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...
This Project Grant award from the National Cancer Institute (CFDA 93.394 - Cancer Detection and Diagnosis Research) provides $419,133 to the Massachusetts Institute of Technology (MIT) to advance the development of their "AscitesPredict" technology - a zero-passage "ex vivo tumor biosensor" platform that uses single-cell analysis and machine learning to evaluate cell identities and therapeutic sensitivities in patient ascites fluid samples. The key goals of this 3-year...
This $600,534 Project Grant award from the National Cancer Institute (CFDA 93.395 - Cancer Treatment Research) supports the development of Link Biosystems Inc.'s bioreactor technologies to efficiently generate large quantities of "immunocompetent tumoroid tissues" from patient tumor samples. These tumoroid tissues will enable enhanced preclinical screening of cancer therapeutics, including immunotherapies, biologics, and drug combinations, to identify optimal treatment regimens...
This Project Grant award from the National Cancer Institute's Cancer Biology Research program (CFDA 93.396) provides $455,000 to Atlas Biologics, LLC to develop and commercialize a Deep Mutational Scanning with Duplex Sequencing (DMS-DS) technology platform. The goal is to create an industry-viable screening service that can accurately measure the mutational landscape of targeted anticancer compounds, in order to predict and overcome drug resistance. In Phase I, the company will scale and harden...
The National Cancer Institute has awarded a $275,627 Project Grant to Link Biosystems Inc., a self-certified small disadvantaged business and for-profit organization, to develop the ONXPANSION bioreactor workflow. This workflow aims to enable efficient expansion of patient-derived induced pluripotent stem cells into clinically relevant cell doses to support autologous cell therapy applications. The grant supports efforts to de-risk the utility of Link Biosystems' bioreactor technology for...
This Project Grant award of $427,095 from the National Cancer Institute (NCI) under the CFDA 93.394 Cancer Detection and Diagnosis Research program will fund the development of a novel microfluidic droplet-based platform (MDP) technology at Northeastern University. The goal is to generate and analyze a 3D biomimetic multicellular immunogenic tumor model that can: Establish multiple levels of hypoxia within the same tumor-chip for parallel processing; Investigate spatiotemporal interaction...
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...
The National Science Foundation awarded a $275,000 Project Grant to Oraliva, Inc. under the Technology, Innovation, and Partnerships program to develop a portable, programmable single cell cytology platform for the early detection of epithelial cancers. The platform will combine microfluidics and artificial intelligence to classify potentially cancerous tissue in near real-time through multiparameter single-cell analysis and automated evaluation. The objectives are to link different clinical...
This $295,604 Project Grant award from the National Cancer Institute's Cancer Biology Research Program (CFDA 93.396) supports the development and validation of Xylyx Bio, Inc.'s multi-organ metastatic breast cancer cell-based assay platform. The platform aims to create predictive in vitro models of organ-specific (bone, liver, lung) metastatic breast cancer by integrating patient-derived breast cancer organoids with tissue-specific extracellular matrices. The key objectives are to: 1) profile...
This Project Grant award of $611,129, provided by the National Institute of Allergy and Infectious Diseases (NIAID) under the Allergy and Infectious Diseases Research program (CFDA 93.855), aims to develop and validate a multi-organ-on-a-chip (MOC) platform to study the underlying mechanisms of antibody-mediated rejection (ABMR) in organ transplantation. The key products or services to be delivered through this funding include: Engineering a vascularized liver-on-a-chip (VLOC) and vascularized...
AN INTEGRATED MICROFLUIDIC DEVICE FOR PATIENT-DERIVED MICRO-ORGANOSPHERES - PROJECT SUMMARY/ABSTRACT FUNCTIONAL PRECISION ONCOLOGY HOLDS GREAT POTENTIAL TO IMPROVE THE CURRENT CLINICAL PARADIGM BY USING PATIENT- DERIVED EX VIVO SYSTEMS (E.G., PDXS AND ORGANOIDS) FOR PERSONALIZED TREATMENT-SPECIFIC READOUTS. HOWEVER, PRESENTLY, THESE MODELS TAKE LONG TO ESTABLISH, ARE NOT SCALABLE AND ARE COSTLY; SUCH CHALLENGES IMPEDE THEIR WIDE-SPREAD APPLICABILITY AND COMMERCIAL POTENTIAL. THEREFORE, THERE REMAINS AN UNMET NEED TO DEVELOP NOVEL FUNCTIONAL PRECISION MEDICINE STRATEGIES THAT PAIR THE RIGHT THERAPY TO EACH PATIENT TO IMPROVE CLINICAL OUTCOMES. XILIS IS ANSWERING THIS CALL BY DEVELOPING A NOVEL FDA, CLIA AND IVDR-COMPLIANT MEDICAL DEVICE THAT CAN RAPIDLY GROW MICRO-ORGANOSPHERES (MOS) - HIGH-FIDELITY, EX VIVO PATIENT AVATARS. XILIS HAS DEVELOPED A PROPRIETARY BENCHTOP MOS GENERATOR INSTRUMENT (MOSGEN) TO GENERATE MOS BASED ON THE FOLLOWING PROCESSES: 1) FORMATION OF MATRIGEL DROPLET-BASED MOS "MICRO-REACTORS" IN OIL EMULSIONS FROM LOW VOLUME CLINICAL SAMPLES (E.G., 18G BIOPSIES) 2) POLYMERIZATION OF THE MATRIGEL VIA HEAT THROUGH OUR UNIQUE CHIP DESIGN, 3) SAMPLE DEMULSIFICATION USING OUR PROPRIETARY PROCESS, WHERE THE OIL IS REMOVED, AND THE DROPLETS ARE RESUSPENDED IN MEDIA FOR DOWNSTREAM ESTABLISHMENT. ALTHOUGH FUNCTIONAL, THE CURRENT MOSGEN PROTOTYPE HAS DISPARATE, STAND- ALONE WORKFLOWS FOR MOS FORMATION, POLYMERIZATION AND DEMULSIFICATION THAT NEED COMPLEX TUBING, COMPLICATED USER INTERACTION, AND REQUIRES LENGTHY DISINFECTION PROCEDURES, WHICH IMPEDES ITS USE AND APPLICABILITY IN CLINICAL WORKFLOWS. THUS, IN THIS SBIR FAST-TRACK, OUR MULTI-DISCIPLINARY TEAM WITH ENGINEERING, BIOLOGICAL AND CLINICAL EXPERTISE WILL BUILD AN AUTOMATED, END-TO-END, COMMERCIAL-GRADE MOSGEN INSTRUMENT THAT RAPIDLY GENERATES MOS IN A SCALABLE AND REPRODUCIBLE MANNER WITH MINIMAL RISK OF CONTAMINATION. XILIS CURRENTLY IS ENGAGED WITH ITS STRATEGIC PARTNER, MD ANDERSON CANCER CENTER, AND WILL IMPLEMENT THE MOSGEN INTO THE EXISTING CLINICAL WORKFLOW TO VALIDATE ITS OPERATION. SBIR FUNDING WOULD ALSO BOLSTER XILIS' COLLABORATION WITH MAYO CLINIC TO ENABLE DEVICE VALIDATION BY SUPPORTING THE NCI-FUNDED BEAUTY CLINICAL TRIALS. IN PHASE I, WE WILL DEVELOP A PENULTIMATE PROTOTYPE OF OUR MOSGEN INSTRUMENT, WHICH WILL INTEGRATE THE HARDWARE AND SOFTWARE WORKFLOWS. WE HAVE ENGINEERED A SERIES OF NOVEL SERPENTINE MICROFLUIDIC CHIPSETS, WHICH WE WILL INTEGRATE INTO OUR INSTRUMENT FOR AN ALL-IN-ONE SOLUTION. WE WILL TEST THE PROTOTYPE USING COLORECTAL CANCER SAMPLES (LEVERAGING OUR REGISTERED CLINICAL TRIAL WITH LEADING SITE, MD ANDERSON) AND MULTIPLE MYELOMA SAMPLES (FROM OUR COLLABORATION WITH DUKE UNIVERSITY). IN PHASE II, WE WILL BUILD OUR END-TO-END, COMMERCIAL-GRADE MOSGEN, IN COMPLIANCE WITH FDA'S QSR PART 320. THIS INSTRUMENT WILL BE AUTOMATED AND EASY-TO-USE, TO READILY SUPPORT SEAMLESS IMPLEMENTATION INTO CURRENT CLINICAL WORKFLOWS. TO TEST THE MOSGEN, WE WILL PARTNER WILL MD ANDERSON AND MAYO CLINIC (SUBAWARD) AND INTEGRATE OUR INSTRUMENT INTO EXISTING CLINICAL TRIALS TO VALIDATE ITS OPERATION. SUCCESSFUL COMPLETION WILL SUPPORT THE DEVELOPMENT OF A COMMERCIAL, FULLY-AUTOMATED, COMMERCIAL-GRADE MICROFLUIDIC INSTRUMENT THAT CAN STREAMLINE THE GENERATION OF MOS TO ENABLE ROBUST FUNCTIONAL PRECISION MEDICINE CAPABILITIES.