Federal Grant Award Summary Quiver Bioscience Inc. received a $862,420 Project Grant award from the National Institute of Neurological Disorders and Stroke (NINDS) under the Extramural Research Programs in the Neurosciences and Neurological Disorders (CFDA 93.853) program, effective May 20, 2025, with completion targeted for April 30, 2028. The award supports the development of an integrated platform combining machine learning (ML)-based antisense oligonucleotide (ASO) design tools with in vitro...
This $1,417,500 Project Grant awarded by the National Institutes of Health (NIH) under the Trans-NIH Research Support program (CFDA 93.310) funds the development of "Electrified Cryo-EM", a novel tool that can kinetically trap biological systems in their metastable, non-equilibrium states. The research aims to unravel the structural changes in neurons during an action potential across multiple length scales, from voltage-gated channel proteins to the synaptic junction. Specifically,...
The U.S. National Science Foundation (NSF) awarded a $303,864 Phase I Small Business Innovation Research (SBIR) grant under the NSF Technology, Innovation, and Partnerships (CFDA 47.084) program to Core Biotherapeutics, Inc. (UEI N9FGZ15RQGJ4) located in Ladera Ranch, CA. The project aims to develop a platform for discovering therapeutic drug candidates that can modulate molecular networks driving diseases, with the potential to produce disease-modifying effects for neurodegenerative...
This Small Business Innovation Research (SBIR) Phase I project, awarded by the National Science Foundation (NSF) under the TIP (Technology, Innovation, and Partnerships) program (CFDA 47.084), aims to develop a novel, multifunctional neural probe for advancing neuroscience research. The $254,456 grant awarded to Neurobionics Inc. on August 15, 2024, will fund the integration of electrical, optical, and chemical capabilities into a single implantable device. This versatile tool will enable...
This SBIR Phase I project awarded by the National Science Foundation (NSF) under the Technology, Innovation, and Partnerships (CFDA 47.084) program seeks to develop a new class of gene therapies that can be delivered more safely, cost-effectively, and at scale for a wide range of serious genetic disorders. The project leverages short oligonucleotides conjugated with small molecules to induce proximity of endogenous epigenetic machinery to disease-relevant genes in a precise and reversible...
This Project Grant award from the National Science Foundation's Engineering program (CFDA 47.041) provides $434,716 to the University of Oklahoma Health Sciences Center to develop a set of optical tools for capturing and interpreting high-speed recordings of neural activity across the entire zebrafish brain. The key objectives are to create fluorescent voltage sensors, optical microscopes, and signal processing algorithms that can simultaneously monitor millisecond-scale bursts of neural...
This $228,697 National Science Foundation award under the Engineering program (CFDA 47.041) will support the development of an optical biosensor technology to facilitate drug screening and validation efforts. Auctus Biologics, Inc. will utilize a proprietary temperature, pH, and chemically stable protein composed of two fragments that bind with antibody-like affinity and specificity. Over the one-year period ending January 2023, the company will establish the technology's suitability for...
This federal Project Grant award from the National Science Foundation's Engineering program (CFDA 47.041) provides $630,000 to the University of Chicago to develop a new technology called the Monolithic Adjustable Photostimulation (MAP) platform for high spatiotemporal photostimulation of the nervous system. The project aims to create minimally-invasive, optically-controlled neuromodulation devices using advanced silicon heterojunctions that can precisely stimulate neural circuits, with the goal...
This $429,000 Project Grant award from the National Institute of Neurological Disorders and Stroke (NINDS), under the Extramural Research Programs in the Neurosciences and Neurological Disorders (CFDA 93.853) program, will support research to investigate the role of Schwann cell PIEZO1 in pain sensation. The key objectives are to: 1) develop and validate adeno-associated virus (AAV) vectors for selective inhibition of Schwann cell PIEZO1, and 2) determine the sensory effects of Schwann cell...
Federal Project Grant Award Summary Award Overview: The National Institute of Neurological Disorders and Stroke (NINDS) awarded Boston University $465,500 on July 5, 2025, under the Extramural Research Programs in the Neurosciences and Neurological Disorders program (CFDA 93.853) to develop and validate a close-loop deep brain optoacoustic stimulation (DBOAS) technology through June 30, 2027. The project addresses significant limitations in current electrical deep brain stimulation (DBS)...
ULTRA-HIGH-THROUGHPUT PLATE READER FOR DRUG DISCOVERY USING ALL-OPTICAL ELECTROPHYSIOLOGY - PROJECT SUMMARY: ULTRA-HIGH-THROUGHPUT PLATE READER FOR DRUG DISCOVERY USING ALL-OPTICAL ELECTROPHYSIOLOGY NEUROLOGICAL DISORDERS REMAIN A MAJOR UNMET MEDICAL NEED IN THE UNITED STATES AND WORLDWIDE, ACCOUNTING FOR MORE THAN 10% OF THE TOTAL YEARS OF HEALTHY LIFE LOST IN DEVELOPED COUNTRIES. DRUG DISCOVERY FOR DISEASES OF THE NERVOUS SYSTEM HAS BEEN CHALLENGING IN COMPARISON WITH OTHER DISEASE AREAS. A MAJOR BARRIER TO PROGRESS IN NEUROSCIENCE DRUG DISCOVERY IS THE LACK OF TRANSLATABLE ASSAYS, MODELS, AND TECHNOLOGIES THAT CAN BE USED TO PREDICT HUMAN EFFICACY WITH BOTH THE INFORMATION CONTENT AND THROUGHPUT NEEDED FOR RAPID IDENTIFICATION AND OPTIMIZATION OF THERAPEUTIC CANDIDATES. AS SUCH, THERE IS A STRONG COMMERCIAL NEED FOR SCALABLE ASSAY AND INSTRUMENT PLATFORMS THAT CAN BE LEVERAGED THROUGHOUT THE CNS-BASED DRUG SCREENING AND DISCOVERY PIPELINE. THE SWARM MICROSCOPE, DEVELOPED THROUGH PHASE I AND PHASE II EFFORTS, LEVERAGES Q-STATE'S PROPRIETARY OPTOPATCH TECHNOLOGY, ENABLING THE RECORDING OF BOTH VOLTAGE AND CALCIUM ACTIVITY UNDER OPTICAL STIMULATION FROM 24-OBJECTIVES SIMULTANEOUSLY. OUR INSTRUMENT HAS THE POTENTIAL TO TRANSFORM HIGH-THROUGHPUT SCREENING (HTS) BY LEVERAGING OUR ADVANCED OPTOGENETICS TOOLS IN 96-, 384-, AND 1536-WELL PLATE FORMATS. THE INSTRUMENT WAS SUCCESSFULLY USED TO SCREEN Q-STATE'S 200,000 INTERNAL COMPOUND LIBRARY AGAINST NAV1.7, A GENETICALLY VALIDATED TARGET FOR PAIN, ON OUR SPIKING HEK CELL ASSAY DEMONSTRATING THE UTILITY OF THE SWARM FOR CNS-BASED THERAPEUTIC DISCOVERY. IN THIS PHASE IIB APPLICATION, Q-STATE WILL LEVERAGE THESE TECHNOLOGIES AND EXPERTISE TOWARDS FULL COMMERCIALIZATION BY BUILDING THE NEXT GENERATION SWARM 2.0 PLATFORM WITH SIGNIFICANTLY IMPROVED FUNCTIONALITY, THROUGHPUT, AND STABILITY. FIRST, WE WILL DEVELOP A CAMERA-BASED SWARM 2.0 INSTRUMENT WITH UPGRADED ILLUMINATION, STIMULATION, AND DETECTION SUBASSEMBLIES AND PAIR THESE CAPABILITIES WITH NEW ANALYSIS TOOLS. NEXT, WE WILL DEVELOP TWO DIFFERENTIATING SWARM 2.0 COMPATIBLE OPTOGENETIC CLASSES OF ASSAYS: 1) TARGET-BASED HEK CELL ASSAYS FOR VOLTAGE-GATED NA CHANNELS, REPRESENTING A MAJOR CLASS OF DRUG TARGETS FOR CNS DISORDERS, AND 2) INTACT, NATIVE CELL ASSAYS IN NEURONS, ENABLING CRITICAL BRIDGING SECONDARY ASSAYS FOR THERAPEUTIC DISCOVERY. AFTER THE INSTRUMENT IS CONSTRUCTED AND VALIDATED, WE WILL OPTIMIZE NAV1.8, A DRUG TARGET FOR PAIN INDICATIONS CURRENTLY PURSUED BY THE PHARMACEUTICAL INDUSTRY, AND SECONDARY MULTIPLEXED SPIKING HEK ASSAYS FOR HTS COMPATIBILITY ON THE PLATFORM. FINALLY, WE WILL PERFORM A SCREENING CAMPAIGN USING AN IN-HOUSE LIBRARY OF APPROXIMATELY 200,000 SMALL MOLECULES FOR INHIBITORS OF NAV1.8 FOLLOWED BY THE HIT CONFIRMATION AND SELECTIVITY COUNTER-SCREENS. AT THE CONCLUSION OF THIS PHASE IIB WORK, THE SWARM 2.0 PLATFORM WILL BE FULLY VALIDATED FOR COMMERCIALIZATION, GENERATING CHEMICAL HITS THAT CAN BE OPTIMIZED FOR PAIN THERAPEUTICS AND MORE BROADLY BY ENABLING EXECUTION OF HTS COMPOUND SCREENS WITH THE POTENTIAL FOR EXPANSION INTO NEW ASSAY TYPES. SUCCESS IN PHASE IIB HAS THE POTENTIAL FOR SIGNIFICANT IMPACT BOTH IN NEUROSCIENCE RESEARCH AND IN ENABLING OUR NOVEL, PROPRIETARY PLATFORM FOR DRUG DISCOVERY FOR CNS-BASED DISORDERS SUCH AS SEVERE EPILEPSY AND PAIN, AREAS OF SIGNIFICANT UNMET MEDICAL NEED.