit. 'World standard' is not universal; not only the US but a number of other countries use mg/dl. A mole is about \\(6\\times 10^{23}\\) molecules. \\(\\\\\\) \\(mg/dL\\) (milligrams/deciliter) is the traditional unit for measuring bG (blood glucose). There is a trend toward using \\(mmol/L\\) however mg/dL is much in practice. Some use is made of \\(mmol/L\\) as the primary unit with \\(mg/dL\\) quoted in parentheses. This acknowledges the large base of health care providers, researchers and patients who are already familiar with \\(mg/dL|)."^^qudt:LatexString ; + qudt:applicableUnit unit:MilliGM-PER-DeciL ; + qudt:hasDimensionVector qkdv:A0E0L-3I0M1H0T0D0 ; + qudt:informativeReference "http://www.faqs.org/faqs/diabetes/faq/part1/section-9.html"^^xsd:anyURI ; + rdfs:comment "citation: https://en.wikipedia.org/wiki/Blood_sugar_level" ; + rdfs:isDefinedBy ; + rdfs:label "Blood Glucose Level by Mass"@en ; + rdfs:seeAlso quantitykind:BloodGlucoseLevel ; . quantitykind:BodyMassIndex a qudt:QuantityKind ; @@ -1679,7 +1715,7 @@ quantitykind:BulkModulus qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Bulk_modulus"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:latexDefinition "\\(K = \\frac{p}{\\vartheta}\\), where \\(\\p\\) is pressure and \\(\\vartheta\\) is volume strain."^^qudt:LatexString ; + qudt:latexDefinition "\\(K = \\frac{p}{\\vartheta}\\), where \\(p\\) is pressure and \\(\\vartheta\\) is volume strain." ; qudt:plainTextDescription "The bulk modulus of a substance measures the substance's resistance to uniform compression. It is defined as the ratio of the infinitesimal pressure increase to the resulting relative decrease of the volume." ; qudt:symbol "K" ; rdfs:isDefinedBy ; @@ -1733,6 +1769,31 @@ quantitykind:BurgersVector . quantitykind:BurnRate a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; rdfs:isDefinedBy ; rdfs:label "Burn Rate"@en ; skos:broader quantitykind:Velocity ; @@ -2067,6 +2128,7 @@ quantitykind:CONTROL-MASS quantitykind:CanonicalPartitionFunction a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Partition_function_(statistical_mechanics)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(Z = \\sum_r e^{-\\frac{E_r}{kT}}\\), where the sum is over all quantum states consistent with given energy, volume, external fields, and content, \\(E_r\\) is the energy in the \\(rth\\) quantum state, \\(k\\) is the Boltzmann constant, and \\(T\\) is thermodynamic temperature."^^qudt:LatexString ; @@ -2085,8 +2147,8 @@ quantitykind:Capacitance qudt:applicableUnit unit:MilliFARAD ; qudt:applicableUnit unit:NanoFARAD ; qudt:applicableUnit unit:PicoFARAD ; - qudt:baseUnitDimensions "A^2 \\cdot s^4/kg \\cdot m^2" ; - qudt:baseUnitDimensions "I^2 \\cdot T^4/L^2 \\cdot M" ; + qudt:baseUnitDimensions "\\(A^2 \\cdot s^4/kg \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I^2 \\cdot T^4/L^2 \\cdot M\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Capacitance"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E2L-2I0M-1H0T4D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -2105,7 +2167,7 @@ quantitykind:Capacity rdfs:isDefinedBy ; rdfs:label "Capacity"@en ; . -quantitykind:CarrierLifetIme +quantitykind:CarrierLifetime a qudt:QuantityKind ; qudt:applicableUnit unit:CentiPOISE-PER-BAR ; qudt:applicableUnit unit:DAY ; @@ -2166,6 +2228,7 @@ quantitykind:CartesianArea qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimension qudt:DIM_CGS-L2 ; @@ -2282,8 +2345,8 @@ quantitykind:CatalyticActivity dcterms:description "An index of the actual or potential activity of a catalyst. The catalytic activity of an enzyme or an enzyme-containing preparation is defined as the property measured by the increase in the rate of conversion of a specified chemical reaction that the enzyme produces in a specified assay system. Catalytic activity is an extensive quantity and is a property of the enzyme, not of the reaction mixture; it is thus conceptually different from rate of conversion although measured by and equidimensional with it. The unit for catalytic activity is the \\(katal\\); it may also be expressed in mol \\(s^{-1}\\). Dimensions: \\(N T^{-1}\\). Former terms such as catalytic ability, catalytic amount, and enzymic activity are no er recommended. Derived quantities are molar catalytic activity, specific catalytic activity, and catalytic activity concentration. Source(s): www.answers.com"^^qudt:LatexString ; qudt:applicableUnit unit:KAT ; qudt:applicableUnit unit:KiloMOL-PER-HR ; - qudt:baseUnitDimensions "M/T" ; - qudt:baseUnitDimensions "mol/s" ; + qudt:baseUnitDimensions "\\(M/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(mol/s\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Catalysis"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A1E0L0I0M0H0T-1D0 ; rdfs:isDefinedBy ; @@ -2294,8 +2357,8 @@ quantitykind:CelsiusTemperature qudt:applicableUnit unit:DEG_C ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H1T0D0 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; - qudt:latexDefinition """\"Celsius Temperature\", the thermodynamic temperature \\(T_0\\), is exactly \\({0.01}{\\)kelvin below the thermodynamic temperature of the triple point of water. -\\(t = T - T_0\\), where \\(T\\) is Thermodynamic Temperature and \\(T_0 = 273.15 K\\)."""^^qudt:LatexString ; + qudt:latexDefinition """\"Celsius Temperature\", the thermodynamic temperature \\(T_0\\), is exactly \\(0.01\\)kelvin below the thermodynamic temperature of the triple point of water. +\\(t = T - T_0\\), where \\(T\\) is Thermodynamic Temperature and \\(T_0 = 273.15 K\\).""" ; qudt:plainTextDescription "\"Celsius Temperature\", the thermodynamic temperature T_0, is exactly 0.01 kelvin below the thermodynamic temperature of the triple point of water." ; rdfs:isDefinedBy ; rdfs:label "Celsius temperature"@en ; @@ -2318,7 +2381,7 @@ quantitykind:CharacteristicAcousticImpedance quantitykind:CharacteristicVelocity a qudt:QuantityKind ; dcterms:description "Characteristic velocity or \\(c^{*}\\) is a measure of the combustion performance of a rocket engine independent of nozzle performance, and is used to compare different propellants and propulsion systems."^^qudt:LatexString ; - qudt:symbol "c^{*}" ; + qudt:symbol "\\(c^{*}\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Characteristic Velocity"@en ; . @@ -2394,14 +2457,14 @@ quantitykind:CoefficientOfHeatTransfer qudt:applicableUnit unit:CAL_IT-PER-SEC-CentiM2-K ; qudt:applicableUnit unit:CAL_TH-PER-SEC-CentiM2-K ; qudt:applicableUnit unit:W-PER-M2-K ; - qudt:baseUnitDimensions "M/\\Theta \\cdot T^3" ; - qudt:baseUnitDimensions "kg/K \\cdot s^3" ; + qudt:baseUnitDimensions "\\(M/\\Theta \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/K \\cdot s^3\\)"^^qudt:LatexString ; qudt:expression "\\(heat-xfer-coeff\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H-1T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Heat_transfer_coefficient"^^xsd:anyURI ; - qudt:latexDefinition """\"Coefficient of Heat Transfer\", in thermodynamics and in mechanical and chemical engineering, is used in calculating the heat transfer, typically by convection or phase transition between a fluid and a solid. The heat transfer coefficient is the proportionality coefficient between the heat flux, that is heat flow per unit area, \\(q/A\\), and the thermodynamic driving force for the flow of heat (that is, the temperature difference, \\( \\bigtriangleup T \\)). Areic heat flow rate divided by thermodynamic temperature difference. In building technology, the \\textit{Coefficient of Heat Transfer}, is often called \\textit{thermal transmittance}, with the symbol \\(U\\). \\textit{Coefficient of Heat Transfer}, has SI units in watts per squared meter kelvin: \\(W/(m^{2\" \\cdot K)\\) . + qudt:latexDefinition """\"Coefficient of Heat Transfer\", in thermodynamics and in mechanical and chemical engineering, is used in calculating the heat transfer, typically by convection or phase transition between a fluid and a solid. The heat transfer coefficient is the proportionality coefficient between the heat flux, that is heat flow per unit area, \\(q/A\\), and the thermodynamic driving force for the flow of heat (that is, the temperature difference, \\( \\bigtriangleup T \\)). Areic heat flow rate divided by thermodynamic temperature difference. In building technology, the \\(\\textit{Coefficient of Heat Transfer}\\), is often called \\(\\textit{thermal transmittance}\\), with the symbol \\(U\\). \\(\\textit{Coefficient of Heat Transfer}\\), has SI units in watts per squared meter kelvin: \\(W/(m^2 \\cdot K)\\) . -\\(K = \\frac{\\varphi}{T}\\), where \\(\\varphi\\) is areic heat flow rate and \\(T\\) is thermodynamic temperature difference."""^^qudt:LatexString ; +\\(K = \\frac{\\varphi}{T}\\), where \\(\\varphi\\) is areic heat flow rate and \\(T\\) is thermodynamic temperature difference.""" ; qudt:latexSymbol "\\(\\kappa\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Coefficient of Heat Transfer\", in thermodynamics and in mechanical and chemical engineering, is used in calculating the heat transfer, typically by convection or phase transition between a fluid and a solid. The heat transfer coefficient is the proportionality coefficient between the heat flux, that is heat flow per unit area, q/A, and the thermodynamic driving force for the flow of heat (that is, the temperature difference, (Delta T). Areic heat flow rate divided by thermodynamic temperature difference. In building technology, the \"Coefficient of Heat Transfer\", is often called \"thermal transmittance}\" with the symbol \"U\". It has SI units in watts per squared meter kelvin." ; rdfs:isDefinedBy ; @@ -2409,14 +2472,15 @@ quantitykind:CoefficientOfHeatTransfer . quantitykind:Coercivity a qudt:QuantityKind ; - dcterms:description "\"Coercivity}, also referred to as \\textit(Coercive Field Strength), is the magnetic field strength to be applied to bring the magnetic flux density in a substance from its remaining magnetic flux density to zero. This is defined as the coercive field strength in a substance when either the magnetic flux density or the magnetic polarization and magnetization is brought from its value at magnetic saturation to zero by monotonic reduction of the applied magnetic field strength. The quantity which is brought to zero should be stated, and the appropriate symbol used: \\(H_{cB}\\), \\(H_{cJ}\\) or \\(H_{cM}\\) for the coercivity relating to the magnetic flux density, the magnetic polarization or the magnetization respectively, where \\(H_{cJ} = H_{cM\"\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Coercivity}\\), also referred to as \\(\\textit{Coercive Field Strength}\\), is the magnetic field strength to be applied to bring the magnetic flux density in a substance from its remaining magnetic flux density to zero. This is defined as the coercive field strength in a substance when either the magnetic flux density or the magnetic polarization and magnetization is brought from its value at magnetic saturation to zero by monotonic reduction of the applied magnetic field strength. The quantity which is brought to zero should be stated, and the appropriate symbol used: \\(H_{cB}\\), \\(H_{cJ}\\) or \\(H_{cM}\\) for the coercivity relating to the magnetic flux density, the magnetic polarization or the magnetization respectively, where \\(H_{cJ} = H_{cM}\\)."^^qudt:LatexString ; qudt:applicableUnit unit:A-PER-M ; + qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-12-69"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:symbol "H_{c,B}" ; rdfs:isDefinedBy ; rdfs:label "Coercivity"@en ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; . quantitykind:CoherenceLength a qudt:QuantityKind ; @@ -2467,7 +2531,7 @@ quantitykind:CoherenceLength quantitykind:ColdReceptorThreshold a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_c\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_c}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Cold Receptor Threshold\" is the threshold of cold-sensitive free nerve-ending." ; rdfs:isDefinedBy ; rdfs:label "Cold Receptor Threshold"@en ; @@ -2499,7 +2563,7 @@ quantitykind:ComplexPower qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-3D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-11-39"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\underline{S} = \\underline{U}\\underline{I^*}\\), where \\(\\underline{U}\\) is voltage phasor and \\(\\underline{I^*}\\) is the complex conjugage of the current phasor."^^qudt:LatexString ; + qudt:latexDefinition "\\(\\underline{S} = \\underline{U}\\underline{I^*}\\), where \\(\\underline{U}\\) is voltage phasor and \\(\\underline{I^*}\\) is the complex conjugate of the current phasor." ; qudt:latexSymbol "\\(\\underline{S}\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Complex Power"@en ; @@ -2513,9 +2577,10 @@ quantitykind:Compressibility qudt:applicableUnit unit:PER-BAR ; qudt:applicableUnit unit:PER-MILLE-PER-PSI ; qudt:applicableUnit unit:PER-PA ; + qudt:hasDimensionVector qkdv:A0E0L1I0M-1H0T2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Compressibility"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\chi = -(\\frac{\\1}{V})\\frac{dV}{d\\rho}\\), where \\(V\\) is volume and \\(p\\) is pressure."^^qudt:LatexString ; + qudt:latexDefinition "\\(\\chi = -(\\frac{1}{V})\\frac{dV}{d\\rho}\\), where \\(V\\) is volume and \\(p\\) is pressure." ; qudt:latexSymbol "\\(\\chi\\)"^^qudt:LatexString ; qudt:plainTextDescription "Compressibility is a measure of the relative volume change of a fluid or solid as a response to a pressure (or mean stress) change." ; rdfs:isDefinedBy ; @@ -2552,7 +2617,7 @@ quantitykind:Concentration . quantitykind:Conductance a qudt:QuantityKind ; - dcterms:description "\"Conductance}, for a resistive two-terminal element or two-terminal circuit with terminals A and B, quotient of the electric current i in the element or circuit by the voltage \\(u_{AB}\\) between the terminals: \\(G = \\frac{1}{R\"\\), where the electric current is taken as positive if its direction is from A to B and negative in the opposite case. The conductance of an element or circuit is the inverse of its resistance."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Conductance}\\), for a resistive two-terminal element or two-terminal circuit with terminals A and B, quotient of the electric current i in the element or circuit by the voltage \\(u_{AB}\\) between the terminals: \\(G = \\frac{1}{R}\\), where the electric current is taken as positive if its direction is from A to B and negative in the opposite case. The conductance of an element or circuit is the inverse of its resistance."^^qudt:LatexString ; qudt:applicableUnit unit:KiloS ; qudt:applicableUnit unit:MilliS ; qudt:hasDimensionVector qkdv:A0E2L-2I0M-1H0T3D0 ; @@ -2627,6 +2692,7 @@ quantitykind:ConvectiveHeatTransfer quantitykind:CouplingFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=161-03-18"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "For inductive coupling between two inductive elements, \\(k = \\frac{\\left | L_{mn} \\right |}{\\sqrt{L_m L_n}}\\), where \\(L_m\\) and \\(L_n\\) are their self inductances, and \\(L_{mn}\\) is their mutual inductance."^^qudt:LatexString ; @@ -2651,6 +2717,7 @@ quantitykind:CrossSection qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -2671,10 +2738,9 @@ quantitykind:CrossSectionalArea quantitykind:CubicElectricDipoleMomentPerSquareEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:C3-M-PER-J2 ; - qudt:baseUnitDimensions "A^3 \\cdot s^7/kg^2 \\cdot m" ; - qudt:baseUnitDimensions "I^3 \\cdot T^7/L \\cdot M^2" ; + qudt:baseUnitDimensions "\\(A^3 \\cdot s^7/kg^2 \\cdot m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I^3 \\cdot T^7/L \\cdot M^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E3L-1I0M-2H0T7D0 ; - qudt:plainTextDescription "\"Cubic Electric Dipole Moment per Square Energy\" is" ; rdfs:isDefinedBy ; rdfs:label "Cubic Electric Dipole Moment per Square Energy"@en ; . @@ -2956,7 +3022,7 @@ quantitykind:CyclotronAngularFrequency . quantitykind:DELTA-V a qudt:QuantityKind ; - qudt:latexSymbol "\\(\\bigtriangleup-v\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\bigtriangleup v\\)" ; qudt:plainTextDescription "The change in translational velocity including all losses for a propulsive system or module. Delta-V losses include, but are not limited to, gravity losses and steering losses." ; qudt:url "http://en.wikipedia.org/wiki/Delta-v"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -3028,6 +3094,7 @@ quantitykind:DataRate quantitykind:Debye-WallerFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Debye–Waller_factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexDefinition "\\(u = R - R_0\\), where \\(R\\) is the particle position vector and \\(R_0\\) is the equilibrium position vector of a particle."^^qudt:LatexString ; @@ -3084,6 +3151,7 @@ quantitykind:DegreeOfDissociation a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; qudt:dbpediaMatch "http://dbpedia.org/resource/Faraday_constant"^^xsd:anyURI ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Dissociation_(chemistry)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexSymbol "\\(\\alpha\\)"^^qudt:LatexString ; @@ -3110,8 +3178,8 @@ quantitykind:Density qudt:applicableUnit unit:SLUG-PER-FT3 ; qudt:applicableUnit unit:TON_LONG-PER-YD3 ; qudt:applicableUnit unit:TON_SHORT-PER-YD3 ; - qudt:baseUnitDimensions "M/L^3" ; - qudt:baseUnitDimensions "kg/m^3" ; + qudt:baseUnitDimensions "\\(M/L^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Density"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L-3I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Density"^^xsd:anyURI ; @@ -3275,6 +3343,7 @@ quantitykind:DiastolicBloodPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -3327,6 +3396,7 @@ quantitykind:DiffusionArea qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -3468,8 +3538,8 @@ quantitykind:Dimensionless qudt:applicableUnit unit:TebiBYTE ; qudt:applicableUnit unit:TeraBYTE ; qudt:applicableUnit unit:UNITLESS ; - qudt:baseUnitDimensions "" ; - qudt:baseUnitDimensions "U" ; + qudt:baseUnitDimensions "\\(U\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Dimensionless_quantity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Dimensionless_quantity"^^xsd:anyURI ; @@ -3489,7 +3559,6 @@ quantitykind:DimensionlessRatio qudt:applicableUnit unit:PPTR ; qudt:applicableUnit unit:UNITLESS ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Dimensionless Ratio"@en ; skos:broader quantitykind:Dimensionless ; @@ -3544,6 +3613,7 @@ quantitykind:Displacement quantitykind:DisplacementCurrent a qudt:QuantityKind ; qudt:applicableUnit unit:A ; + qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Displacement_current"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(I_D= \\int_S J_D \\cdot e_n dA\\), over a surface \\(S\\), where \\(J_D\\) is displacement current density and \\(e_n dA\\) is the vector surface element."^^qudt:LatexString ; @@ -3558,6 +3628,7 @@ quantitykind:DisplacementCurrentDensity dcterms:description "\\(\\textbf{Displacement Current Density}\\) is the time rate of change of the \\(\\textit{Electric Flux Density}\\). This is a measure of how quickly the electric field changes if we observe it as a function of time. This is different than if we look at how the electric field changes spatially, that is, over a region of space for a fixed amount of time."^^qudt:LatexString ; qudt:applicableUnit unit:A-PER-M2 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Electric_flux"^^xsd:anyURI ; + qudt:hasDimensionVector qkdv:A0E1L-2I0M0H0T0D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:informativeReference "http://www.maxwells-equations.com/math/partial-electric-flux.php"^^xsd:anyURI ; qudt:latexDefinition "\\(J_D = \\frac{\\partial D}{\\partial t}\\), where \\(D\\) is electric flux density and \\(t\\) is time."^^qudt:LatexString ; @@ -3616,8 +3687,9 @@ quantitykind:DisplacementVectorOfIon quantitykind:Dissipance a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Dissipation_factor"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\delta = \\frac{\\P_d}{\\P_i}\\), where \\(\\P_d\\) is the dissipated sound power, and \\(\\P_i\\) is the incident sound power."^^qudt:LatexString ; + qudt:latexDefinition "\\(\\delta = \\frac{P_d}{P_i}\\), where \\(P_d\\) is the dissipated sound power, and \\(P_i\\) is the incident sound power." ; qudt:latexSymbol "\\(\\delta\\)"^^qudt:LatexString ; qudt:plainTextDescription "Dissipance, or dissipation factor for sound power, is the ratio of dissipated sound power to incident sound power. The dissipation factor (DF) is a measure of loss-rate of energy of a mode of oscillation (mechanical, electrical, or electromechanical) in a dissipative system. It is the reciprocal of quality factor, which represents the quality of oscillation." ; qudt:systemDerivedQuantityKind qudt:SOQ_SI ; @@ -3768,6 +3840,7 @@ quantitykind:DoseEquivalent quantitykind:DoseEquivalentQualityFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Equivalent_dose"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "\"Dose Equivalent Quality Factor\" is a factor in the caculation and measurement of dose equivalent, by which the absorbed dose is to be weighted in order to account for different biological effectiveness of radiations, for radiation protection purposes." ; @@ -3778,7 +3851,7 @@ quantitykind:DoseEquivalentQualityFactor quantitykind:DragCoefficient a qudt:QuantityKind ; qudt:plainTextDescription "In fluid dynamics, the drag coefficient is a dimensionless quantity that is used to quantify the drag or resistance of an object in a fluid environment such as air or water." ; - qudt:symbol "C_{D}" ; + qudt:symbol "C_D" ; rdfs:isDefinedBy ; rdfs:label "Drag Coefficient"@en ; . @@ -3876,6 +3949,7 @@ quantitykind:DynamicPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -3926,12 +4000,12 @@ quantitykind:DynamicViscosity qudt:applicableUnit unit:PA-SEC-PER-M ; qudt:applicableUnit unit:POISE ; qudt:applicableUnit unit:SLUG-PER-FT-SEC ; - qudt:baseUnitDimensions "M/L \\cdot T" ; - qudt:baseUnitDimensions "kg/m \\cdot s" ; + qudt:baseUnitDimensions "\\(M/L \\cdot T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m \\cdot s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-1D0 ; qudt:informativeReference "http://dictionary.reference.com/browse/dynamic+viscosity"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\tau_x_z = \\eta\\frac{dv_x}{dz}\\), where \\(\\tau_x_z\\) is shear stress in a fluid moving with a velocity gradient \\(\\frac{dv_x}{dz}\\) perpendicular to the plane of shear. "^^qudt:LatexString ; + qudt:latexDefinition "\\(\\tau_{xz} = \\eta\\frac{dv_x}{dz}\\), where \\(\\tau_{xz}\\) is shear stress in a fluid moving with a velocity gradient \\(\\frac{dv_x}{dz}\\) perpendicular to the plane of shear. " ; qudt:latexSymbol "\\(\\mu\\)"^^qudt:LatexString ; qudt:plainTextDescription "A measure of the molecular frictional resistance of a fluid as calculated using Newton's law." ; rdfs:isDefinedBy ; @@ -3940,6 +4014,31 @@ quantitykind:DynamicViscosity . quantitykind:EarthClosestApproachVehicleVelocity a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; qudt:symbol "V_o" ; rdfs:isDefinedBy ; @@ -4041,7 +4140,7 @@ quantitykind:Efficiency qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Deformation_(mechanics)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\eta = \\frac{P_o_u_t}{P_i_n}\\), where \\(P_o_u_t\\) is the output power and \\(P_i_n\\) is the input power."^^qudt:LatexString ; + qudt:latexDefinition "\\(\\eta = \\frac{P_{out}}{P_{in}}\\), where \\(P_{out}\\) is the output power and \\(P_{in}\\) is the input power." ; qudt:latexSymbol "\\(\\eta\\)"^^qudt:LatexString ; qudt:plainTextDescription "Efficiency is the ratio of output power to input power." ; rdfs:isDefinedBy ; @@ -4052,6 +4151,7 @@ quantitykind:EinsteinTransitionProbability a qudt:QuantityKind ; dcterms:description "Given two atomic states of energy \\(E_j\\) and \\(E_k\\). Let \\(E_j > E_k\\). Assume the atom is bathed in radiation of energy density \\(u(w)\\). Transitions between these states can take place in three different ways. Spontaneous, induced/stimulated emission, and induced absorption. \\(A_jk\\) represents the Einstein transition probability for spontaneous emission."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(\\frac{-dN_j}{dt} = A_jkN_j\\), where \\(-dN_j\\) is the number of molecules spontaneously leaving the state j for the state k during a time interval of duration \\(dt\\), \\(N_j\\) is the number of molecules in the state j, and \\(E_j > E_k\\)."^^qudt:LatexString ; qudt:symbol "A_jkN_j" ; qudt:systemDerivedQuantityKind qudt:SOQ_SI ; @@ -4094,8 +4194,8 @@ quantitykind:ElectricCharge qudt:applicableUnit unit:YottaC ; qudt:applicableUnit unit:ZeptoC ; qudt:applicableUnit unit:ZettaC ; - qudt:baseUnitDimensions "A \\cdot s" ; - qudt:baseUnitDimensions "I \\cdot T" ; + qudt:baseUnitDimensions "\\(A \\cdot s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electric_charge"^^xsd:anyURI ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electric_charge?oldid=492961669"^^xsd:anyURI ; @@ -4127,8 +4227,8 @@ quantitykind:ElectricChargeLineDensity a qudt:QuantityKind ; dcterms:description "In electromagnetism, charge density is a measure of electric charge per unit volume of space, in one, two or three dimensions. More specifically: the linear, surface, or volume charge density is the amount of electric charge per unit length, surface area, or volume, respectively. The respective SI units are \\(C \\cdot \\), \\(m^{-1}\\), \\(C \\cdot m^{-2}\\) or \\(C \\cdot m^{-3}\\)."^^qudt:LatexString ; qudt:applicableUnit unit:C-PER-M ; - qudt:baseUnitDimensions "A \\cdot s/m" ; - qudt:baseUnitDimensions "I \\cdot T/L" ; + qudt:baseUnitDimensions "\\(A \\cdot s/m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T/L\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Charge_density"^^xsd:anyURI ; qudt:latexSymbol "\\(\\lambda\\)"^^qudt:LatexString ; @@ -4139,6 +4239,7 @@ quantitykind:ElectricChargeLinearDensity a qudt:QuantityKind ; qudt:applicableUnit unit:C-PER-M ; qudt:expression "\\(linear-charge-density\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Charge_density"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\rho_l = \\frac{dQ}{dl}\\), where \\(Q\\) is electric charge and \\(l\\) is length."^^qudt:LatexString ; @@ -4154,8 +4255,8 @@ quantitykind:ElectricChargePerAmountOfSubstance dcterms:description "\"Electric Charge Per Amount Of Substance\" is the charge assocated with a given amount of substance. Un the ISO and SI systems this is \\(1 mol\\)."^^qudt:LatexString ; qudt:applicableUnit unit:C-PER-MOL ; qudt:applicableUnit unit:C_Stat-PER-MOL ; - qudt:baseUnitDimensions "A \\cdot s/mol" ; - qudt:baseUnitDimensions "I \\cdot T/M" ; + qudt:baseUnitDimensions "\\(A \\cdot s/mol\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E1L0I0M0H0T1D0 ; rdfs:isDefinedBy ; rdfs:label "Electric charge per amount of substance"@en ; @@ -4168,8 +4269,8 @@ quantitykind:ElectricChargePerArea qudt:applicableUnit unit:C_Stat-PER-CentiM2 ; qudt:applicableUnit unit:MegaC-PER-M2 ; qudt:applicableUnit unit:MicroC-PER-M2 ; - qudt:baseUnitDimensions "A \\cdot s/m^2" ; - qudt:baseUnitDimensions "I \\cdot T/L^2" ; + qudt:baseUnitDimensions "\\(A \\cdot s/m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T/L^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-2I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Charge_density"^^xsd:anyURI ; qudt:latexSymbol "\\(\\sigma\\)"^^qudt:LatexString ; @@ -4187,8 +4288,8 @@ quantitykind:ElectricChargePerMass qudt:applicableUnit unit:MilliR ; qudt:applicableUnit unit:PER-T-SEC ; qudt:applicableUnit unit:R ; - qudt:baseUnitDimensions "A \\cdot s/kg" ; - qudt:baseUnitDimensions "I \\cdot T/M" ; + qudt:baseUnitDimensions "\\(A \\cdot s/kg\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L0I0M-1H0T1D0 ; rdfs:isDefinedBy ; rdfs:label "Electric Charge Per Mass"@en ; @@ -4197,6 +4298,7 @@ quantitykind:ElectricChargeSurfaceDensity a qudt:QuantityKind ; qudt:applicableUnit unit:C-PER-M2 ; qudt:expression "\\(surface-charge-density\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E1L-2I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Charge_density"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\rho_A = \\frac{dQ}{dA}\\), where \\(Q\\) is electric charge and \\(A\\) is Area."^^qudt:LatexString ; @@ -4214,8 +4316,8 @@ quantitykind:ElectricChargeVolumeDensity qudt:applicableUnit unit:C-PER-MilliM3 ; qudt:applicableUnit unit:KiloC-PER-M3 ; qudt:applicableUnit unit:MilliC-PER-M3 ; - qudt:baseUnitDimensions "A \\cdot s/m^3" ; - qudt:baseUnitDimensions "I \\cdot T/L^3" ; + qudt:baseUnitDimensions "\\(A \\cdot s/m^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T/L^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-3I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Charge_density"^^xsd:anyURI ; qudt:latexSymbol "\\(\\rho\\)"^^qudt:LatexString ; @@ -4233,8 +4335,8 @@ quantitykind:ElectricConductivity qudt:applicableUnit unit:S ; qudt:applicableUnit unit:S_Ab ; qudt:applicableUnit unit:S_Stat ; - qudt:baseUnitDimensions "A^2 \\cdot s^3/kg \\cdot m^2" ; - qudt:baseUnitDimensions "I^2 \\cdot T^3/L^2 \\cdot M" ; + qudt:baseUnitDimensions "\\(A^2 \\cdot s^3/kg \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I^2 \\cdot T^3/L^2 \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E2L-3I0M-1H0T3D0 ; qudt:latexSymbol "\\(\\sigma\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; @@ -4253,8 +4355,8 @@ quantitykind:ElectricCurrent qudt:applicableUnit unit:NanoA ; qudt:applicableUnit unit:PicoA ; qudt:applicableUnit unit:PlanckCurrent ; - qudt:baseUnitDimensions "A" ; - qudt:baseUnitDimensions "I" ; + qudt:baseUnitDimensions "\\(A\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Electric_current"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T0D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -4274,8 +4376,8 @@ quantitykind:ElectricCurrentDensity qudt:applicableUnit unit:KiloA-PER-M2 ; qudt:applicableUnit unit:MegaA-PER-M2 ; qudt:applicableUnit unit:PlanckCurrentDensity ; - qudt:baseUnitDimensions "A/m^2" ; - qudt:baseUnitDimensions "I/L^2" ; + qudt:baseUnitDimensions "\\(A/m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I/L^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Current_density"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E1L-2I0M0H0T0D0 ; qudt:informativeReference "http://maxwells-equations.com/density/current.php"^^xsd:anyURI ; @@ -4288,27 +4390,26 @@ quantitykind:ElectricCurrentDensity quantitykind:ElectricCurrentPerAngle a qudt:QuantityKind ; qudt:applicableUnit unit:A-PER-RAD ; - qudt:baseUnitDimensions "A" ; - qudt:baseUnitDimensions "I/U" ; + qudt:baseUnitDimensions "\\(A\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I/U\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T0D0 ; - qudt:plainTextDescription "\"Electric Current Per Angle\" is" ; rdfs:isDefinedBy ; rdfs:label "Electric Current per Angle"@en ; . quantitykind:ElectricCurrentPerUnitEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:A-PER-J ; - qudt:baseUnitDimensions "A \\cdot s^3/kg \\cdot m^2" ; - qudt:baseUnitDimensions "I \\cdot T^3/L^2 \\cdot M" ; + qudt:baseUnitDimensions "\\(A \\cdot s^3/kg \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T^3/L^2 \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-2I0M-1H0T3D0 ; - qudt:plainTextDescription "\"Electric Current per Unit Energy\" is" ; rdfs:isDefinedBy ; rdfs:label "Electric Current per Unit Energy"@en ; . quantitykind:ElectricCurrentPerUnitLength a qudt:QuantityKind ; - qudt:baseUnitDimensions "A/m" ; - qudt:baseUnitDimensions "I/L" ; + qudt:baseUnitDimensions "\\(A/m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I/L\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; rdfs:isDefinedBy ; rdfs:label "Electric Current per Unit Length"@en ; . @@ -4337,8 +4438,8 @@ quantitykind:ElectricDipoleMoment a qudt:QuantityKind ; qudt:applicableUnit unit:C-M ; qudt:applicableUnit unit:Debye ; - qudt:baseUnitDimensions "A \\cdot m \\cdot s" ; - qudt:baseUnitDimensions "I \\cdot L \\cdot T" ; + qudt:baseUnitDimensions "\\(A \\cdot m \\cdot s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot L \\cdot T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L1I0M0H0T1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electric_dipole_moment"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -4387,10 +4488,11 @@ quantitykind:ElectricField qudt:applicableUnit unit:V-PER-M ; qudt:applicableUnit unit:V_Ab-PER-CentiM ; qudt:applicableUnit unit:V_Stat-PER-CentiM ; - qudt:baseUnitDimensions "L \\cdot M/I \\cdot T^3" ; - qudt:baseUnitDimensions "kg \\cdot m/A \\cdot s^3" ; + qudt:baseUnitDimensions "\\(L \\cdot M/I \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/A \\cdot s^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Electric_field"^^xsd:anyURI ; qudt:expression "\\(E\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electric_field"^^xsd:anyURI ; qudt:plainTextDescription "The space surrounding an electric charge or in the presence of a time-varying magnetic field has a property called an electric field. This electric field exerts a force on other electrically charged objects. In the idealized case, the force exerted between two point charges is inversely proportional to the square of the distance between them. (Coulomb's Law)." ; rdfs:isDefinedBy ; @@ -4409,7 +4511,7 @@ quantitykind:ElectricFieldStrength qudt:applicableUnit unit:V-PER-MilliM ; qudt:applicableUnit unit:V_Ab-PER-CentiM ; qudt:applicableUnit unit:V_Stat-PER-CentiM ; - qudt:baseUnitDimensions "kg \\cdot m/A \\cdot s^3" ; + qudt:baseUnitDimensions "\\(kg \\cdot m/A \\cdot s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\mathbf{E} = \\mathbf{F}/q\\), where \\(\\mathbf{F}\\) is force and \\(q\\) is electric charge, of a test particle at rest."^^qudt:LatexString ; @@ -4422,8 +4524,8 @@ quantitykind:ElectricFlux a qudt:QuantityKind ; qudt:applicableUnit unit:V-M ; qudt:applicableUnit unit:V_Stat-CentiM ; - qudt:baseUnitDimensions "L^3 \\cdot M/I \\cdot T^3" ; - qudt:baseUnitDimensions "kg \\cdot m^3/A \\cdot s^3" ; + qudt:baseUnitDimensions "\\(L^3 \\cdot M/I \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^3/A \\cdot s^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Electric_flux"^^xsd:anyURI ; qudt:expression "\\(electirc-flux\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L3I0M1H0T-3D0 ; @@ -4490,7 +4592,7 @@ quantitykind:ElectricPotential qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; qudt:latexDefinition "\\(-\\textbf{grad} \\; V = E + \\frac{\\partial A}{\\partial t}\\), where \\(E\\) is electric field strength, \\(A\\) is magentic vector potential and \\(t\\) is time."^^qudt:LatexString ; - qudt:latexSymbol "\\(\\(\\phi\\)\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\phi\\)" ; qudt:symbol "V" ; rdfs:isDefinedBy ; rdfs:label "Electric Potential"@en ; @@ -4577,8 +4679,8 @@ quantitykind:ElectricPropulsionPropellantMass quantitykind:ElectricQuadrupoleMoment a qudt:QuantityKind ; qudt:applicableUnit unit:C-M2 ; - qudt:baseUnitDimensions "A \\cdot m^2 \\cdot s" ; - qudt:baseUnitDimensions "I \\cdot L^2 \\cdot T" ; + qudt:baseUnitDimensions "\\(A \\cdot m^2 \\cdot s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot L^2 \\cdot T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L2I0M0H0T1D0 ; qudt:plainTextDescription "The Electric Quadrupole Moment is a quantity which describes the effective shape of the ellipsoid of nuclear charge distribution. A non-zero quadrupole moment Q indicates that the charge distribution is not spherically symmetric. By convention, the value of Q is taken to be positive if the ellipsoid is prolate and negative if it is oblate. In general, the electric quadrupole moment is tensor-valued." ; qudt:symbol "Q" ; @@ -4590,6 +4692,7 @@ quantitykind:ElectricSusceptibility qudt:applicableUnit unit:UNITLESS ; qudt:dbpediaMatch "http://dbpedia.org/resource/Permittivity"^^xsd:anyURI ; qudt:expression "\\(e-susceptibility\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\chi = \\frac{P}{(\\epsilon_0 E)}\\), where \\(P\\) is electric polorization, \\(\\epsilon_0\\) is the electric constant, and \\(E\\) is electric field strength."^^qudt:LatexString ; qudt:latexSymbol "\\(\\chi\\)"^^qudt:LatexString ; @@ -4630,7 +4733,7 @@ quantitykind:ElectromagneticEnergyDensity rdfs:label "Electromagnetic Energy Density"@en ; rdfs:seeAlso quantitykind:ElectricFieldStrength ; rdfs:seeAlso quantitykind:ElectricFluxDensity ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; rdfs:seeAlso quantitykind:MagneticFluxDensity ; owl:sameAs quantitykind:VolumicElectromagneticEnergy ; . @@ -4639,9 +4742,8 @@ quantitykind:ElectromagneticPermeability dcterms:description "\"Permeability} is the degree of magnetization of a material that responds linearly to an applied magnetic field. In general permeability is a tensor-valued quantity. The definition given applies to an isotropic medium. For an anisotropic medium permeability is a second order tensor. In electromagnetism, permeability is the measure of the ability of a material to support the formation of a magnetic field within itself. In other words, it is the degree of magnetization that a material obtains in response to an applied magnetic field. Magnetic permeability is typically represented by the Greek letter \\(\\mu\\). The term was coined in September, 1885 by Oliver Heaviside. The reciprocal of magnetic permeability is \\textit{Magnetic Reluctivity\"."^^qudt:LatexString ; qudt:applicableUnit unit:H-PER-M ; qudt:applicableUnit unit:H_Stat-PER-CentiM ; - qudt:applicableUnit unit:PERMEABILITY_REL ; - qudt:baseUnitDimensions "L \\cdot M/I^2 \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m/A^2 \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L \\cdot M/I^2 \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/A^2 \\cdot s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Permeability"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E-2L1I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Permeability_(electromagnetism)"^^xsd:anyURI ; @@ -4652,7 +4754,7 @@ quantitykind:ElectromagneticPermeability rdfs:label "Permeability"@en ; rdfs:seeAlso constant:ElectromagneticPermeabilityOfVacuum ; rdfs:seeAlso constant:MagneticConstant ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; rdfs:seeAlso quantitykind:MagneticFluxDensity ; . quantitykind:ElectromagneticPermeabilityRatio @@ -4669,6 +4771,7 @@ quantitykind:ElectromagneticPermeabilityRatio quantitykind:ElectromagneticWavePhaseSpeed a qudt:QuantityKind ; qudt:applicableUnit unit:M-PER-SEC ; + qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-66"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(c = w/k\\) where \\(w\\) is angular velocity and \\(k\\) is angular wavenumber."^^qudt:LatexString ; @@ -4867,6 +4970,31 @@ quantitykind:ElementaryCharge . quantitykind:EllipticalOrbitApogeeVelocity a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; qudt:plainTextDescription "Velocity at apogee for an elliptical orbit velocity" ; qudt:symbol "V_a" ; @@ -4876,6 +5004,31 @@ quantitykind:EllipticalOrbitApogeeVelocity . quantitykind:EllipticalOrbitPerigeeVelocity a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; qudt:plainTextDescription "Velocity at apogee for an elliptical orbit velocity." ; qudt:symbol "V_p" ; @@ -4887,6 +5040,7 @@ quantitykind:Emissivity a qudt:QuantityKind ; dcterms:description "Emissivity of a material (usually written \\(\\varepsilon\\) or e) is the relative ability of its surface to emit energy by radiation."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(\\varepsilon = \\frac{M}{M_b}\\), where \\(M\\) is the radiant exitance of a thermal radiator and \\(M_b\\) is the radiant exitance of a blackbody at the same temperature."^^qudt:LatexString ; qudt:latexSymbol "\\(\\varepsilon\\)"^^qudt:LatexString ; qudt:systemDerivedQuantityKind qudt:SOQ_SI ; @@ -5075,7 +5229,7 @@ quantitykind:EnergyImparted qudt:applicableUnit unit:W-SEC ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://www.answers.com/topic/energy-imparted"^^xsd:anyURI ; - qudt:latexDefinition "For ionizing radiation in the matter in a given 3D domain, \\(\\varepsilon = \\sum_i \\varepsilon_i\\), where the energy deposit, \\(\\varepsilon_i\\) is the energy deposited in a single interaction \\(i\\), and is given by \\(\\varspsilon_i = \\varepsilon_{in} - \\varepsilon_{out} + Q\\), where \\(\\varepsilon_{in}\\) is the energy of the incident ionizing particle, excluding rest energy, \\(\\varepsilon_{out}\\) is the sum of the energies of all ionizing particles leaving the interaction, excluding rest energy, and \\(Q\\) is the change in the rest energies of the nucleus and of all particles involved in the interaction."^^qudt:LatexString ; + qudt:latexDefinition "For ionizing radiation in the matter in a given 3D domain, \\(\\varepsilon = \\sum_i \\varepsilon_i\\), where the energy deposit, \\(\\varepsilon_i\\) is the energy deposited in a single interaction \\(i\\), and is given by \\(\\varepsilon_i = \\varepsilon_{in} - \\varepsilon_{out} + Q\\), where \\(\\varepsilon_{in}\\) is the energy of the incident ionizing particle, excluding rest energy, \\(\\varepsilon_{out}\\) is the sum of the energies of all ionizing particles leaving the interaction, excluding rest energy, and \\(Q\\) is the change in the rest energies of the nucleus and of all particles involved in the interaction." ; qudt:normativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "The \"Energy Imparted\", is a physical quantity associated with the energy delivered to a particular volume of matter by all the directly and indirectly ionizing particles (i.e. charged and uncharged) entering that volume." ; qudt:symbol "ε" ; @@ -5085,6 +5239,7 @@ quantitykind:EnergyImparted . quantitykind:EnergyInternal a qudt:QuantityKind ; + dcterms:description "The internal energy is the total energy contained by a thermodynamic system. It is the energy needed to create the system, but excludes the energy to displace the system's surroundings, any energy associated with a move as a whole, or due to external force fields. Internal energy has two major components, kinetic energy and potential energy. The internal energy (U) is the sum of all forms of energy (Ei) intrinsic to a thermodynamic system: \\( U = \\sum_i E_i \\)"^^qudt:LatexString ; qudt:applicableUnit unit:AttoJ ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_TH ; @@ -5131,7 +5286,6 @@ quantitykind:EnergyInternal qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Internal_energy"^^xsd:anyURI ; qudt:informativeReference "http://wiki.answers.com/Q/What_is_the_one_letter_symbol_for_energy"^^xsd:anyURI ; - qudt:plainTextDescription "The internal energy is the total energy contained by a thermodynamic system. It is the energy needed to create the system, but excludes the energy to displace the system's surroundings, any energy associated with a move as a whole, or due to external force fields. Internal energy has two major components, kinetic energy and potential energy. The internal energy (U) is the sum of all forms of energy (Ei) intrinsic to a thermodynamic system: \\( U = \\sum_i E_i \\)" ; qudt:symbol "E" ; rdfs:isDefinedBy ; rdfs:label "Internal Energy"@en ; @@ -5254,8 +5408,8 @@ quantitykind:EnergyPerArea qudt:applicableUnit unit:N-M-PER-M2 ; qudt:applicableUnit unit:PicoPA-PER-KiloM ; qudt:applicableUnit unit:W-SEC-PER-M2 ; - qudt:baseUnitDimensions "M/T^2" ; - qudt:baseUnitDimensions "kg/s^2" ; + qudt:baseUnitDimensions "\\(M/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-2D0 ; qudt:informativeReference "http://www.calculator.org/property.aspx?name=energy%20per%20unit%20area"^^xsd:anyURI ; qudt:plainTextDescription "Energy per unit area is a measure of the energy either impinging upon or generated from a given unit of area. This can be a measure of the \"toughness\" of a material, being the amount of energy that needs to be applied per unit area of a crack to cause it to fracture. This is a constant for a given material.." ; @@ -5265,8 +5419,8 @@ quantitykind:EnergyPerArea quantitykind:EnergyPerAreaElectricCharge a qudt:QuantityKind ; qudt:applicableUnit unit:V-PER-M2 ; - qudt:baseUnitDimensions "M/I \\cdot T^3" ; - qudt:baseUnitDimensions "kg/A \\cdot s^3" ; + qudt:baseUnitDimensions "\\(M/I \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/A \\cdot s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L0I0M1H0T-3D0 ; qudt:plainTextDescription "\"Energy Per Area Electric Charge\" is the amount of electric energy associated with a unit of area." ; rdfs:isDefinedBy ; @@ -5279,8 +5433,8 @@ quantitykind:EnergyPerElectricCharge qudt:applicableUnit unit:V ; qudt:applicableUnit unit:V_Ab ; qudt:applicableUnit unit:V_Stat ; - qudt:baseUnitDimensions "L^2 \\cdot M/I \\cdot T^3" ; - qudt:baseUnitDimensions "kg \\cdot m^2/A \\cdot s^3" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/I \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/A \\cdot s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L2I0M1H0T-3D0 ; qudt:informativeReference "http://physics.about.com/od/glossary/g/voltage.htm"^^xsd:anyURI ; qudt:symbol "V" ; @@ -5300,8 +5454,8 @@ quantitykind:EnergyPerMassAmountOfSubstance quantitykind:EnergyPerSquareMagneticFluxDensity a qudt:QuantityKind ; qudt:applicableUnit unit:J-PER-T2 ; - qudt:baseUnitDimensions "A^2 \\cdot m^2 \\cdot s^2/kg" ; - qudt:baseUnitDimensions "I^2 \\cdot L^2 \\cdot T^2/M" ; + qudt:baseUnitDimensions "\\(A^2 \\cdot m^2 \\cdot s^2/kg\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I^2 \\cdot L^2 \\cdot T^2/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E2L2I0M-1H0T2D0 ; qudt:plainTextDescription "\"Energy Per Square Magnetic Flux Density\" is a measure of energy for a unit of magnetic flux density." ; rdfs:isDefinedBy ; @@ -5310,14 +5464,15 @@ quantitykind:EnergyPerSquareMagneticFluxDensity quantitykind:EnergyPerTemperature a qudt:QuantityKind ; qudt:applicableUnit unit:KiloJ-PER-K ; - qudt:baseUnitDimensions "L^2 \\cdot M/\\Theta \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^2/K \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/\\Theta \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/K \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H-1T-2D0 ; rdfs:isDefinedBy ; rdfs:label "Energy per temperature"@en ; . quantitykind:Enthalpy a qudt:QuantityKind ; + dcterms:description "In thermodynamics, \\(\\textit{enthalpy}\\) is the sum of the internal energy \\(U\\) and the product of pressure \\(p\\) and volume \\(V\\) of a system. The characteristic function (also known as thermodynamic potential) \\(\\textit{enthalpy}\\) used to be called \\(\\textit{heat content}\\), which is why it is conventionally indicated by \\(H\\). The specific enthalpy of a working mass is a property of that mass used in thermodynamics, defined as \\(h=u+p \\cdot v\\), where \\(u\\) is the specific internal energy, \\(p\\) is the pressure, and \\(v\\) is specific volume. In other words, \\(h = H / m\\) where \\(m\\) is the mass of the system. The SI unit for \\(\\textit{Specific Enthalpy}\\) is \\(\\textit{joules per kilogram}\\)"^^qudt:LatexString ; qudt:applicableUnit unit:AttoJ ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_TH ; @@ -5366,7 +5521,6 @@ quantitykind:Enthalpy qudt:informativeReference "http://en.wikipedia.org/wiki/Enthalpy"^^xsd:anyURI ; qudt:latexDefinition "\\(H = U + pV\\), where \\(U\\) is internal energy, \\(p\\) is pressure and \\(V\\) is volume."^^qudt:LatexString ; qudt:normativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; - qudt:plainTextDescription "In thermodynamics, \"enthalpy} is the sum of the internal energy \\(U\\) and the product of pressure \\(p\\) and volume \\(V\\) of a system. The characteristic function (also known as thermodynamic potential) \\textit{enthalpy} used to be called \\textit{heat contents}, which is why it is conventionally indicated by \\(H\\). The specific enthalpy of a working mass is a property of that mass used in thermodynamics, defined as \\(h=u+p \\cdot v\\), where \\(u\\) is the specific internal energy, \\(p\\) is the pressure, and \\(v\\) is specific volume. In other words, \\(h = H / m\\) where \\(m\\) is the mass of the system. The SI unit for \\textit{Specific Enthalpy} is \\textit{joules per kilogram\"." ; qudt:symbol "H" ; rdfs:isDefinedBy ; rdfs:label "Enthalpy"@en ; @@ -5387,6 +5541,7 @@ quantitykind:Entropy quantitykind:EquilibriumConstant a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Equilibrium_constant"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(K^\\Theta = \\Pi_B(\\lambda_B^\\Theta)^{-\\nu_B}\\), where \\(\\Pi_B\\) denotes the product for all substances \\(B\\), \\(\\lambda_B^\\Theta\\) is the standard absolute activity of substance \\(B\\), and \\(\\nu_B\\) is the stoichiometric number of the substance \\(B\\)."^^qudt:LatexString ; @@ -5485,6 +5640,7 @@ quantitykind:EquivalentAbsorptionArea qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -5573,6 +5729,7 @@ quantitykind:ExitPlanePressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -5655,6 +5812,7 @@ quantitykind:ExposureRate quantitykind:ExtentOfReaction a qudt:QuantityKind ; qudt:applicableUnit unit:MOL ; + qudt:hasDimensionVector qkdv:A1E0L0I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Extent_of_reaction"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(dn_B = \\nu_B d\\xi\\), where \\(n_B\\) is the amount of substance \\(B\\) and \\(\\nu_B\\) is the stoichiometric number of substance \\(B\\)."^^qudt:LatexString ; @@ -5724,6 +5882,7 @@ quantitykind:FUEL-BIAS quantitykind:FastFissionFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Four_factor_formula"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexSymbol "\\(\\varphi\\)"^^qudt:LatexString ; @@ -5930,8 +6089,8 @@ quantitykind:Force qudt:applicableUnit unit:PDL ; qudt:applicableUnit unit:PlanckForce ; qudt:applicableUnit unit:TON_F_US ; - qudt:baseUnitDimensions "L \\cdot M/T^2" ; - qudt:baseUnitDimensions "kg \\cdot m/s^2" ; + qudt:baseUnitDimensions "\\(L \\cdot M/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Force"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L1I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Force"^^xsd:anyURI ; @@ -5977,6 +6136,7 @@ quantitykind:ForcePerArea qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -6005,8 +6165,8 @@ quantitykind:ForcePerArea qudt:applicableUnit unit:PSI ; qudt:applicableUnit unit:PlanckPressure ; qudt:applicableUnit unit:TORR ; - qudt:baseUnitDimensions "M/L \\cdot T^2" ; - qudt:baseUnitDimensions "kg/m \\cdot s^2" ; + qudt:baseUnitDimensions "\\(M/L \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:informativeReference "http://www.thefreedictionary.com/force+per+unit+area"^^xsd:anyURI ; qudt:outOfScope true ; @@ -6025,8 +6185,8 @@ quantitykind:ForcePerAreaTime qudt:applicableUnit unit:PA-PER-MIN ; qudt:applicableUnit unit:PA-PER-SEC ; qudt:applicableUnit unit:W-PER-M3 ; - qudt:baseUnitDimensions "M/L \\cdot T^3" ; - qudt:baseUnitDimensions "kg/m \\cdot s^3" ; + qudt:baseUnitDimensions "\\(M/L \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m \\cdot s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-3D0 ; rdfs:isDefinedBy ; rdfs:label "Force Per Area Time"@en ; @@ -6035,8 +6195,8 @@ quantitykind:ForcePerElectricCharge a qudt:QuantityKind ; dcterms:description "The electric field depicts the force exerted on other electrically charged objects by the electrically charged particle the field is surrounding. The electric field is a vector field with SI units of newtons per coulomb (\\(N C^{-1}\\)) or, equivalently, volts per metre (\\(V m^{-1}\\) ). The SI base units of the electric field are \\(kg m s^{-3} A^{-1}\\). The strength or magnitude of the field at a given point is defined as the force that would be exerted on a positive test charge of 1 coulomb placed at that point"^^qudt:LatexString ; qudt:applicableUnit unit:N-PER-C ; - qudt:baseUnitDimensions "L \\cdot M/I \\cdot T^3" ; - qudt:baseUnitDimensions "kg \\cdot m/A \\cdot s^3" ; + qudt:baseUnitDimensions "\\(L \\cdot M/I \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/A \\cdot s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electric_field"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -6055,8 +6215,8 @@ quantitykind:ForcePerLength qudt:applicableUnit unit:N-PER-M ; qudt:applicableUnit unit:N-PER-MilliM ; qudt:applicableUnit unit:PicoPA-PER-KiloM ; - qudt:baseUnitDimensions "M/T^2" ; - qudt:baseUnitDimensions "kg/s^2" ; + qudt:baseUnitDimensions "\\(M/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-2D0 ; rdfs:isDefinedBy ; rdfs:label "Force per Length"@en ; @@ -6114,8 +6274,8 @@ quantitykind:Frequency qudt:applicableUnit unit:SAMPLE-PER-SEC ; qudt:applicableUnit unit:TeraHZ ; qudt:applicableUnit unit:failures-in-time ; - qudt:baseUnitDimensions "/T" ; - qudt:baseUnitDimensions "/s" ; + qudt:baseUnitDimensions "\\(/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(/s\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Frequency"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; qudt:latexDefinition """\\(f = 1/T\\), where \\(T\\) is a period. @@ -6243,6 +6403,7 @@ quantitykind:FundamentalReciprocalLatticeVector quantitykind:GFactorOfNucleus a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Landé_g-factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(g = \\frac{\\mu}{I\\mu_B}\\), where \\(\\mu\\) is the magnitude of magnetic dipole moment, \\(I\\) is the nuclear angular momentum quantum number, and \\(\\mu_B\\) is the Bohr magneton."^^qudt:LatexString ; @@ -6379,6 +6540,7 @@ quantitykind:GapEnergy quantitykind:GeneralizedCoordinate a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Generalized_coordinates"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; qudt:latexDefinition "\\(q_i\\), where \\(q_i\\) is one of the coordinates that is used to describe the position of the system under consideration, and \\(N\\) is the lowest number of coordinates necessary to fully define the position of the system."^^qudt:LatexString ; @@ -6390,6 +6552,7 @@ quantitykind:GeneralizedCoordinate quantitykind:GeneralizedForce a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Generalized_forces"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; qudt:latexDefinition "\\(\\delta A = \\sum Q_i\\delta q_i\\), where \\(A\\) is work and \\(q_i\\) is a generalized coordinate."^^qudt:LatexString ; @@ -6401,6 +6564,7 @@ quantitykind:GeneralizedForce quantitykind:GeneralizedMomentum a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Momentum"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; qudt:latexDefinition "\\(p_i = \\frac{\\partial L}{\\partial \\dot{q_i}}\\), where \\(L\\) is the Langrange function and \\(\\dot{q_i}\\) is a generalized velocity."^^qudt:LatexString ; @@ -6412,6 +6576,7 @@ quantitykind:GeneralizedMomentum quantitykind:GeneralizedVelocity a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Generalized_coordinates"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; qudt:latexDefinition "\\(\\dot{q_i} = \\frac{dq_i}{dt}\\), where \\(q_i\\) is the generalized coordinate and \\(t\\) is time."^^qudt:LatexString ; @@ -6494,8 +6659,8 @@ quantitykind:GravitationalAttraction a qudt:QuantityKind ; qudt:applicableUnit unit:M3-PER-KiloGM-SEC2 ; qudt:applicableUnit unit:N-M2-PER-KiloGM2 ; - qudt:baseUnitDimensions "L^3/M \\cdot T^2" ; - qudt:baseUnitDimensions "m^3/kg \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^3/M \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3/kg \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L3I0M-1H0T-2D0 ; qudt:informativeReference "http://www.thefreedictionary.com/gravitational+attraction"^^xsd:anyURI ; qudt:plainTextDescription "The force of attraction between all masses in the universe; especially the attraction of the earth's mass for bodies near its surface; the more remote the body the less the gravity; the gravitation between two bodies is proportional to the product of their masses and inversely proportional to the square of the distance between them." ; @@ -6536,6 +6701,7 @@ quantitykind:GroupSpeedOfSound quantitykind:GruneisenParameter a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Grüneisen_parameter"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexDefinition "\\(\\gamma = \\frac{\\alpha_V}{x_T c_V\\rho}\\), where \\(\\alpha_V\\) is the cubic expansion coefficient, \\(x_T\\) is isothermal compressibility, \\(c_V\\) is specific heat capacity at constant volume, and \\(\\rho\\) is mass density."^^qudt:LatexString ; @@ -6547,7 +6713,7 @@ quantitykind:GruneisenParameter quantitykind:GustatoryThreshold a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_g\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_g}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Gustatory Threshold\" are thresholds for classes of tast that can be detected by the human mouth and thresholds of sensitivity to foods, drinks and other substances." ; rdfs:isDefinedBy ; rdfs:label "Gustatory Threshold"@en ; @@ -6667,6 +6833,7 @@ quantitykind:HeadEndPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -6805,7 +6972,7 @@ quantitykind:HeatFlowRate . quantitykind:HeatFlowRatePerUnitArea a qudt:QuantityKind ; - dcterms:description "\"Heat Flux} is the heat rate per unit area. In SI units, heat flux is measured in \\(W/m^{1\"\\). Heat rate is a scalar quantity, while heat flux is a vectorial quantity. To define the heat flux at a certain point in space, one takes the limiting case where the size of the surface becomes infinitesimally small."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Heat Flux}\\) is the heat rate per unit area. In SI units, heat flux is measured in \\(W/m^2\\). Heat rate is a scalar quantity, while heat flux is a vectorial quantity. To define the heat flux at a certain point in space, one takes the limiting case where the size of the surface becomes infinitesimally small."^^qudt:LatexString ; qudt:applicableUnit unit:BTU_IT-PER-HR-FT2 ; qudt:applicableUnit unit:BTU_IT-PER-SEC-FT2 ; qudt:applicableUnit unit:ERG-PER-CentiM2-SEC ; @@ -6906,6 +7073,7 @@ quantitykind:Height . quantitykind:HelmholtzEnergy a qudt:QuantityKind ; + dcterms:description "\\(\\textit{Helmholtz Energy}\\) is one of the potentials are used to measure energy changes in systems as they evolve from an initial state to a final state. The potential used depends on the constraints of the system, such as constant temperature or pressure. \\(\\textit{Internal Energy}\\) is the internal energy of the system, \\(\\textit{Enthalpy}\\) is the internal energy of the system plus the energy related to pressure-volume work, and Helmholtz and Gibbs free energy are the energies available in a system to do useful work when the temperature and volume or the pressure and temperature are fixed, respectively. The name \\(\\textit{Helmholz Free Energy}\\) is also used."^^qudt:LatexString ; qudt:applicableUnit unit:AttoJ ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_TH ; @@ -6952,7 +7120,6 @@ quantitykind:HelmholtzEnergy qudt:informativeReference "http://en.citizendium.org/wiki/Thermodynamics"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(H = U - T \\cdot S\\), where \\(U\\) is internal energy, \\(T\\) is thermodynamic temperature and \\(S\\) is entropy."^^qudt:LatexString ; - qudt:plainTextDescription "\"Helmholtz Energy} is one of the potentials are used to measure energy changes in systems as they evolve from an initial state to a final state. The potential used depends on the constraints of the system, such as constant temperature or pressure. \\textit{Internal Energy} is the internal energy of the system, \\textit{Enthalpy} is the internal energy of the system plus the energy related to pressure-volume work, and Helmholtz and Gibbs free energy are the energies available in a system to do useful work when the temperature and volume or the pressure and temperature are fixed, respectively. The name \\textit{Helmholz Free Energy\" is also used." ; qudt:symbol "A" ; rdfs:isDefinedBy ; rdfs:label "Helmholtz Energy"@en ; @@ -7107,6 +7274,7 @@ quantitykind:Impedance a qudt:QuantityKind ; qudt:applicableUnit unit:OHM ; qudt:dbpediaMatch "http://dbpedia.org/resource/Electrical_impedance"^^xsd:anyURI ; + qudt:hasDimensionVector qkdv:A0E-2L2I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electrical_impedance"^^xsd:anyURI ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-43"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -7139,8 +7307,8 @@ quantitykind:Inductance qudt:applicableUnit unit:MilliH ; qudt:applicableUnit unit:NanoH ; qudt:applicableUnit unit:PicoH ; - qudt:baseUnitDimensions "L^2 \\cdot M/I^2 \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^2/A^2 \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/I^2 \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/A^2 \\cdot s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Inductance"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E-2L2I0M1H0T-2D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-19"^^xsd:anyURI ; @@ -7271,6 +7439,7 @@ For a polyphase element, it is the sum of the instantaneous powers in all phase quantitykind:InternalConversionFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Internal_conversion_coefficient"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "The \"InternalConversionFactor\" describes the rate of internal conversion. It is the ratio of the number of internal conversion electrons to the number of gamma quanta emitted by the radioactive atom in a given transition." ; @@ -7328,7 +7497,7 @@ quantitykind:InternalEnergy qudt:informativeReference "http://en.citizendium.org/wiki/Internal_energy"^^xsd:anyURI ; qudt:latexDefinition "For a closed thermodynamic system, \\(\\Delta U = Q + W\\), where \\(Q\\) is amount of heat transferred to the system and \\(W\\) is work done on the system provided that no chemical reactions occur."^^qudt:LatexString ; qudt:normativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; - qudt:plainTextDescription "\"Internal Energy} is simply its energy. \\textit{internal\" refers to the fact that some energy contributions are not considered. For instance, when the total system is in uniform motion, it has kinetic energy. This overall kinetic energy is never seen as part of the internal energy; one could call it external energy. Or, if the system is at constant non-zero height above the surface the Earth, it has constant potential energy in the gravitational field of the Earth. Gravitational energy is only taken into account when it plays a role in the phenomenon of interest, for instance in a colloidal suspension, where the gravitation influences the up- downward motion of the small particles comprising the colloid. In all other cases, gravitational energy is assumed not to contribute to the internal energy; one may call it again external energy." ; + qudt:plainTextDescription "\"Internal Energy\" is simply its energy. \"internal\" refers to the fact that some energy contributions are not considered. For instance, when the total system is in uniform motion, it has kinetic energy. This overall kinetic energy is never seen as part of the internal energy; one could call it external energy. Or, if the system is at constant non-zero height above the surface the Earth, it has constant potential energy in the gravitational field of the Earth. Gravitational energy is only taken into account when it plays a role in the phenomenon of interest, for instance in a colloidal suspension, where the gravitation influences the up- downward motion of the small particles comprising the colloid. In all other cases, gravitational energy is assumed not to contribute to the internal energy; one may call it again external energy." ; qudt:symbol "U" ; rdfs:isDefinedBy ; rdfs:label "Internal Energy"@en ; @@ -7358,8 +7527,8 @@ quantitykind:IntinsicCarrierDensity quantitykind:InverseAmountOfSubstance a qudt:QuantityKind ; qudt:applicableUnit unit:PER-MOL ; - qudt:baseUnitDimensions "/M" ; - qudt:baseUnitDimensions "/mol" ; + qudt:baseUnitDimensions "\\(/M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(/mol\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E0L0I0M0H0T0D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse amount of substance"@en ; @@ -7367,8 +7536,8 @@ quantitykind:InverseAmountOfSubstance quantitykind:InverseEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:PER-KiloV-A-HR ; - qudt:baseUnitDimensions "T^2/L^2 \\cdot M" ; - qudt:baseUnitDimensions "s^2/kg \\cdot m^2" ; + qudt:baseUnitDimensions "\\(T^2/L^2 \\cdot M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(s^2/kg \\cdot m^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-2I0M-1H0T2D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse Energy"@en ; @@ -7381,8 +7550,8 @@ quantitykind:InverseLength qudt:applicableUnit unit:PER-ANGSTROM ; qudt:applicableUnit unit:PER-CentiM ; qudt:applicableUnit unit:PER-M ; - qudt:baseUnitDimensions "/L" ; - qudt:baseUnitDimensions "/m" ; + qudt:baseUnitDimensions "\\(/L\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(/m\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Reciprocal_length"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -7391,8 +7560,8 @@ quantitykind:InverseLength quantitykind:InverseLengthTemperature a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M-K ; - qudt:baseUnitDimensions "/K \\cdot m" ; - qudt:baseUnitDimensions "/\\Theta \\cdot L" ; + qudt:baseUnitDimensions "\\(/K \\cdot m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(/\\Theta \\cdot L\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M0H-1T0D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse Length Temperature"@en ; @@ -7401,20 +7570,18 @@ quantitykind:InverseMagneticFlux a qudt:QuantityKind ; qudt:applicableUnit unit:HZ-PER-V ; qudt:applicableUnit unit:PER-WB ; - qudt:baseUnitDimensions "A \\cdot s^2/kg \\cdot m^2" ; - qudt:baseUnitDimensions "I \\cdot T^2/L^2 \\cdot M" ; + qudt:baseUnitDimensions "\\(A \\cdot s^2/kg \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T^2/L^2 \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-2I0M-1H0T2D0 ; - qudt:plainTextDescription "\"Inverse Magnetic Flux\" is" ; rdfs:isDefinedBy ; rdfs:label "Inverse Magnetic Flux"@en ; . quantitykind:InversePermittivity a qudt:QuantityKind ; qudt:applicableUnit unit:M-PER-FARAD ; - qudt:baseUnitDimensions "L^3 \\cdot M/I^2 \\cdot T^4" ; - qudt:baseUnitDimensions "kg \\cdot m^3/A^2 \\cdot s^4" ; + qudt:baseUnitDimensions "\\(L^3 \\cdot M/I^2 \\cdot T^4\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^3/A^2 \\cdot s^4\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-2L3I0M1H0T-4D0 ; - qudt:plainTextDescription "\"Inverse Permittivity\" is" ; rdfs:isDefinedBy ; rdfs:label "Inverse Permittivity"@en ; . @@ -7432,8 +7599,8 @@ quantitykind:InversePressure quantitykind:InverseSquareEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:PER-GigaEV2 ; - qudt:baseUnitDimensions "T^4/L^4 \\cdot M^2" ; - qudt:baseUnitDimensions "s^4/kg^2 \\cdot m^4" ; + qudt:baseUnitDimensions "\\(T^4/L^4 \\cdot M^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(s^4/kg^2 \\cdot m^4\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-4I0M-2H0T4D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse Square Energy"@en ; @@ -7447,7 +7614,7 @@ quantitykind:InverseSquareMass . quantitykind:InverseSquareTime a qudt:QuantityKind ; - qudt:baseUnitDimensions "/T^^2" ; + qudt:baseUnitDimensions "\\(/T^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-2D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse Square Time"@en ; @@ -7460,7 +7627,7 @@ quantitykind:InverseTemperature . quantitykind:InverseTime a qudt:QuantityKind ; - qudt:baseUnitDimensions "/T" ; + qudt:baseUnitDimensions "\\(/T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse Time"@en ; @@ -7469,8 +7636,8 @@ quantitykind:InverseTimeTemperature a qudt:QuantityKind ; qudt:applicableUnit unit:HZ-PER-K ; qudt:applicableUnit unit:MegaHZ-PER-K ; - qudt:baseUnitDimensions "/K \\cdot s" ; - qudt:baseUnitDimensions "/\\Theta \\cdot T" ; + qudt:baseUnitDimensions "\\(/K \\cdot s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(/\\Theta \\cdot T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H-1T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Inverse Time Temperature"@en ; @@ -7484,7 +7651,7 @@ quantitykind:InverseVolume qudt:applicableUnit unit:PER-M3 ; qudt:applicableUnit unit:PER-MilliM3 ; qudt:applicableUnit unit:PER-YD3 ; - qudt:baseUnitDimensions "/m^3" ; + qudt:baseUnitDimensions "\\(/m^3\\)"^^qudt:LatexString ; qudt:hasDimension qudt:DIM_SI-m-3 ; qudt:hasDimensionVector qkdv:A0E0L-3I0M0H0T0D0 ; rdfs:isDefinedBy ; @@ -7542,6 +7709,7 @@ quantitykind:IonicStrength qudt:applicableUnit unit:MOL-PER-KiloGM ; qudt:applicableUnit unit:MilliMOL-PER-GM ; qudt:applicableUnit unit:MilliMOL-PER-KiloGM ; + qudt:hasDimensionVector qkdv:A1E0L0I0M-1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Ionic_strength"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(I = \\frac{1}{2} \\sum z_i^2 b_i\\), where the summation is carried out over all ions with charge number \\(z_i\\) and molality \\(m_i\\)."^^qudt:LatexString ; @@ -7633,6 +7801,7 @@ quantitykind:Irradiance quantitykind:IsentropicCompressibility a qudt:QuantityKind ; qudt:applicableUnit unit:PER-PA ; + qudt:hasDimensionVector qkdv:A0E0L1I0M-1H0T2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Compressibility"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(\\varkappa_S = \\frac{1}{V}\\left (\\frac{\\partial V}{\\partial p} \\right )_S\\), where \\(V\\) is volume, \\(p\\) is \\(pressure\\), and \\(S\\) is entropy,"^^qudt:LatexString ; @@ -7645,6 +7814,7 @@ quantitykind:IsentropicExponent a qudt:QuantityKind ; dcterms:description "Isentropic exponent is a variant of \"Specific Heat Ratio Capacities}. For an ideal gas \\textit{Isentropic Exponent\"\\(, \\varkappa\\). is equal to \\(\\gamma\\), the ratio of its specific heat capacities \\(c_p\\) and \\(c_v\\) under steady pressure and volume."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.citizendium.org/wiki/Specific_heat_ratio"^^xsd:anyURI ; qudt:informativeReference "http://en.wikipedia.org/wiki/Compressibility"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; @@ -7670,6 +7840,7 @@ quantitykind:IsothermalCompressibility quantitykind:Kerma a qudt:QuantityKind ; qudt:applicableUnit unit:GRAY ; + qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Kerma_(physics)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "For indirectly ionizing (uncharged) particles, \\(K= \\frac{dE_{tr}}{dm}\\), where \\(dE_{tr}\\) is the mean sum of the initial kinetic energies of all the charged ionizing particles liberated by uncharged ionizing particles in an element of matter, and \\(dm\\) is the mass of that element."^^qudt:LatexString ; @@ -7707,6 +7878,7 @@ quantitykind:KinematicViscosity . quantitykind:KineticEnergy a qudt:QuantityKind ; + dcterms:description "\\(\\textit{Kinetic Energy}\\) is the energy which a body possesses as a consequence of its motion, defined as one-half the product of its mass \\(m\\) and the square of its speed \\(v\\), \\( \\frac{1}{2} mv^{2} \\). The kinetic energy per unit volume of a fluid parcel is the \\( \\frac{1}{2} p v^{2}\\) , where \\(p\\) is the density and \\(v\\) the speed of the parcel. See potential energy. For relativistic speeds the kinetic energy is given by \\(E_k = mc^2 - m_0 c^2\\), where \\(c\\) is the velocity of light in a vacuum, \\(m_0\\) is the rest mass, and \\(m\\) is the moving mass."^^qudt:LatexString ; qudt:applicableUnit unit:AttoJ ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_TH ; @@ -7755,7 +7927,6 @@ quantitykind:KineticEnergy qudt:informativeReference "http://en.wikipedia.org/wiki/Kinetic_energy"^^xsd:anyURI ; qudt:latexDefinition "\\(T = \\frac{mv^2}{2}\\), where \\(m\\) is mass and \\(v\\) is speed."^^qudt:LatexString ; qudt:normativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:plainTextDescription "\"Kinetic Energy} is the energy which a body possesses as a consequence of its motion, defined as one-half the product of its mass \\(m\\) and the square of its speed \\(v\\), \\( 1/2 mv^{2} \\). The kinetic energy per unit volume of a fluid parcel is the \\(1/2 p v^{2}\\) , where \\(p\\) is the density and \\(v\\) the speed of the parcel. See potential energy. For relativistic speeds the kinetic energy is given by \\(Ek = mc^{2} - m0c^{2\"\\), where \\(c\\) is the velocity of light in a vacuum, \\(m0\\) is the rest mass, and \\(m\\) is the moving mass." ; qudt:symbol "K" ; qudt:symbol "KE" ; qudt:url "http://en.wikipedia.org/wiki/Kinetic_energy"^^xsd:anyURI ; @@ -7792,6 +7963,7 @@ quantitykind:Landau-GinzburgNumber quantitykind:LandeGFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/G-factor_(physics)"^^xsd:anyURI ; qudt:informativeReference "http://en.wikipedia.org/wiki/Landé_g-factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; @@ -7919,6 +8091,7 @@ quantitykind:LeakageFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; qudt:expression "\\(leakage-factor\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=221-04-12"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\sigma = 1 - k^2\\), where \\(k\\) is the coupling factor."^^qudt:LatexString ; @@ -7964,8 +8137,8 @@ quantitykind:Length qudt:applicableUnit unit:PlanckLength ; qudt:applicableUnit unit:ROD ; qudt:applicableUnit unit:YD ; - qudt:baseUnitDimensions "L" ; - qudt:baseUnitDimensions "m" ; + qudt:baseUnitDimensions "\\(L\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Length"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Length"^^xsd:anyURI ; @@ -7982,8 +8155,8 @@ quantitykind:LengthByForce quantitykind:LengthEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:MegaEV-FemtoM ; - qudt:baseUnitDimensions "L^3 \\cdot M/T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^3/s^2" ; + qudt:baseUnitDimensions "\\(L^3 \\cdot M/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^3/s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L3I0M1H0T-2D0 ; rdfs:isDefinedBy ; rdfs:label "Length Energy"@en ; @@ -7995,8 +8168,8 @@ quantitykind:LengthMass qudt:applicableUnit unit:M-KiloGM ; qudt:applicableUnit unit:OZ-FT ; qudt:applicableUnit unit:OZ-IN ; - qudt:baseUnitDimensions "L \\cdot M" ; - qudt:baseUnitDimensions "kg \\cdot m" ; + qudt:baseUnitDimensions "\\(L \\cdot M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L1I0M1H0T0D0 ; rdfs:isDefinedBy ; rdfs:label "Length Mass"@en ; @@ -8004,18 +8177,17 @@ quantitykind:LengthMass quantitykind:LengthMolarEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:J-M-PER-MOL ; - qudt:baseUnitDimensions "L^3 \\cdot M/M \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^3/mol \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^3 \\cdot M/M \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^3/mol \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E0L3I0M1H0T-2D0 ; rdfs:isDefinedBy ; rdfs:label "Length Molar Energy"@en ; . quantitykind:LengthPerUnitElectricCurrent a qudt:QuantityKind ; - qudt:baseUnitDimensions "L/I" ; - qudt:baseUnitDimensions "m/A" ; + qudt:baseUnitDimensions "\\(L/I\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m/A\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L1I0M0H0T0D0 ; - qudt:plainTextDescription "\"Length per Unit Electric Current\" is" ; rdfs:isDefinedBy ; rdfs:label "Length per Unit Electric Current"@en ; . @@ -8023,7 +8195,6 @@ quantitykind:LengthPercentage a qudt:QuantityKind ; qudt:applicableUnit unit:PERCENT ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E0L1I0M0H0T0D0 ; qudt:qkdvNumerator qkdv:A0E0L1I0M0H0T0D0 ; rdfs:isDefinedBy ; @@ -8035,8 +8206,8 @@ quantitykind:LengthTemperature qudt:applicableUnit unit:DEG_C-CentiM ; qudt:applicableUnit unit:K-M ; qudt:applicableUnit unit:M-K ; - qudt:baseUnitDimensions "K \\cdot m" ; - qudt:baseUnitDimensions "\\Theta \\cdot L" ; + qudt:baseUnitDimensions "\\(K \\cdot m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot L\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H1T0D0 ; rdfs:isDefinedBy ; rdfs:label "Length Temperature"@en ; @@ -8050,6 +8221,7 @@ quantitykind:LengthTemperatureTime quantitykind:Lethargy a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.scribd.com/doc/51548050/149/Lethargy"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(u = \\ln(\\frac{E_0}{E})\\), where \\(E_0\\) is a reference energy."^^qudt:LatexString ; @@ -8087,6 +8259,7 @@ quantitykind:LiftForce quantitykind:LinearAbsorptionCoefficient a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:latexDefinition "\\(\\alpha(\\lambda) = \\frac{1}{\\Phi_\\lambda(\\lambda)}\\frac{d\\Phi_\\lambda(\\lambda)}{dl}\\), where \\(\\frac{d\\Phi}{\\Phi}\\) is the relative decrease, caused by absorption, in the spectral radiant flux \\(\\Phi\\) of a collimated beam of electromagnetic radiation corresponding to the wavelength \\(\\lambda\\) during traversal of an infinitesimal layer of a medium and \\(dl\\) is the length traversed."^^qudt:LatexString ; qudt:latexSymbol "\\(\\mu\\)"^^qudt:LatexString ; qudt:plainTextDescription "The Linear Absorption Coefficient is a quantity that characterizes how easily a material or medium can be penetrated by a beam of light, sound, particles, or other energy or matter." ; @@ -8097,8 +8270,8 @@ quantitykind:LinearAbsorptionCoefficient . quantitykind:LinearAcceleration a qudt:QuantityKind ; - qudt:baseUnitDimensions "L/T^2" ; - qudt:baseUnitDimensions "m/s^2" ; + qudt:baseUnitDimensions "\\(L/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m/s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Acceleration"^^xsd:anyURI ; qudt:exactMatch quantitykind:Acceleration ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-2D0 ; @@ -8109,6 +8282,7 @@ quantitykind:LinearAcceleration quantitykind:LinearAttenuationCoefficient a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Attenuation_coefficient"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition """\\(\\mu = -\\frac{1}{J}\\frac{dJ}{dx}\\), where \\(J\\) is the magnitude of the current rate of a beam of particles parallel to the \\(x-direction\\). @@ -8127,7 +8301,7 @@ quantitykind:LinearDensity a qudt:QuantityKind ; qudt:applicableUnit unit:KiloGM-PER-M ; qudt:applicableUnit unit:KiloGM-PER-MilliM ; - qudt:baseUnitDimensions "kg m^{-1}" ; + qudt:baseUnitDimensions "\\(kg m^{-1}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Linear_density"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -8145,7 +8319,7 @@ quantitykind:LinearElectricCurrent qudt:applicableUnit unit:KiloA-PER-M ; qudt:applicableUnit unit:MilliA-PER-IN ; qudt:applicableUnit unit:MilliA-PER-MilliM ; - qudt:baseUnitDimensions "A/m" ; + qudt:baseUnitDimensions "\\(A/m\\)"^^qudt:LatexString ; qudt:informativeReference "http://www.asknumbers.com/ElectricalConversion.aspx"^^xsd:anyURI ; qudt:plainTextDescription "\"Linear Electric Linear Current\" is the electric current per unit line." ; rdfs:isDefinedBy ; @@ -8161,6 +8335,7 @@ quantitykind:LinearElectricCurrentDensity qudt:applicableUnit unit:KiloA-PER-M ; qudt:applicableUnit unit:MilliA-PER-IN ; qudt:applicableUnit unit:MilliA-PER-MilliM ; + qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:informativeReference "http://www.asknumbers.com/ElectricalConversion.aspx"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(J_s = \\rho_A v\\), where \\(\\rho_A\\) is surface density of electric charge and \\(v\\) is velocity."^^qudt:LatexString ; @@ -8199,6 +8374,7 @@ quantitykind:LinearExpansionCoefficient quantitykind:LinearIonization a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Ionization#Classical_ionization"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(N_{il} = \\frac{1}{e}\\frac{dQ}{dl}\\), where \\(e\\) is the elementary charge and \\(dQ\\) is the average total charge of all positive ions produced over an infinitesimal element of the path with length \\(dl\\) by an ionizing charged particle."^^qudt:LatexString ; @@ -8214,8 +8390,8 @@ quantitykind:LinearMomentum qudt:applicableUnit unit:MegaEV-PER-SpeedOfLight ; qudt:applicableUnit unit:N-SEC ; qudt:applicableUnit unit:PlanckMomentum ; - qudt:baseUnitDimensions "L \\cdot M/T" ; - qudt:baseUnitDimensions "kg \\cdot m/s" ; + qudt:baseUnitDimensions "\\(L \\cdot M/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/s\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Momentum"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L1I0M1H0T-1D0 ; qudt:latexDefinition "p = m\\upsilon"^^qudt:LatexString ; @@ -8255,8 +8431,8 @@ quantitykind:LinearThermalExpansion qudt:applicableUnit unit:MicroM-PER-K ; qudt:applicableUnit unit:MilliM-PER-K ; qudt:applicableUnit unit:YD-PER-DEG_F ; - qudt:baseUnitDimensions "L/\\Theta" ; - qudt:baseUnitDimensions "m/K" ; + qudt:baseUnitDimensions "\\(L/\\Theta\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m/K\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H-1T0D0 ; qudt:informativeReference "http://en.wikipedia.org/linear_thermal_expansion"^^xsd:anyURI ; qudt:plainTextDescription "When the temperature of a substance changes, the energy that is stored in the intermolecular bonds between atoms changes. When the stored energy increases, so does the length of the molecular bonds. As a result, solids typically expand in response to heating and contract on cooling; this dimensional response to temperature change is expressed by its coefficient of thermal expansion. Different coefficients of thermal expansion can be defined for a substance depending on whether the expansion is measured by: linear thermal expansion, area thermal expansion, or volumetric thermal expansion." ; @@ -8266,8 +8442,8 @@ quantitykind:LinearThermalExpansion quantitykind:LinearVelocity a qudt:QuantityKind ; dcterms:description "Linear Velocity, as the name implies deals with speed in a straight line, the units are often \\(km/hr\\) or \\(m/s\\) or \\(mph\\) (miles per hour). Linear Velocity (v) = change in distance/change in time, where \\(v = \\bigtriangleup d/\\bigtriangleup t\\)"^^qudt:LatexString ; - qudt:baseUnitDimensions "L/T" ; - qudt:baseUnitDimensions "m/s" ; + qudt:baseUnitDimensions "\\(L/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m/s\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Velocity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; qudt:informativeReference "http://au.answers.yahoo.com/question/index?qid=20080319082534AAtrClv"^^xsd:anyURI ; @@ -8312,6 +8488,7 @@ quantitykind:LiquidVolume quantitykind:LogarithmicFrequencyInterval a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(G = \\log_{2}(f2/f1)\\), where \\(f1\\) and \\(f2 \\geq f1\\) are frequencies of two tones."^^qudt:LatexString ; vaem:todo "belongs to SOQ-ISO" ; rdfs:isDefinedBy ; @@ -8367,6 +8544,7 @@ quantitykind:LondonPenetrationDepth quantitykind:Long-RangeOrderParameter a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:plainTextDescription "\"Long-Range Order Parameter\" is the fraction of atoms in an Ising ferromagnet having magnetic moments in one direction, minus the fraction having magnetic moments in the opposite direction." ; qudt:symbol "R, s" ; @@ -8389,13 +8567,13 @@ quantitykind:LossAngle qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\delta = \\arctan d\\), where \\(d\\) is loss factor."^^qudt:LatexString ; qudt:latexSymbol "\\(\\delta\\)"^^qudt:LatexString ; - qudt:plainTextDescription "\"Loss Angle\" is" ; rdfs:isDefinedBy ; rdfs:label "Loss Angle"@en ; . quantitykind:LossFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(d = \\frac{1}{Q}\\), where \\(Q\\) is quality factor."^^qudt:LatexString ; qudt:plainTextDescription "\"Loss Factor} is the inverse of \\textit{Quality Factor} and is the ratio of the \\textit{resistance} and modulus of \\textit{reactance\"." ; @@ -8422,8 +8600,8 @@ quantitykind:Luminance qudt:applicableUnit unit:FT-LA ; qudt:applicableUnit unit:LA ; qudt:applicableUnit unit:STILB ; - qudt:baseUnitDimensions "J/L^2" ; - qudt:baseUnitDimensions "cd/m^2" ; + qudt:baseUnitDimensions "\\(J/L^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(cd/m^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Luminance"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L-2I1M0H0T0D0 ; qudt:latexDefinition "\\(L_v = \\frac{dI_v}{dA}\\), where \\(dI_v\\) is the luminous intensity of an element of the surface with the area \\(dA\\) of the orthogonal projection of this element on a plane perpendicular to the given direction."^^qudt:LatexString ; @@ -8436,8 +8614,8 @@ quantitykind:Luminance quantitykind:LuminousEfficacy a qudt:QuantityKind ; qudt:applicableUnit unit:LM-PER-W ; - qudt:baseUnitDimensions "J \\cdot T^3 \\cdot U/L^2 \\cdot M" ; - qudt:baseUnitDimensions "cd \\cdot s^3/kg \\cdot m^2" ; + qudt:baseUnitDimensions "\\(J \\cdot T^3 \\cdot U/L^2 \\cdot M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(cd \\cdot s^3/kg \\cdot m^2\\)"^^qudt:LatexString ; qudt:expression "\\(lm/w\\)"^^qudt:LatexString ; qudt:latexDefinition "\\(K = \\frac{\\Phi_v}{\\Phi}\\), where \\(\\Phi_v\\) is the luminous flux and \\(\\Phi\\) is the corresponding radiant flux."^^qudt:LatexString ; qudt:plainTextDescription "Luminous Efficacy is the ratio of luminous flux (in lumens) to power (usually measured in watts). Depending on context, the power can be either the radiant flux of the source's output, or it can be the total electric power consumed by the source." ; @@ -8485,8 +8663,8 @@ quantitykind:LuminousExposure quantitykind:LuminousFlux a qudt:QuantityKind ; qudt:applicableUnit unit:LM ; - qudt:baseUnitDimensions "J \\cdot U" ; - qudt:baseUnitDimensions "cd" ; + qudt:baseUnitDimensions "\\(J \\cdot U\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(cd\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Luminous_flux"^^xsd:anyURI ; qudt:informativeReference "http://en.wikipedia.org/wiki/Luminous_flux"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; @@ -8503,8 +8681,8 @@ quantitykind:LuminousFluxPerArea qudt:applicableUnit unit:FC ; qudt:applicableUnit unit:LUX ; qudt:applicableUnit unit:Phot ; - qudt:baseUnitDimensions "J \\cdot U/L^2" ; - qudt:baseUnitDimensions "cd/m^2" ; + qudt:baseUnitDimensions "\\(J \\cdot U/L^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(cd/m^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-2I1M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Illuminance"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -8514,8 +8692,8 @@ quantitykind:LuminousIntensity a qudt:QuantityKind ; qudt:applicableUnit unit:CD ; qudt:applicableUnit unit:CP ; - qudt:baseUnitDimensions "J" ; - qudt:baseUnitDimensions "cd" ; + qudt:baseUnitDimensions "\\(J\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(cd\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Luminous_intensity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I1M0H0T0D0 ; qudt:plainTextDescription "Luminous Intensity is a measure of the wavelength-weighted power emitted by a light source in a particular direction per unit solid angle. The weighting is determined by the luminosity function, a standardized model of the sensitivity of the human eye to different wavelengths." ; @@ -8748,6 +8926,7 @@ quantitykind:MacroscopicCrossSection qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Cross_section_(physics)"^^xsd:anyURI ; @@ -8775,6 +8954,7 @@ quantitykind:MacroscopicTotalCrossSection qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Cross_section_(physics)"^^xsd:anyURI ; @@ -8789,6 +8969,7 @@ quantitykind:MacroscopicTotalCrossSection quantitykind:MadelungConstant a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Madelung_constant"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexDefinition "For a uni-univalent ionic crystal of specified structure, the binding energy \\(V_b\\) per pair of ions is \\(V_b = \\alpha\\frac{e^2}{4\\pi \\varepsilon_0 a}\\), where \\(e\\) is the elementary charge, \\(\\varepsilon_0\\) is the electric constant, and \\(a\\) is the lattice constant which should be specified."^^qudt:LatexString ; @@ -8801,10 +8982,8 @@ quantitykind:MagneticAreaMoment a qudt:QuantityKind ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-49"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; - qudt:latexDefinition """\\(m = I e_n A\\), where \\(I\\) is electric current in a small closed loop, \\(e_n\\) is a unit vector perpendicular to the loop, and \\(A\\) is the area of the loop. The magnetic moment of a substance within a domain is the vector sum of the magnetic moments of all - -entities included in the domain."""^^qudt:LatexString ; - qudt:plainTextDescription "\"Magnetic Area Moment}, for a magnetic dipole, is a vector quantity equal to the product of the current, the loop area, and the unit vector normal to the loop plane, the direction of which corresponds to the loop orientation. \\textit{Magnetic Area Moment} is also referred to as \\textit{Mangnetic Moment\"." ; + qudt:latexDefinition "\\(m = I e_n A\\), where \\(I\\) is electric current in a small closed loop, \\(e_n\\) is a unit vector perpendicular to the loop, and \\(A\\) is the area of the loop. The magnetic moment of a substance within a domain is the vector sum of the magnetic moments of all entities included in the domain." ; + qudt:plainTextDescription "\"Magnetic Area Moment\", for a magnetic dipole, is a vector quantity equal to the product of the current, the loop area, and the unit vector normal to the loop plane, the direction of which corresponds to the loop orientation. \"Magnetic Area Moment\" is also referred to as \"Magnetic Moment\"." ; qudt:symbol "m" ; rdfs:isDefinedBy ; rdfs:label "Magnetic Area Moment"@en ; @@ -8818,8 +8997,8 @@ quantitykind:MagneticDipoleMoment qudt:applicableUnit unit:EV-PER-T ; qudt:applicableUnit unit:J-PER-T ; qudt:applicableUnit unit:WB-M ; - qudt:baseUnitDimensions "A \\cdot m^2" ; - qudt:baseUnitDimensions "I \\cdot L^2" ; + qudt:baseUnitDimensions "\\(A \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot L^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Magnetic_moment"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E1L2I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Magnetic_moment"^^xsd:anyURI ; @@ -8841,16 +9020,15 @@ quantitykind:MagneticField a qudt:QuantityKind ; dcterms:description "The Magnetic Field, denoted \\(B\\), is a fundamental field in electrodynamics which characterizes the magnetic force exerted by electric currents. It is closely related to the auxillary magnetic field H (see quantitykind:AuxillaryMagneticField)."^^qudt:LatexString ; qudt:applicableUnit unit:Gamma ; - qudt:applicableUnit unit:LB-PER-DAY ; qudt:applicableUnit unit:T_Ab ; - qudt:baseUnitDimensions "M/I \\cdot T^2" ; - qudt:baseUnitDimensions "kg/A \\cdot s^2" ; - qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-1D0 ; + qudt:baseUnitDimensions "\\(M/I \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/A \\cdot s^2\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E-1L0I0M1H0T-2D0 ; qudt:symbol "B" ; rdfs:isDefinedBy ; rdfs:label "Magnetic Field"@en ; . -quantitykind:MagneticFieldStrength +quantitykind:MagneticFieldStrength_H a qudt:QuantityKind ; dcterms:description "\\(\\textbf{Magnetic Field Strength}\\) is a vector quantity obtained at a given point by subtracting the magnetization \\(M\\) from the magnetic flux density \\(B\\) divided by the magnetic constant \\(\\mu_0\\). The magnetic field strength is related to the total current density \\(J_{tot}\\) via: \\(\\text{rot} H = J_{tot}\\)."^^qudt:LatexString ; qudt:applicableUnit unit:A-PER-CentiM ; @@ -8862,7 +9040,6 @@ quantitykind:MagneticFieldStrength qudt:applicableUnit unit:MilliA-PER-IN ; qudt:applicableUnit unit:MilliA-PER-MilliM ; qudt:applicableUnit unit:OERSTED ; - qudt:applicableUnit unit:T_Ab ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-56"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -8870,6 +9047,7 @@ quantitykind:MagneticFieldStrength qudt:latexSymbol "\\(\\mathbf{H} \\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Magnetic Field Strength"@en ; + skos:broader quantitykind:ElectricCurrentPerUnitLength ; . quantitykind:MagneticFlux a qudt:QuantityKind ; @@ -8880,8 +9058,8 @@ quantitykind:MagneticFlux qudt:applicableUnit unit:UnitPole ; qudt:applicableUnit unit:V_Ab-SEC ; qudt:applicableUnit unit:WB ; - qudt:baseUnitDimensions "L^2 \\cdot M/I \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^2/A \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/I \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/A \\cdot s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Magnetic_flux"^^xsd:anyURI ; qudt:expression "\\(magnetic-flux\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L2I0M1H0T-2D0 ; @@ -8906,7 +9084,7 @@ quantitykind:MagneticFluxDensity qudt:applicableUnit unit:NanoT ; qudt:applicableUnit unit:T ; qudt:applicableUnit unit:T_Ab ; - qudt:baseUnitDimensions "kg/A \\cdot s^2" ; + qudt:baseUnitDimensions "\\(kg/A \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L0I0M1H0T-2D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:informativeReference "http://www.oxfordreference.com/view/10.1093/acref/9780199233991.001.0001/acref-9780199233991-e-1798"^^xsd:anyURI ; @@ -8920,8 +9098,8 @@ quantitykind:MagneticFluxPerUnitLength qudt:applicableUnit unit:N-PER-A ; qudt:applicableUnit unit:T-M ; qudt:applicableUnit unit:V-SEC-PER-M ; - qudt:baseUnitDimensions "L \\cdot M/I \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m/A \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L \\cdot M/I \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/A \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-2D0 ; qudt:plainTextDescription "\"Magnetic Flux per Unit Length\" is a quantity in the SI and C.G.S. Systems of Quantities." ; rdfs:isDefinedBy ; @@ -8931,10 +9109,8 @@ quantitykind:MagneticMoment a qudt:QuantityKind ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-49"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; - qudt:latexDefinition """\\(m = I e_n A\\), where \\(I\\) is electric current in a small closed loop, \\(e_n\\) is a unit vector perpendicular to the loop, and \\(A\\) is the area of the loop. The magnetic moment of a substance within a domain is the vector sum of the magnetic moments of all - -entities included in the domain."""^^qudt:LatexString ; - qudt:plainTextDescription "\"Magnetic Moment}, for a magnetic dipole, is a vector quantity equal to the product of the current, the loop area, and the unit vector normal to the loop plane, the direction of which corresponds to the loop orientation. \\textit{Magnetic Moment} is also referred to as \\textit{Mangnetic Area Moment\"." ; + qudt:latexDefinition "\\(m = I e_n A\\), where \\(I\\) is electric current in a small closed loop, \\(e_n\\) is a unit vector perpendicular to the loop, and \\(A\\) is the area of the loop. The magnetic moment of a substance within a domain is the vector sum of the magnetic moments of all entities included in the domain." ; + qudt:plainTextDescription "\"Magnetic Moment\", for a magnetic dipole, is a vector quantity equal to the product of the current, the loop area, and the unit vector normal to the loop plane, the direction of which corresponds to the loop orientation. \"Magnetic Moment\" is also referred to as \"Magnetic Area Moment\"." ; qudt:symbol "m" ; rdfs:isDefinedBy ; rdfs:label "Magnetic Moment"@en ; @@ -8950,7 +9126,7 @@ quantitykind:MagneticPolarization rdfs:isDefinedBy ; rdfs:label "Magnetic Polarization"@en ; rdfs:seeAlso constant:MagneticConstant ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; rdfs:seeAlso quantitykind:Magnetization ; . quantitykind:MagneticQuantumNumber @@ -8971,8 +9147,8 @@ quantitykind:MagneticQuantumNumber quantitykind:MagneticReluctivity a qudt:QuantityKind ; qudt:applicableUnit unit:PER-T-M ; - qudt:baseUnitDimensions "A \\cdot s^2/kg \\cdot m" ; - qudt:baseUnitDimensions "I \\cdot T^2/L \\cdot M" ; + qudt:baseUnitDimensions "\\(A \\cdot s^2/kg \\cdot m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot T^2/L \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-1I0M-1H0T2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Permeability_(electromagnetism)"^^xsd:anyURI ; qudt:plainTextDescription "\"Length Per Unit Magnetic Flux} is the the resistance of a material to the establishment of a magnetic field in it. It is the reciprocal of \\textit{Magnetic Permeability\", the inverse of the measure of the ability of a material to support the formation of a magnetic field within itself." ; @@ -8985,6 +9161,7 @@ quantitykind:MagneticSusceptability dcterms:description "\"Magnetic Susceptability\" is a scalar or tensor quantity the product of which by the magnetic constant \\(\\mu_0\\) and by the magnetic field strength \\(H\\) is equal to the magnetic polarization \\(J\\). The definition given applies to an isotropic medium. For an anisotropic medium permeability is a second order tensor."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; qudt:expression "\\(\\kappa = \\frac{M}{H}\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-12-37"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\kappa = \\frac{M}{H}\\), where \\(M\\) is magnetization, and \\(H\\) is magnetic field strength."^^qudt:LatexString ; @@ -8992,12 +9169,13 @@ quantitykind:MagneticSusceptability rdfs:isDefinedBy ; rdfs:label "Magnetic Susceptability"@en ; rdfs:seeAlso constant:MagneticConstant ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; rdfs:seeAlso quantitykind:Magnetization ; . quantitykind:MagneticTension a qudt:QuantityKind ; qudt:applicableUnit unit:A ; + qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T0D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-57"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(U_m = \\int_{r_a(C)}^{r_b} \\mathbf{H} \\cdot dr\\), where \\(\\mathbf{H}\\) is magnetic field strength and \\(r\\) is the position vector along a given curve \\(C\\) from point \\(a\\) to point \\(b\\)."^^qudt:LatexString ; @@ -9005,7 +9183,7 @@ quantitykind:MagneticTension qudt:symbol "U_m" ; rdfs:isDefinedBy ; rdfs:label "Magnetic Tension"@en ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; . quantitykind:MagneticVectorPotential a qudt:QuantityKind ; @@ -9013,9 +9191,10 @@ quantitykind:MagneticVectorPotential qudt:applicableUnit unit:V-SEC-PER-M ; qudt:applicableUnit unit:WB-PER-M ; qudt:applicableUnit unit:WB-PER-MilliM ; + qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-2D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-23"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\B = \\textbf{rot} A\\), where \\(B\\) is magnetic flux density."^^qudt:LatexString ; + qudt:latexDefinition "\\(B = \\textbf{rot} A\\), where \\(B\\) is magnetic flux density." ; qudt:plainTextDescription "\"Magnetic Vector Potential\" is the vector potential of the magnetic flux density. The magnetic vector potential is not unique since any irrotational vector field quantity can be added to a given magnetic vector potential without changing its rotation. Under static conditions the magnetic vector potential is often chosen so that its divergence is zero." ; qudt:symbol "A" ; rdfs:isDefinedBy ; @@ -9055,8 +9234,8 @@ quantitykind:MagnetomotiveForce qudt:applicableUnit unit:AT ; qudt:applicableUnit unit:GI ; qudt:applicableUnit unit:OERSTED-CentiM ; - qudt:baseUnitDimensions "A" ; - qudt:baseUnitDimensions "I \\cdot U" ; + qudt:baseUnitDimensions "\\(A\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I \\cdot U\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Magnetomotive_force"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T0D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-60"^^xsd:anyURI ; @@ -9065,7 +9244,7 @@ quantitykind:MagnetomotiveForce qudt:latexSymbol "\\(F_m \\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Magnetomotive Force"@en ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; . quantitykind:Mass a qudt:QuantityKind ; @@ -9113,8 +9292,8 @@ quantitykind:Mass qudt:applicableUnit unit:TON_UK ; qudt:applicableUnit unit:TON_US ; qudt:applicableUnit unit:U ; - qudt:baseUnitDimensions "M" ; - qudt:baseUnitDimensions "kg" ; + qudt:baseUnitDimensions "\\(M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Mass"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass"^^xsd:anyURI ; @@ -9125,8 +9304,8 @@ quantitykind:Mass quantitykind:MassAbsorptionCoefficient a qudt:QuantityKind ; qudt:applicableUnit unit:M2-PER-KiloGM ; - qudt:latexDefinition "\\(\\a_m = \\frac{a}{\\rho}\\), where \\(a\\) is the linear absorption coefficient and \\(\\rho\\) is the mass density of the medium."^^qudt:LatexString ; - qudt:latexSymbol "\\(\\a_m\\)"^^qudt:LatexString ; + qudt:latexDefinition "\\(a_m = \\frac{a}{\\rho}\\), where \\(a\\) is the linear absorption coefficient and \\(\\rho\\) is the mass density of the medium." ; + qudt:latexSymbol "\\(a_m\\)" ; qudt:plainTextDescription "The mass absorption coefficient is the linear absorption coefficient divided by the density of the absorber." ; qudt:systemDerivedQuantityKind qudt:SOQ_SI ; rdfs:isDefinedBy ; @@ -9150,6 +9329,7 @@ quantitykind:MassAttenuationCoefficient qudt:applicableUnit unit:M2-PER-GM ; qudt:applicableUnit unit:M2-PER-GM_DRY ; qudt:applicableUnit unit:M2-PER-KiloGM ; + qudt:hasDimensionVector qkdv:A0E0L2I0M-1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass_attenuation_coefficient"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(\\mu_m = \\frac{\\mu}{\\rho}\\), where \\(\\mu\\) is the linear attenuation coefficient and \\(\\rho\\) is the mass density of the medium."^^qudt:LatexString ; @@ -9286,7 +9466,7 @@ quantitykind:MassDensity qudt:applicableUnit unit:TON_Metric-PER-M3 ; qudt:applicableUnit unit:TON_UK-PER-YD3 ; qudt:applicableUnit unit:TON_US-PER-YD3 ; - qudt:baseUnitDimensions "kg m^{-3}" ; + qudt:baseUnitDimensions "\\(kg m^{-3}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-3I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Density"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -9367,7 +9547,7 @@ quantitykind:MassExcess . quantitykind:MassFlowRate a qudt:QuantityKind ; - dcterms:description "\"Mass Flow Rate} is a measure of Mass flux. The common symbol is \\(\\dot{m\"\\) (pronounced \"m-dot\"), although sometimes \\(\\mu\\) is used. The SI units are \\(kg s-1\\)."^^qudt:LatexString ; + dcterms:description "\"Mass Flow Rate\" is a measure of Mass flux. The common symbol is \\(\\dot{m}\\) (pronounced \"m-dot\"), although sometimes \\(\\mu\\) is used. The SI units are \\(kg s-1\\)."^^qudt:LatexString ; qudt:applicableUnit unit:DYN-SEC-PER-CentiM ; qudt:applicableUnit unit:GM-PER-DAY ; qudt:applicableUnit unit:GM-PER-HR ; @@ -9403,7 +9583,7 @@ quantitykind:MassFlowRate qudt:applicableUnit unit:TON_UK-PER-DAY ; qudt:applicableUnit unit:TON_US-PER-DAY ; qudt:applicableUnit unit:TON_US-PER-HR ; - qudt:baseUnitDimensions "kg sec^{-1}" ; + qudt:baseUnitDimensions "\\(kg sec^{-1}\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Mass_flow_rate"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass_flow_rate"^^xsd:anyURI ; @@ -9418,6 +9598,7 @@ quantitykind:MassFlowRate quantitykind:MassFraction a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass_fraction_(chemistry)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(w_B = \\frac{m_B}{m}\\), where \\(m_B\\) is the mass of substance \\(B\\) and \\(m\\) is the total."^^qudt:LatexString ; @@ -9429,6 +9610,7 @@ quantitykind:MassFraction quantitykind:MassFractionOfDryMatter a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(w_d= 1 - w_{h2o}\\), where \\(w_{h2o}\\) is mass fraction of water."^^qudt:LatexString ; qudt:plainTextDescription "\"Mass Fraction of Dry Matter} is one of a number of \\textit{Concentration\" quantities defined by ISO 8000." ; @@ -9440,6 +9622,7 @@ quantitykind:MassFractionOfDryMatter quantitykind:MassFractionOfWater a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(w_{H_2o} = \\frac{u}{1+u}\\), where \\(u\\) is mass ratio of water to dry water."^^qudt:LatexString ; qudt:plainTextDescription "\"Mass Fraction of Water} is one of a number of \\textit{Concentration\" quantities defined by ISO 8000." ; @@ -9476,7 +9659,7 @@ quantitykind:MassOfSolidBooster quantitykind:MassOfTheEarth a qudt:QuantityKind ; qudt:plainTextDescription "Earth mass is the unit of mass equal to that of the Earth. Earth mass is often used to describe masses of rocky terrestrial planets." ; - qudt:symbol "M_{oplus}" ; + qudt:symbol "\\(M_{\\oplus}\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Mass Of The Earth"@en ; . @@ -9498,11 +9681,11 @@ quantitykind:MassPerArea qudt:applicableUnit unit:SLUG-PER-FT2 ; qudt:applicableUnit unit:TONNE-PER-HA ; qudt:applicableUnit unit:TON_Metric-PER-HA ; - qudt:baseUnitDimensions "M/L^2" ; - qudt:baseUnitDimensions "kg/m^2" ; + qudt:baseUnitDimensions "\\(M/L^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-2I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Area_density"^^xsd:anyURI ; - qudt:latexDefinition "\\rho_A = \\frac {m} {A}"^^qudt:LatexString ; + qudt:latexDefinition "\\(\\rho_A = \\frac {m} {A}\\)" ; qudt:latexSymbol "\\(\\rho_A \\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Mass per Area"@en ; @@ -9519,8 +9702,8 @@ quantitykind:MassPerAreaTime qudt:applicableUnit unit:MilliGM-PER-M2-DAY ; qudt:applicableUnit unit:MilliGM-PER-M2-HR ; qudt:applicableUnit unit:MilliGM-PER-M2-SEC ; - qudt:baseUnitDimensions "M/L^2 \\cdot T" ; - qudt:baseUnitDimensions "kg/m^2 \\cdot s" ; + qudt:baseUnitDimensions "\\(M/L^2 \\cdot T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m^2 \\cdot s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-2I0M1H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass_flux"^^xsd:anyURI ; qudt:latexSymbol "\\(j_m = \\lim\\limits_{A \\rightarrow 0}\\frac{I_m}{A}\\)"^^qudt:LatexString ; @@ -9531,8 +9714,8 @@ quantitykind:MassPerElectricCharge a qudt:QuantityKind ; dcterms:description "The mass-to-charge ratio ratio (\\(m/Q\\)) is a physical quantity that is widely used in the electrodynamics of charged particles, for example, in electron optics and ion optics. The importance of the mass-to-charge ratio, according to classical electrodynamics, is that two particles with the same mass-to-charge ratio move in the same path in a vacuum when subjected to the same electric and magnetic fields. Its SI units are \\(kg/C\\), but it can also be measured in Thomson (\\(Th\\))."^^qudt:LatexString ; qudt:applicableUnit unit:T-SEC ; - qudt:baseUnitDimensions "M/I \\cdot T" ; - qudt:baseUnitDimensions "kg/A \\cdot s" ; + qudt:baseUnitDimensions "\\(M/I \\cdot T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/A \\cdot s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L0I0M1H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass-to-charge_ratio"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -9551,8 +9734,8 @@ quantitykind:MassPerLength qudt:applicableUnit unit:MilliGM-PER-M ; qudt:applicableUnit unit:SLUG-PER-FT ; qudt:applicableUnit unit:TEX ; - qudt:baseUnitDimensions "M/L" ; - qudt:baseUnitDimensions "kg/m" ; + qudt:baseUnitDimensions "\\(M/L\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/m\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Linear_density"^^xsd:anyURI ; qudt:latexSymbol "\\(\\mu\\)"^^qudt:LatexString ; @@ -9568,8 +9751,8 @@ quantitykind:MassPerTime qudt:applicableUnit unit:NanoGM-PER-DAY ; qudt:applicableUnit unit:SLUG-PER-SEC ; qudt:applicableUnit unit:TON_SHORT-PER-HR ; - qudt:baseUnitDimensions "M/T" ; - qudt:baseUnitDimensions "kg/s" ; + qudt:baseUnitDimensions "\\(M/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Mass per Time"@en ; @@ -9587,6 +9770,7 @@ quantitykind:MassRatio qudt:applicableUnit unit:NanoGM-PER-KiloGM ; qudt:applicableUnit unit:PicoGM-PER-GM ; qudt:applicableUnit unit:PicoGM-PER-KiloGM ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:plainTextDescription "In aerospace engineering, mass ratio is a measure of the efficiency of a rocket. It describes how much more massive the vehicle is with propellant than without; that is, it is the ratio of the rocket's wet mass (vehicle plus contents plus propellant) to its dry mass (vehicle plus contents)" ; qudt:symbol "R or M_{R}" ; rdfs:isDefinedBy ; @@ -9595,6 +9779,7 @@ quantitykind:MassRatio quantitykind:MassRatioOfWaterToDryMatter a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(u = m/m_d\\), where \\(m\\) is mass of water vapour and \\(m_d\\) is mass of dry matter. Mass ratio of water to dry matter at saturation is denoted \\(u_{sat}\\)."^^qudt:LatexString ; qudt:plainTextDescription "\"Mass Ratio of Water to Dry Matter} is one of a number of \\textit{Concentration Ratio\" quantities defined by ISO 8000." ; @@ -9605,6 +9790,7 @@ quantitykind:MassRatioOfWaterToDryMatter quantitykind:MassRatioOfWaterVapourToDryGas a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(x = m/m_d\\), where \\(m\\) is mass of water vapour and \\(m_d\\) is mass of dry gas. Mass ratio of water vapour to dry gas at saturation is denoted \\(x_{sat}\\)."^^qudt:LatexString ; qudt:plainTextDescription "\"Mass Ratio of Water Vapour to Dry Gas} is one of a number of \\textit{Concentration Ratio\" quantities defined by ISO 8000." ; @@ -9618,8 +9804,8 @@ quantitykind:MassTemperature qudt:applicableUnit unit:KiloGM-K ; qudt:applicableUnit unit:LB-DEG_F ; qudt:applicableUnit unit:LB-DEG_R ; - qudt:baseUnitDimensions "K \\cdot kg" ; - qudt:baseUnitDimensions "\\Theta \\cdot M" ; + qudt:baseUnitDimensions "\\(K \\cdot kg\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H1T0D0 ; rdfs:isDefinedBy ; rdfs:label "Mass Temperature"@en ; @@ -9627,6 +9813,7 @@ quantitykind:MassTemperature quantitykind:MassicActivity a qudt:QuantityKind ; qudt:applicableUnit unit:BQ-PER-KiloGM ; + qudt:hasDimensionVector qkdv:A0E0L0I0M-1H0T-1D0 ; qudt:informativeReference "http://www.encyclo.co.uk/define/massic%20activity"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; qudt:plainTextDescription "\"Massic Activity\" is the activity divided by the total mass of the sample." ; @@ -9807,6 +9994,7 @@ quantitykind:MaximumOperatingPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -10122,6 +10310,7 @@ quantitykind:MigrationArea qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -10193,6 +10382,7 @@ quantitykind:Mobility quantitykind:MobilityRatio a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://baervan.nmt.edu/research_groups/reservoir_sweep_improvement/pages/clean_up/mobility.html"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexDefinition "\\(b = \\frac{\\mu_n}{\\mu_p}\\), where \\(\\mu_n\\) and \\(\\mu_p\\) are mobilities for electrons and holes, respectively."^^qudt:LatexString ; @@ -10208,7 +10398,7 @@ quantitykind:ModulusOfAdmittance qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-51"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(Y = \\left | \\underline{Y} \\right |\\), where \\(\\underline{Y}\\) is admittance."^^qudt:LatexString ; - qudt:plainTextDescription "\"Modulus Of Admittance} is the absolute value of the quantity \\textit{admittance\"." ; + qudt:plainTextDescription "\"Modulus Of Admittance\" is the absolute value of the quantity \"admittance\"." ; qudt:symbol "Y" ; rdfs:isDefinedBy ; rdfs:label "Modulus Of Admittance"@en ; @@ -10232,6 +10422,7 @@ quantitykind:ModulusOfImpedance the quotient of rms voltage and rms electric current; it is often denoted by \\(Z\\)."""^^qudt:LatexString ; qudt:applicableUnit unit:OHM ; + qudt:hasDimensionVector qkdv:A0E-2L2I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Absolute_value"^^xsd:anyURI ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electrical_impedance"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -10268,8 +10459,8 @@ quantitykind:MolarAbsorptionCoefficient quantitykind:MolarAngularMomentum a qudt:QuantityKind ; qudt:applicableUnit unit:J-SEC-PER-MOL ; - qudt:baseUnitDimensions "L^2 \\cdot M/M \\cdot T" ; - qudt:baseUnitDimensions "kg \\cdot m^2/mol \\cdot s" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/M \\cdot T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/mol \\cdot s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E0L2I0M1H0T-1D0 ; qudt:url "http://cvika.grimoar.cz/callen/callen_21.pdf"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -10302,12 +10493,12 @@ quantitykind:MolarConductivity . quantitykind:MolarEnergy a qudt:QuantityKind ; - dcterms:description "\"Molar Energy\" is the total energy contained by a thermodynamic system. The unit is \\(J/mol\\), also expressed as \\(joule/mole\\), or \\(joules per mole\\). This unit is commonly used in the SI unit system. The quantity has the dimension of \\(M \\cdot L^2 \\cdot T_{-2} \\cdot N^{-1\"\\) where \\(M\\) is mass, \\(L\\) is length, \\(T\\) is time, and \\(N\\) is amount of substance."^^qudt:LatexString ; + dcterms:description "\"Molar Energy\" is the total energy contained by a thermodynamic system. The unit is \\(J/mol\\), also expressed as \\(joule/mole\\), or \\(joules per mole\\). This unit is commonly used in the SI unit system. The quantity has the dimension of \\(M \\cdot L^2 \\cdot T^{-2} \\cdot N^{-1}\\) where \\(M\\) is mass, \\(L\\) is length, \\(T\\) is time, and \\(N\\) is amount of substance."^^qudt:LatexString ; qudt:applicableUnit unit:J-PER-MOL ; qudt:applicableUnit unit:KiloCAL-PER-MOL ; qudt:applicableUnit unit:KiloJ-PER-MOL ; - qudt:baseUnitDimensions "L^2 \\cdot M/N \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^2/mol \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/N \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/mol \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://www.efunda.com/glossary/units/units-molar_energy-joule_per_mole.cfm"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; @@ -10320,6 +10511,7 @@ quantitykind:MolarEnergy quantitykind:MolarEntropy a qudt:QuantityKind ; qudt:applicableUnit unit:J-PER-MOL-K ; + qudt:hasDimensionVector qkdv:A-1E0L2I0M1H-1T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Standard_molar_entropy"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(S_m = \\frac{S}{n}\\), where \\(S\\) is entropy and \\(n\\) is amount of substance."^^qudt:LatexString ; @@ -10335,7 +10527,7 @@ quantitykind:MolarFlowRate qudt:applicableUnit unit:MOL-PER-HR ; qudt:applicableUnit unit:MOL-PER-MIN ; qudt:applicableUnit unit:MOL-PER-SEC ; - qudt:baseUnitDimensions "mol sec^{-1}" ; + qudt:baseUnitDimensions "\\(mol sec^{-1}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A1E0L0I0M0H0T-1D0 ; qudt:informativeReference "https://www.sciencedirect.com/topics/engineering/molar-flow-rate"^^xsd:anyURI ; qudt:plainTextDescription "Molar Flow Rate is a measure of the amount of substance (the number of molecules) that passes through a given area perpendicular to the flow in a given time. Typically this area is constrained, for example a section through a pipe, but it could also apply to an open flow." ; @@ -10348,8 +10540,8 @@ quantitykind:MolarHeatCapacity qudt:applicableUnit unit:BTU_IT-PER-MOL-DEG_F ; qudt:applicableUnit unit:J-PER-MOL-K ; qudt:applicableUnit unit:KiloCAL-PER-MOL-DEG_C ; - qudt:baseUnitDimensions "L^2 \\cdot M/\\Theta \\cdot M \\cdot T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^2/K \\cdot mol \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/\\Theta \\cdot M \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/K \\cdot mol \\cdot s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E0L2I0M1H-1T-2D0 ; qudt:informativeReference "http://chemistry.about.com/od/chemistryglossary/g/Molar-Heat-Capacity-Definition.htm"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; @@ -10366,8 +10558,8 @@ quantitykind:MolarMass qudt:applicableUnit unit:GM-PER-MOL ; qudt:applicableUnit unit:KiloGM-PER-KiloMOL ; qudt:applicableUnit unit:KiloGM-PER-MOL ; - qudt:baseUnitDimensions "M/M" ; - qudt:baseUnitDimensions "kg/mol" ; + qudt:baseUnitDimensions "\\(M/M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/mol\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Molar_mass"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A-1E0L0I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Molar_mass"^^xsd:anyURI ; @@ -10395,8 +10587,8 @@ quantitykind:MolarVolume qudt:applicableUnit unit:L-PER-MOL ; qudt:applicableUnit unit:L-PER-MicroMOL ; qudt:applicableUnit unit:M3-PER-MOL ; - qudt:baseUnitDimensions "L^3/M" ; - qudt:baseUnitDimensions "m^3/mol" ; + qudt:baseUnitDimensions "\\(L^3/M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3/mol\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Molar_volume"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A-1E0L3I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Molar_volume"^^xsd:anyURI ; @@ -10472,7 +10664,7 @@ quantitykind:MomentOfForce qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Moment_(physics)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:latexDefinition "\\(M = r x F\\), where \\(r\\) is the position vector and \\(F\\) is the force."^^qudt:LatexString ; + qudt:latexDefinition "\\(M = r \\cdot F\\), where \\(r\\) is the position vector and \\(F\\) is the force." ; qudt:plainTextDescription "Moment of force (often just moment) is the tendency of a force to twist or rotate an object." ; qudt:symbol "M" ; rdfs:isDefinedBy ; @@ -10486,8 +10678,8 @@ quantitykind:MomentOfInertia qudt:applicableUnit unit:KiloGM-MilliM2 ; qudt:applicableUnit unit:LB-FT2 ; qudt:applicableUnit unit:LB-IN2 ; - qudt:baseUnitDimensions "L^2 \\cdot M" ; - qudt:baseUnitDimensions "kg \\cdot m^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Moment_of_inertia"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -10535,6 +10727,7 @@ quantitykind:MortalityRate quantitykind:MultiplicationFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Neutron_multiplication_factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "The \"Multiplication Factor\" is the ratio of the total number of fission or fission-dependent neutrons produced in a time interval to the total number of neutrons lost by absorption and leakage during the same interval." ; @@ -10544,7 +10737,7 @@ quantitykind:MultiplicationFactor . quantitykind:MutualInductance a qudt:QuantityKind ; - dcterms:description "\"Mutual Inductance} is the non-diagonal term of the inductance matrix. For two loops, the symbol \\(M\\) is used for \\(L_{12\"\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Mutual Inductance}\\) is the non-diagonal term of the inductance matrix. For two loops, the symbol \\(M\\) is used for \\(L_{12}\\)."^^qudt:LatexString ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-36"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(L_{mn} = \\frac{\\Psi_m}{I_n}\\), where \\(I_n\\) is an electric current in a thin conducting loop \\(n\\) and \\(\\Psi_m\\) is the linked flux caused by that electric current in another loop \\(m\\)."^^qudt:LatexString ; @@ -10608,6 +10801,7 @@ quantitykind:NOMINAL-ASCENT-PROPELLANT-MASS quantitykind:NapierianAbsorbance a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(A_e(\\lambda) = -ln(\\tau(\\lambda))\\), where \\(\\tau\\) is the transmittance at a given wavelength \\(\\lambda\\)."^^qudt:LatexString ; qudt:plainTextDescription "Napierian Absorbance is the natural (Napierian) logarithm of the reciprocal of the spectral internal transmittance." ; qudt:symbol "A_e, B" ; @@ -10662,6 +10856,7 @@ quantitykind:NeutronNumber quantitykind:NeutronYieldPerAbsorption a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Fission_product_yield"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexSymbol "\\(\\eta\\)"^^qudt:LatexString ; @@ -10672,6 +10867,7 @@ quantitykind:NeutronYieldPerAbsorption quantitykind:NeutronYieldPerFission a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Fission_product_yield"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexSymbol "\\(\\nu\\)"^^qudt:LatexString ; @@ -10682,6 +10878,7 @@ quantitykind:NeutronYieldPerFission quantitykind:Non-LeakageProbability a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Six_factor_formula"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexSymbol "\\(\\Lambda\\)"^^qudt:LatexString ; @@ -10727,6 +10924,7 @@ quantitykind:NormalStress qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -10755,7 +10953,7 @@ quantitykind:NormalStress qudt:applicableUnit unit:PSI ; qudt:applicableUnit unit:PlanckPressure ; qudt:applicableUnit unit:TORR ; - qudt:baseUnitDimensions "n m^{-2}" ; + qudt:baseUnitDimensions "\\(n m^{-2}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Stress_(mechanics)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -10830,6 +11028,8 @@ quantitykind:NozzleWallsThrustReaction quantitykind:NuclearQuadrupoleMoment a qudt:QuantityKind ; qudt:applicableUnit unit:M2 ; + qudt:applicableUnit unit:NanoM2 ; + qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Nuclear_quadrupole_resonance"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(Q = (\\frac{1}{e}) \\int (3z^2 - r^2)\\rho(x, y, z)dV\\), in the quantum state with the nuclear spin in the field direction \\((z)\\), where \\(\\rho(x, y, z)\\) is the nuclear electric charge density, \\(e\\) is the elementary charge, \\(r^2 = x^2 + y^2 + z^2\\), and \\(dV\\) is the volume element \\(dx\\) \\(dy\\) \\(dz\\)."^^qudt:LatexString ; @@ -10903,7 +11103,7 @@ quantitykind:NucleonNumber qudt:applicableUnit unit:NUM ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31895"^^xsd:anyURI ; - qudt:plainTextDescription "Number of nuceons in an atomic nucleus.A = Z+N. Nuclides with the same value of A are called isobars." ; + qudt:plainTextDescription "Number of nucleons in an atomic nucleus.A = Z+N. Nuclides with the same value of A are called isobars." ; qudt:symbol "A" ; rdfs:isDefinedBy ; rdfs:label "Nucleon number"@en ; @@ -10931,6 +11131,7 @@ quantitykind:NumberDensity quantitykind:NumberOfParticles a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Particle_number"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:plainTextDescription "\"Number of Particles\", also known as the particle number, of a thermodynamic system, conventionally indicated with the letter N, is the number of constituent particles in that system." ; @@ -10941,7 +11142,7 @@ quantitykind:NumberOfParticles quantitykind:OlfactoryThreshold a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_o\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_o}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Olfactory Threshold\" are thresholds for the concentrations of various classes of smell that can be detected." ; rdfs:isDefinedBy ; rdfs:label "Olfactory Threshold"@en ; @@ -10980,6 +11181,7 @@ quantitykind:OrderOfReflection a qudt:QuantityKind ; dcterms:description "\"Order of Reflection\" is \\(n\\) in the Bragg's Law equation."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.answers.com/topic/order-of-reflection"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:symbol "n" ; @@ -10989,6 +11191,7 @@ quantitykind:OrderOfReflection quantitykind:OsmoticCoefficient a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Osmotic_coefficient"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(\\varphi = -(M_A\\sum b_B)^{-1} \\ln a_A\\), where \\(M_A\\) is the molar mass of the solvent \\(A\\), \\(\\sum\\) denotes summation over all the solutes, \\(b_B\\) is the molality of solute \\(B\\), and \\(a_A\\) is the activity of solvent \\(A\\)."^^qudt:LatexString ; @@ -11021,6 +11224,7 @@ quantitykind:OsmoticPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -11139,7 +11343,7 @@ quantitykind:PRODUCT-OF-INERTIA_Y . quantitykind:PRODUCT-OF-INERTIA_Z a qudt:QuantityKind ; - qudt:plainTextDescription "A measure of a body?s dynamic (or coupled) imbalance resulting in a precession when rotating about an axis other than the body's principal axis." ; + qudt:plainTextDescription "A measure of a body's dynamic (or coupled) imbalance resulting in a precession when rotating about an axis other than the body's principal axis." ; rdfs:isDefinedBy ; rdfs:label "Product of Inertia in the Z axis"@en ; skos:broader quantitykind:PRODUCT-OF-INERTIA ; @@ -11147,6 +11351,7 @@ quantitykind:PRODUCT-OF-INERTIA_Z quantitykind:PackingFraction a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Atomic_packing_factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(f = \\frac{\\Delta_r}{A}\\), where \\(\\Delta_r\\) is the relative mass excess and \\(A\\) is the nucleon number."^^qudt:LatexString ; @@ -11180,6 +11385,7 @@ quantitykind:PartialPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -11221,6 +11427,7 @@ quantitykind:PartialPressure quantitykind:ParticleCurrent a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M2-SEC ; + qudt:hasDimensionVector qkdv:A0E0L-2I0M0H0T-1D0 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(\\int J \\cdot e_n dA = \\frac{dN}{dt}\\), where \\(e_ndA\\) is the vector surface element, \\(N\\) is the net number of particles passing over a surface, and \\(dt\\) describes the time interval."^^qudt:LatexString ; qudt:plainTextDescription "\"Particle Current\" can be used to describe the net number of particles passing through a surface in an infinitesimal time interval." ; @@ -11234,6 +11441,7 @@ quantitykind:ParticleFluence qudt:applicableUnit unit:NUM-PER-KiloM2 ; qudt:applicableUnit unit:NUM-PER-M2 ; qudt:applicableUnit unit:PER-M2 ; + qudt:hasDimensionVector qkdv:A0E0L-2I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Fluence"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(\\Phi = \\frac{dN}{dA}\\), where \\(dN\\) describes the number of particles incident on a small spherical domain at a given point in space, and \\(dA\\) describes the cross-sectional area of that domain."^^qudt:LatexString ; @@ -11245,6 +11453,7 @@ quantitykind:ParticleFluence quantitykind:ParticleFluenceRate a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M2-SEC ; + qudt:hasDimensionVector qkdv:A0E0L-2I0M0H0T-1D0 ; qudt:informativeReference "http://www.encyclo.co.uk/define/Fluence%20Rate"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(\\theta = \\frac{d\\Phi}{dt}\\), where \\(d\\Phi\\) is the increment of the particle fluence during an infinitesimal time interval with duration \\(dt\\)."^^qudt:LatexString ; @@ -11319,6 +11528,7 @@ quantitykind:ParticlePositionVector quantitykind:ParticleSourceDensity a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M3-SEC ; + qudt:hasDimensionVector qkdv:A0E0L-3I0M0H0T-1D0 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "\"Particle Source Density\" is the rate of production of particles in a 3D domain divided by the volume of that element." ; qudt:symbol "S" ; @@ -11426,6 +11636,7 @@ quantitykind:PermeabilityRatio quantitykind:Permeance a qudt:QuantityKind ; qudt:applicableUnit unit:NanoH ; + qudt:hasDimensionVector qkdv:A0E-2L2I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Permeance"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\Lambda = \\frac{1}{R_m}\\), where \\(R_m\\) is reluctance."^^qudt:LatexString ; @@ -11445,8 +11656,8 @@ quantitykind:Permittivity qudt:applicableUnit unit:NanoFARAD-PER-M ; qudt:applicableUnit unit:PERMITTIVITY_REL ; qudt:applicableUnit unit:PicoFARAD-PER-M ; - qudt:baseUnitDimensions "A^2 \\cdot s^4/kg \\cdot m^3" ; - qudt:baseUnitDimensions "I^2 \\cdot T^4/L^3 \\cdot M" ; + qudt:baseUnitDimensions "\\(A^2 \\cdot s^4/kg \\cdot m^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I^2 \\cdot T^4/L^3 \\cdot M\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Permittivity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E2L-3I0M-1H0T4D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Permittivity?oldid=494094133"^^xsd:anyURI ; @@ -11462,6 +11673,7 @@ quantitykind:PhaseCoefficient a qudt:QuantityKind ; dcterms:description "The phase coefficient is the amount of phase shift that occurs as the wave travels one meter. Increasing the loss of the material, via the manipulation of the material's conductivity, will decrease the wavelength (increase \\(\\beta\\)) and increase the attenuation coefficient (increase \\(\\alpha\\))."^^qudt:LatexString ; qudt:applicableUnit unit:PER-M ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Attenuation_coefficient"^^xsd:anyURI ; qudt:latexDefinition "If \\(F(x) = Ae^{-\\alpha x} \\cos{[\\beta (x - x_0)]}\\), then \\(\\alpha\\) is the attenuation coefficient and \\(\\beta\\) is the phase coefficient."^^qudt:LatexString ; qudt:latexSymbol "\\(\\beta\\)"^^qudt:LatexString ; @@ -11569,9 +11781,8 @@ quantitykind:PhotonRadiance . quantitykind:PlanckFunction a qudt:QuantityKind ; - dcterms:description """The \\(\\textit{Planck function}\\) is used to compute the radiance emitted from objects that radiate like a perfect \"Black Body}. The inverse of the \\(\\textit{Planck Function}\\) is used to find the \\(\\textit{Brightness Temperature}\\) of an object. + dcterms:description """The \\(\\textit{Planck function}\\) is used to compute the radiance emitted from objects that radiate like a perfect \"Black Body\". The inverse of the \\(\\textit{Planck Function}\\) is used to find the \\(\\textit{Brightness Temperature}\\) of an object. The precise formula for the Planck Function depends on whether the radiance is determined on a \\(\\textit{per unit wavelength}\\) or a \\(\\textit{per unit frequency}\\). In the ISO System of Quantities, \\(\\textit{Planck Function}\\) is defined by the formula: \\(Y = -G/T\\), where \\(G\\) is Gibbs Energy and \\(T\\) is thermodynamic temperature."""^^qudt:LatexString ; - qudt:applicableUnit unit:J-PER-K ; qudt:expression "\\(B_{\\nu}(T)\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://ntrs.nasa.gov/archive/nasa/casi.ntrs.nasa.gov/19680008986_1968008986.pdf"^^xsd:anyURI ; @@ -11592,7 +11803,7 @@ where, \\(\\tilde{\\nu}\\) is wavelength, \\(h\\) is Planck's Constant, \\(k\\) . quantitykind:PlaneAngle a qudt:QuantityKind ; - dcterms:description "The inclination to each other of two intersecting lines, measured by the arc of a circle intercepted between the two lines forming the angle, the center of the circle being the point of intersection. An acute angle is less than \\(90^\\circ\\), a right angle \\(90^\\circ\\); an obtuse angle, more than \\(90^\\circ\\) but less than \\(180^\\circ\\); a straight angle, \\(180^\\circ\\); a reflex angle, more than \\(180^\\circ\\) but less than \\(360^\\circ\\); a perigon, \\(360^\\circ\\). Any angle not a multiple of \\(90^\\circ\\) is an oblique angle. If the sum of two angles is \\(90^\\circ\\), they are complementary angles; if \\(180^\\circ\\), supplementary angles; if \\(360^\\circ\\), explementary angles." ; + dcterms:description "The inclination to each other of two intersecting lines, measured by the arc of a circle intercepted between the two lines forming the angle, the center of the circle being the point of intersection. An acute angle is less than \\(90^\\circ\\), a right angle \\(90^\\circ\\); an obtuse angle, more than \\(90^\\circ\\) but less than \\(180^\\circ\\); a straight angle, \\(180^\\circ\\); a reflex angle, more than \\(180^\\circ\\) but less than \\(360^\\circ\\); a perigon, \\(360^\\circ\\). Any angle not a multiple of \\(90^\\circ\\) is an oblique angle. If the sum of two angles is \\(90^\\circ\\), they are complementary angles; if \\(180^\\circ\\), supplementary angles; if \\(360^\\circ\\), explementary angles."^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Plane_angle"^^xsd:anyURI ; qudt:exactMatch quantitykind:Angle ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; @@ -11607,6 +11818,7 @@ quantitykind:PlaneAngle quantitykind:PoissonRatio a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Poisson%27s_ratio"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; qudt:latexDefinition "\\(\\mu = \\frac{\\Delta \\delta}{\\Delta l}\\), where \\(\\Delta \\delta\\) is the lateral contraction and \\(\\Delta l\\) is the elongation."^^qudt:LatexString ; @@ -11628,8 +11840,8 @@ quantitykind:Polarizability dcterms:description "\"Polarizability\" is the relative tendency of a charge distribution, like the electron cloud of an atom or molecule, to be distorted from its normal shape by an external electric field, which may be caused by the presence of a nearby ion or dipole. The electronic polarizability \\(\\alpha\\) is defined as the ratio of the induced dipole moment of an atom to the electric field that produces this dipole moment. Polarizability is often a scalar valued quantity, however in the general case it is tensor-valued."^^qudt:LatexString ; qudt:applicableUnit unit:C-M2-PER-V ; qudt:applicableUnit unit:C2-M-PER-J ; - qudt:baseUnitDimensions "A^2 \\cdot s^4/kg" ; - qudt:baseUnitDimensions "I^2 \\cdot T^4/M" ; + qudt:baseUnitDimensions "\\(A^2 \\cdot s^4/kg\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(I^2 \\cdot T^4/M\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Polarizability"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E2L0I0M-1H0T4D0 ; qudt:latexSymbol "\\(\\alpha\\)"^^qudt:LatexString ; @@ -11797,8 +12009,8 @@ quantitykind:Power qudt:applicableUnit unit:TON_FG ; qudt:applicableUnit unit:TeraW ; qudt:applicableUnit unit:W ; - qudt:baseUnitDimensions "L^2 \\cdot M/T^3" ; - qudt:baseUnitDimensions "kg \\cdot m^2/s^3" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/s^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Power"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Power"^^xsd:anyURI ; @@ -11815,8 +12027,8 @@ quantitykind:PowerArea qudt:applicableUnit unit:HectoPA-L-PER-SEC ; qudt:applicableUnit unit:HectoPA-M3-PER-SEC ; qudt:applicableUnit unit:W-M2 ; - qudt:baseUnitDimensions "L^4 \\cdot M/T^3" ; - qudt:baseUnitDimensions "kg \\cdot m^4/s^3" ; + qudt:baseUnitDimensions "\\(L^4 \\cdot M/T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^4/s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L4I0M1H0T-3D0 ; rdfs:isDefinedBy ; rdfs:label "Power Area"@en ; @@ -11825,8 +12037,8 @@ quantitykind:PowerAreaPerSolidAngle a qudt:QuantityKind ; qudt:applicableUnit unit:W-M2-PER-SR ; qudt:applicableUnit unit:W-PER-M2-SR ; - qudt:baseUnitDimensions "L^4 \\cdot M/T^3 \\cdot U" ; - qudt:baseUnitDimensions "kg \\cdot m^4/s^3" ; + qudt:baseUnitDimensions "\\(L^4 \\cdot M/T^3 \\cdot U\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^4/s^3\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Power Area per Solid Angle"@en ; . @@ -11835,6 +12047,7 @@ quantitykind:PowerFactor dcterms:description "\"Power Factor\", under periodic conditions, is the ratio of the absolute value of the active power \\(P\\) to the apparent power \\(S\\)."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; qudt:expression "\\(power-factor\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-11-46"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\lambda = \\left | P \\right | / \\left | S \\right |\\), where \\(P\\) is active power and \\(S\\) is apparent power."^^qudt:LatexString ; @@ -11861,8 +12074,8 @@ quantitykind:PowerPerArea qudt:applicableUnit unit:W-PER-FT2 ; qudt:applicableUnit unit:W-PER-IN2 ; qudt:applicableUnit unit:W-PER-M2 ; - qudt:baseUnitDimensions "M/T^3" ; - qudt:baseUnitDimensions "kg/s^3" ; + qudt:baseUnitDimensions "\\(M/T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-3D0 ; qudt:url "http://www.physicsforums.com/library.php?do=view_item&itemid=406"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -11876,8 +12089,8 @@ quantitykind:PowerPerAreaAngle quantitykind:PowerPerAreaQuarticTemperature a qudt:QuantityKind ; qudt:applicableUnit unit:W-PER-M2-K4 ; - qudt:baseUnitDimensions "M/\\Theta^4 \\cdot T^3" ; - qudt:baseUnitDimensions "kg/K^4 \\cdot s^3" ; + qudt:baseUnitDimensions "\\(M/\\Theta^4 \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/K^4 \\cdot s^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H-4T-3D0 ; rdfs:isDefinedBy ; rdfs:label "Power per area quartic temperature"@en ; @@ -11887,8 +12100,8 @@ quantitykind:PowerPerElectricCharge qudt:applicableUnit unit:MilliV-PER-MIN ; qudt:applicableUnit unit:V-PER-MicroSEC ; qudt:applicableUnit unit:V-PER-SEC ; - qudt:baseUnitDimensions "L^2 \\cdot M/I \\cdot T^4" ; - qudt:baseUnitDimensions "kg \\cdot m^2/A \\cdot s^4" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/I \\cdot T^4\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/A \\cdot s^4\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E-1L2I0M1H0T-4D0 ; qudt:plainTextDescription "\"Power Per Electric Charge\" is the amount of energy generated by a unit of electric charge." ; rdfs:isDefinedBy ; @@ -11898,6 +12111,7 @@ quantitykind:PoyntingVector a qudt:QuantityKind ; qudt:applicableUnit unit:W-PER-M2 ; qudt:expression "\\(poynting-vector\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-3D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=121-11-66"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\mathbf{S} = \\mathbf{E} \\times \\mathbf{H} \\), where \\(\\mathbf{E}\\) is electric field strength and \\mathbf{H} is magnetic field strength."^^qudt:LatexString ; @@ -11930,6 +12144,7 @@ quantitykind:Pressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -11998,7 +12213,6 @@ quantitykind:PressurePercentage a qudt:QuantityKind ; qudt:applicableUnit unit:PERCENT ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:qkdvNumerator qkdv:A0E0L-1I0M1H0T-2D0 ; rdfs:isDefinedBy ; @@ -12016,7 +12230,6 @@ quantitykind:PressureRatio qudt:applicableUnit unit:PERCENT_RH ; qudt:applicableUnit unit:PSI-PER-PSI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:qkdvNumerator qkdv:A0E0L-1I0M1H0T-2D0 ; rdfs:isDefinedBy ; @@ -12042,6 +12255,7 @@ quantitykind:PropagationCoefficient a qudt:QuantityKind ; dcterms:description "The propagation constant, symbol \\(\\gamma\\), for a given system is defined by the ratio of the amplitude at the source of the wave to the amplitude at some distance x."^^qudt:LatexString ; qudt:applicableUnit unit:PER-M ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Propagation_constant"^^xsd:anyURI ; qudt:latexDefinition "\\(\\gamma = \\alpha + j\\beta\\), where \\(\\alpha\\) is the attenuation coefficient and \\(\\beta\\) is the phase coefficient."^^qudt:LatexString ; qudt:latexSymbol "\\(\\gamma\\)"^^qudt:LatexString ; @@ -12052,6 +12266,7 @@ quantitykind:PropagationCoefficient quantitykind:PropellantBurnRate a qudt:QuantityKind ; qudt:applicableUnit unit:IN-PER-SEC ; + qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Propellant Burn Rate"@en ; skos:broader quantitykind:BurnRate ; @@ -12109,6 +12324,7 @@ quantitykind:QualityFactor a qudt:QuantityKind ; dcterms:description "\"Quality Factor\", of a resonant circuit, is a measure of the \"goodness\" or quality of a resonant circuit. A higher value for this figure of merit correspondes to a more narrow bandwith, which is desirable in many applications. More formally, \\(Q\\) is the ratio of power stored to power dissipated in the circuit reactance and resistance, respectively"^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.sourcetronic.com/electrical-measurement-glossary/quality-factor.html"^^xsd:anyURI ; qudt:informativeReference "http://www.allaboutcircuits.com/vol_2/chpt_6/6.html"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -12135,9 +12351,8 @@ quantitykind:QuantumNumber quantitykind:QuarticElectricDipoleMomentPerCubicEnergy a qudt:QuantityKind ; qudt:applicableUnit unit:C4-M4-PER-J3 ; - qudt:baseUnitDimensions "I^4 \\cdot T^{10}/L^2 \\cdot M^3" ; + qudt:baseUnitDimensions "\\(I^4 \\cdot T^{10}/L^2 \\cdot M^3\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E4L-2I0M-3H0T10D0 ; - qudt:plainTextDescription "\"Quartic Electric Dipole Moment per Cubic Energy\" is" ; rdfs:isDefinedBy ; rdfs:label "Quartic Electric Dipole Moment per Cubic Energy"@en ; . @@ -12255,8 +12470,8 @@ quantitykind:RadialDistance quantitykind:Radiance a qudt:QuantityKind ; qudt:applicableUnit unit:W-PER-M2-SR ; - qudt:baseUnitDimensions "M/T^3 \\cdot U" ; - qudt:baseUnitDimensions "kg/s^3" ; + qudt:baseUnitDimensions "\\(M/T^3 \\cdot U\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/s^3\\)"^^qudt:LatexString ; qudt:latexDefinition "\\(L = \\frac{dI}{dA}\\frac{1}{cos\\alpha}\\), where \\(dI\\) is the radiant intensity emitted from an element of the surface area \\(dA\\), and angle \\(\\alpha\\) is the angle between the normal to the surface and the given direction."^^qudt:LatexString ; qudt:plainTextDescription "\"Radiance\" is a radiometric measure that describes the amount of light that passes through or is emitted from a particular area, and falls within a given solid angle in a specified direction." ; qudt:symbol "L" ; @@ -12268,6 +12483,7 @@ quantitykind:Radiance quantitykind:RadianceFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(\\beta = \\frac{L_n}{L_d}\\), where \\(L_n\\) is the radiance of a surface element in a given direction and \\(L_d\\) is the radiance of the perfect reflecting or transmitting diffuser identically irradiated and viewed. Reflectance factor is equivalent to radiance factor or luminance factor (when the cone angle is infinitely small, and is equivalent to reflectance when the cone angle is \\(2π sr\\)."^^qudt:LatexString ; qudt:latexSymbol "\\(\\beta\\)"^^qudt:LatexString ; qudt:plainTextDescription "Radiance Factor is the ratio of the radiance of the surface element in the given direction to that of a perfect reflecting or transmitting diffuser identically irradiated unit." ; @@ -12489,8 +12705,9 @@ quantitykind:RadiantFlux quantitykind:RadiantIntensity a qudt:QuantityKind ; qudt:applicableUnit unit:W-PER-SR ; - qudt:baseUnitDimensions "L^2 \\cdot M/T^3 \\cdot U" ; - qudt:baseUnitDimensions "kg \\cdot m^2/s^3" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/T^3 \\cdot U\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/s^3\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L-2I0M1H0T-3D0 ; qudt:latexDefinition "\\(I = \\frac{d\\Phi}{d\\Omega}\\), where \\(d\\Phi\\) is the radiant flux leaving the source in an elementary cone containing the given direction with the solid angle \\(d\\Omega\\)."^^qudt:LatexString ; qudt:plainTextDescription "Radiant Intensity is a measure of the intensity of electromagnetic radiation. It is defined as power per unit solid angle." ; qudt:symbol "I" ; @@ -12614,6 +12831,7 @@ quantitykind:RatioOfSpecificHeatCapacities a qudt:QuantityKind ; dcterms:description "The specific heat ratio of a gas is the ratio of the specific heat at constant pressure, \\(c_p\\), to the specific heat at constant volume, \\(c_V\\). It is sometimes referred to as the \"adiabatic index} or the \\textit{heat capacity ratio} or the \\textit{isentropic expansion factor} or the \\textit{adiabatic exponent} or the \\textit{isentropic exponent\"."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.citizendium.org/wiki/Specific_heat_ratio"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(\\gamma = c_p / c_V\\), where \\(c\\) is the specific heat of a gas, \\(c_p\\) is specific heat capacity at constant pressure, \\(c_V\\) is specific heat capacity at constant volume."^^qudt:LatexString ; @@ -12627,6 +12845,7 @@ quantitykind:Reactance a qudt:QuantityKind ; qudt:applicableUnit unit:OHM ; qudt:dbpediaMatch "http://dbpedia.org/resource/Electrical_reactance"^^xsd:anyURI ; + qudt:hasDimensionVector qkdv:A0E-2L2I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Electrical_reactance?oldid=494180019"^^xsd:anyURI ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-46"^^xsd:anyURI ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; @@ -12692,7 +12911,7 @@ quantitykind:ReactionEnergy . quantitykind:ReactivePower a qudt:QuantityKind ; - dcterms:description "\"Reactive Power}, for a linear two-terminal element or two-terminal circuit, under sinusoidal conditions, is the quantity equal to the product of the apparent power \\(S\\) and the sine of the displacement angle \\(\\psi\\). The absolute value of the reactive power is equal to the non-active power. The ISO (and SI) unit for reactive power is the voltampere. The special name \\textit{var} and symbol \\textit{var\" are given in IEC 60027 1."^^qudt:LatexString ; + dcterms:description "\"Reactive Power}, for a linear two-terminal element or two-terminal circuit, under sinusoidal conditions, is the quantity equal to the product of the apparent power \\(S\\) and the sine of the displacement angle \\(\\psi\\). The absolute value of the reactive power is equal to the non-active power. The ISO (and SI) unit for reactive power is the voltampere. The special name \\(\\textit{var}\\) and symbol \\(\\textit{var}\\) are given in IEC 60027 1."^^qudt:LatexString ; qudt:applicableUnit unit:KiloV-A_Reactive ; qudt:applicableUnit unit:MegaV-A_Reactive ; qudt:applicableUnit unit:V-A_Reactive ; @@ -12709,6 +12928,7 @@ quantitykind:ReactivePower quantitykind:Reactivity a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Nuclear_chain_reaction"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(\\rho = \\frac{k_{eff} - 1}{k_{eff}}\\), where \\(k_{eff}\\) is the effective multiplication factor."^^qudt:LatexString ; @@ -12741,6 +12961,7 @@ quantitykind:RecombinationCoefficient quantitykind:Refectance a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(\\rho = \\frac{\\Phi_t}{\\Phi_m}\\), where \\(\\Phi_t\\) is the reflected radiant flux or the reflected luminous flux, and \\(\\Phi_m\\) is the radiant flux or luminous flux of the incident radiation."^^qudt:LatexString ; qudt:latexSymbol "\\(\\rho\\)"^^qudt:LatexString ; qudt:plainTextDescription "Refectance and reflectivity generally refer to the fraction of incident electromagnetic power that is reflected at an interface, while the term \"reflection coefficient\" is used for the fraction of electric field reflected. Reflectance is always a positive real number." ; @@ -12752,8 +12973,9 @@ quantitykind:Refectance quantitykind:Reflectance a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Dissipation_factor"^^xsd:anyURI ; - qudt:latexDefinition "\\(r= \\frac{\\P_r}{\\P_i}\\), where \\(\\P_r\\) is the reflected sound power, and \\(\\P_i\\) is the incident sound power."^^qudt:LatexString ; + qudt:latexDefinition "\\(r= \\frac{P_r}{P_i}\\), where \\(P_r\\) is the reflected sound power, and \\(P_i\\) is the incident sound power." ; qudt:plainTextDescription "Reflectance, or reflection factor for sound power, is the ratio of reflected sound power to incident sound power." ; qudt:symbol "r" ; qudt:systemDerivedQuantityKind qudt:SOQ_SI ; @@ -12764,6 +12986,7 @@ quantitykind:Reflectance quantitykind:ReflectanceFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(R = \\frac{\\Phi_n}{\\Phi_d}\\), where \\(\\Phi_n\\) is the radiant flux or luminous flux reflected in the directions delimited by a given cone and \\(\\Phi_d\\) is the flux reflected in the same directions by an identically radiated diffuser of reflectance equal to 1."^^qudt:LatexString ; qudt:plainTextDescription "Reflectance Factor is the measure of the ability of a surface to reflect light or other electromagnetic radiation, equal to the ratio of the reflected flux to the incident flux." ; qudt:symbol "R" ; @@ -12775,6 +12998,7 @@ quantitykind:ReflectanceFactor quantitykind:RefractiveIndex a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Refractive_index"^^xsd:anyURI ; qudt:latexDefinition "\\(n = \\frac{c_0}{c}\\), where \\(c_0\\) is the speed of light in vacuum, and \\(c\\) is the speed of light in the medium."^^qudt:LatexString ; qudt:plainTextDescription "\"refractive index\" or index of refraction n of a substance (optical medium) is a dimensionless number that describes how light, or any other radiation, propagates through that medium." ; @@ -12804,11 +13028,12 @@ quantitykind:RelativeAtomicMass . quantitykind:RelativeHumidity a qudt:QuantityKind ; - dcterms:description "\"Relative Humidity} is the ratio of the partial pressure of water vapor in an air-water mixture to the saturated vapor pressure of water at a prescribed temperature. The relative humidity of air depends not only on temperature but also on the pressure of the system of interest. \\textit{Relative Humidity} is also referred to as \\text{Relative Partial Pressure\". Relative partial pressure is often referred to as \\(RH\\) and expressed in percent."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Relative Humidity}\\) is the ratio of the partial pressure of water vapor in an air-water mixture to the saturated vapor pressure of water at a prescribed temperature. The relative humidity of air depends not only on temperature but also on the pressure of the system of interest. \\(\\textit{Relative Humidity}\\) is also referred to as \\(\\textit{Relative Partial Pressure}\\). Relative partial pressure is often referred to as \\(RH\\) and expressed in percent."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Relative_humidity"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; - qudt:latexDefinition "\\(\\varphi = p / p_{sat}\\), where \\(p\\) is partial pressure of vapour, \\(p_{sat}\\) is thermodynamic temperature and \\(V\\) is its partial pressure at saturation (at the same temperature). Relative partial pressure is often referred to as \\(RH\\) and expressed in percent. \"Relative Humidity} is also referred to as \\text{Relative Partial Pressure\"."^^qudt:LatexString ; + qudt:latexDefinition "\\(\\varphi = p / p_{sat}\\), where \\(p\\) is partial pressure of vapour, \\(p_{sat}\\) is thermodynamic temperature and \\(V\\) is its partial pressure at saturation (at the same temperature). Relative partial pressure is often referred to as \\(RH\\) and expressed in percent. \\(\\textit{Relative Humidity}\\) is also referred to as \\(\\textit{Relative Partial Pressure}\\)." ; qudt:latexSymbol "\\(\\varphi\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Relative Humidity"@en ; @@ -12819,10 +13044,11 @@ quantitykind:RelativeHumidity quantitykind:RelativeMassConcentrationOfVapour a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(\\varphi = v / v_{sat}\\), where \\(v\\) is mass concentration of water vapour, \\(v_{sat}\\) is its mass concentration of water vapour at saturation (at the same temperature). For normal cases, the relative partial pressure may be assumed to be equal to relative mass concentration of vapour."^^qudt:LatexString ; qudt:latexSymbol "\\(\\varphi\\)"^^qudt:LatexString ; - qudt:plainTextDescription "\"Relative Mass Concentration of Vapour} is one of a number of \\textit{Relative Concentration\" quantities defined by ISO 8000." ; + qudt:plainTextDescription "\"Relative Mass Concentration of Vapour\" is one of a number of \"Relative Concentration\" quantities defined by ISO 8000." ; rdfs:isDefinedBy ; rdfs:label "Relative Mass Concentration of Vapour"@en ; rdfs:seeAlso quantitykind:RelativePartialPressure ; @@ -12885,6 +13111,7 @@ quantitykind:RelativeMassDefect quantitykind:RelativeMassDensity a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Relative_density"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; qudt:latexDefinition "\\(d = \\frac{\\rho}{\\rho_0}\\), where \\(\\rho\\) is mass density of a substance and \\(\\rho_0\\) is the mass density of a reference substance under conditions that should be specified for both substances."^^qudt:LatexString ; @@ -12896,6 +13123,7 @@ quantitykind:RelativeMassDensity quantitykind:RelativeMassExcess a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Mass_excess"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(\\Delta_r = \\frac{\\Delta}{m_u}\\), where \\(\\Delta\\) is the mass excess and \\(m_u\\) is the unified atomic mass constant."^^qudt:LatexString ; @@ -12907,10 +13135,11 @@ quantitykind:RelativeMassExcess quantitykind:RelativeMassRatioOfVapour a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; qudt:latexDefinition "\\(\\psi = x / x_{sat}\\), where \\(x\\) is mass ratio of water vapour to dry gas, \\(x_{sat}\\) is its mass raio of water vapour to dry gas at saturation (at the same temperature)."^^qudt:LatexString ; qudt:latexSymbol "\\(\\psi\\)"^^qudt:LatexString ; - qudt:plainTextDescription "\"Relative Mass Ratio of Vapour} is one of a number of \\textit{Relative Concentration\" quantities defined by ISO 8000." ; + qudt:plainTextDescription "\"Relative Mass Ratio of Vapour\" is one of a number of \"Relative Concentration\" quantities defined by ISO 8000." ; rdfs:isDefinedBy ; rdfs:label "Relative Mass Ratio of Vapour"@en ; . @@ -12937,9 +13166,9 @@ quantitykind:RelativeMolecularMass quantitykind:RelativePartialPressure a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; - qudt:latexDefinition """\\(\\varphi = p / p_{sat}\\), where \\(p\\) is partial pressure of vapour, \\(p_{sat}\\) is thermodynamic temperature and \\(V\\) is its -partial pressure at saturation (at the same temperature). Relative partial pressure is often referred to as \\(RH\\) and expressed in percent. \"Relative Partial Pressure} is also referred to as \\text{Relative Humidity\"."""^^qudt:LatexString ; + qudt:latexDefinition "\\(\\varphi = p / p_{sat}\\), where \\(p\\) is partial pressure of vapour, \\(p_{sat}\\) is thermodynamic temperature and \\(V\\) is its partial pressure at saturation (at the same temperature). Relative partial pressure is often referred to as \\(RH\\) and expressed in percent. \\(\\textit{Relative Partial Pressure}\\) is also referred to as \\(\\textit{Relative Humidity}\\)." ; qudt:latexSymbol "\\(\\varphi\\)"^^qudt:LatexString ; rdfs:isDefinedBy ; rdfs:label "Relative Partial Pressure"@en ; @@ -12951,6 +13180,7 @@ quantitykind:RelativePermittivity qudt:applicableUnit unit:UNITLESS ; qudt:dbpediaMatch "http://dbpedia.org/resource/Permittivity"^^xsd:anyURI ; qudt:expression "\\(rel-permittivity\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(\\epsilon_r = \\epsilon / \\epsilon_0\\), where \\(\\epsilon\\) is permittivity and \\(\\epsilon_0\\) is the electric constant."^^qudt:LatexString ; qudt:latexSymbol "\\(\\epsilon_r\\)"^^qudt:LatexString ; @@ -13012,8 +13242,8 @@ quantitykind:Resistance qudt:applicableUnit unit:OHM_Stat ; qudt:applicableUnit unit:PlanckImpedance ; qudt:applicableUnit unit:TeraOHM ; - qudt:baseUnitDimensions "L^2 \\cdot M/I^2 \\cdot T^3" ; - qudt:baseUnitDimensions "kg \\cdot m^2/A^2 \\cdot s^3" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/I^2 \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/A^2 \\cdot s^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Resistance"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E-2L2I0M1H0T-3D0 ; qudt:informativeReference "http://www.electropedia.org/iev/iev.nsf/display?openform&ievref=131-12-45"^^xsd:anyURI ; @@ -13031,7 +13261,6 @@ quantitykind:ResistancePercentage a qudt:QuantityKind ; qudt:applicableUnit unit:PERCENT ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E-2L2I0M1H0T-3D0 ; qudt:qkdvNumerator qkdv:A0E-2L2I0M1H0T-3D0 ; rdfs:isDefinedBy ; @@ -13107,6 +13336,7 @@ quantitykind:ResonanceEnergy quantitykind:ResonanceEscapeProbability a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Four_factor_formula"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "The \"Resonance Escape Probability\" is the fraction of fission neutrons that manage to slow down from fission to thermal energies without being absorbed. In an infinite medium, the probability that a neutron slowing down will traverse all or some specified portion of the range of resonance energies without being absorbed." ; @@ -13188,7 +13418,7 @@ quantitykind:RestEnergy . quantitykind:RestMass a qudt:QuantityKind ; - dcterms:description "The \"Rest Mass}, the invariant mass, intrinsic mass, proper mass, or (in the case of bound systems or objects observed in their center of momentum frame) simply mass, is a characteristic of the total energy and momentum of an object or a system of objects that is the same in all frames of reference related by Lorentz transformations. The mass of a particle type X (electron, proton or neutron) when that particle is at rest. For an electron: \\(m_e = 9,109 382 15(45) 10^{-31} kg\\), for a proton: \\(m_p = 1,672 621 637(83) 10^{-27} kg\\), for a neutron: \\(m_n = 1,674 927 211(84) 10^{-27\" kg\\). Rest mass is often denoted \\(m_0\\)."^^qudt:LatexString ; + dcterms:description "The \\(\\textit{Rest Mass}\\), the invariant mass, intrinsic mass, proper mass, or (in the case of bound systems or objects observed in their center of momentum frame) simply mass, is a characteristic of the total energy and momentum of an object or a system of objects that is the same in all frames of reference related by Lorentz transformations. The mass of a particle type X (electron, proton or neutron) when that particle is at rest. For an electron: \\(m_e = 9,109 382 15(45) 10^{-31} kg\\), for a proton: \\(m_p = 1,672 621 637(83) 10^{-27} kg\\), for a neutron: \\(m_n = 1,674 927 211(84) 10^{-27} kg\\). Rest mass is often denoted \\(m_0\\)."^^qudt:LatexString ; qudt:applicableUnit unit:AMU ; qudt:applicableUnit unit:CARAT ; qudt:applicableUnit unit:CWT_LONG ; @@ -13296,14 +13526,14 @@ quantitykind:ScalarMagneticPotential qudt:symbol "V_m" ; rdfs:isDefinedBy ; rdfs:label "Scalar Magnetic Potential"@en ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; . quantitykind:SecondAxialMomentOfArea a qudt:QuantityKind ; qudt:applicableUnit unit:IN4 ; qudt:applicableUnit unit:M4 ; qudt:applicableUnit unit:MilliM4 ; - qudt:baseUnitDimensions "m^4" ; + qudt:baseUnitDimensions "\\(m^4\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L4I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Second_moment_of_area"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -13359,7 +13589,7 @@ quantitykind:SectionModulus qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Section_modulus"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; - qudt:latexDefinition "\\(Z = \\frac{I_a}{r_Q_,_m_a_x}\\), where \\(I_a\\) is the second axial moment of area and \\(r_Q_,_m_a_x\\) is the maximum radial distance of any point in the surface considered from the \\(Q-axis\\) with respect to which \\(I_a\\) is defined."^^qudt:LatexString ; + qudt:latexDefinition "\\(Z = \\frac{I_a}{(r_Q)_{max}}\\), where \\(I_a\\) is the second axial moment of area and \\((r_Q)_{max}\\) is the maximum radial distance of any point in the surface considered from the \\(Q-axis\\) with respect to which \\(I_a\\) is defined." ; qudt:plainTextDescription "The Section Modulus is a geometric property for a given cross-section used in the design of beams or flexural members." ; qudt:symbol "Z" ; rdfs:isDefinedBy ; @@ -13440,6 +13670,7 @@ quantitykind:ShearStress qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -13468,7 +13699,7 @@ quantitykind:ShearStress qudt:applicableUnit unit:PSI ; qudt:applicableUnit unit:PlanckPressure ; qudt:applicableUnit unit:TORR ; - qudt:baseUnitDimensions "n m^{-2}" ; + qudt:baseUnitDimensions "\\(n m^{-2}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Stress_(mechanics)"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -13482,6 +13713,7 @@ quantitykind:ShearStress quantitykind:Short-RangeOrderParameter a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexSymbol "\\(r, \\sigma\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Short-Range Order Parameter\" is the fraction of the nearest-neighbor atom pairs in an Ising ferromagnet having magnetic moments in one direction, minus the fraction having magnetic moments in the opposite direction." ; @@ -13540,6 +13772,7 @@ quantitykind:Slowing-DownArea qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -13553,6 +13786,7 @@ quantitykind:Slowing-DownArea quantitykind:Slowing-DownDensity a qudt:QuantityKind ; qudt:applicableUnit unit:PER-M3-SEC ; + qudt:hasDimensionVector qkdv:A0E0L-3I0M0H0T-1D0 ; qudt:informativeReference "http://encyclopedia2.thefreedictionary.com/slowing-down+density"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(q = -\\frac{dn}{dt}\\), where \\(n\\) is the number density and \\(dt\\) is the duration."^^qudt:LatexString ; @@ -13701,6 +13935,7 @@ quantitykind:SoundExposureLevel a qudt:QuantityKind ; dcterms:description "Sound Exposure Level abbreviated as \\(SEL\\) and \\(LAE\\), is the total noise energy produced from a single noise event."^^qudt:LatexString ; qudt:applicableUnit unit:DeciB ; + qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://www.diracdelta.co.uk/science/source/s/o/sound%20exposure%20level/source.html"^^xsd:anyURI ; qudt:latexDefinition "\\(L_E = 10 \\log_{10} \\frac{E}{E_0} dB\\), where \\(E\\) is sound power and the reference value is \\(E_0 = 400 \\mu Pa^2 s\\)."^^qudt:LatexString ; qudt:symbol "L" ; @@ -13739,6 +13974,17 @@ quantitykind:SoundIntensity quantitykind:SoundParticleAcceleration a qudt:QuantityKind ; dcterms:description "In a compressible sound transmission medium - mainly air - air particles get an accelerated motion: the particle acceleration or sound acceleration with the symbol a in \\(m/s2\\). In acoustics or physics, acceleration (symbol: \\(a\\)) is defined as the rate of change (or time derivative) of velocity."^^qudt:LatexString ; + qudt:applicableUnit unit:CentiM-PER-SEC2 ; + qudt:applicableUnit unit:FT-PER-SEC2 ; + qudt:applicableUnit unit:G ; + qudt:applicableUnit unit:GALILEO ; + qudt:applicableUnit unit:IN-PER-SEC2 ; + qudt:applicableUnit unit:KN-PER-SEC ; + qudt:applicableUnit unit:KiloPA-M2-PER-GM ; + qudt:applicableUnit unit:M-PER-SEC2 ; + qudt:applicableUnit unit:MicroG ; + qudt:applicableUnit unit:MilliG ; + qudt:applicableUnit unit:MilliGAL ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Particle_acceleration"^^xsd:anyURI ; qudt:latexDefinition "\\(a = \\frac{\\partial v}{\\partial t}\\), where \\(v\\) is sound particle velocity and \\(t\\) is time."^^qudt:LatexString ; @@ -13865,6 +14111,7 @@ quantitykind:SoundPowerLevel a qudt:QuantityKind ; dcterms:description "Sound Power Level abbreviated as \\(SWL\\) expresses sound power more practically as a relation to the threshold of hearing - 10-12 W - in a logarithmic scale."^^qudt:LatexString ; qudt:applicableUnit unit:DeciB ; + qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Sound_power#Sound_power_level"^^xsd:anyURI ; qudt:latexDefinition "\\(L_W = 10 \\log_{10} \\frac{P}{P_0} dB\\), where \\(P\\) is sound power and the reference value is \\(P_0 =1pW\\)."^^qudt:LatexString ; qudt:symbol "L" ; @@ -13897,6 +14144,7 @@ quantitykind:SoundPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -13938,6 +14186,7 @@ quantitykind:SoundPressureLevel a qudt:QuantityKind ; dcterms:description "Sound pressure level (\\(SPL\\)) or sound level is a logarithmic measure of the effective sound pressure of a sound relative to a reference value. It is measured in decibels (dB) above a standard reference level."^^qudt:LatexString ; qudt:applicableUnit unit:DeciB ; + qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Sound_pressure#Sound_pressure_level"^^xsd:anyURI ; qudt:latexDefinition "\\(L_P = 10 \\log_{10} \\frac{p^2}{p_0^2} dB\\), where \\(p\\) is sound pressure and the reference value in airborne acoustics is \\(p_0 = 20 \\mu Pa\\)."^^qudt:LatexString ; qudt:symbol "L" ; @@ -13948,6 +14197,7 @@ quantitykind:SoundPressureLevel quantitykind:SoundReductionIndex a qudt:QuantityKind ; qudt:applicableUnit unit:DeciB ; + qudt:hasDimensionVector qkdv:A0E-1L1I0M1H0T-3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Sound_reduction_index"^^xsd:anyURI ; qudt:latexDefinition "\\(R = 10 \\log (\\frac{1}{\\tau}) dB\\), where \\(\\tau\\) is the transmission factor."^^qudt:LatexString ; qudt:plainTextDescription "The Sound Reduction Index is used to measure the level of sound insulation provided by a structure such as a wall, window, door, or ventilator." ; @@ -14044,7 +14294,7 @@ quantitykind:SpecificActivity qudt:applicableUnit unit:MicroBQ-PER-KiloGM ; qudt:applicableUnit unit:MilliBQ-PER-GM ; qudt:applicableUnit unit:MilliBQ-PER-KiloGM ; - qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; + qudt:hasDimensionVector qkdv:A0E0L0I0M-1H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Specific_activity"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(a = \\frac{A}{m}\\), where \\(A\\) is the activity of a sample and \\(m\\) is its mass."^^qudt:LatexString ; @@ -14061,7 +14311,6 @@ The concept of specific energy applies to a particular or theoretical way of ext qudt:applicableUnit unit:BTU_IT-PER-LB ; qudt:applicableUnit unit:BTU_IT-PER-LB_F ; qudt:applicableUnit unit:BTU_TH-PER-LB ; - qudt:applicableUnit unit:CAL_IT-PER-G ; qudt:applicableUnit unit:CAL_IT-PER-GM ; qudt:applicableUnit unit:CAL_TH-PER-G ; qudt:applicableUnit unit:CAL_TH-PER-GM ; @@ -14073,8 +14322,8 @@ The concept of specific energy applies to a particular or theoretical way of ext qudt:applicableUnit unit:KiloLB_F-FT-PER-LB ; qudt:applicableUnit unit:MegaJ-PER-KiloGM ; qudt:applicableUnit unit:N-M-PER-KiloGM ; - qudt:baseUnitDimensions "L^2/T^2" ; - qudt:baseUnitDimensions "m^2/s^2" ; + qudt:baseUnitDimensions "\\(L^2/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^2/s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Specific_energy"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; qudt:informativeReference "http://en.citizendium.org/wiki/Enthalpy"^^xsd:anyURI ; @@ -14098,7 +14347,6 @@ quantitykind:SpecificEnergyImparted qudt:applicableUnit unit:BTU_IT-PER-LB ; qudt:applicableUnit unit:BTU_IT-PER-LB_F ; qudt:applicableUnit unit:BTU_TH-PER-LB ; - qudt:applicableUnit unit:CAL_IT-PER-G ; qudt:applicableUnit unit:CAL_IT-PER-GM ; qudt:applicableUnit unit:CAL_TH-PER-G ; qudt:applicableUnit unit:CAL_TH-PER-GM ; @@ -14185,8 +14433,8 @@ quantitykind:SpecificHeatCapacity qudt:applicableUnit unit:CAL_TH-PER-GM-K ; qudt:applicableUnit unit:J-PER-KiloGM-K ; qudt:applicableUnit unit:KiloCAL-PER-GM-DEG_C ; - qudt:baseUnitDimensions "L^2/\\Theta \\cdot T^2" ; - qudt:baseUnitDimensions "m^2/K \\cdot s^2" ; + qudt:baseUnitDimensions "\\(L^2/\\Theta \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^2/K \\cdot s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Specific_heat_capacity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T-2D0 ; qudt:informativeReference "http://www.taftan.com/thermodynamics/CP.HTM"^^xsd:anyURI ; @@ -14242,9 +14490,9 @@ quantitykind:SpecificHeatCapacityAtSaturation quantitykind:SpecificHeatPressure a qudt:QuantityKind ; qudt:applicableUnit unit:J-PER-KiloGM-K-PA ; - qudt:baseUnitDimensions "L^3/\\Theta \\cdot M" ; - qudt:baseUnitDimensions "m^3/K \\cdot kg" ; - qudt:hasDimensionVector qkdv:A0E0L3I0M-1H-1T0D0 ; + qudt:baseUnitDimensions "\\(L^3/\\Theta \\cdot M\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3/K \\cdot kg\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T-2D0 ; qudt:plainTextDescription "Specific heat at a constant pressure." ; rdfs:isDefinedBy ; rdfs:label "Specific Heat Pressure"@en ; @@ -14252,9 +14500,9 @@ quantitykind:SpecificHeatPressure quantitykind:SpecificHeatVolume a qudt:QuantityKind ; qudt:applicableUnit unit:J-PER-KiloGM-K-M3 ; - qudt:baseUnitDimensions "/K \\cdot m \\cdot s^2" ; - qudt:baseUnitDimensions "/\\Theta \\cdot L \\cdot T^2" ; - qudt:hasDimensionVector qkdv:A0E0L-1I0M0H-1T-2D0 ; + qudt:baseUnitDimensions "\\(/K \\cdot m \\cdot s^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(/\\Theta \\cdot L \\cdot T^2\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T-2D0 ; qudt:plainTextDescription "Specific heat per constant volume." ; rdfs:isDefinedBy ; rdfs:label "Specific Heat Volume"@en ; @@ -14294,6 +14542,31 @@ quantitykind:SpecificImpulse . quantitykind:SpecificImpulseByMass a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Specific Impulse by Mass"@en ; @@ -14388,7 +14661,7 @@ quantitykind:SpecificVolume qudt:applicableUnit unit:L-PER-KiloGM ; qudt:applicableUnit unit:M3-PER-KiloGM ; qudt:applicableUnit unit:MilliL-PER-KiloGM ; - qudt:baseUnitDimensions "L^3/M" ; + qudt:baseUnitDimensions "\\(L^3/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L3I0M-1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Specific_volume"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -14549,8 +14822,8 @@ quantitykind:SpinQuantumNumber . quantitykind:SquareEnergy a qudt:QuantityKind ; - qudt:baseUnitDimensions "L^4 \\cdot M^2/T^4" ; - qudt:baseUnitDimensions "kg^2 \\cdot m^4/s^4" ; + qudt:baseUnitDimensions "\\(L^4 \\cdot M^2/T^4\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg^2 \\cdot m^4/s^4\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L4I0M2H0T-4D0 ; rdfs:isDefinedBy ; rdfs:label "Square Energy"@en ; @@ -14571,6 +14844,7 @@ quantitykind:StandardAbsoluteActivity a qudt:QuantityKind ; dcterms:description "The \"Standard Absolute Activity\" is proportional to the absoulte activity of the pure substance \\(B\\) at the same temperature and pressure multiplied by the standard pressure."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Activity_coefficient"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(\\lambda_B^\\Theta = \\lambda_B^*(p^\\Theta)\\), where \\(\\lambda_B^\\Theta\\) the absolute activity of the pure substance \\(B\\) at the same temperature and pressure, and \\(p^\\Theta\\) is standard pressure."^^qudt:LatexString ; @@ -14598,8 +14872,8 @@ quantitykind:StandardGravitationalParameter dcterms:description "In celestial mechanics the standard gravitational parameter of a celestial body is the product of the gravitational constant G and the mass M of the body. Expressed as \\(\\mu = G \\cdot M\\). The SI units of the standard gravitational parameter are \\(m^{3}s^{-2}\\)."^^qudt:LatexString ; qudt:applicableUnit unit:KiloM3-PER-SEC2 ; qudt:applicableUnit unit:M3-PER-SEC2 ; - qudt:baseUnitDimensions "L^3/T^2" ; - qudt:baseUnitDimensions "m^3/s^2" ; + qudt:baseUnitDimensions "\\(L^3/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3/s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Standard_gravitational_parameter"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Standard_gravitational_parameter"^^xsd:anyURI ; @@ -14653,6 +14927,7 @@ quantitykind:StaticFrictionCoefficient . quantitykind:StaticPressure a qudt:QuantityKind ; + dcterms:description "\"Static Pressure\" is the pressure at a nominated point in a fluid. Every point in a steadily flowing fluid, regardless of the fluid speed at that point, has its own static pressure \\(P\\), dynamic pressure \\(q\\), and total pressure \\(P_0\\). The total pressure is the sum of the dynamic and static pressures, that is \\(P_0 = P + q\\)."^^qudt:LatexString ; qudt:abbreviation "p" ; qudt:applicableUnit unit:ATM ; qudt:applicableUnit unit:ATM_T ; @@ -14676,6 +14951,7 @@ quantitykind:StaticPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -14706,7 +14982,6 @@ quantitykind:StaticPressure qudt:applicableUnit unit:TORR ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Static_pressure"^^xsd:anyURI ; - qudt:plainTextDescription "\"Static Pressure\" is the pressure at a nominated point in a fluid. Every point in a steadily flowing fluid, regardless of the fluid speed at that point, has its own static pressure \\(P\\), dynamic pressure \\(q\\), and total pressure \\(P_0\\). The total pressure is the sum of the dynamic and static pressures, that is \\(P_0 = P + q\\)." ; qudt:symbol "p" ; vaem:todo "belongs to SOQ-ISO" ; rdfs:isDefinedBy ; @@ -14716,6 +14991,7 @@ quantitykind:StaticPressure quantitykind:StatisticalWeight a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Statistical_weight"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:plainTextDescription "A \"Statistical Weight\" is the relative probability (possibly unnormalized) of a particular feature of a state." ; @@ -14798,7 +15074,7 @@ quantitykind:StrainEnergyDensity qudt:applicableUnit unit:MegaJ-PER-M3 ; qudt:applicableUnit unit:W-HR-PER-M3 ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; - qudt:plainTextDescription "Defined as the 'work done' for a given strain, that is the area under the stress-strain curve after a specified eation. Source(s): \\href{http://www.prepol.com/product-range/product-subpages/terminology}{www.prepol.com}" ; + qudt:plainTextDescription "Defined as the 'work done' for a given strain, that is the area under the stress-strain curve after a specified eation. Source(s): http://www.prepol.com/product-range/product-subpages/terminology" ; qudt:symbol "u" ; rdfs:isDefinedBy ; rdfs:label "Strain Energy Density"@en ; @@ -14829,6 +15105,7 @@ quantitykind:Stress qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -14858,7 +15135,7 @@ quantitykind:Stress qudt:applicableUnit unit:PlanckPressure ; qudt:applicableUnit unit:TORR ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; - qudt:latexDefinition "{\\rm{Stress}} = \\frac{F}{A}"^^qudt:LatexString ; + qudt:latexDefinition "\\({\\rm{Stress}} = \\frac{F}{A}\\)" ; qudt:latexSymbol "\\(\\sigma\\)"^^qudt:LatexString ; qudt:url "http://www.freestudy.co.uk/mech%20prin%20h2/stress.pdf"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -14875,6 +15152,7 @@ quantitykind:StructuralEfficiency quantitykind:StructureFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Structure_factor"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31897"^^xsd:anyURI ; qudt:latexDefinition "\\(F(h, k, l) = \\sum_{n=1}^N f_n\\exp{[2\\pi i(hx_n + ky_n +lz_n)]}\\), where \\(f_n\\) is the atomic scattering factor for atom \\(n\\), and \\(x_n\\), \\(y_n\\), and \\(z_n\\) are fractional coordinates in the unit cell; for \\(h\\), \\(k\\), and \\(l\\)."^^qudt:LatexString ; @@ -14973,7 +15251,7 @@ quantitykind:SurfaceDensity qudt:applicableUnit unit:KiloGM-PER-KiloM2 ; qudt:applicableUnit unit:KiloGM-PER-M2 ; qudt:applicableUnit unit:LB-PER-IN2 ; - qudt:baseUnitDimensions "kg m^{-2}" ; + qudt:baseUnitDimensions "\\(kg m^{-2}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-2I0M1H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Area_density"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -14996,7 +15274,7 @@ quantitykind:SurfaceTension qudt:applicableUnit unit:N-M-PER-M2 ; qudt:applicableUnit unit:PicoPA-PER-KiloM ; qudt:applicableUnit unit:W-SEC-PER-M2 ; - qudt:baseUnitDimensions "n m^{-1}" ; + qudt:baseUnitDimensions "\\(n m^{-1}\\)"^^qudt:LatexString ; qudt:hasDimension qudt:DIM_ISO-MT-2 ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Surface_tension"^^xsd:anyURI ; @@ -15046,6 +15324,7 @@ quantitykind:SystolicBloodPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -15152,8 +15431,8 @@ quantitykind:TemperatureAmountOfSubstance a qudt:QuantityKind ; qudt:applicableUnit unit:MOL-DEG_C ; qudt:applicableUnit unit:MOL-K ; - qudt:baseUnitDimensions "K \\cdot mol" ; - qudt:baseUnitDimensions "\\Theta \\cdot M" ; + qudt:baseUnitDimensions "\\(K \\cdot mol\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A1E0L0I0M0H1T0D0 ; rdfs:isDefinedBy ; rdfs:label "Temperature Amount of Substance"@en ; @@ -15161,8 +15440,8 @@ quantitykind:TemperatureAmountOfSubstance quantitykind:TemperaturePerMagneticFluxDensity a qudt:QuantityKind ; qudt:applicableUnit unit:K-PER-T ; - qudt:baseUnitDimensions "A \\cdot K \\cdot s^2/kg" ; - qudt:baseUnitDimensions "\\Theta \\cdot I \\cdot T^2/M" ; + qudt:baseUnitDimensions "\\(A \\cdot K \\cdot s^2/kg\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot I \\cdot T^2/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L0I0M-1H1T2D0 ; rdfs:isDefinedBy ; rdfs:label "Temperature per Magnetic Flux Density"@en ; @@ -15183,8 +15462,8 @@ quantitykind:TemperaturePerTime qudt:applicableUnit unit:K-PER-HR ; qudt:applicableUnit unit:K-PER-MIN ; qudt:applicableUnit unit:K-PER-SEC ; - qudt:baseUnitDimensions "K/s" ; - qudt:baseUnitDimensions "\\Theta/T" ; + qudt:baseUnitDimensions "\\(K/s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta/T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H1T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Temperature per Time"@en ; @@ -15195,7 +15474,6 @@ quantitykind:TemperatureRatio qudt:applicableUnit unit:DEG_F-PER-K ; qudt:applicableUnit unit:K-PER-K ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E0L0I0M0H1T0D0 ; qudt:qkdvNumerator qkdv:A0E0L0I0M0H1T0D0 ; rdfs:isDefinedBy ; @@ -15205,6 +15483,7 @@ quantitykind:TemperatureRatio quantitykind:TemporalSummationFunction a qudt:QuantityKind ; qudt:applicableUnit unit:PER-SEC-SR ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; qudt:plainTextDescription "\"Temporal Summation Function\" is the ability of the human eye to produce a composite signal from the signals coming into an eye during a short time interval." ; rdfs:isDefinedBy ; @@ -15253,8 +15532,8 @@ quantitykind:ThermalConductivity qudt:applicableUnit unit:KiloCAL-PER-CentiM-SEC-DEG_C ; qudt:applicableUnit unit:KiloCAL_IT-PER-HR-M-DEG_C ; qudt:applicableUnit unit:W-PER-M-K ; - qudt:baseUnitDimensions "L \\cdot M/\\Theta \\cdot T^3" ; - qudt:baseUnitDimensions "kg \\cdot m/K \\cdot s^3" ; + qudt:baseUnitDimensions "\\(L \\cdot M/\\Theta \\cdot T^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m/K \\cdot s^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Thermal_conductivity"^^xsd:anyURI ; qudt:expression "\\(thermal-k\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L1I0M1H-1T-3D0 ; @@ -15267,6 +15546,7 @@ quantitykind:ThermalConductivity quantitykind:ThermalDiffusionFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.thermopedia.com/content/1189/"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "\\(\\alpha_T = \\frac{k_T}{(x_A x_B)}\\), where \\(k_T\\) is the thermal diffusion ratio, and \\(x_A\\) and \\(x_B\\) are the local amount-of-substance fractions of the two substances \\(A\\) and \\(B\\)."^^qudt:LatexString ; @@ -15278,6 +15558,7 @@ quantitykind:ThermalDiffusionFactor quantitykind:ThermalDiffusionRatio a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://www.thermopedia.com/content/1189/"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31894"^^xsd:anyURI ; qudt:latexDefinition "In a steady state of a binary mixture in which thermal diffusion occurs, \\(grad x_B = -(\\frac{k_T}{T}) grad T\\), where \\(x_B\\) is the amount-of-substance fraction of the heavier substance \\(B\\), and \\(T\\) is the local thermodynamic temperature."^^qudt:LatexString ; @@ -15341,7 +15622,7 @@ quantitykind:ThermalEfficiency . quantitykind:ThermalEnergy a qudt:QuantityKind ; - dcterms:description "\"Thermal Energy} is the portion of the thermodynamic or internal energy of a system that is responsible for the temperature of the system. From a macroscopic thermodynamic description, the thermal energy of a system is given by its constant volume specific heat capacity C(T), a temperature coefficient also called thermal capacity, at any given absolute temperature (T): \\(U_{thermal\" = C(T) \\cdot T\\). "^^qudt:LatexString ; + dcterms:description "\"Thermal Energy} is the portion of the thermodynamic or internal energy of a system that is responsible for the temperature of the system. From a macroscopic thermodynamic description, the thermal energy of a system is given by its constant volume specific heat capacity C(T), a temperature coefficient also called thermal capacity, at any given absolute temperature (T): \\(U_{thermal} = C(T) \\cdot T\\)."^^qudt:LatexString ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_MEAN ; qudt:applicableUnit unit:BTU_TH ; @@ -15376,15 +15657,15 @@ quantitykind:ThermalEnergyLength . quantitykind:ThermalInsulance a qudt:QuantityKind ; - dcterms:description "\"Thermal Insulation} is the reduction of heat transfer (the transfer of thermal energy between objects of differing temperature) between objects in thermal contact or in range of radiative influence. In building technology, this quantity is often called \\textit{Thermal Resistance\", with the symbol \\(R\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textit{Thermal Insulance}\\) is the reduction of heat transfer (the transfer of thermal energy between objects of differing temperature) between objects in thermal contact or in range of radiative influence. In building technology, this quantity is often called \\(\\textit{Thermal Resistance}\\), with the symbol \\(R\\)."^^qudt:LatexString ; qudt:applicableUnit unit:CLO ; qudt:applicableUnit unit:DEG_F-HR-FT2-PER-BTU_IT ; qudt:applicableUnit unit:DEG_F-HR-FT2-PER-BTU_TH ; qudt:applicableUnit unit:FT2-HR-DEG_F-PER-BTU_IT ; qudt:applicableUnit unit:M2-HR-DEG_C-PER-KiloCAL_IT ; qudt:applicableUnit unit:M2-K-PER-W ; - qudt:baseUnitDimensions "K \\cdot s^3/kg" ; - qudt:baseUnitDimensions "\\Theta \\cdot T^3/M" ; + qudt:baseUnitDimensions "\\(K \\cdot s^3/kg\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot T^3/M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M-1H1T3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Thermal_insulation"^^xsd:anyURI ; qudt:latexDefinition "\\(M = 1/K\\), where \\(K\\) is \"Coefficient of Heat Transfer\""^^qudt:LatexString ; @@ -15395,11 +15676,11 @@ quantitykind:ThermalInsulance . quantitykind:ThermalResistance a qudt:QuantityKind ; - dcterms:description "\"Thermal Resistance} is a heat property and a measure of a temperature difference by which an object or material resists a heat flow (heat per time unit or thermal resistance). Thermal resistance is the reciprocal thermal conductance. the thermodynamic temperature difference divided by heat flow rate. Thermal resistance \\(R\\) has the units \\(\\frac{m^2 \\cdot K}{W\"\\). "^^qudt:LatexString ; + dcterms:description "\\(\\textit{Thermal Resistance}\\) is a heat property and a measure of a temperature difference by which an object or material resists a heat flow (heat per time unit or thermal resistance). Thermal resistance is the reciprocal thermal conductance. the thermodynamic temperature difference divided by heat flow rate. Thermal resistance \\(R\\) has the units \\(\\frac{m^2 \\cdot K}{W}\\)."^^qudt:LatexString ; qudt:applicableUnit unit:DEG_F-HR-PER-BTU_IT ; qudt:applicableUnit unit:K-PER-W ; - qudt:baseUnitDimensions "K \\cdot s^3/kg \\cdot m^2" ; - qudt:baseUnitDimensions "\\Theta \\cdot T^3/L^2 \\cdot M" ; + qudt:baseUnitDimensions "\\(K \\cdot s^3/kg \\cdot m^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot T^3/L^2 \\cdot M\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Thermal_resistance"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L-2I0M-1H1T3D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Thermal_resistance"^^xsd:anyURI ; @@ -15418,8 +15699,8 @@ quantitykind:ThermalResistivity qudt:applicableUnit unit:FT2-PER-BTU_IT-IN ; qudt:applicableUnit unit:K-M-PER-W ; qudt:applicableUnit unit:M-K-PER-W ; - qudt:baseUnitDimensions "K \\cdot s^3/kg \\cdot m" ; - qudt:baseUnitDimensions "\\Theta \\cdot T^3/L \\cdot M" ; + qudt:baseUnitDimensions "\\(K \\cdot s^3/kg \\cdot m\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot T^3/L \\cdot M\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-1I0M-1H1T3D0 ; rdfs:isDefinedBy ; rdfs:label "Thermal Resistivity"@en ; @@ -15427,6 +15708,7 @@ quantitykind:ThermalResistivity quantitykind:ThermalUtilizationFactor a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Four_factor_formula"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:plainTextDescription "The \"Thermal Utilization Factor\" in an infinite medium, is the ratio of the number of thermal absorbed in a fissionable nuclide or in a nuclear fuel, as specified, to the total number of thermal neutrons absorbed." ; @@ -15505,7 +15787,7 @@ quantitykind:ThermodynamicEnergy . quantitykind:ThermodynamicEntropy a qudt:QuantityKind ; - dcterms:description "Thermodynamic Entropy is a measure of the unavailability of a system’s energy to do work. It is a measure of the randomness of molecules in a system and is central to the second law of thermodynamics and the fundamental thermodynamic relation, which deal with physical processes and whether they occur spontaneously. The dimensions of entropy are energy divided by temperature, which is the same as the dimensions of Boltzmann's constant (\\(kB\\)) and heat capacity. The SI unit of entropy is \\(joule per kelvin\\). [Wikipedia]"^^qudt:LatexString ; + dcterms:description "Thermodynamic Entropy is a measure of the unavailability of a system’s energy to do work. It is a measure of the randomness of molecules in a system and is central to the second law of thermodynamics and the fundamental thermodynamic relation, which deal with physical processes and whether they occur spontaneously. The dimensions of entropy are energy divided by temperature, which is the same as the dimensions of Boltzmann's constant (\\(kB\\)) and heat capacity. The SI unit of entropy is \\(joule\\ per\\ kelvin\\). [Wikipedia]"^^qudt:LatexString ; qudt:applicableUnit unit:KiloJ-PER-K ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H-1T-2D0 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; @@ -15520,8 +15802,8 @@ quantitykind:ThermodynamicTemperature qudt:applicableUnit unit:K ; qudt:applicableUnit unit:MilliDEG_C ; qudt:applicableUnit unit:PlanckTemperature ; - qudt:baseUnitDimensions "K" ; - qudt:baseUnitDimensions "\\Theta" ; + qudt:baseUnitDimensions "\\(K\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/page/Thermodynamic_temperature"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H1T0D0 ; qudt:latexSymbol "\\(\\Theta\\)"^^qudt:LatexString ; @@ -15595,7 +15877,7 @@ quantitykind:Thrust dcterms:description """Thrust is a reaction force described quantitatively by Newton's Second and Third Laws. When a system expels or accelerates mass in one direction the accelerated mass will cause a proportional but opposite force on that system. The pushing or pulling force developed by an aircraft engine or a rocket engine. The force exerted in any direction by a fluid jet or by a powered screw, as, the thrust of an antitorque rotor. -(symbol F). Specifically, in rocketry, \\( F\\,= m\\cdot v\\) where m is propellant mass flow and v is exhaust velocity relative to the vehicle. Also called momentum thrust."""^^qudt:LatexString ; +Specifically, in rocketry, \\( F\\,= m\\cdot v\\) where m is propellant mass flow and v is exhaust velocity relative to the vehicle. Also called momentum thrust."""^^qudt:LatexString ; qudt:applicableUnit unit:DYN ; qudt:applicableUnit unit:KIP_F ; qudt:applicableUnit unit:KiloGM_F ; @@ -15630,8 +15912,8 @@ quantitykind:ThrustToMassRatio a qudt:QuantityKind ; qudt:applicableUnit unit:LB_F-PER-LB ; qudt:applicableUnit unit:N-PER-KiloGM ; - qudt:baseUnitDimensions "L/T^2" ; - qudt:baseUnitDimensions "m/s^2" ; + qudt:baseUnitDimensions "\\(L/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m/s^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-2D0 ; qudt:qkdvDenominator qkdv:A0E0L0I0M1H0T0D0 ; qudt:qkdvNumerator qkdv:A0E0L1I0M1H0T-2D0 ; @@ -15688,8 +15970,8 @@ quantitykind:Time qudt:applicableUnit unit:YR_Common ; qudt:applicableUnit unit:YR_Sidereal ; qudt:applicableUnit unit:YR_TROPICAL ; - qudt:baseUnitDimensions "T" ; - qudt:baseUnitDimensions "s" ; + qudt:baseUnitDimensions "\\(T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(s\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Time"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T1D0 ; qudt:plainTextDescription "Time is a basic component of the measuring system used to sequence events, to compare the durations of events and the intervals between them, and to quantify the motions of objects." ; @@ -15729,7 +16011,6 @@ quantitykind:TimePercentage a qudt:QuantityKind ; qudt:applicableUnit unit:PERCENT ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E0L0I0M0H0T1D0 ; qudt:qkdvNumerator qkdv:A0E0L0I0M0H0T1D0 ; rdfs:isDefinedBy ; @@ -15739,8 +16020,8 @@ quantitykind:TimePercentage quantitykind:TimeSquared a qudt:QuantityKind ; qudt:applicableUnit unit:SEC2 ; - qudt:baseUnitDimensions "T^2" ; - qudt:baseUnitDimensions "s^2" ; + qudt:baseUnitDimensions "\\(T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Time_Squared"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T2D0 ; rdfs:isDefinedBy ; @@ -15750,8 +16031,8 @@ quantitykind:TimeTemperature a qudt:QuantityKind ; qudt:applicableUnit unit:DEG_C-WK ; qudt:applicableUnit unit:K-SEC ; - qudt:baseUnitDimensions "K \\cdot s" ; - qudt:baseUnitDimensions "\\Theta \\cdot T" ; + qudt:baseUnitDimensions "\\(K \\cdot s\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(\\Theta \\cdot T\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H1T1D0 ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31890"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -15782,8 +16063,8 @@ t stands for time."""^^qudt:LatexString ; qudt:applicableUnit unit:N-CentiM ; qudt:applicableUnit unit:N-M ; qudt:applicableUnit unit:OZ_F-IN ; - qudt:baseUnitDimensions "L^2 \\cdot M/T^2" ; - qudt:baseUnitDimensions "kg \\cdot m^2/s^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg \\cdot m^2/s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Torque"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Torque"^^xsd:anyURI ; @@ -15797,6 +16078,7 @@ t stands for time."""^^qudt:LatexString ; . quantitykind:TotalAngularMomentum a qudt:QuantityKind ; + dcterms:description "\"Total Angular Momentum\" combines both the spin and orbital angular momentum of all particles and fields. In atomic and nuclear physics, orbital angular momentum is usually denoted by \\(l\\) or \\(L\\) instead of \\(\\Lambda\\). The magnitude of \\(J\\) is quantized so that \\(J^2 = \\hbar^2 j(j + 1)\\), where \\(j\\) is the total angular momentum quantum number."^^qudt:LatexString ; qudt:applicableUnit unit:ERG-SEC ; qudt:applicableUnit unit:EV-SEC ; qudt:applicableUnit unit:FT-LB_F-SEC ; @@ -15806,7 +16088,6 @@ quantitykind:TotalAngularMomentum qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Angular_momentum#Spin.2C_orbital.2C_and_total_angular_momentum"^^xsd:anyURI ; qudt:normativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; - qudt:plainTextDescription "\"Total Angular Momentum\" combines both the spin and orbital angular momentum of all particles and fields. In atomic and nuclear physics, orbital angular momentum is usually denoted by \\(l\\) or \\(L\\) instead of \\(\\Lambda\\). The magnitude of \\(J\\) is quantized so that \\(J^2 = \\hbar^2 j(j + 1)\\), where \\(j\\) is the total angular momentum quantum number." ; qudt:symbol "J" ; rdfs:isDefinedBy ; rdfs:label "Total Angular Momentum"@en ; @@ -15854,6 +16135,7 @@ quantitykind:TotalCrossSection qudt:applicableUnit unit:MIL_Circ ; qudt:applicableUnit unit:MicroM2 ; qudt:applicableUnit unit:MilliM2 ; + qudt:applicableUnit unit:NanoM2 ; qudt:applicableUnit unit:PlanckArea ; qudt:applicableUnit unit:YD2 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -15868,6 +16150,7 @@ quantitykind:TotalCrossSection quantitykind:TotalCurrent a qudt:QuantityKind ; qudt:applicableUnit unit:A ; + qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T0D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(I_{tot}= I + I_D\\), where \\(I\\) is electric current and \\(I_D\\) is displacement current."^^qudt:LatexString ; qudt:plainTextDescription "\"Total Current\" is the sum of the electric current that is flowing through a surface and the displacement current." ; @@ -15881,6 +16164,7 @@ quantitykind:TotalCurrent quantitykind:TotalCurrentDensity a qudt:QuantityKind ; qudt:applicableUnit unit:A-PER-M2 ; + qudt:hasDimensionVector qkdv:A0E1L-2I0M0H0T0D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(J_{tot}= J + J_D\\), where \\(J\\) is electric current density and \\(J_D\\) is displacement current density."^^qudt:LatexString ; qudt:latexSymbol "\\(J_{tot}\\)"^^qudt:LatexString ; @@ -15894,6 +16178,7 @@ quantitykind:TotalIonization a qudt:QuantityKind ; dcterms:description "\"Total Ionization\" by a particle, total mean charge, divided by the elementary charge, \\(e\\), of all positive ions produced by an ionizing charged particle along its entire path and along the paths of any secondary charged particles."^^qudt:LatexString ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Ionization#Classical_ionization"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31895"^^xsd:anyURI ; qudt:latexDefinition "\\(N = \\int N_i dl\\)."^^qudt:LatexString ; @@ -15904,6 +16189,7 @@ quantitykind:TotalIonization quantitykind:TotalLinearStoppingPower a qudt:QuantityKind ; qudt:applicableUnit unit:ERG-PER-CentiM ; + qudt:applicableUnit unit:EV-PER-ANGSTROM ; qudt:applicableUnit unit:EV-PER-M ; qudt:applicableUnit unit:J-PER-M ; qudt:informativeReference "http://en.wikipedia.org/wiki/Stopping_power_(particle_radiation)"^^xsd:anyURI ; @@ -15927,6 +16213,7 @@ quantitykind:TotalMassStoppingPower . quantitykind:TotalPressure a qudt:QuantityKind ; + dcterms:description " The total pressure is the sum of the dynamic and static pressures, that is \\(P_0 = P + q\\)."^^qudt:LatexString ; qudt:applicableUnit unit:ATM ; qudt:applicableUnit unit:ATM_T ; qudt:applicableUnit unit:BAR ; @@ -15949,6 +16236,7 @@ quantitykind:TotalPressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -15978,7 +16266,6 @@ quantitykind:TotalPressure qudt:applicableUnit unit:PlanckPressure ; qudt:applicableUnit unit:TORR ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; - qudt:plainTextDescription " The total pressure is the sum of the dynamic and static pressures, that is \\(P_0 = P + q\\)." ; qudt:symbol "P_0" ; rdfs:isDefinedBy ; rdfs:label "Total Pressure"@en ; @@ -15987,7 +16274,7 @@ quantitykind:TotalPressure quantitykind:TouchThresholds a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_t\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_t}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Touch Thresholds\" are thresholds for touch, vibration and other stimuli to the skin." ; rdfs:isDefinedBy ; rdfs:label "Touch Thresholds"@en ; @@ -15995,6 +16282,7 @@ quantitykind:TouchThresholds quantitykind:Transmittance a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:latexDefinition "\\(\\tau = \\frac{\\Phi_t}{\\Phi_m}\\), where \\(\\Phi_t\\) is the transmitted radiant flux or the transmitted luminous flux, and \\(\\Phi_m\\) is the radiant flux or luminous flux of the incident radiation."^^qudt:LatexString ; qudt:latexSymbol "\\(\\tau, T\\)"^^qudt:LatexString ; qudt:plainTextDescription "Transmittance is the fraction of incident light (electromagnetic radiation) at a specified wavelength that passes through a sample." ; @@ -16007,7 +16295,8 @@ quantitykind:Transmittance quantitykind:TransmittanceDensity a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; - qudt:latexDefinition "\\(A_1_0(\\lambda) = -lg(\\tau(\\lambda))\\), where \\(\\tau\\) is the transmittance at a given wavelength \\(\\lambda\\)."^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; + qudt:latexDefinition "\\(A_{10}(\\lambda) = -lg(\\tau(\\lambda))\\), where \\(\\tau\\) is the transmittance at a given wavelength \\(\\lambda\\)." ; qudt:plainTextDescription "Transmittance is the fraction of incident light (electromagnetic radiation) at a specified wavelength that passes through a sample." ; qudt:symbol "A_10, D" ; qudt:systemDerivedQuantityKind qudt:SOQ_SI ; @@ -16032,6 +16321,7 @@ quantitykind:Turbidity quantitykind:Turns a qudt:QuantityKind ; qudt:applicableUnit unit:UNITLESS ; + qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; qudt:plainTextDescription "\"Turns\" is the number of turns in a winding." ; qudt:symbol "N" ; rdfs:isDefinedBy ; @@ -16080,6 +16370,31 @@ quantitykind:VacuumThrust . quantitykind:VehicleVelocity a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; qudt:symbol "V" ; rdfs:isDefinedBy ; @@ -16123,8 +16438,33 @@ quantitykind:Velocity . quantitykind:VerticalVelocity a qudt:QuantityKind ; + qudt:applicableUnit unit:CentiM-PER-HR ; + qudt:applicableUnit unit:CentiM-PER-KiloYR ; + qudt:applicableUnit unit:CentiM-PER-SEC ; + qudt:applicableUnit unit:FT-PER-HR ; + qudt:applicableUnit unit:FT-PER-MIN ; + qudt:applicableUnit unit:FT-PER-SEC ; + qudt:applicableUnit unit:GigaHZ-M ; + qudt:applicableUnit unit:IN-PER-SEC ; + qudt:applicableUnit unit:KN ; + qudt:applicableUnit unit:KiloM-PER-DAY ; + qudt:applicableUnit unit:KiloM-PER-HR ; + qudt:applicableUnit unit:KiloM-PER-SEC ; + qudt:applicableUnit unit:M-PER-HR ; + qudt:applicableUnit unit:M-PER-MIN ; + qudt:applicableUnit unit:M-PER-SEC ; + qudt:applicableUnit unit:M-PER-YR ; + qudt:applicableUnit unit:MI-PER-HR ; + qudt:applicableUnit unit:MI-PER-MIN ; + qudt:applicableUnit unit:MI_N-PER-HR ; + qudt:applicableUnit unit:MI_N-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-DAY ; + qudt:applicableUnit unit:MilliM-PER-HR ; + qudt:applicableUnit unit:MilliM-PER-MIN ; + qudt:applicableUnit unit:MilliM-PER-SEC ; + qudt:applicableUnit unit:MilliM-PER-YR ; qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; - qudt:plainTextDescription "The rate at which a body moves upwards at an angle of 90 u00b0 to the ground. It is the component of a projectile's velocity which is concerned with lifting the projectile." ; + qudt:plainTextDescription "The rate at which a body moves upwards at an angle of 90 degrees to the ground. It is the component of a projectile's velocity which is concerned with lifting the projectile." ; qudt:symbol "V_{Z}" ; rdfs:isDefinedBy ; rdfs:label "Vertical Velocity"@en ; @@ -16207,7 +16547,7 @@ quantitykind:VisibleRadiantEnergy quantitykind:VisionThreshods a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_v\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_v}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Vision Threshods\" is the thresholds of sensitivity of the eye." ; rdfs:isDefinedBy ; rdfs:label "Vision Threshods"@en ; @@ -16224,7 +16564,7 @@ For an irrotational electric field, the voltage is independent of the path betwe qudt:hasDimensionVector qkdv:A0E-1L2I0M1H0T-3D0 ; qudt:informativeReference "http://www.iso.org/iso/home/store/catalogue_tc/catalogue_detail.htm?csnumber=31891"^^xsd:anyURI ; qudt:latexDefinition "\\(U_{ab} = V_a - V_b\\), where \\(V_a\\) and \\(V_b\\) are electric potentials at points \\(a\\) and \\(b\\), respectively."^^qudt:LatexString ; - qudt:latexSymbol "\\(\\(U_{ab}\\)\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(U_{ab}\\)" ; qudt:symbol "U" ; rdfs:isDefinedBy ; rdfs:label "Voltage"@en ; @@ -16235,7 +16575,6 @@ quantitykind:VoltagePercentage a qudt:QuantityKind ; qudt:applicableUnit unit:PERCENT ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:latexSymbol "\\(\\Uppsi\\)"^^qudt:LatexString ; qudt:qkdvDenominator qkdv:A0E-1L2I0M1H0T-3D0 ; qudt:qkdvNumerator qkdv:A0E-1L2I0M1H0T-3D0 ; rdfs:isDefinedBy ; @@ -16292,8 +16631,8 @@ quantitykind:Volume qudt:applicableUnit unit:TON_SHIPPING_US ; qudt:applicableUnit unit:TSP ; qudt:applicableUnit unit:YD3 ; - qudt:baseUnitDimensions "L^3" ; - qudt:baseUnitDimensions "m^3" ; + qudt:baseUnitDimensions "\\(L^3\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Volume"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T0D0 ; qudt:plainTextDescription "The volume of a solid object is the three-dimensional concept of how much space it occupies, often quantified numerically. One-dimensional figures (such as lines) and two-dimensional shapes (such as squares) are assigned zero volume in the three-dimensional space." ; @@ -16396,7 +16735,7 @@ quantitykind:VolumeFlowRate qudt:applicableUnit unit:YD3-PER-HR ; qudt:applicableUnit unit:YD3-PER-MIN ; qudt:applicableUnit unit:YD3-PER-SEC ; - qudt:baseUnitDimensions "m^{3} sec^{-1}" ; + qudt:baseUnitDimensions "\\(m^{3} sec^{-1}\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T-1D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Volumetric_flow_rate"^^xsd:anyURI ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=31889"^^xsd:anyURI ; @@ -16441,8 +16780,8 @@ quantitykind:VolumePerUnitTime qudt:applicableUnit unit:M3-PER-HR ; qudt:applicableUnit unit:M3-PER-SEC ; qudt:applicableUnit unit:YD3-PER-MIN ; - qudt:baseUnitDimensions "L^3/T" ; - qudt:baseUnitDimensions "m^3/s" ; + qudt:baseUnitDimensions "\\(L^3/T\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3/s\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T-1D0 ; rdfs:isDefinedBy ; rdfs:label "Volume per Unit Time"@en ; @@ -16477,8 +16816,8 @@ quantitykind:VolumeThermalExpansion qudt:applicableUnit unit:M3-PER-K ; qudt:applicableUnit unit:MilliL-PER-K ; qudt:applicableUnit unit:YD3-PER-DEG_F ; - qudt:baseUnitDimensions "L^3/\\Theta" ; - qudt:baseUnitDimensions "m^3/K" ; + qudt:baseUnitDimensions "\\(L^3/\\Theta\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(m^3/K\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L3I0M0H-1T0D0 ; qudt:plainTextDescription """When the temperature of a substance changes, the energy that is stored in the intermolecular bonds between atoms changes. When the stored energy increases, so does the length of the molecular bonds. As a result, solids typically expand in response to heating and contract on cooling; this dimensional response to temperature change is expressed by its coefficient of thermal expansion. @@ -16508,15 +16847,15 @@ quantitykind:VolumetricFlux . quantitykind:VolumetricHeatCapacity a qudt:QuantityKind ; + dcterms:description "\\(\\textit{Volumetric Heat Capacity (VHC)}\\), also termed \\(\\textit{volume-specific heat capacity}\\), describes the ability of a given volume of a substance to store internal energy while undergoing a given temperature change, but without undergoing a phase transition. It is different from specific heat capacity in that the VHC is a \\(\\textit{per unit volume}\\) measure of the relationship between thermal energy and temperature of a material, while the specific heat is a \\(\\textit{per unit mass}\\) measure (or occasionally per molar quantity of the material)."^^qudt:LatexString ; qudt:applicableUnit unit:J-PER-M3-K ; qudt:applicableUnit unit:LB_F-PER-IN2-DEG_F ; qudt:applicableUnit unit:MilliBAR-PER-K ; - qudt:baseUnitDimensions "M/\\Theta \\cdot L \\cdot T^2" ; - qudt:baseUnitDimensions "kg/K \\cdot m \\cdot s^2" ; + qudt:baseUnitDimensions "\\(M/\\Theta \\cdot L \\cdot T^2\\)"^^qudt:LatexString ; + qudt:baseUnitDimensions "\\(kg/K \\cdot m \\cdot s^2\\)"^^qudt:LatexString ; qudt:dbpediaMatch "http://dbpedia.org/resource/Volumetric_heat_capacity"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H-1T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Volumetric_heat_capacity"^^xsd:anyURI ; - qudt:plainTextDescription "\"Volumetric Heat Capacity (VHC)}, also termed \\textit{volume-specific heat capacity}, describes the ability of a given volume of a substance to store internal energy while undergoing a given temperature change, but without undergoing a phase transition. It is different from specific heat capacity in that the VHC is a \\textit{per unit volume} measure of the relationship between thermal energy and temperature of a material, while the specific heat is a \\textit{per unit mass\" measure (or occasionally per molar quantity of the material)." ; rdfs:isDefinedBy ; rdfs:label "Volumetric Heat Capacity"@en ; . @@ -16534,7 +16873,7 @@ quantitykind:VolumicElectromagneticEnergy rdfs:label "Volumic Electromagnetic Energy"@en ; rdfs:seeAlso quantitykind:ElectricFieldStrength ; rdfs:seeAlso quantitykind:ElectricFluxDensity ; - rdfs:seeAlso quantitykind:MagneticFieldStrength ; + rdfs:seeAlso quantitykind:MagneticFieldStrength_H ; rdfs:seeAlso quantitykind:MagneticFluxDensity ; owl:sameAs quantitykind:ElectromagneticEnergyDensity ; . @@ -16560,7 +16899,7 @@ quantitykind:Vorticity quantitykind:WarmReceptorThreshold a qudt:QuantityKind ; qudt:isoNormativeReference "http://www.iso.org/iso/catalogue_detail?csnumber=43012"^^xsd:anyURI ; - qudt:latexSymbol "\\(\\Tbar_w\\)"^^qudt:LatexString ; + qudt:latexSymbol "\\(\\overline{T_w}\\)"^^qudt:LatexString ; qudt:plainTextDescription "\"Warm Receptor Threshold\" is the threshold of warm-sensitive free nerve-ending." ; rdfs:isDefinedBy ; rdfs:label "Warm Receptor Threshold"@en ; @@ -16616,6 +16955,7 @@ quantitykind:WaterHorsepower . quantitykind:Wavelength a qudt:QuantityKind ; + dcterms:description "For a monochromatic wave, \"wavelength\" is the distance between two successive points in a direction perpendicular to the wavefront where at a given instant the phase differs by \\(2\\pi\\). The wavelength of a sinusoidal wave is the spatial period of the wave—the distance over which the wave's shape repeats. The SI unit of wavelength is the meter."^^qudt:LatexString ; qudt:applicableUnit unit:ANGSTROM ; qudt:applicableUnit unit:AU ; qudt:applicableUnit unit:CH ; @@ -16654,7 +16994,6 @@ quantitykind:Wavelength qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T0D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Wavelength"^^xsd:anyURI ; qudt:latexDefinition "\\(\\lambda = \\frac{c}{\\nu}\\), where \\(\\lambda\\) is the wave length, \\(\\nu\\) is the frequency, and \\(c\\) is the speed of light in the medium."^^qudt:LatexString ; - qudt:plainTextDescription "For a monochromatic wave, \"wavelength\" is the distance between two successive points in a direction perpendicular to the wavefront where at a given instant the phase differs by \\(2\\pi\\). The wavelength of a sinusoidal wave is the spatial period of the wave—the distance over which the wave's shape repeats. The SI unit of wavelength is the meter." ; qudt:symbol "λ" ; vaem:todo "belongs to SOQ-ISO" ; rdfs:isDefinedBy ; @@ -16712,6 +17051,7 @@ quantitykind:WebTimeAveragePressure qudt:applicableUnit unit:IN_HG ; qudt:applicableUnit unit:KIP_F-PER-IN2 ; qudt:applicableUnit unit:KiloBAR ; + qudt:applicableUnit unit:KiloGM-PER-M-SEC2 ; qudt:applicableUnit unit:KiloGM_F-PER-CentiM2 ; qudt:applicableUnit unit:KiloGM_F-PER-M2 ; qudt:applicableUnit unit:KiloGM_F-PER-MilliM2 ; @@ -16771,6 +17111,22 @@ quantitykind:WebTimeAverageThrust . quantitykind:Weight a qudt:QuantityKind ; + qudt:applicableUnit unit:DYN ; + qudt:applicableUnit unit:KIP_F ; + qudt:applicableUnit unit:KiloGM_F ; + qudt:applicableUnit unit:KiloN ; + qudt:applicableUnit unit:KiloP ; + qudt:applicableUnit unit:KiloPOND ; + qudt:applicableUnit unit:LB_F ; + qudt:applicableUnit unit:MegaLB_F ; + qudt:applicableUnit unit:MegaN ; + qudt:applicableUnit unit:MicroN ; + qudt:applicableUnit unit:MilliN ; + qudt:applicableUnit unit:N ; + qudt:applicableUnit unit:OZ_F ; + qudt:applicableUnit unit:PDL ; + qudt:applicableUnit unit:PlanckForce ; + qudt:applicableUnit unit:TON_F_US ; qudt:dbpediaMatch "http://dbpedia.org/resource/Weight"^^xsd:anyURI ; qudt:plainTextDescription "The force with which a body is attracted toward an astronomical body. Or, the product of the mass of a body and the acceleration acting on a body. In a dynamic situation, the weight can be a multiple of that under resting conditions. Weight also varies on other planets in accordance with their gravity." ; qudt:symbol "bold letter W" ; @@ -16824,9 +17180,7 @@ quantitykind:Width . quantitykind:Work a qudt:QuantityKind ; - dcterms:description """The net work is equal to the change in kinetic energy. This relationship is called the work-energy theorem: \\(Wnet = K. E._f − K. E._o \\), where \\(K. E._f\\) is the final kinetic energy and \\(K. E._o\\) is the original kinetic energy. -Potential energy, also referred to as stored energy, is the ability of a system to do work due to its position or internal structure. -Change in potential energy is equal to work. The potential energy equations can also be derived from the integral form of work, \\(\\Delta P. E. = W = \\int F \\cdot dx\\).""" ; + dcterms:description "The net work is equal to the change in kinetic energy. This relationship is called the work-energy theorem: \\(Wnet = K. E._f − K. E._o \\), where \\(K. E._f\\) is the final kinetic energy and \\(K. E._o\\) is the original kinetic energy. Potential energy, also referred to as stored energy, is the ability of a system to do work due to its position or internal structure. Change in potential energy is equal to work. The potential energy equations can also be derived from the integral form of work, \\(\\Delta P. E. = W = \\int F \\cdot dx\\)."^^qudt:LatexString ; qudt:applicableUnit unit:AttoJ ; qudt:applicableUnit unit:BTU_IT ; qudt:applicableUnit unit:BTU_TH ; @@ -16869,7 +17223,7 @@ Change in potential energy is equal to work. The potential energy equations can qudt:applicableUnit unit:V-A_Reactive-HR ; qudt:applicableUnit unit:W-HR ; qudt:applicableUnit unit:W-SEC ; - qudt:baseUnitDimensions "L^2 \\cdot M/T^2" ; + qudt:baseUnitDimensions "\\(L^2 \\cdot M/T^2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:informativeReference "http://en.wikipedia.org/wiki/Work_(physics)"^^xsd:anyURI ; qudt:informativeReference "http://www.cliffsnotes.com/study_guide/Work-and-Energy.topicArticleId-10453,articleId-10418.html"^^xsd:anyURI ; @@ -16950,22 +17304,22 @@ vaem:GMD_QUDT-QUANTITY-KINDS-ALL dcterms:creator "Ralph Hodgson" ; dcterms:creator "Steve Ray" ; dcterms:description "Provides the set of all quantity kinds."^^rdf:HTML ; - dcterms:modified "2021-02-25T12:10:57.893-08:00"^^xsd:dateTime ; + dcterms:modified "2021-07-20T16:03:27.911-07:00"^^xsd:dateTime ; dcterms:rights "The QUDT Ontologies are issued under a Creative Commons Attribution 4.0 International License (CC BY 4.0), available at https://creativecommons.org/licenses/by/4.0/. Attribution should be made to QUDT.org" ; dcterms:subject "QUANTITY-KINDS-ALL" ; vaem:applicableDiscipline "All disciplines" ; vaem:applicableDomain "Science, Medicine and Engineering" ; vaem:dateCreated "2019-08-01T21:26:38"^^xsd:dateTime ; - vaem:graphTitle "QUDT Quantity Kinds Version 2.1.9" ; + vaem:graphTitle "QUDT Quantity Kinds Version 2.1.12" ; vaem:hasGraphRole vaem:VocabularyGraph ; vaem:intent "TBD" ; vaem:isMetadataFor ; - vaem:latestPublishedVersion "http://www.qudt.org/doc/2021/02/DOC_VOCAB-QUANTITY-KINDS-ALL-v2.1.html"^^xsd:anyURI ; + vaem:latestPublishedVersion "http://www.qudt.org/doc/2021/07/DOC_VOCAB-QUANTITY-KINDS-ALL-v2.1.html"^^xsd:anyURI ; vaem:logo "http://www.linkedmodel.org/lib/lm/images/logos/qudt_logo-300x110.png" ; vaem:namespace "http://qudt.org/vocab/quantitykind/" ; vaem:namespacePrefix "quantitykind" ; vaem:owner "qudt.org" ; - vaem:previousPublishedVersion "http://www.qudt.org/doc/2021/01/DOC_VOCAB-QUANTITY-KINDS-ALL-v2.1.html"^^xsd:anyURI ; + vaem:previousPublishedVersion "http://www.qudt.org/doc/2021/06/DOC_VOCAB-QUANTITY-KINDS-ALL-v2.1.html"^^xsd:anyURI ; vaem:revision "2.1" ; vaem:specificity 1 ; vaem:turtleFileURL "http://qudt.org/2.1/vocab/quantitykind" ; @@ -16991,5 +17345,5 @@ vaem:GMD_QUDT-QUANTITY-KINDS-ALL vaem:withAttributionTo voag:QUDT-Attribution ; vaem:withAttributionTo ; rdfs:isDefinedBy ; - rdfs:label "QUDT Quantity Kinds Vocabulary Version 2.1.9" ; + rdfs:label "QUDT Quantity Kinds Vocabulary Version 2.1.12" ; . diff --git a/support/VOCAB_QUDT-UNITS-ALL-v2.1.ttl b/support/VOCAB_QUDT-UNITS-ALL-v2.1.ttl index 9c42d951..106da1e1 100644 --- a/support/VOCAB_QUDT-UNITS-ALL-v2.1.ttl +++ b/support/VOCAB_QUDT-UNITS-ALL-v2.1.ttl @@ -24,7 +24,7 @@ a owl:Ontology ; vaem:hasGraphMetadata vaem:GMD_QUDT-UNITS-ALL ; rdfs:isDefinedBy ; - rdfs:label "QUDT Units of Measure for All Units Release 2.1" ; + rdfs:label "QUDT Units of Measure for All Units Release 2.1.12" ; owl:imports ; owl:imports ; owl:imports ; @@ -73,7 +73,7 @@ Note that SI supports only the use of symbols and deprecates the use of any abbr unit:A-HR a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{Ampere hour} is a practical unit of electric charge equal to the charge flowing in one hour through a conductor passing one ampere. An ampere-hour or amp-hour (symbol \\(Ah,\\,AHr,\\, A \\cdot h, A h\\)) is a unit of electric charge, with sub-units milliampere-hour (\\(mAh\\)) and milliampere second (\\(mAs\\)). One ampere-hour is equal to 3600 coulombs (ampere-seconds), the electric charge transferred by a steady current of one ampere for one hour. The ampere-hour is frequently used in measurements of electrochemical systems such as electroplating and electrical batteries. The commonly seen milliampere-hour (\\(mAh\\) or \\(mA \\cdot h\\)) is one-thousandth of an ampere-hour (\\(3.6 \\,coulombs\\))."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Ampere hour}\\) is a practical unit of electric charge equal to the charge flowing in one hour through a conductor passing one ampere. An ampere-hour or amp-hour (symbol \\(Ah,\\,AHr,\\, A \\cdot h, A h\\)) is a unit of electric charge, with sub-units milliampere-hour (\\(mAh\\)) and milliampere second (\\(mAs\\)). One ampere-hour is equal to 3600 coulombs (ampere-seconds), the electric charge transferred by a steady current of one ampere for one hour. The ampere-hour is frequently used in measurements of electrochemical systems such as electroplating and electrical batteries. The commonly seen milliampere-hour (\\(mAh\\) or \\(mA \\cdot h\\)) is one-thousandth of an ampere-hour (\\(3.6 \\,coulombs\\))."^^qudt:LatexString ; qudt:conversionMultiplier 3600.0 ; qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T1D0 ; qudt:hasQuantityKind quantitykind:ElectricCharge ; @@ -124,7 +124,7 @@ unit:A-PER-CentiM qudt:conversionMultiplier 100.0 ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:LinearElectricCurrentDensity ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAB073" ; qudt:plainTextDescription "SI base unit ampere divided by the 0.01-fold of the SI base unit metre" ; qudt:ucumCode "A.cm-1"^^qudt:UCUMcs ; @@ -186,7 +186,7 @@ unit:A-PER-M qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:Coercivity ; qudt:hasQuantityKind quantitykind:LinearElectricCurrentDensity ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAA104" ; qudt:ucumCode "A.m-1"^^qudt:UCUMcs ; qudt:ucumCode "A/m"^^qudt:UCUMcs ; @@ -234,7 +234,7 @@ unit:A-PER-MilliM qudt:conversionMultiplier 1000.0 ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:LinearElectricCurrentDensity ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAB072" ; qudt:plainTextDescription "SI base unit ampere divided by the 0.001-fold of the SI base unit metre" ; qudt:ucumCode "A.mm-1"^^qudt:UCUMcs ; @@ -261,7 +261,7 @@ unit:A-PER-MilliM2 unit:A-PER-RAD a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textit{Ampere per Radian} is a derived unit for measuring the amount of current per unit measure of angle, expressed in ampere per radian.\\)"^^qudt:LatexString ; + dcterms:description "\\(\\textit{Ampere per Radian}\\) is a derived unit for measuring the amount of current per unit measure of angle, expressed in ampere per radian."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:definedUnitOfSystem sou:SI ; qudt:derivedCoherentUnitOfSystem sou:SI ; @@ -350,7 +350,7 @@ unit:AMD . unit:AMU a qudt:Unit ; - dcterms:description "The \\textit{Unified Atomic Mass Unit} (symbol: \\(\\mu\\)) or \\textit{dalton} (symbol: Da) is a unit that is used for indicating mass on an atomic or molecular scale. It is defined as one twelfth of the rest mass of an unbound atom of carbon-12 in its nuclear and electronic ground state, and has a value of \\(1.660538782(83) \\times 10^{-27} kg\\). One \\(Da\\) is approximately equal to the mass of one proton or one neutron. The CIPM have categorised it as a \\textit{\"non-SI unit whose values in SI units must be obtained experimentally\"}."^^qudt:LatexString ; + dcterms:description "The \\(\\textit{Unified Atomic Mass Unit}\\) (symbol: \\(\\mu\\)) or \\(\\textit{dalton}\\) (symbol: Da) is a unit that is used for indicating mass on an atomic or molecular scale. It is defined as one twelfth of the rest mass of an unbound atom of carbon-12 in its nuclear and electronic ground state, and has a value of \\(1.660538782(83) \\times 10^{-27} kg\\). One \\(Da\\) is approximately equal to the mass of one proton or one neutron. The CIPM have categorised it as a \\(\\textit{\"non-SI unit whose values in SI units must be obtained experimentally\"}\\)."^^qudt:LatexString ; qudt:conversionMultiplier 0.00000000000000000000000000166053878283 ; qudt:exactMatch unit:Da ; qudt:exactMatch unit:U ; @@ -444,7 +444,7 @@ unit:ARS unit:AT a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(The \\textit{ampere-turn} was the MKS unit of magnetomotive force (MMF), represented by a direct current of one ampere flowing in a single-turn loop in a vacuum. \"Turns\" refers to the winding number of an electrical conductor comprising an inductor. The ampere-turn was replaced by the SI unit, ampere.\\)"^^qudt:LatexString ; + dcterms:description "The \\(\\textit{ampere-turn}\\) was the MKS unit of magnetomotive force (MMF), represented by a direct current of one ampere flowing in a single-turn loop in a vacuum. \"Turns\" refers to the winding number of an electrical conductor comprising an inductor. The ampere-turn was replaced by the SI unit, \\(ampere\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:definedUnitOfSystem sou:SI ; qudt:derivedCoherentUnitOfSystem sou:SI ; @@ -457,11 +457,11 @@ unit:AT unit:AT-PER-IN a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "The 'ampere-turn-per-inch' is a measure of magnetic field intensity and is eual to 12.5664 Oersted."^^rdf:HTML ; + dcterms:description "The \\(\\textit{Ampere Turn per Inch}\\) is a measure of magnetic field intensity and is eual to 12.5664 Oersted."^^rdf:HTML ; qudt:conversionMultiplier 39.3700787 ; qudt:expression "\\(At/in\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:unitOfSystem sou:USCS ; rdfs:isDefinedBy ; rdfs:label "Ampere Turn per Inch"@en ; @@ -469,13 +469,13 @@ unit:AT-PER-IN unit:AT-PER-M a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "The SI unit of magnetic field strength. One ampere per meter is equal to \\(\\pi/250\\) oersteds (12.566 371 millioersteds) in CGS units. The ampere per meter is also the SI unit of \"magnetization\" in the sense of magnetic dipole moment per unit volume; in this context \\(1 A/m = 0.001 emu per cubic centimeter\\)."^^qudt:LatexString ; + dcterms:description "The \\(\\textit{Ampere Turn per Metre}\\) is the SI unit of magnetic field strength. One ampere per meter is equal to \\(\\pi/250\\) oersteds (12.566 371 millioersteds) in CGS units. The ampere per meter is also the SI unit of \"magnetization\" in the sense of magnetic dipole moment per unit volume; in this context \\(1 A/m = 0.001 emu per cubic centimeter\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:definedUnitOfSystem sou:SI ; qudt:derivedCoherentUnitOfSystem sou:SI ; qudt:expression "\\(At/m\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; rdfs:isDefinedBy ; rdfs:label "Ampere Turn per Meter"@en-us ; rdfs:label "Ampere Turn per Metre"@en ; @@ -811,7 +811,7 @@ unit:BARAD . unit:BARN a qudt:Unit ; - dcterms:description "A barn (symbol b) is a unit of area. Originally used in nuclear physics for expressing the cross sectional area of nuclei and nuclear reactions, today it is used in all fields of high energy physics to express the cross sections of any scattering process, and is best understood as a measure of the probability of interaction between small particles. A barn is defined as \\(10^{28} m^2 (100 fm^2)\\) and is approximately the cross sectional area of a uranium nucleus. The barn is also the unit of area used in nuclear quadrupole resonance and nuclear magnetic resonance to quantify the interaction of a nucleus with an electric field gradient. While the barn is not an SI unit, it is accepted for use with the SI due to its continued use in particle physics."^^qudt:LatexString ; + dcterms:description "A barn (symbol b) is a unit of area. Originally used in nuclear physics for expressing the cross sectional area of nuclei and nuclear reactions, today it is used in all fields of high energy physics to express the cross sections of any scattering process, and is best understood as a measure of the probability of interaction between small particles. A barn is defined as \\(10^{28} m^2 (100 fm^2)\\) and is approximately the cross sectional area of a uranium nucleus. The barn is also the unit of area used in nuclear quadrupole resonance and nuclear magnetic resonance to quantify the interaction of a nucleus with an electric field gradient. While the barn is not an SI unit, it is accepted for use with the SI due to its continued use in particle physics."^^qudt:LatexString ; qudt:conversionMultiplier 0.018 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Barn"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; @@ -831,7 +831,7 @@ unit:BARYE dcterms:description "

The barye, or sometimes barad, barrie, bary, baryd, baryed, or barie, is the centimetre-gram-second (CGS) unit of pressure. It is equal to 1 dyne per square centimetre.

"^^rdf:HTML ; qudt:conversionMultiplier 0.1 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Barye"^^xsd:anyURI ; - qudt:derivedCoherentUnitOfSystem sou:CGS-MECHANICS ; + qudt:derivedCoherentUnitOfSystem sou:CGS ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; qudt:hasQuantityKind quantitykind:ForcePerArea ; qudt:informativeReference "http://en.wikipedia.org/wiki/Barye?oldid=478631158"^^xsd:anyURI ; @@ -1126,7 +1126,7 @@ unit:BQ-PER-KiloGM dcterms:description "The only unit in the category of Specific radioactivity. It is also known as becquerels per kilogram, becquerel/kilogram. This unit is commonly used in the SI unit system. Becquerel Per Kilogram (Bq/kg) has a dimension of \\(M{-1}T{-1}\\) where \\(M\\) is mass, and \\(T\\) is time. It essentially the same as the corresponding standard SI unit \\(/kg/s\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:expression "\\(Bq/kg\\)"^^qudt:LatexString ; - qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; + qudt:hasDimensionVector qkdv:A0E0L0I0M-1H0T-1D0 ; qudt:hasQuantityKind quantitykind:MassicActivity ; qudt:hasQuantityKind quantitykind:SpecificActivity ; qudt:iec61360Code "0112/2///62720#UAA112" ; @@ -1235,7 +1235,7 @@ unit:BTU_IT unit:BTU_IT-FT a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\{textitBTU Foot} is an Imperial unit for \\{textit{Thermal Energy Length} expressed as \\(Btu-ft\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU_{IT} \\, Foot}\\) is an Imperial unit for \\(\\textit{Thermal Energy Length}\\) expressed as \\(Btu-ft\\)."^^qudt:LatexString ; qudt:conversionMultiplier 321.581024 ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; @@ -1270,7 +1270,7 @@ unit:BTU_IT-FT-PER-FT2-HR-DEG_F unit:BTU_IT-IN a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU Inch} is an Imperial unit for 'Thermal Energy Length' expressed as \\(Btu-in\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, Inch}\\) is an Imperial unit for 'Thermal Energy Length' expressed as \\(Btu-in\\)."^^qudt:LatexString ; qudt:conversionMultiplier 26.7984187 ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; @@ -1306,7 +1306,7 @@ unit:BTU_IT-IN-PER-FT2-HR-DEG_F unit:BTU_IT-IN-PER-FT2-SEC-DEG_F a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(BTU_{IT} Inch per Square Foot Second Degree Fahrenheit\\) is an Imperial unit for 'Thermal Conductivity' expressed as \\(Btu_{it}-in/(ft^{2}-s-degF)\\)."^^qudt:LatexString ; + dcterms:description "\\(BTU_{IT}\\), Inch per Square Foot Second Degree Fahrenheit, is an Imperial unit for 'Thermal Conductivity' expressed as \\(Btu_{it}-in/(ft^{2}-s-degF)\\)."^^qudt:LatexString ; qudt:conversionMultiplier 519.220399911 ; qudt:expression "\\(Btu(it)-in-per-s-ft2-degF\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L1I0M1H-1T-3D0 ; @@ -1370,7 +1370,7 @@ unit:BTU_IT-PER-DEG_F unit:BTU_IT-PER-DEG_R a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Degree Rankine} is an Imperial unit for 'Heat Capacity' expressed as \\(Btu/degR\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Degree \\, Rankine}\\) is an Imperial unit for 'Heat Capacity' expressed as \\(Btu/degR\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1899.100535 ; qudt:expression "\\(btu-per-degR\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H-1T-2D0 ; @@ -1400,7 +1400,7 @@ unit:BTU_IT-PER-FT2 unit:BTU_IT-PER-FT2-HR-DEG_F a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Square Foot Hour Degree Fahrenheit} is an Imperial unit for 'Coefficient Of Heat Transfer' expressed as \\(Btu/(hr-ft^{2}-degF)\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Square \\, Foot \\, Hour \\, Degree \\, Fahrenheit}\\) is an Imperial unit for 'Coefficient Of Heat Transfer' expressed as \\(Btu/(hr-ft^{2}-degF)\\)."^^qudt:LatexString ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; qudt:expression "\\(Btu/(hr-ft^{2}-degF)\\)"^^qudt:LatexString ; @@ -1415,7 +1415,7 @@ unit:BTU_IT-PER-FT2-HR-DEG_F unit:BTU_IT-PER-FT2-SEC-DEG_F a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Square Foot Second Degree Fahrenheit} is an Imperial unit for 'Coefficient Of Heat Transfer' expressed as \\(Btu/(ft^{2}-s-degF)\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Square \\, Foot \\, Second \\, Degree \\, Fahrenheit}\\) is an Imperial unit for 'Coefficient Of Heat Transfer' expressed as \\(Btu/(ft^{2}-s-degF)\\)."^^qudt:LatexString ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; qudt:expression "\\(Btu/(ft^{2}-s-degF)\\)"^^qudt:LatexString ; @@ -1525,7 +1525,7 @@ unit:BTU_IT-PER-LB-DEG_F unit:BTU_IT-PER-LB-DEG_R a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Pound Degree Rankine} is a unit for 'Specific Heat Capacity' expressed as \\(Btu/(lb-degR)\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Pound \\, Degree \\, Rankine}\\) is a unit for 'Specific Heat Capacity' expressed as \\(Btu/(lb-degR)\\)."^^qudt:LatexString ; qudt:definedUnitOfSystem sou:USCS ; qudt:expression "\\(Btu/(lb-degR)\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T-2D0 ; @@ -1538,7 +1538,7 @@ unit:BTU_IT-PER-LB-DEG_R unit:BTU_IT-PER-LB-MOL a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Pound Mole} is an Imperial unit for \\textit{'Energy And Work Per Mass Amount Of Substance'} expressed as \\(Btu/(lb-mol)\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Pound \\,Mole}\\) is an Imperial unit for 'Energy And Work Per Mass Amount Of Substance' expressed as \\(Btu/(lb-mol)\\)."^^qudt:LatexString ; qudt:expression "\\(Btu/(lb-mol)\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; qudt:hasQuantityKind quantitykind:EnergyPerMassAmountOfSubstance ; @@ -1603,7 +1603,7 @@ unit:BTU_IT-PER-MIN unit:BTU_IT-PER-MOL-DEG_F a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Pound Mole Degree Fahrenheit} is an Imperial unit for \\textit{'Molar Heat Capacity'} expressed as \\(Btu/(lb-mol-degF)\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Pound \\, Mole \\, Degree \\, Fahrenheit}\\) is an Imperial unit for 'Molar Heat Capacity' expressed as \\(Btu/(lb-mol-degF)\\)."^^qudt:LatexString ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:expression "\\(Btu/(lb-mol-degF)\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A-1E0L2I0M1H-1T-2D0 ; @@ -1617,7 +1617,7 @@ unit:BTU_IT-PER-MOL-DEG_F unit:BTU_IT-PER-SEC a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{BTU per Second} is an Imperial unit for 'Heat Flow Rate' expressed as \\(Btu/s\\)."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU \\, per \\, Second}\\) is an Imperial unit for 'Heat Flow Rate' expressed as \\(Btu/s\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1055.05585262 ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; @@ -1688,7 +1688,7 @@ unit:BTU_MEAN . unit:BTU_TH a qudt:Unit ; - dcterms:description "British Thermal Unit (thermochemical definition} (\\(BTU_{th}\\)) is a traditional unit of energy equal to about \\(1.0543502645 kilojoule\\). It is approximately the amount of energy needed to heat 1 pound (0.454 kg) of water from \\(39 \\,^{\\circ}{\\rm F}\\) (\\(39 \\,^{\\circ}{\\rm C}\\)) to \\(40 \\,^{\\circ}{\\rm F}\\) (\\(4.4 \\,^{\\circ}{\\rm C\"\\)). The unit is most often used in the power, steam generation, heating and air conditioning industries. In scientific contexts the BTU has largely been replaced by the SI unit of energy, the \\(joule\\)."^^qudt:LatexString ; + dcterms:description "(\\{\\bf (BTU_{th}}\\), British Thermal Unit (thermochemical definition), is a traditional unit of energy equal to about \\(1.0543502645 kilojoule\\). It is approximately the amount of energy needed to heat 1 pound (0.454 kg) of water from \\(39 \\,^{\\circ}{\\rm F}\\) (\\(39 \\,^{\\circ}{\\rm C}\\)) to \\(40 \\,^{\\circ}{\\rm F}\\) (\\(4.4 \\,^{\\circ}{\\rm C}\\)). The unit is most often used in the power, steam generation, heating and air conditioning industries. In scientific contexts the BTU has largely been replaced by the SI unit of energy, the \\(joule\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1054.3502645 ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:hasQuantityKind quantitykind:Energy ; @@ -1706,7 +1706,7 @@ unit:BTU_TH unit:BTU_TH-FT-PER-FT2-HR-DEG_F a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(BTU_{TH}\\) Foot per Square Foot Hour Degree Fahrenheit is an Imperial unit for 'Thermal Conductivity' expressed as \\(Btu_{th} \\cdot ft/(hr \\cdot ft^2 \\cdot degF)\\)."^^qudt:LatexString ; + dcterms:description "\\({ \\bf BTU_{TH} \\, Foot \\, per \\, Square \\, Foot \\, Hour \\, Degree \\, Fahrenheit}\\) is an Imperial unit for 'Thermal Conductivity' expressed as \\(Btu_{th} \\cdot ft/(hr \\cdot ft^2 \\cdot degF)\\)."^^qudt:LatexString ; qudt:conversionMultiplier 1.729577206 ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; @@ -1737,7 +1737,7 @@ unit:BTU_TH-FT-PER-HR-FT2-DEG_F unit:BTU_TH-IN-PER-FT2-HR-DEG_F a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{\\(BTU_{th}\\) Inch per Square Foot Hour Degree Fahrenheit is an Imperial unit for 'Thermal Conductivity' expressed as \\(Btu-in/(hr-ft^{2}-degF)\\). A thermochemical British thermal unit inch per second per square foot per degree Fahrenheit is a unit of thermal conductivity in the US Customary Units and British Imperial Units. \\(1 Btu_{th} \\cdot in/(hr \\cdot ft^{2} \\cdot degF)\\) shows that one thermochemical BTU of heat per one hour moves through one square foot of material, which is one foot thick due to a temperature difference of one degree Fahrenheit."^^qudt:LatexString ; + dcterms:description "\\({\\bf BTU_{th}}\\), Inch per Square Foot Hour Degree Fahrenheit, is an Imperial unit for 'Thermal Conductivity' expressed as \\(Btu-in/(hr-ft^{2}-degF)\\). A thermochemical British thermal unit inch per second per square foot per degree Fahrenheit is a unit of thermal conductivity in the US Customary Units and British Imperial Units. \\(1 Btu_{th} \\cdot in/(hr \\cdot ft^{2} \\cdot degF)\\) shows that one thermochemical BTU of heat per one hour moves through one square foot of material, which is one foot thick due to a temperature difference of one degree Fahrenheit."^^qudt:LatexString ; qudt:conversionMultiplier 0.144131434 ; qudt:definedUnitOfSystem sou:IMPERIAL ; qudt:definedUnitOfSystem sou:USCS ; @@ -1805,7 +1805,7 @@ unit:BTU_TH-PER-HR . unit:BTU_TH-PER-LB a qudt:Unit ; - dcterms:description "\\(British Thermal Unit (therm.) Per Pound Mass (Btu (TH)/lbm) is a unit in the category of Thermal heat capacity. It is also known as Btu per pound, Btu/pound, Btu/lb. This unit is commonly used in the UK unit system. British Thermal Unit (therm.) Per Pound Mass (Btu (therm.)/lbm) has a dimension of L2T-2 where L is length, and T is time. It can be converted to the corresponding standard SI unit J/kg by multiplying its value by a factor of 2324.443861.\\)"^^qudt:LatexString ; + dcterms:description "\\({\\bf Btu_{th} / lbm}\\), British Thermal Unit (therm.) Per Pound Mass, is a unit in the category of Thermal heat capacity. It is also known as Btu per pound, Btu/pound, Btu/lb. This unit is commonly used in the UK unit system. British Thermal Unit (therm.) Per Pound Mass (Btu (therm.)/lbm) has a dimension of \\(L^2T^{-2}\\) where \\(L\\) is length, and \\(T\\) is time. It can be converted to the corresponding standard SI unit J/kg by multiplying its value by a factor of 2324.443861."^^qudt:LatexString ; qudt:conversionMultiplier 2324.443861 ; qudt:expression "\\(btu_th-per-lb\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; @@ -2225,7 +2225,7 @@ unit:C-PER-CentiM3 unit:C-PER-KiloGM a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{Coulomb Per Kilogram (C/kg)} is the unit in the category of Exposure. It is also known as coulombs per kilogram, coulomb/kilogram. This unit is commonly used in the SI unit system. Coulomb Per Kilogram (C/kg) has a dimension of \\(M^{-1}TI\\) where \\(M\\) is mass, \\(T\\) is time, and \\(I\\) is electric current. This unit is the standard SI unit in this category."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Coulomb Per Kilogram (C/kg)}\\) is the unit in the category of Exposure. It is also known as coulombs per kilogram, coulomb/kilogram. This unit is commonly used in the SI unit system. Coulomb Per Kilogram (C/kg) has a dimension of \\(M^{-1}TI\\) where \\(M\\) is mass, \\(T\\) is time, and \\(I\\) is electric current. This unit is the standard SI unit in this category."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:definedUnitOfSystem sou:SI ; qudt:derivedCoherentUnitOfSystem sou:SI ; @@ -2426,7 +2426,7 @@ unit:CAL_15_DEG_C . unit:CAL_IT a qudt:Unit ; - dcterms:description "\\( International Table calorie. \\)"^^qudt:LatexString ; + dcterms:description "International Table calorie."^^qudt:LatexString ; qudt:conversionMultiplier 4.1868 ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:hasQuantityKind quantitykind:Energy ; @@ -2437,31 +2437,21 @@ unit:CAL_IT rdfs:isDefinedBy ; rdfs:label "International Table calorie"@en ; . -unit:CAL_IT-PER-G - a qudt:Unit ; - dcterms:description "\\(Calories produced per gram of substance.\\)"^^qudt:LatexString ; - qudt:conversionMultiplier 4186.8 ; - qudt:expression "\\(cal_it-per-g\\)"^^qudt:LatexString ; - qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; - qudt:hasQuantityKind quantitykind:SpecificEnergy ; - qudt:informativeReference "http://physics.nist.gov/Pubs/SP811/appenB9.html"^^xsd:anyURI ; - qudt:informativeReference "http://www.efunda.com/glossary/units/units--thermal_heat_capacity--british_thermal_unit_therm_per_pound_mass.cfm"^^xsd:anyURI ; - qudt:ucumCode "cal_IT.g-1"^^qudt:UCUMcs ; - qudt:ucumCode "cal_IT/g"^^qudt:UCUMcs ; - qudt:unitOfSystem sou:IMPERIAL ; - rdfs:isDefinedBy ; - rdfs:label "calorieIT per gram (calIT/g)"@en ; -. unit:CAL_IT-PER-GM a qudt:Unit ; + dcterms:description "Calories produced per gram of substance." ; qudt:conversionMultiplier 4186.8 ; + qudt:expression "\\(cal_{it}-per-gm\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; qudt:hasQuantityKind quantitykind:SpecificEnergy ; qudt:iec61360Code "0112/2///62720#UAB176" ; + qudt:informativeReference "http://physics.nist.gov/Pubs/SP811/appenB9.html"^^xsd:anyURI ; + qudt:informativeReference "http://www.efunda.com/glossary/units/units--thermal_heat_capacity--british_thermal_unit_therm_per_pound_mass.cfm"^^xsd:anyURI ; qudt:plainTextDescription "unit calorie according to the international steam table divided by the 0.001-fold of the SI base unit kilogram" ; qudt:ucumCode "cal_IT.g-1"^^qudt:UCUMcs ; qudt:ucumCode "cal_IT/g"^^qudt:UCUMcs ; qudt:uneceCommonCode "D75" ; + qudt:unitOfSystem sou:IMPERIAL ; rdfs:isDefinedBy ; rdfs:label "Calorie (international Table) Per Gram"@en ; . @@ -2533,7 +2523,7 @@ unit:CAL_MEAN . unit:CAL_TH a qudt:Unit ; - dcterms:description "The energy needed to increase the temperature of a given mass of water by \\(1 ^\\circ C\\( at atmospheric pressure depends on the starting temperature and is difficult to measure precisely. Accordingly, there have been several definitions of the calorie. The two perhaps most popular definitions used in older literature are the \\(15 ^\\circ C\\) calorie and the thermochemical calorie."^^qudt:LatexString ; + dcterms:description "The energy needed to increase the temperature of a given mass of water by \\(1 ^\\circ C\\) at atmospheric pressure depends on the starting temperature and is difficult to measure precisely. Accordingly, there have been several definitions of the calorie. The two perhaps most popular definitions used in older literature are the \\(15 ^\\circ C\\) calorie and the thermochemical calorie."^^qudt:LatexString ; qudt:conversionMultiplier 4.184 ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; qudt:hasQuantityKind quantitykind:Energy ; @@ -2581,20 +2571,25 @@ unit:CAL_TH-PER-G qudt:ucumCode "cal_th/g"^^qudt:UCUMcs ; qudt:unitOfSystem sou:IMPERIAL ; rdfs:isDefinedBy ; - rdfs:label "calorieTH per gram (calTH/g)"@en ; + rdfs:label "calorie (thermochemical) per gram (calTH/g)"@en ; owl:deprecated true ; skos:changeNote "2020-10-30 - incorrect local-name - G is for Gravity, GM is for gram - the correct named individual was already present, so this one deprecated. " ; . unit:CAL_TH-PER-GM a qudt:Unit ; + dcterms:description "Thermochemical Calorie. Calories produced per gram of substance." ; qudt:conversionMultiplier 4184.0 ; + qudt:expression "\\(cal\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-2D0 ; qudt:hasQuantityKind quantitykind:SpecificEnergy ; qudt:iec61360Code "0112/2///62720#UAB153" ; + qudt:informativeReference "http://physics.nist.gov/Pubs/SP811/appenB9.html"^^xsd:anyURI ; + qudt:informativeReference "http://www.efunda.com/glossary/units/units--thermal_heat_capacity--british_thermal_unit_therm_per_pound_mass.cfm"^^xsd:anyURI ; qudt:plainTextDescription "unit thermochemical calorie divided by the 0.001-fold of the SI base unit kilogram" ; qudt:ucumCode "cal_th.g-1"^^qudt:UCUMcs ; qudt:ucumCode "cal_th/g"^^qudt:UCUMcs ; qudt:uneceCommonCode "B36" ; + qudt:unitOfSystem sou:IMPERIAL ; rdfs:isDefinedBy ; rdfs:label "Calorie (thermochemical) Per Gram"@en ; . @@ -2604,7 +2599,7 @@ unit:CAL_TH-PER-GM-DEG_C qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T-2D0 ; qudt:hasQuantityKind quantitykind:SpecificHeatCapacity ; qudt:iec61360Code "0112/2///62720#UAA366" ; - qudt:plainTextDescription "unit calorieth divided by the product of the unit gram and degree Celsius" ; + qudt:plainTextDescription "unit calorie (thermochemical) divided by the product of the unit gram and degree Celsius" ; qudt:ucumCode "cal_th.g-1.Cel-1"^^qudt:UCUMcs ; qudt:ucumCode "cal_th/(g.Cel)"^^qudt:UCUMcs ; qudt:uneceCommonCode "J79" ; @@ -2617,7 +2612,7 @@ unit:CAL_TH-PER-GM-K qudt:hasDimensionVector qkdv:A0E0L2I0M0H-1T-2D0 ; qudt:hasQuantityKind quantitykind:SpecificHeatCapacity ; qudt:iec61360Code "0112/2///62720#UAA367" ; - qudt:plainTextDescription "unit calorieth divided by the product of the SI derived unit gram and the SI base unit Kelvin" ; + qudt:plainTextDescription "unit calorie (thermochemical) divided by the product of the SI derived unit gram and the SI base unit Kelvin" ; qudt:ucumCode "cal_th.g-1.K-1"^^qudt:UCUMcs ; qudt:ucumCode "cal_th/(g.K)"^^qudt:UCUMcs ; qudt:uneceCommonCode "D37" ; @@ -2792,7 +2787,7 @@ unit:CH . unit:CLO a qudt:Unit ; - dcterms:description "\\(A C.G.S System unit for \\textit{Thermal Insulance} expressed as \"clo\".\\)"^^qudt:LatexString ; + dcterms:description "A C.G.S System unit for \\(\\textit{Thermal Insulance}\\) expressed as \"clo\"."^^qudt:LatexString ; qudt:conversionMultiplier 0.155 ; qudt:hasDimensionVector qkdv:A0E0L0I0M-1H1T3D0 ; qudt:hasQuantityKind quantitykind:ThermalInsulance ; @@ -2916,7 +2911,7 @@ unit:C_Ab-PER-CentiM2 a qudt:Unit ; dcterms:description """Abcoulomb Per Square Centimeter is a unit in the category of Electric charge surface density. It is also known as abcoulombs per square centimeter, abcoulomb per square centimetre, abcoulombs per square centimetre, abcoulomb/square centimeter,abcoulomb/square centimetre. This unit is commonly used in the cgs unit system. Abcoulomb Per Square Centimeter (abcoulomb/cm2) has a dimension of \\(L_2TI\\). where L is length, T is time, and I is electric current. It can be converted to the corresponding standard SI unit \\(C/m^2\\) by multiplying its value by a factor of 100,000."""^^qudt:LatexString ; - qudt:conversionMultiplier 0.001 ; + qudt:conversionMultiplier "100000"^^xsd:decimal ; qudt:derivedUnitOfSystem sou:CGS-EMU ; qudt:expression "\\(abc-per-cm2\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E1L-2I0M0H0T1D0 ; @@ -2931,17 +2926,16 @@ Abcoulomb Per Square Centimeter (abcoulomb/cm2) has a dimension of \\(L_2TI\\). . unit:C_Stat a qudt:Unit ; - dcterms:description """The statcoulomb (\\(statC\\)) or franklin (\\(Fr\\)) or electrostatic unit of charge (\\(esu\\)) is the physical unit for electrical charge used in the centimetre-gram-second system of units (cgs) and Gaussian units. It is a derived unit given by \\(1 statC = 1 g cm s = 1 erg cm\\). The SI system of units uses the coulomb (C) instead. The conversion between C and statC is different in different contexts. -The number 2997924580 is 10 times the value of the speed of light expressed in meters/second, and the conversions are exact except where indicated. The coulomb is an extremely large charge rarely encountered in electrostatics, while the statcoulomb is closer to everyday charges."""^^qudt:LatexString ; + dcterms:description "The statcoulomb (\\(statC\\)) or franklin (\\(Fr\\)) or electrostatic unit of charge (\\(esu\\)) is the physical unit for electrical charge used in the centimetre-gram-second system of units (cgs) and Gaussian units. It is a derived unit given by \\(1\\ statC = 1\\ g\\ cm\\ s = 1\\ erg\\ cm\\). The SI system of units uses the coulomb (C) instead. The conversion between C and statC is different in different contexts. The number 2997924580 is 10 times the value of the speed of light expressed in meters/second, and the conversions are exact except where indicated. The coulomb is an extremely large charge rarely encountered in electrostatics, while the statcoulomb is closer to everyday charges."^^qudt:LatexString ; qudt:conversionMultiplier 0.00000000033356409519815204957557671447492 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Statcoulomb"^^xsd:anyURI ; qudt:derivedUnitOfSystem sou:CGS-ESU ; qudt:hasDimensionVector qkdv:A0E1L0I0M0H0T1D0 ; qudt:hasQuantityKind quantitykind:ElectricCharge ; qudt:informativeReference "http://en.wikipedia.org/wiki/Statcoulomb?oldid=492664360"^^xsd:anyURI ; - qudt:latexDefinition "1 C \\leftrightarrow 2997924580 statC \\approx 3.00 \\times 10 statC,\\1 \\hspace{0.3pc} statC \\leftrightarrow \\hspace{0.3pc} \\approx 3.34 \\times 10 C"^^qudt:LatexString ; - qudt:latexDefinition "1 C \\leftrightarrow 4 \\pi \\times 2997924580 statC \\approx 3.77 \\times 10 statC,\\1 \\hspace{0.3pc} statC \\leftrightarrow \\hspace{0.2pc} \\approx 2.6 \\times 10 C"^^qudt:LatexString ; - qudt:latexDefinition "1 C/m \\leftrightarrow 4 \\pi \\times 2997924580 \\times 10 statC/cm \\approx 3.77 \\times 10 statC/cm,\\1 \\hspace{0.3pc} statC/cm \\leftrightarrow \\hspace{0.3pc} \\approx 2.65 \\times 10 C/m"^^qudt:LatexString ; + qudt:latexDefinition "\\(1 C \\leftrightarrow 2997924580 statC \\approx 3.00 \\times 10^9 statC,\\ 1 \\hspace{0.3pc} statC \\leftrightarrow \\hspace{0.3pc} \\approx 3.34 \\times 10^{-10} C\\) for electric charge."^^qudt:LatexString ; + qudt:latexDefinition "\\(1 C \\leftrightarrow 4 \\pi \\times 2997924580 statC \\approx 3.77 \\times 10^{10} statC,\\ 1 \\hspace{0.3pc} statC \\leftrightarrow \\hspace{0.2pc} \\approx 2.6 \\times 10^{-11} C\\) for electric flux \\(\\Phi_D\\)"^^qudt:LatexString ; + qudt:latexDefinition "\\(1 C/m \\leftrightarrow 4 \\pi \\times 2997924580 \\times 10^{-4} statC/cm \\approx 3.77 \\times 10^6 statC/cm,\\ 1 \\hspace{0.3pc} statC/cm \\leftrightarrow \\hspace{0.3pc} \\approx 2.65 \\times 10^{-7} C/m\\) for electric displacement field \\(D\\)."^^qudt:LatexString ; qudt:omUnit ; qudt:symbol "statC" ; qudt:unitOfSystem sou:CGS ; @@ -2951,7 +2945,7 @@ The number 2997924580 is 10 times the value of the speed of light expressed in m . unit:C_Stat-PER-CentiM2 a qudt:Unit ; - dcterms:description "\\(\\textbf{Statcoulomb per Square Centimeter} is a unit of measure for electric flux density and electric polarization. One Statcoulomb per Square Centimeter is \\(2.15\\times 10^9 \\, coulomb\\,per\\,square\\,inch\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Statcoulomb per Square Centimeter}\\) is a unit of measure for electric flux density and electric polarization. One Statcoulomb per Square Centimeter is \\(2.15\\times 10^9 \\, coulomb\\,per\\,square\\,inch\\)."^^qudt:LatexString ; qudt:conversionMultiplier 0.00000333564 ; qudt:derivedUnitOfSystem sou:CGS-ESU ; qudt:expression "\\(statc-per-cm2\\)"^^qudt:LatexString ; @@ -3167,7 +3161,7 @@ unit:CentiM-PER-SEC2 unit:CentiM-SEC-DEG_C a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{Centimeter Second Degree Celsius} is a C.G.S System unit for 'Length Temperature Time' expressed as \\(cm-s-degC\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Centimeter Second Degree Celsius}\\) is a C.G.S System unit for 'Length Temperature Time' expressed as \\(cm-s-degC\\)."^^qudt:LatexString ; qudt:expression "\\(cm-s-degC\\)"^^qudt:LatexString ; qudt:hasQuantityKind quantitykind:LengthTemperatureTime ; qudt:ucumCode "cm.s.Cel-1"^^qudt:UCUMcs ; @@ -3375,7 +3369,7 @@ unit:CentiMOL-PER-KiloGM . unit:CentiM_H2O a qudt:Unit ; - dcterms:description "\\(\\textbf{Centimeter of Water} is a C.G.S System unit for 'Force Per Area' expressed as \\(cmH2O\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Centimeter of Water}\\) is a C.G.S System unit for 'Force Per Area' expressed as \\(cm_{H2O}\\)."^^qudt:LatexString ; qudt:conversionMultiplier 98.0665 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Centimetre_of_water"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; @@ -3421,7 +3415,7 @@ unit:CentiN-M . unit:CentiPOISE a qudt:Unit ; - dcterms:description "\\(\\textbf{Centipoise} is a C.G.S System unit for 'Dynamic Viscosity' expressed as \\(cP\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Centipoise}\\) is a C.G.S System unit for 'Dynamic Viscosity' expressed as \\(cP\\)."^^qudt:LatexString ; qudt:conversionMultiplier 0.01 ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-1D0 ; qudt:hasQuantityKind quantitykind:DynamicViscosity ; @@ -3448,7 +3442,7 @@ unit:CentiPOISE-PER-BAR . unit:CentiST a qudt:Unit ; - dcterms:description "\\(\\textbf{Centistokes} is a C.G.S System unit for 'Kinematic Viscosity' expressed as \\(cSt\\)."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Centistokes}\\) is a C.G.S System unit for 'Kinematic Viscosity' expressed as \\(cSt\\)."^^qudt:LatexString ; qudt:conversionMultiplier 0.01 ; qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T-1D0 ; qudt:hasQuantityKind quantitykind:KinematicViscosity ; @@ -3475,7 +3469,7 @@ unit:ChileanPeso . unit:Ci a qudt:Unit ; - dcterms:description "The curie (symbol Ci) is a non-SI unit of radioactivity, named after Marie and Pierre Curie. It is defined as \\(1Ci = 3.7 \\times 10 decays per second\\). Its continued use is discouraged. One Curie is roughly the activity of 1 gram of the radium isotope Ra, a substance studied by the Curies. The SI derived unit of radioactivity is the becquerel (Bq), which equates to one decay per second. Therefore: \\(1Ci = 3.7 \\times 10 Bq= 37 GBq\\) and \\(1Bq \\equiv 2.703 \\times 10Ci \\)."^^qudt:LatexString ; + dcterms:description "The curie (symbol Ci) is a non-SI unit of radioactivity, named after Marie and Pierre Curie. It is defined as \\(1Ci = 3.7 \\times 10^{10} decays\\ per\\ second\\). Its continued use is discouraged. One Curie is roughly the activity of 1 gram of the radium isotope Ra, a substance studied by the Curies. The SI derived unit of radioactivity is the becquerel (Bq), which equates to one decay per second. Therefore: \\(1Ci = 3.7 \\times 10^{10} Bq= 37 GBq\\) and \\(1Bq \\equiv 2.703 \\times 10^{-11}Ci \\)."^^qudt:LatexString ; qudt:conversionMultiplier 37000000000.0 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Curie"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; @@ -4278,7 +4272,7 @@ unit:DYN dcterms:description "In physics, the dyne is a unit of force specified in the centimetre-gram-second (CGS) system of units. One dyne is equal to In physics, the dyne is a unit of force specified in the centimetre-gram-second (CGS) system of units. One dyne is equal to \\SI{10}{\\micro\\newton}. Equivalently, the dyne is defined as 'the force required to accelerate a mass of one gram at a rate of one centimetre per square second'. The dyne per centimetre is the unit traditionally used to measure surface tension."^^qudt:LatexString ; qudt:conversionMultiplier 0.00001 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Dyne"^^xsd:anyURI ; - qudt:derivedCoherentUnitOfSystem sou:CGS-MECHANICS ; + qudt:derivedCoherentUnitOfSystem sou:CGS ; qudt:derivedUnitOfSystem sou:CGS ; qudt:derivedUnitOfSystem sou:CGS-GAUSS ; qudt:hasDimensionVector qkdv:A0E0L1I0M1H0T-2D0 ; @@ -4803,6 +4797,7 @@ unit:DeciS-PER-M . unit:DeciTONNE a qudt:Unit ; + rdfs:isDefinedBy ; rdfs:label "DeciTonne"@en ; owl:sameAs unit:DeciTON_Metric ; . @@ -4902,7 +4897,7 @@ unit:ERG dcterms:description "An erg is the unit of energy and mechanical work in the centimetre-gram-second (CGS) system of units, symbol 'erg'. Its name is derived from the Greek ergon, meaning 'work'. An erg is the amount of work done by a force of one dyne exerted for a distance of one centimeter. In the CGS base units, it is equal to one gram centimeter-squared per second-squared (\\(g \\cdot cm^2/s^2\\)). It is thus equal to \\(10^{-7}\\) joules or 100 nanojoules in SI units. \\(1 erg = 10^{-7} J = 100 nJ\\), \\(1 erg = 624.15 GeV = 6.2415 \\times 10^{11} eV\\), \\(1 erg = 1 dyne\\cdot cm = 1 g \\cdot cm^2/s^2\\)."^^qudt:LatexString ; qudt:conversionMultiplier 0.0000001 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Erg"^^xsd:anyURI ; - qudt:derivedCoherentUnitOfSystem sou:CGS-MECHANICS ; + qudt:derivedCoherentUnitOfSystem sou:CGS ; qudt:derivedUnitOfSystem sou:CGS ; qudt:derivedUnitOfSystem sou:CGS-GAUSS ; qudt:hasDimensionVector qkdv:A0E0L2I0M1H0T-2D0 ; @@ -5071,6 +5066,17 @@ unit:EV rdfs:isDefinedBy ; rdfs:label "Electron Volt"@en ; . +unit:EV-PER-ANGSTROM + a qudt:Unit ; + qudt:conversionMultiplier 0.000000001602176 ; + qudt:hasQuantityKind quantitykind:TotalLinearStoppingPower ; + qudt:latexSymbol "\\(ev/\\AA\\)"^^qudt:LatexString ; + qudt:plainTextDescription "unit electronvolt divided by the unit angstrom" ; + qudt:ucumCode "eV.Ao-1"^^qudt:UCUMcs ; + qudt:ucumCode "eV/Ao"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; + rdfs:label "Electronvolt Per Angstrom"@en ; +. unit:EV-PER-K a qudt:Unit ; dcterms:description "\\(\\textbf{Electron Volt per Kelvin} is a unit for 'Heat Capacity' expressed as \\(ev/K\\)."^^qudt:LatexString ; @@ -6208,9 +6214,9 @@ unit:G rdfs:isDefinedBy ; rdfs:label "Gravity"@en ; . -unit:GAL +unit:GALILEO a qudt:Unit ; - dcterms:description "The \\(\\textit{Gal}\\), sometimes called \\(galileo\\), is the unit of acceleration of free fall used extensively in the science of gravimetry. The gal is defined as \\(1 \\textit{centimeter per square second}\\) (\\(1 cm/s^2\\)). The \\(milliGal\\) (\\(mGal\\)) and \\(microGal\\) refer respectively to one thousandth and one millionth of a Gal."^^qudt:LatexString ; + dcterms:description "The \\(\\textit{Galileo}\\) is the unit of acceleration of free fall used extensively in the science of gravimetry. The Galileo is defined as \\(1 \\textit{centimeter per square second}\\) (\\(1 cm/s^2\\)). Unfortunately, the Galileo is often denoted with the symbol Gal, not to be confused with the Gallon that also uses the same symbol."^^qudt:LatexString ; qudt:conversionMultiplier 0.01 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Gal"^^xsd:anyURI ; qudt:derivedUnitOfSystem sou:CGS ; @@ -7317,7 +7323,8 @@ unit:H-PER-M qudt:ucumCode "H.m-1"^^qudt:UCUMcs ; qudt:uneceCommonCode "A98" ; rdfs:isDefinedBy ; - rdfs:label "Henry per Metre"@us ; + rdfs:label "Henry per Meter"@en-us ; + rdfs:label "Henry per Metre"@en ; . unit:H-PER-OHM a qudt:Unit ; @@ -8237,7 +8244,6 @@ unit:J-PER-K qudt:hasDimensionVector qkdv:A0E0L2I0M1H-1T-2D0 ; qudt:hasQuantityKind quantitykind:Entropy ; qudt:hasQuantityKind quantitykind:HeatCapacity ; - qudt:hasQuantityKind quantitykind:PlanckFunction ; qudt:iec61360Code "0112/2///62720#UAA173" ; qudt:ucumCode "J.K-1"^^qudt:UCUMcs ; qudt:uneceCommonCode "JE" ; @@ -8881,7 +8887,7 @@ unit:KiloA-PER-M qudt:conversionMultiplier 1000.0 ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:LinearElectricCurrentDensity ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAA558" ; qudt:plainTextDescription "1 000-fold of the SI base unit ampere divided by the SI base unit metre" ; qudt:ucumCode "kA.m-1"^^qudt:UCUMcs ; @@ -9576,6 +9582,20 @@ unit:KiloGM-PER-M-SEC rdfs:isDefinedBy ; rdfs:label "Kilograms per metre per second"@en ; . +unit:KiloGM-PER-M-SEC2 + a qudt:DerivedUnit ; + a qudt:Unit ; + dcterms:description "The SI unit of pressure. The pascal is the standard pressure unit in the MKS metric system, equal to one newton per square meter or one \"kilogram per meter per second per second.\" The unit is named for Blaise Pascal (1623-1662), French philosopher and mathematician, who was the first person to use a barometer to measure differences in altitude."^^rdf:HTML ; + qudt:conversionMultiplier 1.0 ; + qudt:dbpediaMatch "http://dbpedia.org/resource/Pascal"^^xsd:anyURI ; + qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-2D0 ; + qudt:hasQuantityKind quantitykind:ForcePerArea ; + qudt:siUnitsExpression "kg/m/s^2" ; + qudt:ucumCode "kg.m-1.s-2"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; + rdfs:label "Kilograms per metre per square second"@en ; + owl:sameAs unit:PA ; +. unit:KiloGM-PER-M2 a qudt:DerivedUnit ; a qudt:Unit ; @@ -10243,6 +10263,7 @@ unit:KiloPA-PER-BAR qudt:plainTextDescription "1 000-fold of the SI derived unit pascal divided by the unit bar" ; qudt:ucumCode "kPa.bar-1"^^qudt:UCUMcs ; qudt:uneceCommonCode "F03" ; + rdfs:isDefinedBy ; rdfs:label "Kilopascal Per Bar"@en ; . unit:KiloPA-PER-K @@ -10351,6 +10372,7 @@ unit:KiloSEC . unit:KiloTONNE a qudt:Unit ; + rdfs:isDefinedBy ; rdfs:label "KiloTonne"@en ; owl:sameAs unit:KiloTON_Metric ; . @@ -10693,7 +10715,7 @@ unit:LA dcterms:description "The lambert (symbol \\(L\\), \\(la\\) or \\(Lb\\)) is a non-SI unit of luminance. A related unit of luminance, the foot-lambert, is used in the lighting, cinema and flight simulation industries. The SI unit is the candela per square metre (\\(cd/m^2\\))."^^qudt:LatexString ; qudt:conversionMultiplier 3183.09886 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Lambert"^^xsd:anyURI ; - qudt:derivedCoherentUnitOfSystem sou:CGS-MECHANICS ; + qudt:derivedCoherentUnitOfSystem sou:CGS ; qudt:hasDimensionVector qkdv:A0E0L-2I1M0H0T0D0 ; qudt:hasQuantityKind quantitykind:Luminance ; qudt:iec61360Code "0112/2///62720#UAB259" ; @@ -10809,7 +10831,6 @@ unit:LB-PER-DAY a qudt:Unit ; qudt:conversionMultiplier 0.000005249912 ; qudt:hasDimensionVector qkdv:A0E0L0I0M1H0T-1D0 ; - qudt:hasQuantityKind quantitykind:MagneticField ; qudt:hasQuantityKind quantitykind:MassFlowRate ; qudt:iec61360Code "0112/2///62720#UAA673" ; qudt:plainTextDescription "unit of the mass avoirdupois pound according to the avoirdupois system of units divided by the unit for time day" ; @@ -13991,6 +14012,7 @@ unit:MicroMOL-PER-KiloGM qudt:hasDimensionVector qkdv:A1E0L0I0M-1H0T0D0 ; qudt:hasQuantityKind quantitykind:AmountOfSubstancePerUnitMass ; qudt:ucumCode "umol.kg-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/kg"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per kilogram"@en ; . @@ -14001,6 +14023,7 @@ unit:MicroMOL-PER-L qudt:hasDimensionVector qkdv:A1E0L-3I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:AmountOfSubstancePerUnitVolume ; qudt:ucumCode "umol.L-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/L"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per litre"@en ; . @@ -14010,15 +14033,27 @@ unit:MicroMOL-PER-L-HR qudt:conversionMultiplier 0.000000277777777777778 ; qudt:hasDimensionVector qkdv:A1E0L-3I0M0H0T-1D0 ; qudt:ucumCode "umol.L-1.h-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/L/h"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per litre per hour"@en ; . +unit:MicroMOL-PER-M2 + a qudt:Unit ; + dcterms:description "One part per 10**6 (million) of the SI unit of quantity of matter (the mole) per SI unit area."@en ; + qudt:conversionMultiplier 0.000001 ; + qudt:hasDimensionVector qkdv:A1E0L-2I0M0H0T0D0 ; + qudt:ucumCode "umol.m-2"^^qudt:UCUMcs ; + qudt:ucumCode "umol/m2"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; + rdfs:label "Micromoles per square metre"@en ; +. unit:MicroMOL-PER-M2-DAY a qudt:Unit ; dcterms:description "Unavailable"@en ; qudt:conversionMultiplier 0.0000000000115740740740741 ; qudt:hasDimensionVector qkdv:A1E0L-2I0M0H0T-1D0 ; qudt:ucumCode "umol.m-2.d-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/m2/d"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per square metre per day"@en ; . @@ -14028,6 +14063,7 @@ unit:MicroMOL-PER-M2-HR qudt:conversionMultiplier 0.000000000277777777777778 ; qudt:hasDimensionVector qkdv:A1E0L-2I0M0H0T-1D0 ; qudt:ucumCode "umol.m-2.h-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/m2/h"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per square metre per hour"@en ; . @@ -14037,6 +14073,7 @@ unit:MicroMOL-PER-M2-SEC qudt:conversionMultiplier 0.000001 ; qudt:hasDimensionVector qkdv:A1E0L-2I0M0H0T-1D0 ; qudt:ucumCode "umol.m-2.s-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/m2/s"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per square metre per second"@en ; . @@ -14048,6 +14085,7 @@ unit:MicroMOL-PER-MOL qudt:qkdvDenominator qkdv:A1E0L0I0M0H0T0D0 ; qudt:qkdvNumerator qkdv:A1E0L0I0M0H0T0D0 ; qudt:ucumCode "umol.mol-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/mol"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromoles per mole"@en ; . @@ -14057,6 +14095,7 @@ unit:MicroMOL-PER-MicroMOL-DAY qudt:conversionMultiplier 0.0000115740740740741 ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T-1D0 ; qudt:ucumCode "umol.umol-1.d-1"^^qudt:UCUMcs ; + qudt:ucumCode "umol/umol/d"^^qudt:UCUMcs ; rdfs:isDefinedBy ; rdfs:label "Micromole per micromole of biomass per day"@en ; . @@ -14344,7 +14383,7 @@ unit:MilliA-PER-IN qudt:conversionMultiplier 0.03937008 ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:LinearElectricCurrentDensity ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAA778" ; qudt:plainTextDescription "0.001-fold of the SI base unit ampere divided by the unit inch according to the Anglo-American and the Imperial system of units" ; qudt:ucumCode "mA.[in_i]-1"^^qudt:UCUMcs ; @@ -14357,7 +14396,7 @@ unit:MilliA-PER-MilliM qudt:conversionMultiplier 1.0 ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; qudt:hasQuantityKind quantitykind:LinearElectricCurrentDensity ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAA781" ; qudt:plainTextDescription "0.001-fold of the SI base unit ampere divided by the 0.001-fold of the SI base unit metre" ; qudt:ucumCode "mA.mm-1"^^qudt:UCUMcs ; @@ -14663,7 +14702,7 @@ unit:MilliGM-PER-DeciL qudt:conversionMultiplier 0.01 ; qudt:expression "\\(mg/L\\)"^^qudt:LatexString ; qudt:hasDimensionVector qkdv:A0E0L-3I0M1H0T0D0 ; - qudt:hasQuantityKind quantitykind:BloodGlucoseLevel ; + qudt:hasQuantityKind quantitykind:BloodGlucoseLevel_Mass ; qudt:hasQuantityKind quantitykind:Density ; qudt:ucumCode "mg.dL-1"^^qudt:UCUMcs ; rdfs:isDefinedBy ; @@ -15317,6 +15356,16 @@ unit:MilliMOL-PER-M2-DAY rdfs:isDefinedBy ; rdfs:label "Millimoles per square metre per day"@en ; . +unit:MilliMOL-PER-M2-SEC + a qudt:Unit ; + dcterms:description "This term is based on the number of photons in a certain waveband incident per unit time (s) on a unit area (m2) divided by the Avogadro constant (6.022 x 1023 mol-1). It is used commonly to describe PAR in the 400-700 nm waveband. Definition Source: Thimijan, Richard W., and Royal D. Heins. 1982. Photometric, Radiometric, and Quantum Light Units of Measure: A Review of Procedures for Interconversion. HortScience 18:818-822."@en ; + qudt:conversionMultiplier 0.001 ; + qudt:hasDimensionVector qkdv:A1E0L-2I0M0H0T-1D0 ; + qudt:ucumCode "mmol.m-2.s-1"^^qudt:UCUMcs ; + qudt:ucumCode "mmol/m2/s1"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; + rdfs:label "Millimoles per square metre per second"@en ; +. unit:MilliMOL-PER-M3 a qudt:Unit ; dcterms:description "Unavailable."@en ; @@ -15557,7 +15606,7 @@ unit:MilliS-PER-M a qudt:Unit ; dcterms:description "Unavailable"@en ; qudt:conversionMultiplier 0.001 ; - qudt:hasDimensionVector qkdv:A0E2L-4I0M-1H0T3D0 ; + qudt:hasDimensionVector qkdv:A0E2L-3I0M-1H0T3D0 ; qudt:hasQuantityKind quantitykind:Conductivity ; qudt:ucumCode "mS.m-1"^^qudt:UCUMcs ; rdfs:isDefinedBy ; @@ -16516,6 +16565,19 @@ unit:NanoM rdfs:label "Nanometer"@en-us ; rdfs:label "Nanometre"@en ; . +unit:NanoM2 + a qudt:Unit ; + qudt:conversionMultiplier 0.000000000000000001 ; + qudt:expression "\\(sqnm\\)"^^qudt:LatexString ; + qudt:hasDimensionVector qkdv:A0E0L2I0M0H0T0D0 ; + qudt:hasQuantityKind quantitykind:Area ; + qudt:hasQuantityKind quantitykind:NuclearQuadrupoleMoment ; + qudt:plainTextDescription "A unit of area equal to that of a square, of sides 1nm" ; + qudt:ucumCode "nm2"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; + rdfs:label "Square Nanometer"@en-us ; + rdfs:label "Square Nanometre"@en ; +. unit:NanoMOL-PER-CentiM3-HR a qudt:Unit ; dcterms:description "Unavailable"@en ; @@ -16811,7 +16873,7 @@ unit:OERSTED qudt:conversionMultiplier 79.5774715 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Oersted"^^xsd:anyURI ; qudt:hasDimensionVector qkdv:A0E1L-1I0M0H0T0D0 ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; + qudt:hasQuantityKind quantitykind:MagneticFieldStrength_H ; qudt:iec61360Code "0112/2///62720#UAB134" ; qudt:informativeReference "http://en.wikipedia.org/wiki/Oersted?oldid=491396460"^^xsd:anyURI ; qudt:omUnit ; @@ -18272,7 +18334,6 @@ unit:PERMEABILITY_REL qudt:dbpediaMatch "http://dbpedia.org/resource/Relative_permeability"^^xsd:anyURI ; qudt:derivedUnitOfSystem sou:CGS-EMU ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; - qudt:hasQuantityKind quantitykind:ElectromagneticPermeability ; qudt:hasQuantityKind quantitykind:PermeabilityRatio ; qudt:informativeReference "http://en.wikipedia.org/wiki/Relative_permeability"^^xsd:anyURI ; rdfs:isDefinedBy ; @@ -18575,7 +18636,7 @@ unit:POISE dcterms:description "The poise is the unit of dynamic viscosity in the centimetre gram second system of units. It is named after Jean Louis Marie Poiseuille."^^rdf:HTML ; qudt:conversionMultiplier 0.1 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Poise"^^xsd:anyURI ; - qudt:derivedCoherentUnitOfSystem sou:CGS-MECHANICS ; + qudt:derivedCoherentUnitOfSystem sou:CGS ; qudt:derivedUnitOfSystem sou:CGS ; qudt:derivedUnitOfSystem sou:CGS-GAUSS ; qudt:hasDimensionVector qkdv:A0E0L-1I0M1H0T-1D0 ; @@ -18751,6 +18812,7 @@ unit:PSU dcterms:description "Practical salinity scale 1978 (PSS-78) is used for ionic content of seawater determined by electrical conductivity. Salinities measured using PSS-78 do not have units, but are approximately scaled to parts-per-thousand for the valid range. The suffix psu or PSU (denoting practical salinity unit) is sometimes added to PSS-78 measurement values. The addition of PSU as a unit after the value is \"formally incorrect and strongly discouraged\"." ; dcterms:source ; qudt:hasDimensionVector qkdv:A0E0L0I0M0H0T0D1 ; + rdfs:isDefinedBy ; rdfs:label "Practical salinity unit" ; rdfs:seeAlso unit:PPTH ; rdfs:seeAlso ; @@ -18910,7 +18972,7 @@ unit:Phot dcterms:description "A phot (ph) is a photometric unit of illuminance, or luminous flux through an area. It is not an SI unit, but rather is associated with the older centimetre gram second system of units. Metric dimensions: \\(illuminance = luminous intensity \\times solid angle / length\\)."^^qudt:LatexString ; qudt:conversionMultiplier 10000.0 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Phot"^^xsd:anyURI ; - qudt:derivedCoherentUnitOfSystem sou:CGS-MECHANICS ; + qudt:derivedCoherentUnitOfSystem sou:CGS ; qudt:hasDimensionVector qkdv:A0E0L-2I1M0H0T0D0 ; qudt:hasQuantityKind quantitykind:LuminousFluxPerArea ; qudt:iec61360Code "0112/2///62720#UAB255" ; @@ -20919,6 +20981,7 @@ unit:TONNE-PER-HA qudt:plainTextDescription "A measure of density equivalent to 1000kg per hectare or one Megagram per hectare, typically used to express a volume of biomass or crop yield." ; qudt:symbol "t/ha" ; qudt:ucumCode "t.har-1"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; rdfs:label "tonne per hectare"@en ; owl:sameAs unit:TON_Metric-PER-HA ; . @@ -21073,6 +21136,7 @@ unit:TON_Metric-PER-HA qudt:plainTextDescription "A measure of density equivalent to 1000kg per hectare or one Megagram per hectare, typically used to express a volume of biomass or crop yield." ; qudt:symbol "t/ha" ; qudt:ucumCode "t.har-1"^^qudt:UCUMcs ; + rdfs:isDefinedBy ; rdfs:label "metric tonne per hectare"@en ; owl:sameAs unit:TONNE-PER-HA ; . @@ -21307,7 +21371,6 @@ unit:T_Ab qudt:derivedUnitOfSystem sou:CGS-EMU ; qudt:hasDimensionVector qkdv:A0E-1L0I0M1H0T-2D0 ; qudt:hasQuantityKind quantitykind:MagneticField ; - qudt:hasQuantityKind quantitykind:MagneticFieldStrength ; qudt:hasQuantityKind quantitykind:MagneticFluxDensity ; qudt:informativeReference "http://www.diracdelta.co.uk/science/source/g/a/gauss/source.html"^^xsd:anyURI ; qudt:symbol "abT" ; @@ -22078,7 +22141,7 @@ unit:VietnameseDong unit:W a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(The SI unit of power. Power is the rate at which work is done, or (equivalently) the rate at which energy is expended. One watt is equal to a power rate of one joule of work per second of time. This unit is used both in mechanics and in electricity, so it links the mechanical and electrical units to one another. In mechanical terms, one watt equals about 0.001 341 02 horsepower (hp) or 0.737 562 foot-pound per second (lbf/s). In electrical terms, one watt is the power produced by a current of one ampere flowing through an electric potential of one volt. The name of the unit honors James Watt (1736-1819), the British engineer whose improvements to the steam engine are often credited with igniting the Industrial Revolution.\\)"^^qudt:LatexString ; + dcterms:description "The SI unit of power. Power is the rate at which work is done, or (equivalently) the rate at which energy is expended. One watt is equal to a power rate of one joule of work per second of time. This unit is used both in mechanics and in electricity, so it links the mechanical and electrical units to one another. In mechanical terms, one watt equals about 0.001 341 02 horsepower (hp) or 0.737 562 foot-pound per second (lbf/s). In electrical terms, one watt is the power produced by a current of one ampere flowing through an electric potential of one volt. The name of the unit honors James Watt (1736-1819), the British engineer whose improvements to the steam engine are often credited with igniting the Industrial Revolution." ; qudt:allowedUnitOfSystem sou:PLANCK ; qudt:conversionMultiplier 1.0 ; qudt:dbpediaMatch "http://dbpedia.org/resource/Watt"^^xsd:anyURI ; @@ -22343,7 +22406,7 @@ unit:W-PER-M2-PA unit:W-PER-M2-SR a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{Watt per steradian per square metrer } is the SI unit of radiance (\\(W·sr^{-1}·m^{-2}\\)), while that of spectral radiance in frequency is the watt per steradian per square metre per hertz (\\(W·sr^{-1}·m^{-2}·Hz^{-1}\\)) and that of spectral radiance in wavelength is the watt per steradian per square metre, per metre (\\(W·sr^{-1}·m^{-3}\\)), commonly the watt per steradian per square metre per nanometre (\\(W·sr^{-1}·m^{-2}·nm^{-1}\\)). It has a dimension of \\(ML^{-4}T^{-3}\\) where \\(M\\) is mass, \\(L\\) is length, and \\(T\\) is time. This unit is the standard SI unit in this category."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Watt per steradian per square metre}\\) is the SI unit of radiance (\\(W·sr^{-1}·m^{-2}\\)), while that of spectral radiance in frequency is the watt per steradian per square metre per hertz (\\(W·sr^{-1}·m^{-2}·Hz^{-1}\\)) and that of spectral radiance in wavelength is the watt per steradian per square metre, per metre (\\(W·sr^{-1}·m^{-3}\\)), commonly the watt per steradian per square metre per nanometre (\\(W·sr^{-1}·m^{-2}·nm^{-1}\\)). It has a dimension of \\(ML^{-4}T^{-3}\\) where \\(M\\) is mass, \\(L\\) is length, and \\(T\\) is time. This unit is the standard SI unit in this category."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:definedUnitOfSystem sou:SI ; qudt:derivedCoherentUnitOfSystem sou:SI ; @@ -22375,7 +22438,7 @@ unit:W-PER-M3 unit:W-PER-SR a qudt:DerivedUnit ; a qudt:Unit ; - dcterms:description "\\(\\textbf{Watt Per Steradian (W/sr)} is the unit in the category of Radiant intensity. It is also known as watts per steradian. This unit is commonly used in the SI unit system. Watt Per Steradian (W/sr) has a dimension of \\(M\\cdot L^{-2}\\cdot T^{-3}\\) where \\(M\\) is mass, \\(L\\) is length, and \\(T\\) is time. This unit is the standard SI unit in this category."^^qudt:LatexString ; + dcterms:description "\\(\\textbf{Watt Per Steradian (W/sr)}\\) is the unit in the category of Radiant intensity. It is also known as watts per steradian. This unit is commonly used in the SI unit system. Watt Per Steradian (W/sr) has a dimension of \\(M\\cdot L^{-2}\\cdot T^{-3}\\) where \\(M\\) is mass, \\(L\\) is length, and \\(T\\) is time. This unit is the standard SI unit in this category."^^qudt:LatexString ; qudt:conversionMultiplier 1.0 ; qudt:definedUnitOfSystem sou:SI ; qudt:derivedCoherentUnitOfSystem sou:SI ; @@ -22630,7 +22693,7 @@ unit:YD3-PER-DEG_F unit:YD3-PER-HR a qudt:Unit ; qudt:conversionMultiplier 0.00021237634944 ; - qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; + qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T-1D0 ; qudt:hasQuantityKind quantitykind:VolumeFlowRate ; qudt:iec61360Code "0112/2///62720#UAB038" ; qudt:plainTextDescription "power of the unit yard according to the Anglo-American and the Imperial system of units with the exponent 3 divided by the unit for the time hour" ; @@ -22663,7 +22726,7 @@ unit:YD3-PER-MIN unit:YD3-PER-SEC a qudt:Unit ; qudt:conversionMultiplier 0.764554857984 ; - qudt:hasDimensionVector qkdv:A0E0L1I0M0H0T-1D0 ; + qudt:hasDimensionVector qkdv:A0E0L3I0M0H0T-1D0 ; qudt:hasQuantityKind quantitykind:VolumeFlowRate ; qudt:iec61360Code "0112/2///62720#UAB041" ; qudt:plainTextDescription "power of the unit and the Anglo-American and Imperial system of units with the exponent 3 divided by the SI base unit second" ; @@ -22890,7 +22953,7 @@ vaem:GMD_QUDT-UNITS-ALL dcterms:contributor "Steve Ray" ; dcterms:created "2019-07-30"^^xsd:date ; dcterms:creator "Steve Ray" ; - dcterms:modified "2021-02-25T11:56:36.688-08:00"^^xsd:dateTime ; + dcterms:modified "2021-07-20T15:47:38.670-07:00"^^xsd:dateTime ; dcterms:rights """ This product includes all or a portion of the UCUM table, UCUM codes, and UCUM definitions or is derived from it, subject to a license from Regenstrief Institute, Inc. and The UCUM Organization. Your use of the UCUM table, UCUM codes, UCUM definitions also is subject to this license, a copy of which is available at ​http://unitsofmeasure.org. The current complete UCUM table, UCUM Specification are available for download at ​http://unitsofmeasure.org. The UCUM table and UCUM codes are copyright © 1995-2009, Regenstrief Institute, Inc. and the Unified Codes for Units of Measures (UCUM) Organization. All rights reserved. @@ -22898,21 +22961,21 @@ THE UCUM TABLE (IN ALL FORMATS), UCUM DEFINITIONS, AND SPECIFICATION ARE PROVIDE """ ; dcterms:rights "The QUDT Ontologies are issued under a Creative Commons Attribution 4.0 International License (CC BY 4.0), available at https://creativecommons.org/licenses/by/4.0/. Attribution should be made to QUDT.org" ; dcterms:subject "Units-All" ; - dcterms:title "ALL UNITS Version 2.1.9 Graph Metadata" ; + dcterms:title "ALL UNITS Version 2.1.12 Graph Metadata" ; vaem:description "Standard units of measure for all units." ; vaem:graphName "qudt" ; - vaem:graphTitle "All Units Ontology Version 2.1.9" ; + vaem:graphTitle "All Units Ontology Version 2.1.12" ; vaem:hasGraphRole vaem:VocabularyGraph ; vaem:hasOwner ; vaem:hasSteward ; vaem:intent "To provide a vocabulary of all units." ; vaem:isMetadataFor ; - vaem:latestPublishedVersion "http://www.qudt.org/doc/2021/02/DOC_VOCAB-UNITS-ALL-v2.1.html"^^xsd:anyURI ; + vaem:latestPublishedVersion "http://www.qudt.org/doc/2021/07/DOC_VOCAB-UNITS-ALL-v2.1.html"^^xsd:anyURI ; vaem:logo "http://www.linkedmodel.org/lib/lm/images/logos/qudt_logo-300x110.png"^^xsd:anyURI ; vaem:namespace "http://qudt.org/vocab/unit/" ; vaem:namespacePrefix "unit" ; vaem:owner "QUDT.org" ; - vaem:previousPublishedVersion "http://www.qudt.org/doc/2021/01/DOC_VOCAB-UNITS-ALL-v2.1.html"^^xsd:anyURI ; + vaem:previousPublishedVersion "http://www.qudt.org/doc/2021/06/DOC_VOCAB-UNITS-ALL-v2.1.html"^^xsd:anyURI ; vaem:revision "2.1" ; vaem:turtleFileURL "http://qudt.org/2.1/vocab/unit"^^xsd:anyURI ; vaem:usesNonImportedResource dcterms:abstract ; @@ -22921,5 +22984,5 @@ THE UCUM TABLE (IN ALL FORMATS), UCUM DEFINITIONS, AND SPECIFICATION ARE PROVIDE vaem:usesNonImportedResource dcterms:modified ; vaem:usesNonImportedResource dcterms:title ; rdfs:isDefinedBy ; - rdfs:label "All Units Ontology Version 2.1.9" ; + rdfs:label "All Units Ontology Version 2.1.12" ; . diff --git a/tests/test_definitions.py b/tests/test_definitions.py index c91a5596..a433b719 100644 --- a/tests/test_definitions.py +++ b/tests/test_definitions.py @@ -4,6 +4,7 @@ import rdflib import brickschema from warnings import warn +from collections import Counter from rdflib import RDF, RDFS, Namespace, BNode sys.path.append("..") @@ -109,3 +110,10 @@ def test_valid_definition_encoding(): or isinstance(seealso, rdflib.URIRef) or isinstance(seealso, rdflib.Literal) ), ("SeeAlso %s should be a URI or Literal or None" % seealso) + + +def test_rdfs_labels(): + labels = g.subjects(predicate=RDFS.label) + c = Counter(labels) + for entity, count in c.items(): + assert count == 1, f"Entity {entity} has {count} labels, which is more than 1" diff --git a/tests/test_hierarchy_inference.py b/tests/test_hierarchy_inference.py index 2d4b32c8..d73a5f70 100644 --- a/tests/test_hierarchy_inference.py +++ b/tests/test_hierarchy_inference.py @@ -28,11 +28,6 @@ entity_postfix = "_0" -q_prefix = f""" -prefix brick: -prefix owl: -""" - def test_hierarchyinference(): # Load the schema @@ -40,15 +35,12 @@ def test_hierarchyinference(): g.load_file("Brick.ttl") # Get all the Classes with their restrictions. - qstr = ( - q_prefix - + """ + qstr = """ select ?class ?tag where { ?class rdfs:subClassOf+ brick:Class. ?class brick:hasAssociatedTag ?tag } """ - ) start_time = time.time() for row in tqdm(g.query(qstr)): klass = row[0] @@ -62,20 +54,17 @@ def test_hierarchyinference(): # Infer classes of the entities. # Apply reasoner g.serialize("test.ttl", format="ttl") - g.rebuild_tag_lookup() + g.load_file("extensions/brick_extension_shacl_tag_inference.ttl") g.expand(profile="brick") g.serialize(inference_file, format="turtle") # Store the inferred graph. # Find all instances and their parents from the inferred graph. - qstr = ( - q_prefix - + """ + qstr = """ select ?instance ?class where { ?instance a ?class. ?class rdfs:subClassOf* brick:Class. } """ - ) inferred_klasses = defaultdict(set) for row in tqdm(g.query(qstr)): entity = row[0] @@ -86,8 +75,7 @@ def test_hierarchyinference(): # get equivalent classes equivalent_classes = defaultdict(set) res = g.query( - q_prefix - + """\nSELECT ?c1 ?c2 WHERE { + """SELECT ?c1 ?c2 WHERE { ?c1 owl:equivalentClass ?c2 }""" ) @@ -108,16 +96,12 @@ def test_hierarchyinference(): ) # This is based on how the entity name is defined above. # Find the original classes through the hierarchy from the original graph. - qstr = ( - q_prefix - + """ + qstr = """ select ?parent where {{ <{0}> rdfs:subClassOf* ?parent. ?parent rdfs:subClassOf* brick:Class. - }} - """.format( - true_class - ) + }}""".format( + true_class ) res = g.query(qstr) true_parents = [row[0] for row in res] diff --git a/tests/test_inference.py b/tests/test_inference.py index 283522d2..d89f1c06 100644 --- a/tests/test_inference.py +++ b/tests/test_inference.py @@ -65,7 +65,7 @@ def test_tag_inference(): # Apply reasoner - g.load_extension("shacl_tag_inference") + g.load_file("extensions/brick_extension_shacl_tag_inference.ttl") g.expand(profile="owlrl+shacl+owlrl") g.bind("rdf", RDF) diff --git a/tools/compare_versions/compare_versions.py b/tools/compare_versions/compare_versions.py index b864ea92..fec9e4ab 100644 --- a/tools/compare_versions/compare_versions.py +++ b/tools/compare_versions/compare_versions.py @@ -17,7 +17,7 @@ def get_root(version): root_template = "https://brickschema.org/schema/{0}/Brick#Class" else: root_template = "https://brickschema.org/schema/{0}/BrickFrame#TagSet" - return root_template.format(get_short_version(version)) + return root_template.format(version) def get_short_version(version): @@ -55,8 +55,8 @@ def get_short_version(version): new_ttl = args.newbrick[1] brick_ns_template = "https://brickschema.org/schema/{0}/Brick#" -OLD_BRICK = Namespace(brick_ns_template.format(get_short_version(old_ver))) -NEW_BRICK = Namespace(brick_ns_template.format(get_short_version(new_ver))) +OLD_BRICK = Namespace(brick_ns_template.format(old_ver)) +NEW_BRICK = Namespace(brick_ns_template.format(new_ver)) OLD_ROOT = get_root(old_ver) NEW_ROOT = get_root(new_ver) @@ -83,6 +83,7 @@ def get_tag_sets(root): klass = row[0].split("#")[-1] tag_set = klass.split("_") # Tags inside the class name. tag_sets[klass] = set(tag_set) + print(root, len(tag_sets)) return tag_sets