Project Grant R35CA294010

Award Date 9/1/24
Completion Date 8/31/31
Dollars Obligated $2M
Federal Grant Program
93.395
Assistance Type
Project Grant
Place of Performance
Dallas, TX 75390, USA
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This $642,739 federal Project Grant from the National Cancer Institute (CFDA 93.396 Cancer Biology Research) supports research conducted by the University of Texas Southwestern Medical Center to develop novel activators of the STING protein, which plays a key role in cancer defense mechanisms. The project has three main objectives: 1) to understand new lipid-dependent activation and regulatory mechanisms of STING to guide improved cancer therapies targeting this pathway, 2) to use cryo-EM to...
This federal Project Grant award of $701,876, provided by the National Cancer Institute (CFDA 93.396 Cancer Biology Research), will fund a systems-level approach to therapeutically target the STING protein in cancer. The research aims to develop a novel technology called SatSeq that combines single-cell sequencing with saturation mutagenesis and DNA barcoding to map the structure-function landscape of the STING protein, which has been shown to have both anti-tumor and pro-metastatic functions in...
This federal Project Grant award of $499,238 from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) supports research at Yale University focused on enhancing the effects of DNA-damaging cancer therapies through modulation of the STING (Stimulator of Interferon Genes) pathway. The key goals are to develop a novel tumor-targeted STING agonist formulation, test its synergistic effects with DNA-damaging treatments in a STING-dependent manner, and identify the immunological...
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PRECISION ENGINEERING OF STING-DC IMMUNITY TO OVERCOME TUMOR IMMUNE EVASION - ABSTRACT HOST DEFENSE RESPONSES BY THE MAMMALIAN IMMUNE SYSTEM CAN BE VERY POTENT BUT REQUIRE EXQUISITE SPATIO-TEMPORAL COORDINATION. THIS COORDINATION IS ESSENTIAL TO MATCH THE IMMUNE ACTIVITY TO THE SPECIFIC THREAT, TO MONITOR AND REGULATE THE IMMUNE RESPONSE, MINIMIZE DAMAGE TO NORMAL TISSUES, AND TERMINATE THE RESPONSE WHEN THE HAZARD IS ELIMINATED. STIMULATOR OF INTERFERON GENES (STING) IS AN ENDOPLASMIC RETICULUM-ASSOCIATED SIGNALING PROTEIN THAT IS ESSENTIAL FOR TRANSCRIPTIONAL REGULATION OF NUMEROUS HOST DEFENSE GENES AGAINST MALIGNANT CELLS. STING IS ACTIVATED BY 2', 3'-CYCLIC GUANOSINE MONOPHOSPHATE-ADENOSINE MONOPHOSPHATE (CGAMP), AN ENDOGENOUS SECONDARY MESSENGER, WHICH IS PRODUCED BY CGAMP SYNTHASE (CGAS) IN RESPONSE TO CYTOSOLIC DNA AS A DANGER SIGNAL. DESPITE POTENT ANTITUMOR ACTIVITIES DEMONSTRATED BY STING AGONISTS IN PRECLINICAL STUDIES, EARLY CLINICAL TRIALS HAVE YET TO SHOW SIGNIFICANT ANTITUMOR RESPONSE IN CANCER PATIENTS. CURRENT STING AGONIST DESIGNS ARE 'ALWAYS ON', LEADING TO ON-TARGET, OFF-TUMOR TOXICITY IN HEALTHY TISSUES. THE PROPOSED R35 PROGRAM WILL INTEGRATE FOUR AREAS OF RESEARCH TO HARNESS THIS IMPORTANT NATURAL DEFENSE MECHANISM AND INNOVATE A SAFE AND EFFICACIOUS STING- TARGETED THERAPY FOR IMMUNE-RESISTANT CANCERS. IN NANOTECHNOLOGY, WE WILL DESIGN AND SYNTHESIZE A (PH-HYPOXIA) AND LOGIC NANOPARTICLE STING AGONIST THAT STAYS PROTECTED IN NORMAL TISSUES BUT WILL BE ACTIVATED IN RESPONSE TO ACIDIC PH AND HYPOXIA SIGNALS INHERENT IN THE TUMOR MICROENVIRONMENT. THIS ENSURES MINIMAL TOXICITY IN HEALTHY TISSUES, WHILE PROMOTING TARGETED STING ACTIVATION WITHIN MALIGNANCIES. IN STING SIGNALING, WE WILL EMPLOY CRYO-ELECTRON MICROSCOPY TO INVESTIGATE THE SYNERGY OF PSC7A WITH CGAMP FOR STING BINDING AND ACTIVATION. IN DENDRITIC CELL BIOLOGY, WE WILL INVESTIGATE STING-MEDIATED TRANSFORMATION OF HEMATOPOIETIC PROGENITOR CELLS INTO CONVENTIONAL TYPE 1 DENDRITIC CELLS (CDC1), AND DEFINE ITS RAMIFICATIONS ON ANTITUMOR IMMUNITY. IN IMMUNE-ONCOLOGY, WE WILL EMPLOY PATIENT-DERIVED TUMOR FRAGMENTS TO PROBE INTO STING AGONISTS' ROLES IN IMMUNE RESISTANT TUMORS. FURTHERMORE, WE WILL ASSESS THE PROGNOSTIC VALUE OF THE STING-CDC1 SIGNATURE IN FORECASTING THERAPEUTIC RESPONSES TO TREATMENTS LIKE STING-TARGETED INTERVENTIONS AND CHECKPOINT BLOCKADE THERAPIES. THROUGH OUR BENCH-TO-CLINIC AND BACK-TO-BENCH APPROACH, OUR GOAL IS TO PINPOINT THE BARRIERS THAT HAVE STYMIED EFFECTIVE TARGETING OF THIS CRUCIAL BIOLOGICAL PATHWAY, AND ULTIMATELY APPLY THESE INSIGHTS TO ESTABLISH A SUCCESSFUL STING-TARGETED THERAPY IN CANCER PATIENTS UNRESPONSIVE TO CURRENT TREATMENTS.

Posted 8/27/24