Highlights
- 1Molecular cell · 2021
- 2Nature structural & molecular biology · 2023
- 3Molecular cell · 2025
Publications
Funding
Active
11 grants- Co-IR37CA304192-01A1The role of MGA in the pathogenesis of Richter TransformationNational Cancer Institute · 2026–2031
- Co-IR01MH139528-01A1Transcriptional control by autism associated H3K9 methylation regulators during human neurogenesisNational Institute of Mental Health · 2026–2030
- PIAACR 256186-01Targeting Three Dimensional Regulatory Nodes to Rewire Cancer ProgramsAmerican Association for Cancer Research · 2026–2029
- MPIR01NS136475-03Identifying and Targeting 3D Regulatory Nodes that Maintain Glioblastoma ProgramsNational Institute of Neurological Disorders and Stroke · 2024–2029
- PIR01CA283327-04Characterizing stem cell-like B cell subpopulations and dissecting their role in tumorigenesisNational Cancer Institute · 2023–2028
- PIKAT6 Foundation 254112-02Engineering novel genetic tools to unravel the complex KAT6-disease phenotype.The KAT6 Foundation INC · 2025–2027
- MPIP01CA229086-07The impact of changes in chromatin architecture on cancer phenotypes and tumor progressionNational Cancer Institute · 2025–2027 · via New York University School of Medicine (Grossman)
- Sub-PIR01HL158965-04Gene regulatory networks in early lung epithelial cell fate decisionsNational Heart, Lung, and Blood Institute · 2023–2027 · via State University of New York Buffalo
- PISCC I17-0137Interrogation of chromatin dynamics of pancreas cancer cell state transitions in 4DStarr Cancer Consortium · 2024–2026
- MPIRM1GM139738-05Structure, Function, and Dynamics of Macro-molecular Complexes that Execute and Regulate Genome FunctionNational Institute of General Medical Sciences · 2021–2026 · via Cornell University - Ithaca
- Co-IR01GM145864-01Dissecting genetic determinants of epigenetic instability in pluripotent stem cellsNational Institute of General Medical Sciences · 2022–2026
Completed grants (21)
- Co-ITri-Sci #2023-013A human embryonic stem cell-based platform to understand the association between neuronal maturation and neurodevelopmental diseaseTri-Institutional Stem Cell Initiative (Weill Cornell) · 2023–2025
- PITRI-SCI #2023-002Interrogation of the chromatin landscape to drive maturation of hPSC-derived skeletal muscle.Tri-Institutional Stem Cell Initiative (Weill Cornell) · 2023–2025
- PITri-Sci #2023-001Combing omics and imaging approaches to dissect critical regulatory proteins and enhancer hierarchies during pluripotent state transitionsTri-Institutional Stem Cell Initiative (Weill Cornell) · 2023–2025
- Sub-PIU01DK128852-04Discovery of diabetes-relevant β cell enhancers through 4D enhancer mapping, integrative analysis, and large-scale CRISPRi perturbation screensNational Institute of Diabetes and Digestive and Kidney Diseases · 2020–2025 · via Memorial Sloan Kettering Cancer Center
- PIR01GM138635-05Organizational principles and functional role of 3D enhancer hubs in cell fate decisionsNational Institute of General Medical Sciences · 2020–2025
- KPR03NS135564-01A transgenic toolbox to dissect molecular pathologies caused by OTX2 deficiency during ex vivo human ectoderm developmentNational Institute of Neurological Disorders and Stroke · 2023–2024
- MPIR01CA228216-05Epigenetic mechanisms of transcriptional activation of a novel oncogenic ALK variant in cancerNational Cancer Institute · 2018–2024 · via Sloan-Kettering Institute for Cancer Research
- PIMFCR 20-33-ELAMark Foundation Emerging Leader AwardThe Mark Foundation for Cancer Research · 2021–2024
- Co-ISFARI 875469Modeling deficiencies in autism-associated chromatin regulators during human neurogenesis using multipurpose degron allelesSimons Foundation Autism Research Initiative · 2021–2023No publications yet
- PIAddgene 700134Addgene 700134Addgene, Inc. · 2022–2023
- PITri-Sci #2021-006Dissecting mechanisms of epigenetic inheritance of pluripotent stem cell identityTri-Institutional Stem Cell Initiative (Weill Cornell) · 2021–2023
- PITri-Sci 2021-009Multiomics of pluripotent stem cell derived gastruloidsTri-Institutional Stem Cell Initiative (Weill Cornell) · 2021–2023
- PI2019-001Discovering developmental enhancers through systematic mapping and interrogationTri-Institutional Stem Cell Initiative (Weill Cornell) · 2020–2023
- Sub-PIDP2DA043813-01 YEAR 2Defining the Role of Chromatin Architecture in Cell MemoryOffice of the Director, NIH · 2016–2022 · via NIDA
- Co-I2019-026Novel approaches to explore principles of epigenetic gene regulation during neurogenesisTri-Institutional Stem Cell Initiative (Weill Cornell) · 2020–2022
- KPLRF 200818-01Core stem-like properties and subpopulations of Germinal Center B-cells promoting lymphomagenesisLymphoma Research Foundation · 2020–2022
- PICUI 204138-01Characterizing stem-like properties of GC B-cells and dissecting their role in lymphomagenesisCornell University - Ithaca · 2020–2021
- Co-ICU 212636-01Center of Excellence for Genomic StudiesWeill Cornell Medical College · 2019–2021
- PITSCI 2016-018Role of TFs in Chromatin Reorganization and Stem Cell Memory After Cell DivisionTri-Institutional Stem Cell Initiative (Weill Cornell) · 2016–2019
- PITSCI 2016-008Directing Extra-Embryonic Endoderm Identity to Pluripotency in Vitro and in vivoTri-Institutional Stem Cell Initiative (Weill Cornell) · 2016–2018
- KPNYSCF-D-F46Functional Role of Klf4 in Shaping Chromatin Interactions During the Acquisition of PluripotencyNew York Stem Cell Foundation Inc. · 2015–2018Fellowship
News mentions
- Fall Grants RoundupSeptember 24, 2026
Weill Cornell Medicine researchers have received major new funding to support collaborative efforts spanning clinical trials, precision medicine and drug target discovery with the potential to improve outcomes for patients with challenging cancers.
- Disrupting Genome Architecture Selectively Impairs Developmental GenesApril 13, 2026
Temporarily disabling a protein complex that organizes DNA into loops inside the cell’s nucleus drastically disrupted the three-dimensional structure of the genome, but surprisingly most genes continued to function as usual, Weill Cornell Medicine researchers found.
- B Cells Transiently Unlock Their Plasticity, Risking Lymphoma DevelopmentDecember 29, 2025
Immune cells called B cells make antibodies that fight off invading bacteria, viruses and other foreign substances. During their preparation for this battle, B cells transiently revert to a more flexible, or plastic, stem-cell-like state in the lymph nodes, according to a new preclinical study from Weill Cornell Medicine investigators.
- Three-Dimensional Gene Hubs May Promote Brain CancerApril 21, 2025
The way DNA folds inside the nucleus of brain cells may hold the key to understanding a devastating form of brain cancer called glioblastoma, suggests a new preclinical study from Weill Cornell Medicine researchers.
- Awards and Honors Across Weill Cornell Medicine - April 22, 2021April 22, 2021
Awards, honors, prizes and achievements for the month of April.
Show 1 more mention
- Study Illuminates Key Mechanisms of How Cells Change Their IdentityDecember 23, 2019
Scientists at Weill Cornell Medicine have discovered how a key transcription factor protein called KLF4 helps “reprogram” skin cells into stem cells, according to a new study.
Mentoring
- DMDylan MurphyPhysiology, Biophysics & Systems Biology (PhD) · Class of 2024
- UJUk Jin LeeMolecular Biology (PhD) · Class of 2026
- CUChristopher UyeharaPostdoc mentee · 2021–2026
- ESEralda SalatajPostdoc mentee · 2021–2024
- DCDafne Campigli Di GiammartinoPostdoc mentee · 2021–2022
- SRSyed Raza MahmoodPostdoc mentee · 2023–2026
- SBSarah BrevesPhysiology, Biophysics & Systems Biology (PhD)
- GCGiuliana CaliaMolecular Biology (PhD) · Class of 2026
- YLYiyuan LiuPostdoc mentee · 2015–2018
- EBEliana BohnBiochemistry, Cell & Molecular Biology (PhD)