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Merge pull request #11 from aristoteleo/dev
Create individual pages for people and publications.
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--- | ||
layout: "wrapper" | ||
--- | ||
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||
<div class="bigspacer"></div> | ||
|
||
<div class="row"> | ||
<div class="col-lg-8 paperbox offset-lg-2 paperbox"> | ||
<div class="media d-flex"> | ||
|
||
<img class="pad-right media-object" src="{{ page.image_url }}" style="max-width: 160px; max-height: 200px;"> | ||
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||
<div class="media-body"> | ||
<h3>{{ page.paper_title }}</h3> | ||
{% if page.paper_subtitle %} | ||
<div class="smallhead" style="text-align: right; margin-right: 60px;">{{ page.paper_subtitle }}</div> | ||
{% endif %} | ||
<p></p> | ||
<div class="smallsubhead">{{ page.author_list }}</div> | ||
<div class="bigspacer"></div> | ||
<div class="smallsubhead"> | ||
{{ page.journal }} | ||
({{ page.year }}) | ||
</div> | ||
</div> | ||
</div> | ||
</div> | ||
</div> | ||
|
||
<div class="bigspacer"></div> | ||
|
||
<div class="row"> | ||
<div class="col-lg-2 offset-lg-2"> | ||
<div class="bigspacer"></div> | ||
<div class="glyphbox note"> | ||
<div class="bigspacer"></div> | ||
<div class="smallhead"> | ||
</div> | ||
<div class="pad-left note"> | ||
<i class="far fa-file"></i> | ||
<a class="off" href="{{ site.baseurl }}{{ page.pdf_url }}"> | ||
{{ page.pdf_url | split: '/' | last | split: '.' | first }}.pdf | ||
</a> | ||
</div> | ||
|
||
<div class="bigspacer"></div> | ||
<div class="smallhead"> | ||
DOI | ||
</div> | ||
<div class="pad-left note" style="display: flex; align-items: center;"> | ||
<p></p> | ||
<i class="fas fa-link"></i> | ||
<a class="off" href="https://doi.org/{{ page.doi }}">{{ page.doi }}</a> | ||
</div> | ||
<div class="bigspacer"></div> | ||
|
||
</div> | ||
</div> | ||
<div class="col-lg-5"> | ||
<div class="post"> | ||
<h3 id="abstract">Abstract</h3> | ||
</div> | ||
<div class="justified-paragraph"> | ||
{{ content }} | ||
</div> | ||
</div> | ||
</div> |
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--- | ||
layout: "wrapper" | ||
--- | ||
|
||
<div class="container mt-4"> | ||
<div class="bigspacer"></div> | ||
<div class="row"> | ||
<div class="col-lg-12"> | ||
<div class="media"> | ||
<img class="pull-left pad-right media-object" width="160" src="{{ site.baseurl }}/assets/images/headshots/{% if page.headshot %}{{ page.headshot }}{% else %}placeholder-headshot.png{% endif %}"> | ||
<div class="media-body"> | ||
<h2> | ||
{{ page.name }} | ||
</h2> | ||
<p> | ||
<div class="smallhead"> | ||
{{ page.position }} | ||
</div> | ||
</p> | ||
</div> | ||
</div> | ||
</div> | ||
</div> | ||
<div class="bigspacer"></div> | ||
<div class="row"> | ||
<div class="col-lg-3"> | ||
{% if page.cv_url %} | ||
<div class="smallhead"> | ||
CV | ||
</div> | ||
<div class="pad-left note"> | ||
<div class="smallspacer"></div> | ||
<i class="far fa-file"></i> | ||
<a class="off" href="{{ site.baseurl }}/{{ page.cv_url }}">cv.pdf</a> | ||
</div> | ||
<div class="bigspacer"></div> | ||
{% endif %} | ||
{% if page.GitHub %} | ||
<div class="smallhead"> | ||
GitHub | ||
</div> | ||
<div class="pad-left note"> | ||
<div class="smallspacer"></div> | ||
<i class="fab fa-github"></i> | ||
<a class="off" href="{{ page.GitHub }}">{{ page.name }}</a> | ||
</div> | ||
<div class="bigspacer"></div> | ||
{% endif %} | ||
{% if page.google_scholar %} | ||
<div class="smallhead"> | ||
Google Scholar | ||
</div> | ||
<div class="pad-left note"> | ||
<div class="smallspacer"></div> | ||
<i class="fa fa-book fa-fw"></i> | ||
<a class="off" href="{{ page.google_scholar }}">{{ page.name }}</a> | ||
</div> | ||
<div class="bigspacer"></div> | ||
{% endif %} | ||
{% if page.twitter %} | ||
<div class="smallhead"> | ||
</div> | ||
<div class="pad-left note"> | ||
<div class="smallspacer"></div> | ||
<i class="fab fa-twitter"></i> | ||
<a class="off" href={{ page.twitter }}>{{ page.name }}</a> | ||
</div> | ||
<div class="bigspacer"></div> | ||
{% endif %} | ||
{% if page.email %} | ||
<div class="smallhead"> | ||
</div> | ||
<div class="pad-left note"> | ||
<div class="smallspacer"></div> | ||
<i class="fa fa-inbox fa-fw"></i> | ||
{{ page.email }} | ||
</div> | ||
<div class="bigspacer"></div> | ||
{% endif %} | ||
</div> | ||
<div class="col-lg-8"> | ||
<h3>Bio</h3> | ||
<div class="justified-paragraph"> | ||
{{ page.bio }} | ||
</div> | ||
<div class="bigspacer"></div> | ||
<div class="justified-paragraph"> | ||
{{ content }} | ||
</div> | ||
</div> | ||
</div> | ||
</div> |
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--- | ||
layout: paper | ||
title: "Read our work" | ||
type: previous involved work | ||
paper_title: "HCCNet: an integrated network database of hepatocellular carcinoma" | ||
author_list: Bing He, Xiaojie Qiu, Peng Li, Lishan Wang, Qi Lv, Tieliu Shi+. | ||
journal: Cell Research | ||
doi: 10.1038/cr.2010.67 | ||
year: 2010 | ||
pdf_url: /assets/PDFs/Bing_hccnet_2010.pdf | ||
image_url: /assets/images/papers/Bing_hccnet_2010.png | ||
paper_alt: Bing_hccnet_2010 Paper Image | ||
rank: 10 | ||
--- | ||
|
||
As a complex disease, the development and progression of hepatocellular carcinoma (HCC) involves the interactions of | ||
multiple proteins, genes and miRNAs in various biological pathways, and it has been extensively studied with different | ||
high-throughput techniques. However, efforts to integrate multiple data sources at different levels, especially with | ||
regard to biological pathways and interaction networks, are still negligible in the HCC research field. We have built | ||
a database of the HCC network (HCCNet) by integrating interactions of multiple proteins, genes and miRNAs in biological | ||
pathways, and manually collecting all of the HCC-related genes and miRNAs from the literature in combination with | ||
a bioinformatic analysis of the collected HCC expression data (Supplementary information, Data S1). Currently, there | ||
are 37 811 experimentally confirmed protein-protein interactions (PPIs), 9 148 experimentally confirmed transcriptional | ||
regulatory interactions (TRIs), 114 miRNA-target gene interactions, 2 234 high-confidence HCC-related genes and 160 | ||
HCC-related miRNAs available in the database. The database also provides an online graphic analysis tool to view | ||
the interactions among HCC-related proteins, genes and miRNAs. HCCNet is a helpful platform to explore the molecular | ||
mechanisms that underlie human HCC. The database can be accessed at http://www.megabionet.org/hcc. |
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--- | ||
layout: paper | ||
title: "Read our work" | ||
type: selected work | ||
paper_title: Inferring causal gene regulatory networks from coupled single-cell expression dynamics using scribe | ||
author_list: Xiaojie Qiu*, Arman Rahimzamani*, Li Wang, Bingcheng Ren, Qi Mao, Timothy Durham, José L McFaline-Figueroa, | ||
Lauren Saunders, Cole Trapnell+, Sreeram Kannan+. | ||
journal: Cell Systems | ||
doi: 10.1016/j.cels.2020.02.003 | ||
year: 2020 | ||
pdf_url: /assets/PDFs/Qiu_etal_Scribe_CellSys_2020.pdf | ||
image_url: /assets/images/papers/Qiu_etal_Scribe_CellSys_2020.png | ||
paper_alt: Census Paper Image | ||
rank: 5 | ||
--- | ||
|
||
Here, we present Scribe (https://github.com/aristoteleo/Scribe-py), a toolkit for detecting and visualizing causal | ||
regulatory interactions between genes and explore the potential for single-cell experiments to power network | ||
reconstruction. Scribe employs restricted directed information to determine causality by estimating the strength of | ||
information transferred from a potential regulator to its downstream target. We apply Scribe and other leading | ||
approaches for causal network reconstruction to several types of single-cell measurements and show that there is a | ||
dramatic drop in performance for ‘‘pseudotime’’-ordered single-cell data compared with true time-series data. We | ||
demonstrate that performing causal inference requires temporal coupling between measurements. We show that methods | ||
such as ‘‘RNA velocity’’ restore some degree of coupling through an analysis of chromaffin cell fate commitment. These | ||
analyses highlight a shortcoming in experimental and computational methods for analyzing gene regulation at single-cell | ||
resolution and suggest ways of overcoming it. | ||
|
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--- | ||
layout: paper | ||
title: "Read our work" | ||
type: previous involved work | ||
paper_title: Thyroid hormone regulates distinct paths to maturation in pigment cell lineages | ||
author_list: Lauren M Saunders, Abhishek K Mishra, Andrew J Aman, Victor M Lewis, Matthew B Toomey, Jonathan S Packer, | ||
Xiaojie Qiu, Jose L McFaline-Figueroa, Joseph C Corbo, Cole Trapnell+, David M Parichy+. | ||
journal: eLife | ||
doi: 10.7554/eLife.45181 | ||
year: 2019 | ||
pdf_url: /assets/PDFs/Saunders_elife_2019.pdf | ||
image_url: /assets/images/papers/Saunders_elife_2019.png | ||
paper_alt: Saunders_elife_2019 Paper Image | ||
rank: 4 | ||
--- | ||
|
||
Thyroid hormone (TH) regulates diverse developmental events and can drive disparate cellular outcomes. In zebrafish, | ||
TH has opposite effects on neural crest derived pigment cells of the adult stripe pattern, limiting melanophore | ||
population expansion, yet increasing yellow/orange xanthophore numbers. To learn how TH elicits seemingly opposite | ||
responses in cells having a common embryological origin, we analyzed individual transcriptomes from thousands of | ||
neural crest-derived cells, reconstructed developmental trajectories, identified pigment cell-lineage specific | ||
responses to TH, and assessed roles for TH receptors. We show that TH promotes maturation of both cell types but | ||
in distinct ways. In melanophores, TH drives terminal differentiation, limiting final cell numbers. In xanthophores, | ||
TH promotes accumulation of orange carotenoids, making the cells visible. TH receptors act primarily to repress these | ||
programs when TH is limiting. Our findings show how a single endocrine factor integrates very different cellular | ||
activities during the generation of adult form. |
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--- | ||
layout: paper | ||
title: "Read our work" | ||
type: previous involved work | ||
paper_title: Inferring gene regulation from stochastic transcriptional variation across single cells at steady state | ||
author_list: Anika Gupta*, Jorge D Martin-Rufino*, Thouis R Jones, Vidya Subramanian, Xiaojie Qiu, Emanuelle I Grody, | ||
Alex Bloemendal, Chen Weng, Sheng-Yong Niu, Kyung Hoi Min, Arnav Mehta, Kaite Zhang, Layla Siraj, Aziz Al'Khafaji, | ||
Vijay G Sankaran, Soumya Raychaudhuri, Brian Cleary, Sharon Grossman, Eric S Lander+. | ||
journal: PNAS | ||
doi: 10.1073/pnas.2207392119 | ||
year: 2022 | ||
pdf_url: /assets/PDFs/anika_pnas.pdf | ||
image_url: /assets/images/papers/anika_pnas.png | ||
paper_alt: anika_pnas Paper Image | ||
rank: 3 | ||
--- | ||
|
||
Regulatory relationships between transcription factors (TFs) and their target genes lie at the heart of cellular | ||
identity and function; however, uncovering these relationships is often labor-intensive and requires perturbations. | ||
Here, we propose a principled framework to systematically infer gene regulation for all TFs simultaneously in cells | ||
at steady state by leveraging the intrinsic variation in the transcriptional abundance across single cells. Through | ||
modeling and simulations, we characterize how transcriptional bursts of a TF gene are propagated to its target genes, | ||
including the expected ranges of time delay and magnitude of maximum covariation. We distinguish these temporal trends | ||
from the time-invariant covariation arising from cell states, and we delineate the experimental and technical | ||
requirements for leveraging these small but meaningful cofluctuations in the presence of measurement noise. While | ||
current technology does not yet allow adequate power for definitively detecting regulatory relationships for all TFs | ||
simultaneously in cells at steady state, we investigate a small-scale dataset to inform future experimental design. | ||
This study supports the potential value of mapping regulatory connections through stochastic variation, and it | ||
motivates further technological development to achieve its full potential. |
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--- | ||
layout: paper | ||
title: "Read our work" | ||
type: previous involved work | ||
paper_title: Aligning single-cell developmental and reprogramming trajectories identifies molecular determinants of myogenic reprogramming outcome | ||
author_list: Davide Cacchiarelli, Xiaojie Qiu, Sanjay Srivatsan, Anna Manfredi, Michael Ziller, Eliah Overbey, | ||
Antonio Grimaldi, Jonna Grimsby, Prapti Pokharel, Kenneth J Livak, Shuqiang Li, Alexander Meissner, | ||
Tarjei S Mikkelsen, John L Rinn, Cole Trapnell+. | ||
journal: Cell Systems | ||
doi: 10.1016/j.cels.2018.07.006 | ||
year: 2018 | ||
pdf_url: /assets/PDFs/cacchiarelli-hsmm.pdf | ||
image_url: /assets/images/papers/cacchiarelli-hsmm.png | ||
paper_alt: cacchiarelli-hsmm Paper Image | ||
rank: 5 | ||
--- | ||
|
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Cellular reprogramming through manipulation of defined factors holds great promise for large-scale production of cell | ||
types needed for use in therapy and for revealing principles of gene regulation. However, most reprogramming systems | ||
are inefficient, converting only a fraction of cells to the desired state. Here, we analyze MYOD-mediated reprogramming | ||
of human fibroblasts to myotubes, a well-characterized model system for direct conversion by defined factors, at | ||
pseudotemporal resolution using single-cell RNA-seq. To expose barriers to efficient conversion, we introduce a novel | ||
analytic technique, trajectory alignment, which enables quantitative comparison of gene expression kinetics across two | ||
biological processes. Reprogrammed cells navigate a trajectory with branch points that correspond to two alternative | ||
decision points, with cells that select incorrect branches terminating at aberrant or incomplete reprogramming outcomes. | ||
Analysis of these branch points revealed insulin and BMP signaling as crucial molecular determinants of reprogramming. | ||
Single-cell trajectory alignment enables rigorous quantitative comparisons between biological trajectories found in | ||
diverse processes in development, reprogramming, and other contexts. |
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--- | ||
layout: paper | ||
title: "Read our work" | ||
type: selected work | ||
paper_title: Comprehensive single-cell transcriptional profiling of a multicellular organism | ||
author_list: Junyue Cao*, Jonathan S Packer*, Vijay Ramani, Darren A Cusanovich, Chau Huynh, Riza Daza, Xiaojie Qiu, | ||
Choli Lee, Scott N Furlan, Frank J Steemers, Andrew Adey, Robert H Waterston+, Cole Trapnell+, Jay Shendure+. | ||
journal: Science | ||
doi: 10.1126/science.aam8940 | ||
year: 2017 | ||
pdf_url: /assets/PDFs/cao-combinatorial-indexing.pdf | ||
image_url: /assets/images/papers/cao-combinatorial-indexing.png | ||
paper_alt: cao-combinatorial-indexing Paper Image | ||
rank: 7 | ||
--- | ||
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To resolve cellular heterogeneity, we developed a combinatorial indexing strategy to profile the transcriptomes of | ||
single cells or nuclei, termed sci-RNA-seq (single-cell combinatorial indexing RNA sequencing). We applied sci-RNA-seq | ||
to profile nearly 50,000 cells from the nematode Caenorhabditis elegans at the L2 larval stage, which provided >50-fold | ||
“shotgun” cellular coverage of its somatic cell composition. From these data, we defined consensus expression profiles | ||
for 27 cell types and recovered rare neuronal cell types corresponding to as few as one or two cells in the L2 worm. We | ||
integrated these profiles with whole-animal chromatin immunoprecipitation sequencing data to deconvolve the cell | ||
type–specific effects of transcription factors. The data generated by sci-RNA-seq constitute a powerful resource for | ||
nematode biology and foreshadow similar atlases for other organisms. |
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