Impact of Genomic Variation on Function (IGVF) Consortium
The IGVF will develop a framework for systematically understanding the effects of genomic variation on genome function and how these effects shape phenotypes.
One of the central problems in biology is understanding how genomic variation affects genome function to influence phenotypes. NHGRI initiated a new program, the Impact of Genomic Variation on Function (IGVF) Consortium, to develop a framework for systematically understanding the effects of genomic variation on genome function and how these effects shape phenotypes. The program is based on recommendations from the 2019 workshop "From Genome to Phenotype: Genomic Variation Identification, Association, and Function in Human Health and Disease" (workshop report). IGVF is a research consortium that brings investigators together in a highly collaborative effort to examine how genomes function, how genome function shapes phenotypes, and how these processes are influenced by genomic variation. The program utilizes emerging experimental and computational genomic approaches to build a catalog of the impact of genomic variants on genome function and phenotypes.
Visit the IGVF Consortium website.
|University of Washington
UC San Francisco
Charite Universitatsmedizin Berlin
|Massively parallel characterization of variants and elements impacting transcriptional regulation in dynamic cellular systems||HG011966|
|University of Washington||The Center for Actionable Variant Analysis; measuring variant function at scale||HG011969|
|Stanford University||Stanford Center for Connecting DNA Variants to Function and Phenotype||HG011972|
|Marc Vidal||Dana-Farber Cancer Institute||Molecular phenotyping of ~100,000 coding variants across Mendelian disease genes||HG011989|
|University of Texas Southwestern Medical Center||Multiscale functional characterization of genomic variation in human developmental disorders||HG011996|
|University of North Carolina at Chapel Hill||Systematic in vivo characterization of disease-associated regulatory variants||HG012003|
|Massachusetts General Hospital
Children's Hospital Boston
Montreal Heart Institute
Brigham and Women's Hospital
|Comprehensive characterization of variants underlying heart and blood diseases with CRISPR base editing||HG012010|
|Duke University||High-throughput functional annotation of gene regulatory elements and variants critical to complex cellular phenotypes||HG012053|
|Broad Institute, Harvard University
Broad Institute, Massachusetts General Hospital
|A foundational resource of functional elements, TF footprints and gene regulatory interactions||HG011986|
|Ansuman Satpathy||Stanford University||Single-cell Mapping Center for Human Regulatory Elements and Gene Activity||HG012076|
California Institute of Technology
|Center for Mouse Genomic Variation at Single Cell Resolution||HG012077|
|Predictive Modeling Awards|
|Alan Boyle||University of Michigan||Predicting the impact of genomic variation on cellular states||HG011952|
|Andrew S. Allen
Charles D. Page Jr.
|Duke University||Design, prediction, and prioritization of systematic perturbations of the human genome||HG011967|
|Brigham and Women's Hospital
Harvard School of Public Health
Brigham and Women's Hospital
|Predicting the impact of genetic variants, genes and pathways on human disease||HG012009|
|Predrag Radivojac||Northeastern University||Supporting IGVF by modeling genetics, function, and phenotype with machine learning||HG012022|
|Mark Craven||University of Wisconsin||Linking variants to multi-scale phenotypes via a synthesis of subnetwork inference and deep learning||HG012039|
|University of Massachusetts Medical School
University of Massachusetts Medical School
Harvard School of Public Health
|Predictive modeling of the functional and phenotypic impacts of genetic variants||HG012064|
|Anshul Kundaje||Stanford University||Predicting context-specific molecular and phenotypic effects of genetic variation through the lens of the cis-regulatory code||HG012069|
|University of Pittsburgh
The University of Texas MD Anderson Cancer Center
University of Pittsburgh
|Linking genome variation to transcriptional network dynamics in human B cells||HG012041|
|University of Pennsylvania||Defining causal roles of genomic variants on gene regulatory networks with spatiotemporally-resolved single-cell multiomics||HG012047|
|Sloan Kettering Institute for Cancer Research
Johns Hopkins University School of Medicine
Sloan Kettering Institute for Cancer Research
|Genomic control of gene regulatory networks governing early human lineage decisions||HG012051|
|UC San Diego||The impact of genomic variation on environment-induced changes in pancreatic beta-cell states||HG012059|
|UC Los Angeles||Leveraging genetic variation to dissect gene regulatory networks of reprogramming to pluripotency||HG012079|
|Sloan Kettering Institute for Cancer Research||Deciphering the genomics of gene network regulation of T cell and fibroblast states in autoimmune inflammation||HG012103|
|Data and Administrative Coordinating Center Awards|
|J. Michael Cherry
|A Data and Administrative Coordinating Center for the Impact of Genomic Variation on Function Consortium||HG012012|
|Washington University, Saint Louis
|WashU-Northwestern Genomic Variation and Function Data and Administrative Coordinating Center||HG012070|
Alberto Ciccia, Columbia University
The Ciccia lab will utilize CRISPR-dependent base editing screens to investigate the function of nucleotide variants in DNA repair genes.
Neville Sanjana, New York Genome Center
The Sanjana Lab has identified causal variants for blood traits and their target genes in cis and in trans by combining multi-ancestry genome-wide association studies with CRISPR perturbations and single-cell multiomics. We have also profiled the genetic determinants of chromatin accessibility by combining CRISPR loss-of-function screens with single-cell ATAC-seq, creating an atlas of chromatin modifying complexes/proteins and their impact on changes in chromatin accessibility across the human genome.
Jill Moore, University of Massachusetts Chan Medical School
The Moore lab will expand element-centric deep learning frameworks characterizing the functional capacity of individual cis-regulatory elements, to better understand the impact of genetic variation on gene regulation. In collaboration with other IGVF teams they will use these computational models to prioritize variants and elements for functional testing, taking into account sequence and cell type contexts.
Len Pennacchio and Axel Visel, Lawrence Berkeley National Laboratory
The Pennacchio and Visel labs will annotate noncoding DNA in the human genome with a particular focus on gene regulatory elements through epigenomic-derived data. They will perform in vivo studies of candidate gene regulatory sequences including allelic variants with presumed functional impacts on expression. The results will provide noncoding DNA annotation and in vivo validation.
Steve Reilly, Yale School of Medicine
The Reilly lab will contribute functional characterization of non-coding variants linked to human traits, disease, and evolution using a combination of CRISPR and episomal assays. We will collaborate with other IGVF teams to use this high-resolution data to improve variant effect predictors.
Steven Gazal, University of Southern California
The Gazal lab will integrate new functional datasets generated by the IGVF consortium with GWAS and constrained datasets to (1) improve functionally informed fine-mapping, (2) evaluate and combine new variant-to-gene linking strategies, and (3) understand the grammar of regulatory elements at a base-pair resolution.
Rajat Gupta, Harvard Medical School and Brigham and Women's Hospital
The Gupta lab studies the genetics of Coronary Artery Disease and has developed methods to identify the effects of disease-associated variants using Perturb-seq and Cell Painting. We will work with the IGVF consortium group to identify causal variants, genes, and pathways associated with cardiometabolic disease.
Davide Serrugia, St. Anna Children's Cancer Research Institute
The Seruggia lab will develop tiling nuclease and base editor screens to study non-coding sequence variation associated with pediatric leukemia. We plan to dissect non-coding regulatory elements linked to disease, identify target genes and describe their function in hematopoiesis and leukemia.
Katie Pollard, Gladstone Institute of Data Science & Biotechnology, UC San Francisco, Chan Zuckerberg Biohub
The Pollard lab is developing machine learning methods that predict the effects of genetic variants on enhancer activity, genome folding, and epigenetic features. In collaboration with the Ahituv lab and PsychENCODE, we performed massively parallel reporter assays quantifying differential activity of variants in primary human cortical cells and organoids, which will be useful for IGVF methods development and benchmarking.
Sara Mostafavi, University of Washington
The Mostafavi lab has been developing allele-aware deep neural network models for predicting how combinations of genetic variants at a given loci impact molecular phenotypes like chromatin accessibility. Working with IGVF, we are interested in applying and enhancing these models to ultimately understand the relationship between the full spectrum of genetic variation and cellular outcomes.
Han Xu, University of Texas MD Anderson Cancer Center
The Xu lab will develop computational methods to minimize the impact of system biases and off-target effects in single-cell CRISPR perturbation screens. They will also leverage the screens on TFs, epigenetic regulators, and cis-regulatory elements to understand how genetic variations perturb transcriptional regulatory networks to cause phenotypic change and disease.
Lee Grimes, Cincinnati Children’s Hospital Medical Center
The Grimes lab applies single-cell technologies, computational genomics and systems biology to hematopoiesis to develop and promote a unifying framework for the analysis of genomic states with their developmental potentials and trajectories. By focusing on underlying genomic regulatory architectures, we will provide a new framework to incisively understand steady state hematopoiesis.
Stephen Yi, University of Texas at Austin
The Yi lab has developed computational and systems biology approaches to investigate the functional impact of coding and noncoding variants on signaling network perturbations in biology. In collaboration with other IGVF members, we will refine and customize our multiomics-integrated network models, coupled with single cell data and deep learning framework for high-resolution characterization and better understanding of regulatory mechanisms in development and disease.
Kristen Brennand, Yale University
The Brennand laboratory integrates human stem cell models and genomic engineering, towards resolving the complex cell-type-specific and context-dependent interplay between the many risk variants linked to brain disease.
- NIH providing $185 million for research to advance understanding of how human genome functions
NHGRI Press Release, Sep. 09, 2021
- NHGRI Launches Impact of Genomic Variation on Function (IGVF) Consortium
ASHG News, Sep. 03, 2020
The IGVF Program offers researchers not currently funded by the IGVF Consortium the opportunity to apply to join the program as non-voting affiliate members. IGVF expects to benefit from the unique expertise affiliated members can bring to the Consortium. IGVF anticipates an affiliated member’s benefits will include the highly interactive research environment, participating in Consortium discussions across a broad range of activities, participating in Consortium analyses and access to data prior to QC.
Affiliate members are expected to contribute to the goals of the IGVF Consortium by generating data and/or analyses, sharing data and/or analyses freely through the IGVF Data and Administrative Coordinating Center (DACC), and/or by contributing to cross- consortium integrative analyses. (An alternative is direct collaboration between an IGVF member and an external researcher, without sharing IGVF resources beyond what that IGVF member has created.) Affiliate members are also expected to be actively engaged in IGVF activities (i.e. participate in working groups as appropriate, attend the IGVF annual meeting) and to abide by all policies approved by the consortium and any other pertinent NIH policies. Failure to abide by these rules and policies may result in suspension of membership.
Affiliate membership does not directly or indirectly imply a commitment to funding by the NIH.
This policy was last updated March 15, 2022.
- IGVF Consortium Pre-Application Webinar - September 3, 2020
Sep. 03, 2020
- IGVF Consortium Pre-Application Webinar - September 9, 2020
Sep. 09, 2020
Slides from the Webinars
Frequently Asked Questions for IGVF RFAs
- Scientific Program Analyst
- Division of Genome Sciences
- Scientific Program Analyst
- Division of Genomic Medicine
Last updated: November 28, 2022