Project Grant F32EB038103
- This Project Grant award from the National Institute of General Medical Sciences (CFDA 93.859 - Biomedical Research and Research Training) provides $314,000 to Cellfe, Inc. to optimize their CellFe microfluidic transfection platform for accelerated, scalable same-day sequential gene editing of T cells for allogeneic cell therapy manufacturing. The goal is to enhance the speed, precision, and scalability of CRISPR-based gene editing to streamline T cell manufacturing, improve therapeutic potency,...
- This Project Grant award, provided by the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research), supports the development of Cryocrate LLC's novel cryopreservation medium, Odinsol, to enhance the post-thaw viability and functionality of natural killer (NK) cells for cancer immunotherapy applications. The $292,963 award aims to achieve three key milestones: 1) Optimize Odinsol for primary NK cells, ensuring high post-thaw viability, enhanced cytotoxicity, and validated tumor-killing...
- This Project Grant award from the National Science Foundation (NSF) under the Technology, Innovation, and Partnerships (TIP) program (CFDA 47.084) provides $305,000 to Cellecho, Inc. to develop a microchip-based technology for advanced cell engineering. The goal is to create a miniaturized liquid and cell handling platform that leverages acoustic-electric micro-vortices to precisely and sequentially deliver genetic molecules. This innovation aims to make complex cell reprogramming more...
- This $295,924 Project Grant awarded by the National Institute of General Medical Sciences (NIGMS) Biomedical Research and Research Training program (CFDA 93.859) aims to develop and demonstrate a high-yield microfluidic device for the enrichment and capture of CD3+ T cells. This device is intended to improve the manufacturing of autologous and allogenic engineered cell therapies such as CAR-T, which currently have time-consuming and costly production processes. The key objectives are to (1)...
- This Project Grant award from the National Science Foundation (NSF) under the Technology, Innovation, and Partnerships (CFDA 47.084) program provides $304,870 to Toro Bio, Inc. to develop an automated system for point-of-care manufacture of tumor infiltrating lymphocyte cell therapies. The project aims to expand access to personalized cancer treatments by enabling decentralized cell therapy manufacturing, which could improve patient outcomes, reduce treatment costs, and contribute to a more...
- This $1,419,436 Project Grant award from the National Heart, Lung, and Blood Institute's Cardiovascular Diseases Research program (CFDA 93.837) aims to develop methods for extended ex vivo storage and preservation of living heart valve allografts. The key products to be delivered include: A preservation solution to maintain viability and growth capacity of valvular tissue for at least 6 weeks during storage. A custom bioreactor that can expose the stored valves to physiologic open/close cycles...
- This STTR (Small Business Technology Transfer) Project Grant, awarded by the National Institute of General Medical Sciences (NIGMS) under CFDA 93.859 Biomedical Research and Research Training program, aims to advance the commercialization of an innovative automated cell culturing system. The $295,038 award to Altvivo, Inc. will enable the development of a system that integrates microscopic nozzles to facilitate precise fluid and cell manipulations, addressing limitations of conventional cell...
- This Project Grant award from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) is providing $399,739 to Ship Of Theseus LLC to develop a novel chimeric antigen receptor (CAR) T-cell therapy platform for treating hematologic malignancies. The key products/services being delivered under this grant include: Preclinical development of a tandem CAR-T and hematopoietic stem cell (HSC) transplantation approach, which leverages CRISPR base-editing to engineer donor HSCs to evade...
- This $500,000 Project Grant from the National Science Foundation Division of Molecular and Cellular Biosciences, under the Biological Sciences federal grant program (CFDA 47.074), will support research to develop an end-to-end continuous manufacturing process for cell therapies using robotics and microfluidic technologies. The Georgia Tech Research Corporation will receive funding to create a more integrated workflow based on microfluidic device-enabled genetic engineering, cell expansion, and...
- This Project Grant from the National Science Foundation's Technology, Innovation, and Partnerships program (CFDA 47.084) provides $275,000 to Dcan Biosciences LLC to develop an advanced microfluidic system for cancer diagnosis and monitoring. The system aims to isolate and assess circulating tumor cells (CTCs) and CTC clusters (CTCCs) from patient blood samples to enable highly sensitive and accurate liquid biopsies. Key objectives include designing a hybrid microfluidic device for...
A MICROFLUIDIC CHIP FOR HIGH THROUGHPUT LOADING OF CRYOPROTECTIVE AGENTS INTO THERAPEUTIC ALLOGENEIC IMMUNE CELLS - PROJECT SUMMARY ALLOGENEIC CELL THERAPIES OFFER TRANSFORMATIVE POTENTIAL IN CLINICAL MEDICINE, PROVIDING UNIVERSAL TREATMENTS WITH DONOR-DERIVED IMMUNE CELLS AND MITIGATING THE VARIABILITY OF AUTOGENIC THERAPIES. AMONG IMMUNE CELL TYPES, NATURAL KILLER (NK) CELLS AND NEUTROPHILS STAND OUT FOR THEIR THERAPEUTIC POTENTIAL. NK CELLS CAN EFFECTIVELY TARGET TUMORS AND VIRALLY INFECTED CELLS WITHOUT PATIENT-SPECIFIC MATCHING, WHILE NEUTROPHILS, WHICH DO NOT REQUIRE ABO MATCHING, SHOW PROMISE IN TREATING INFECTIOUS DISEASES AND INFLAMMATORY CONDITIONS. HOWEVER, WIDESPREAD ADOPTION OF ALLOGENEIC THERAPIES IS LIMITED BY CHALLENGES IN CELL CRYOPRESERVATION, AS CURRENT METHODS OFTEN COMPROMISE CELL VIABILITY AND FUNCTION DUE TO OSMOTIC STRESS AND TOXICITY DURING CPA LOADING. TO ADDRESS THESE LIMITATIONS, WE PROPOSE VELOPORATION, A NOVEL MECHANOPORATION TECHNIQUE LEVERAGING VISCOELASTIC STRETCHING TO ENABLE RAPID, HIGH-THROUGHPUT CPA LOADING WHILE MINIMIZING TOXICITY. UNLIKE TRADITIONAL CPA-LOADING METHODS, WHICH EXPOSE CELLS TO TWO PRIMARY INJURY MECHANISMS-MOLECULAR TOXICITY FROM PROLONGED CPA EXPOSURE AND OSMOTIC STRESS FROM EXCESSIVE VOLUMETRIC EXCURSIONS-VELOPORATION IS THE FIRST APPROACH TO LOAD CPAS ALMOST INSTANTANEOUSLY WITHOUT ALTERING CELL VOLUME. BY ALLEVIATING BOTH INJURY MECHANISMS SIMULTANEOUSLY, VELOPORATION PRESERVES IMMUNE CELL PHENOTYPE AND FUNCTIONALITY POST-THAW, OFFERING A TRANSFORMATIVE SOLUTION TO THE CRITICAL BARRIER OF EFFECTIVE CELL STORAGE. THE GOAL OF THIS PROJECT IS TO DEVELOP AND VALIDATE VELOPORATION FOR CPA LOADING (VELCPA) INTO IMMUNE CELLS, WITH A FOCUS ON NK CELLS AND NEUTROPHILS FOR USE IN ADOPTIVE CELL THERAPY (ACT). AIM 1 DEVELOPS AND OPTIMIZES THE VELOPORATION DEVICE FOR SMALL IMMUNE CELLS. AIM 2 EVALUATES THE ABILITY OF VELOPORATION TO LOAD MEMBRANE-PERMEABLE AND MEMBRANE-IMPERMEABLE CPAS, MINIMIZING TOXICITY AND MAXIMIZING CELL VIABILITY COMPARED TO TRADITIONAL METHODS. AIM 3 ASSESSES THE POST-THAW FUNCTIONALITY OF VELOPORATED CELLS, INCLUDING VIABILITY, IMMUNE ACTIVITY, AND POTENTIAL FOR CPA CO-DELIVERY WITH THERAPEUTIC AGENTS. BY ADVANCING CRYOPRESERVATION TECHNIQUES, THIS PROJECT ADDRESSES A CRITICAL BARRIER TO THE SCALABILITY OF ALLOGENEIC CELL THERAPIES. IT HAS THE POTENTIAL TO ENABLE THE DEVELOPMENT OF STABLE, OFF-THE-SHELF IMMUNE CELL PRODUCTS FOR DIVERSE CLINICAL APPLICATIONS. WHILE HERE WE FOCUS ON NK CELLS AND NEUTROPHILS, THIS TECHNOLOGY COULD BE ADAPTED FOR THE CRYOPRESERVATION OF OTHER CELL TYPES USED IN REGENERATIVE MEDICINE AND IMMUNOTHERAPY, SUCH AS T CELLS OR STEM CELLS. THE VERSATILITY AND SCALABILITY OF VELOPORATION MAKE IT A PROMISING PLATFORM TECHNOLOGY WITH FAR-REACHING IMPLICATIONS FOR CELLULAR THERAPIES AND BIOBANKING.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $79.6k | 8/13/25 |