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Highlights

  1. 1
    Nature · 2021
    PMID: 33588426PMCID: PMC8057670DOISenior author365 citations
  2. 2
    Cell · 2023
    PMID: 37001503PMCID: PMC10994488DOISenior author277 citations
  3. 3
    Cancer cell · 2021
    PMID: 34115989PMCID: PMC9115604DOISenior author178 citations

Publications

236 publications

Active

29 grants
  • MPI
    Identifying targets to mitigate immunotherapy-associated immune-related adverse events
    National Cancer Institute · 2026–2031
    R01CA306020-01A1
  • Co-I
    Interrogating and targeting co-inhibitory and co-stimulatory molecules in CAR T-cell Therapies
    National Cancer Institute · 2026–2031
    R37CA300795-01A1
  • MPI
    Determining the role of neutrophils in anti-tumor immunity and immune-related adverse events in the context of T cell-based therapies
    National Cancer Institute · 2025–2030
    R01CA297338-02
  • PI
    Targeting the melanoma metabolic microenvironment to boost T-cell therapy
    Melanoma Research Alliance · 2026–2029
    1584423
  • Co-I
    Defining the molecular determinants of inflammatory memory in the pancreas
    National Institute of Diabetes and Digestive and Kidney Diseases · 2024–2029
    R01DK138154-01A1
  • Co-I
    Investigating means to enhance immunity to breast cancer
    Breast Cancer Research Foundation · 2026–2028
    BCRF-26-176
  • MPI
    Novel cell therapy approaches for molecularly defined subsets of therapy-resistant melanoma
    National Cancer Institute · 2023–2028 · via Memorial Sloan Kettering Cancer Center
    R01CA286507-02
  • Co-I
    PICI Grant and Main Collaboration Agreement with Multiple Subprojects
    Parker Institute for Cancer Immunotherapy · 2024–2028
    PICI 235170-01
  • Sub-PI
    Predicting Actionable Innate and Adaptive Immune Modulations in Cancer
    The Mark Foundation for Cancer Research · 2025–2028 · via Memorial Sloan Kettering Cancer Center
    MSKCC 246106-02
  • KP
    Targeting VISTA on neutrophils to manage immunotherapy adverse events
    Melanoma Research Alliance · 2025–2028
    MRA #1422213
  • KP
    Identification of LINE-1-derived antigens for development of off-the-shelf anti-cancer vaccines
    Cancer Research Institute, Inc. · 2025–2027
    CRI12882
  • Co-I
    Ludwig Collaborative Laboratory
    Ludwig Institute for Cancer Research · 2022–2027
    LICR 230410-01
  • PI
    Immunostaining of ICB-mediated skin and colon irAEs tissues that were treated with steroids, anti-TNFa, or anti-IL
    Janssen Research & Development, LLC · 2024–2027Contract
    SRA 240489-02
  • Sub-PI
    Engineered IgA engagers to fight cancer
    Advanced Research Projects Agency for Health · 2025–2027 · via TigaTx, Inc.
    No publications yet
    AY2AX000074
  • MPI
    Group 2 Innate Lymphoid Cell Regulation of Pancreatic Cancer Immunity
    National Cancer Institute · 2022–2027 · via Memorial Sloan Kettering Cancer Center
    R01CA262516-03
  • Sub-PI
    Evolutionary models for optimized design of personalized cancer vaccines
    Pershing Square Sohn Cancer Research Alliance · 2025–2027 · via Memorial Sloan Kettering Cancer Center
    MSKCC 254602-02
  • KP
    Targeting tumor and T-cell metabolism to bridge the gap in CAR-T efficacy between liquid and solid tumors
    Parker Institute for Cancer Immunotherapy · 2025–2026
    PICI IC-624
  • Co-I
    Targeting immune evasion in gastroesophageal cancer
    Stand Up To Cancer · 2023–2026 · via Memorial Sloan Kettering Cancer Center
    SU2C 6352
  • Co-I
    DNA Vaccines Against Cancer and Infectious Organisms
    Breast Cancer Research Foundation · 2024–2026
    BCRF-24-176
  • PI
    Characterizing the Role of Structural Genomic Instability in Generating Actionable Neoantigens in Pediatric Solid Tumors
    Starr Cancer Consortium · 2024–2026
    SCC I17-0112
  • PI
    Diversifying Patient-Derived Tumor Organoids
    Parker Institute for Cancer Immunotherapy · 2024–2026
    PICI IC-594
  • PI
    Enhancing Breast Cancer Therapy by Inhibiting the Adenosine Receptor and Oxygen Consumption
    U.S. Department of Defense · 2023–2026
    W81XWH-21-1-0101
  • PI
    Mechanism-Based Approach for Combination Therapies with Immune Modulation for Management of Patients with Urothelial Cancers of the Upper Urinary Tract
    U.S. Department of Defense · 2022–2026
    W81XWH-20-1-0723
  • MPI
    Image-guided Trp-IDO/TDO-Kyn-AHR pathway inhibition, combined with immunotherapy
    National Cancer Institute · 2022–2026
    R01CA249294-03
  • KP
    Optimizing Dual-Targeted and Dual-Armored CAR T Cells for Small Cell Lung Cancer
    National Cancer Institute · 2023–2026 · via Health Research INC (Center for Community Health)
    U01CA256801-03
  • PI
    Sponsored Research Agreement - Merghoub Lab
    ReAlta Life Sciences, Inc. · 2023–2026Contract
    SRA 227441-01
  • Sub-PI
    Optimal vaccine design for Gastric Esophageal Cancer
    Stand Up To Cancer · 2024–2026 · via Memorial Sloan Kettering Cancer Center
    MSKCC C22733988
  • PI
    Nonclinical Research Agreement - BMS
    Bristol-Myers Squibb · 2022–2025Contract
    SRA 230425-02
  • Co-I
    Role of the stromal microenvironment in B-cell lymphoma progression and immune escape
    National Cancer Institute · 2019–2025
    R01CA242069-01A1
Completed grants (9)
  • Sub-PI
    Evolutionary models for optimized design of personalized cancer vaccines
    Pershing Square Sohn Cancer Research Alliance · 2023–2025 · via Icahn School of Medicine at Mount Sinai
    PSS 230211-02
  • PI
    Enterome Services Agreement
    Enterome SA · 2023–2025Contract
    SA 234045-02
  • Sub-PI
    Bridging predictive models and precision immunotherapies
    The Mark Foundation for Cancer Research · 2022–2024 · via Memorial Sloan Kettering Cancer Center
    MF 227019-03
  • Co-I
    DNA Vaccines Against Cancer and Infectious Organisms
    Breast Cancer Research Foundation · 2023–2024
    BCRF-23-176
  • PI
    Investigating novel KRAS inhibitors effects on the tumor-immune responses and integration of KRAS inhibition with immune based therapies.
    The Mark Foundation for Cancer Research · 2023–2024
    MFCR 227111-01
  • MPI
    Imaging tumor and T cell responses to metabolic and immune modulation
    National Cancer Institute · 2022–2024
    R01CA215136-06
  • PI
    Melih Ozsoy Funding Agreement
    Memorial Sloan Kettering Cancer Center · 2022–2023Contract
    SRA 233103-01
  • Co-I
    DNA Vaccines Against Cancer and Infectious Organisms
    Breast Cancer Research Foundation · 2022–2023
    BCRF-22-176
  • KP
    Weill Cornell Medicine (WCM) SPORE in Prostate Cancer
    National Cancer Institute · 2017–2023
    P50CA211024-01A1

News mentions

Show 3 more mentions
  • Novel Technique Reveals Surprising New Way to Suppress Tumor Cells
    September 27, 2022

    By analyzing key enzymes in a new way, an international team led by researchers at Weill Cornell Medicine has discovered how a well-known signaling molecule can either stimulate or suppress tumor growth depending on where it’s produced. The work, published Sept. 27 in Cell Reports, reveals a new aspect of tumor cell biology, and points to a promising strategy for treating many types of cancer. Cells use the small molecule cyclic AMP (cAMP) to trigger different effects largely depending on the proteins it activates. For example, past studies have shown that cAMP can either activate or suppress tumor growth under different circumstances. “Most people have studied cAMP by studying the effector proteins that [mediate its activity], or they've looked at the [enzymes that] inactivate it,” said co-senior author Dr. Jonathan H. Zippin, vice chair of research and an associate professor of dermatology and pharmacology at Weill Cornell Medicine, director of dermatology precision medicine at the Englander Institute for Precision Medicine, and a dermatologist at NewYork-Presbyterian/Weill Cornell Medical Center. Dr. Taha Merghoub, deputy director of the Sandra and Edward Meyer Cancer Center, the Margaret and Herman Sokol Professor of Oncology Research and a professor of pharmacology, as well as Dr. Elena Piskounova, an assistant professor of cell biology in dermatology, are also co-senior authors on the study. Instead of turning cAMP signaling on or off across the entire cell, as previous studies had done, Dr. Marek Drozdz, a postdoctoral associate in Dr. Zippin’s lab, wanted to activate cAMP in specific subcellular compartments. Two enzymes can produce cAMP in a cell: one bound to the plasma membrane and one that’s soluble. “We focused on the soluble one, because this source of cAMP could be targeted to different compartments within the cell, and then evoke a little pocket of cAMP signaling in each compartment,” said Dr. Drozdz, who is the lead author on the paper. To do…

  • Dr. Jedd Wolchok Appointed Meyer Director of the Sandra and Edward Meyer Cancer Center at Weill Cornell Medicine
    July 28, 2022

    Dr. Jedd Wolchok, an internationally acclaimed medical oncologist whose innovations in immunotherapy have revolutionized melanoma treatment, has been recruited as the Meyer Director of the Sandra and Edward Meyer Cancer Center at Weill Cornell Medicine, effective Sept. 12.

  • Study Reveals Structure of Anti-Tumor Therapy’s Target
    March 23, 2022

    Using cutting-edge techniques, Weill Cornell Medicine and Memorial Sloan Kettering investigators have visualized the structure of a receptor targeted by an anti-cancer immunotherapy.

Media highlights

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3 MD students · 1 PhD student · 9 Postdocs