Project Grant F31CA301836
- This $399,669 federal Project Grant awarded by the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) aims to establish the feasibility of commercializing a personalized and multi-targeted adoptive T cell therapy (ATCT) for glioblastoma (GBM), the most common and deadly primary brain tumor. The key products or services to be delivered under this grant include: Evaluating the ability of the applicant's Prussian blue nanoparticle-based photothermal therapy (PBNP-PTT) platform to...
- This $515,885 project grant awarded by the National Science Foundation's (NSF) Engineering program (CFDA 47.041) to The Trustees of Columbia University in the City of New York aims to improve the production and quality of T cells for use in immunotherapies. The project focuses on understanding how the stiffness and chemical composition of biomaterials used to culture T cells impact their growth, function, and phenotype. Specifically, the researchers will investigate how controlling nutrient...
- This Project Grant award from the National Institute of Allergy and Infectious Diseases (CFDA 93.855 - Allergy and Infectious Diseases Research) provides $528,157 to The University of Texas MD Anderson Cancer Center to develop innovative AI-based methods for discovering and optimizing T cell receptors (TCRs) for use in T cell engager therapies and spatial TCR sequencing-based antigen discovery. Specifically, the project will use the researchers' existing "PMTNet-OMNI" deep learning...
- The National Cancer Institute (NCI), under the Cancer Detection and Diagnosis Research CFDA program (93.394), has awarded a $3,036,844 Project Grant to the University of Southern California (USC) to develop a wireless, wearable thermo-activator device for precise, localized control of chimeric antigen receptor (CAR) T cell therapy in solid tumors. The project aims to overcome limitations of current MRI-guided focused ultrasound approaches by creating a flexible, portable system that can remotely...
- This $314,685 Project Grant award from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) supports the development of Persistence Therapeutics, Inc.'s novel "SynthNode" approach for CAR T cell therapy. The SynthNode is an implantable device the size of a dime that mimics the function of a lymph node, producing potent, antigen-specific CAR T cells that persist long-term for improved patient outcomes. This fast-track Phase I/II project will complete prototyping,...
- This federal Project Grant award from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) provides $457,683 to the Beckman Research Institute of the City of Hope to develop and evaluate novel "Bio-Beacons" - tumor-targeting bacterial vectors engineered to secrete chemokines and cytokines. The goal is to increase the density of tumor-reactive immune cells, such as CD8 T cells, CD4 T cells, dendritic cells, and natural killer cells, within solid tumors. This is...
- This $414,803 Project Grant award from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) supports research by the Massachusetts Institute of Technology (MIT) to develop improved T cell receptor (TCR) engineering strategies for TCR-T cell cancer immunotherapy. The key products and services to be delivered under this grant include: Implementing high-throughput library screens of TCR constant region variants to identify mutations that can improve TCR signaling strength, with...
- This federal Project Grant award of $1,340,987 from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) aims to revolutionize chimeric antigen receptor (CAR) T-cell therapy by developing a novel CAR-enhancer platform. The platform seeks to augment the functionality and longevity of CAR T-cells, addressing the key challenge of limited durability of response in patients. The specific objectives of this 24-month project are to: 1) Optimize dosing and timing for administering the...
- This $177,180 Project Grant award from the National Cancer Institute (CFDA 93.398 - Cancer Research Manpower) to the Fred Hutchinson Cancer Center in Seattle, Washington supports research to improve engineered TCR-T cell therapy for solid tumors. The key goals are to investigate whether engineered TCR-T cells form PD-1+TCF1+ stem-like progenitor exhausted T cell populations in tumor-draining lymph nodes, similar to endogenous tumor-specific T cells. This could impact the long-term persistence...
- This Project Grant award from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) provides $249,645 to Boston Children's Hospital to develop advanced genetic engineering techniques to study the role of tumor-specific B cells in cancer progression. The researchers aim to genetically modify B cells to target the HER2 tumor antigen, with the goal of using these engineered B cells as an adoptive immunotherapy to trigger both humoral and cellular anti-tumor immune responses. The...
CD4+ T CELL ACTIVATING HYDROGELS FOR CANCER IMMUNOTHERAPY - PROJECT SUMMARY ADOPTIVE CELL THERAPY (ACT) TREATMENT, IN WHICH CANCER PATIENTS ARE RE-INFUSED WITH EXPANDED AUTOLOGOUS TUMOR-SPECIFIC CD8+ T CELLS, HAS DEMONSTRATED SOME SUCCESS IN TREATING SOLID CANCERS LIKE MELANOMA. HOWEVER, THE APPROACH'S OVERALL COMPLEXITY, COST, AND INSUFFICIENT CLINICAL EFFICACY HAVE LIMITED ITS WIDESPREAD APPLICATION. TO OVERCOME THESE BARRIERS, RECENT RESEARCH HAS SHIFTED TOWARDS INNOVATIVE TECHNOLOGIES, SUCH AS ARTIFICIAL ANTIGEN PRESENTING CELLS (AAPCS), WHICH OFFER A MORE ADAPTABLE AND COST- EFFECTIVE SOLUTION FOR ENHANCING T CELL RESPONSES FOR USE IN ACT. THE GOAL OF OUR PROPOSED PROJECT IS TO ADVANCE THIS FIELD BY DEVELOPING A CUTTING-EDGE AAPC PLATFORM, TERMED THE ARTIFICIAL LYMPH NODE (ALN), THAT IS SPECIFICALLY DESIGNED FOR THE IN VIVO GENERATION OF CD4+ T CELLS. THIS SYSTEM WILL CONSIST OF TWO DISTINCT TECHNOLOGIES: (1) MHC II-BASED ALNS TO STUDY AND PROMOTE THE GENERATION OF CD4+ CYTOTOXIC T CELLS AND (2) COMBINED MHC I AND II ALNS FOR THE EXPANSION OF HELPER CD4+ T CELLS TO IMPROVE CD8+ T CELL FUNCTION. THE PLATFORM IS MADE FROM A PARTICULATED HYALURONIC HYDROGEL, THAT IS CONJUGATED WITH THE THREE SIGNALS REQUIRED FOR OPTIMAL T CELL ACTIVATION AND EXPANSION. WE WILL INVESTIGATE THE EFFECTS OF BIOMATERIAL PROPERTIES AND SIGNAL INCORPORATION ON IN VITRO T CELL ACTIVATION, AS WELL AS GAIN INSIGHT INTO IN VIVO ANTIGEN-SPECIFIC T CELL ACTIVATION IN A TUMOR-BURDENED HOST. WE WILL DEVELOP ADVANCED ALN MICROPARTICLES (MPS) FOR IN VIVO INJECTION TO IMPROVE T CELL ACTIVATION FOR CANCER IMMUNOTHERAPY. WE WILL FIRST EXPLORE BIOMOLECULAR CUES, FOCUSING ON THE EFFECTS OF ANTIGEN-SPECIFIC STIMULATION WITH CLASS II PEPTIDE-MHC MOLECULES AND EXAMINING HOW PHYSICAL PROPERTIES LIKE LIGAND DENSITY AND STIFFNESS AFFECT CD4+ T CELL ACTIVATION, PROLIFERATION, AND CYTOTOXIC FUNCTION. WE WILL ALSO EVALUATE THE EFFECTS OF DIFFERENT SIGNAL 2 AND SIGNAL 3 ON CD4+ T CELL PHENOTYPE AND FUNCTION, AND REFINE ALN MP PROPERTIES FOR EFFECTIVE HUMAN CD4+ T CELL EXPANSION USING PADRE. NEXT, WE WILL CREATE ALN PLATFORMS THAT STIMULATE BOTH CD4+ AND CD8+ T CELLS TO INVESTIGATE AND ENHANCE CD8+ T CELL FUNCTION. WE WILL ANALYZE THE IMPACT OF CD4+ T CELL PRIMING ON CD8+ T CELLS AND COMPARE VARIOUS ALN FORMULATIONS TO OPTIMIZE CO-CULTURE CONDITIONS. THIS WILL GUIDE FURTHER OPTIMIZATION OF CONDITIONS FOR EFFECTIVE CO-CULTURE OF HUMAN CD4+ AND CD8+ T CELLS. FINALLY, WE WILL TEST THE OPTIMIZED ALN MPS IN VIVO, EVALUATING THEIR ABILITY TO GENERATE AND EXPAND ANTIGEN-SPECIFIC T CELLS AND ASSESS THEIR EFFICACY IN B16 MURINE MELANOMA MODELS. IF SUCCESSFUL, THIS APPROACH WILL PRODUCE A NOVEL ACELLULAR PLATFORM FOR IN VIVO GENERATION OF EFFECTIVE CD4+ T CELL RESPONSES, WITH THE ABILITY TO ENHANCE IMMUNOTHERAPY OUTCOMES.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $49.5k | 7/21/25 | ||
| Not listed | $0 | 7/21/25 | ||
| Not listed | $49.5k | 7/21/25 |