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List of Successful Candidates for the FY2026 TeSH GAP Fund Program “STEP1”
TeSH has selected 36 research projects for the FY2026 TeSH GAP Fund Program “STEP1” on the Startup Ecosystem Co-Creation Program for the New Industry Creation Fund for University Startups as follows.
Life Science
Kanazawa University
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor KAWASAKI, Hiroshi | Commercialization of a Drug Discovery Screening Platform Using an Ferret Brain Tumor Model |
| Glioblastoma is an aggressive brain tumor with a poor prognosis, and the development of new therapeutic approaches remains an urgent unmet need. This project aims to establish a highly translational preclinical drug evaluation platform based on proprietary glioblastoma models and launch a startup. | |
| Assistant Professor KOHNO, Susumu | Development of Novel Small-Molecule Therapeutics for SUCLA2-Deficient Cancers |
| This project aims to develop novel small-molecule therapeutics that target the metabolic vulnerabilities of RB1/SUCLA2 co-deleted prostate cancer. Through structure optimization and preclinical efficacy and safety studies, the project seeks to identify a clinical candidate for further development. | |
| Professor NAKAMURA, Takashi | Platform Technology for Cell Subset-Specific Targeting |
| Disease-associated cell subsets are promising therapeutic targets, yet technologies for their selective targeting remain limited. This project aims to commercialize our proprietary cell subset-targeting platform and accelerate the development of innovative nanomedicines. | |
| Associate Professor NAKAYAMA, Takahiro | Commercialization of a foundational technology for high-precision, high-sensitivity bioassays based on high-density oriented control of antibody molecules |
| Random immobilization of antibodies often reduces their functional performance. This project aims to develop a technology that enables highly oriented and high-density antibody immobilization at solid–liquid interfaces by miniaturizing an antibody-binding protein, thereby improving the efficiency of purification resins and diagnostic devices. |
University of Toyama
| Principal Investigator | Research Theme / Overview |
|---|---|
| Lecturer OHISHI, Yuki | Business Development of Rotaxane-type Drugs for Cancer Phototherapy with Low Side Effects |
| This project aims to commercialize rotaxane-type photosensitizers as novel drug seeds for photodynamic therapy. By demonstrating the efficacy and safety of newly developed rotaxane-type photosensitizers, the project will establish the scientific and commercial feasibility required to advance this drug seed to non-clinical development. | |
| Specially Appointed Professor OSHIMA, Yusuke | Commercialization of a Raman Spectroscopy System for Minimally Invasive Medicine |
| This project aims to establish a startup to develop and commercialize Raman spectroscopy systems for medical applications. By leveraging Raman spectroscopy to identify molecular signatures from scattered laser light, the technology enables minimally invasive intraoperative diagnosis and early disease detection. | |
| Lecturer SHITAOKA, Kiyomi | Rapid Diagnostics and Therapeutics for Infant Parechovirus Infections Using Single B Cell-Based Human Antibody Generation Technology. |
| Our human antibody generation technology enables the rapid isolation of full-length antibody genes and evaluation of antibody specificity. Using this technology, this project develops rapid diagnostics and therapeutics for parechovirus infections that cause severe illness in infants. | |
| Professor TABATA, Toshihide | EV-SELEX drug discovery services for quick development of challenging therapeutics |
| Our new EV-SELEX method can create DNA aptamer therapeutics targeting G protein-coupled receptors,an important class of drug targets, reducing development time and cost to ~1/100 compared with conventional methods.Our goal is to launch a contract drug discovery services based on EV-SELEX. | |
| Professor TSUNEKI, Hiroshi | Development of a novel healthy sleep-promoting drug |
| Healthy sleep is essential for overall well-being. This project aims to develop a novel therapeutic for insomnia by leveraging an endogenous sleep-promoting molecule derived from a neuropeptide in orexin neurons, which regulate the sleep–wake cycle. The therapy is designed to promote natural sleep while maintaining a high level of safety. | |
| Clinical Associate Professor NAKAOKA, Hideyuki | Development of a Novel microRNA Biomarker-Based System for the Early Diagnosis of Intravenous Immunoglobulin-Resistant Kawasaki Disease: A Therapeutic Strategy for Preventing Coronary Artery Aneurysms |
| This technology is a novel molecular diagnostic platform that uses extracellular vesicle (EV)-derived microRNAs from patients with acute Kawasaki disease to accurately predict intravenous immunoglobulin (IVIG) resistance. The rapid diagnostic system enables early identification of refractory cases and supports selection of optimal treatment strategies. |
Komatsu University
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor YAMAOKA, Tetsuji | Translational Development of Intelligent Ultrathin Coating Materials for Protecting and Repairing Damaged Tissue Surfaces |
| This project aims to develop a novel sprayable protective coating for injured tissues and organs. The coating undergoes a sol–gel phase transition upon contact with tissues exhibiting reduced glucose concentrations (Japanese Patent No. 6,954,529). This technology has potential applications as a postoperative anti-adhesion barrier and as an ophthalmic formulation for the treatment of dry eye disease. |
Kanazawa Institute of Technology
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor KINDO, Toshiki | Commercialization of the ADVISE pathology diagnosis support system |
| This project aims to commercialize a pathology diagnostic support system that reduces pathologists' diagnostic time to less than one-tenth of current levels. By improving diagnostic efficiency, the technology addresses the shortage of pathologists and the associated societal challenges, including excessive workload, diagnostic delays, and increased risks of medical errors. |
Kanazawa Medical University
| Principal Investigator | Research Theme / Overview |
|---|---|
| Lecturer SAKAMOTO, Takuya | From “Cells” to the “Microenvironment”: Artificial Synovial Fluid (ASF) as a Platform for Next-Generation Cell Therapy |
| This project aims to develop an artificial synovial fluid for cell therapies targeting knee osteoarthritis. By preventing environmental stress-induced damage to therapeutic cells during manufacturing, it seeks to improve therapeutic efficacy and facilitate commercialization. |
Hokuriku University
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor TAKAHASHI, Tatsuo | Strategic Commercialization and Pipeline Development of Liquiritigenin for Osteoarthritis Prevention and Treatment |
| This project aims to advance the commercialization of liquiritigenin-based disease-modifying therapeutics and preventive products for osteoarthritis. Leveraging the dual functions of liquiritigenin in promoting cartilage regeneration and suppressing inflammation, the project will validate its efficacy and safety while refining a commercialization strategy. |
Technology, Environment
Japan Advanced Institute of Science and Technology (JAIST)
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor UNOKI, Masashi | Advancement of speech communication support utilizing bone conduction technology |
| While bone conduction technology enables sound transmission without blocking the ears, it often compromises sound quality and speech intelligibility. This project aims to address these challenges by developing a core technology that advances speech communication using bone conduction. | |
| Professor OHDAIRA, Keisuke | Cat-CVD-Based Platform Business for Contract Manufacturing of High-Performance Thin Films |
| This project aims to establish an innovative platform business that provides contract manufacturing services for high-performance thin films using catalytic chemical vapor deposition (Cat-CVD), a low-temperature, low-damage deposition technology. The platform is intended to serve the semiconductor and next-generation solar cell industries. | |
| Professor TAKAMURA, Yuzuru | Application of physical reservoir computing using solid electrolyte gate transistors |
| This project aims to develop a physical reservoir computing platform based on proprietary solid electrolyte gate transistors and advance its practical application. By leveraging the advantages of physical reservoir computing, the technology has the potential to significantly reduce computational requirements for machine learning and prediction tasks. | |
| Doctoral Course NINOMIYA, Masaya | Water evaporation-induced repeated opening and closing of parallel microchannels. |
| This project aims to develop a technology that generates periodic patterns in parallel microchannels through capillary force during the drying of polymer dispersions. Driven by water evaporation, the system provides an environmentally friendly method with minimal impact on both human health and the environment. |
Kanazawa University
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor ASAKAWA, Hitoshi | High-efficiency innovation platform for functional materials and devices |
| Based on two core technologies, an integrated experimental substrate and an automated evaluation system, the platform provides high-quality experimental data acquisition and analysis services and supports the commercialization of the equipment and substrates. | |
| Associate Professor TSUGE, Yota | Production of a retinal cocktail for skincare through precision fermentation |
| This project aims to develop a retinal cocktail using precision fermentation. By co-producing retinal, known for its anti-aging properties, together with other bioactive compounds, the project seeks to commercialize the resulting cocktail as a high-value skincare ingredient. | |
| Assistant Professor YONEZAWA, Hirotaka | Development of a Novel Bone-Cutting Instrument for Orthopaedic Surgery |
| Bone cutting in orthopaedic surgery has a significant impact on postoperative outcomes and bone healing. Existing instruments have limitations, including the width of the bone cut, operability, and surgeon workload. This project aims to develop a novel bone-cutting instrument that offers superior cutting precision, reproducibility, and procedural efficiency. | |
| Professor WATANABE, Tetsuyou | Toward Practical Motion Assistance Based on Light-Touch Guidance: Making Movement Easier |
| This project aims to commercialize a waist-belt motion assistance device that uses light-touch stimulation to naturally facilitate standing movements. Designed for individuals with knee or lower back discomfort and those in the early stages of needing support or long-term care, the technology helps people who are physically capable of standing but lack confidence perform everyday movements more easily and independently. |
University of Toyama
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor ABE, Takayuki | Business development of new clean-hydrogen production technology |
| This project aims to commercialize a novel clean-hydrogen production technology that utilizes low-temperature waste heat (approximately 150°C) and advanced nanomaterials to generate hydrogen from water vapor, helping to reduce carbon dioxide emissions, a major contributor to global warming. | |
| Associate Professor OMURA, Masaaki | Development of a Device-Agnostic AI Platform for Ultrasound Diagnosis |
| This project aims to develop a multi-vendor AI platform for ultrasound diagnosis based on proprietary vascular segmentation technology and signal processing that compensates for differences among ultrasound devices. Starting with venous thrombosis, the platform will support diagnostic assistance and training for non-expert users. | |
| Assistant Professor KAMIHARA, Yusuke | Development of Visualization and Expert Panel Support Software for Hematologic Malignancy Genetic Panel Testing |
| This project aims to develop a SaaS solution for healthcare institutions that integrates and visualizes results from genetic panel testing for hematologic malignancies. By streamlining preparation for expert panel discussions, the technology improves the efficiency of clinical workflows. |
University of Fukui
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor ASANO, Takayuki | Microwave Selective Heating for Sustainable Resource Creation - Toward the Commercialization of Value-Added Resources from Agricultural Residues - |
| Leveraging microwave technology to convert agricultural residues into value-added resources, this project aims to reduce environmental impact and promote a regional circular economy. The project will demonstrate the feasibility of decentralized resource recycling systems tailored to agricultural communities and support the creation of new industries. |
Fukui Prefectural University
| Principal Investigator | Research Theme / Overview |
|---|---|
| Professor HIBI, Takao | Development and Commercialization of Natural Cheese to Improve Sleep Quality and Gut Microbiota |
| This project aims to develop a novel functional natural cheese containing a plant-derived lactic acid bacterial strain originally isolated from Fukui-grown buckwheat. Designed to deliver viable beneficial bacteria to the gut, the cheese has the potential to support sleep quality and gut health. The project will scientifically validate the strain's physiological benefits and clarify its mechanisms of action, providing the evidence needed to establish a differentiated functional food for commercialization. |
National Institute of Technology, Fukui College
| Principal Investigator | Research Theme / Overview |
|---|---|
| Assistant Professor FUKUSHIMA, Hiroyuki | Realization of Plant Factories with Low-Cost and High-Efficiency Growth Using Red Emission from Mn Phosphors |
| This project aims to maximize the productivity and quality of plant factories by advancing lighting technologies for controlled-environment agriculture. Using blue LEDs and red-emitting phosphors, the project seeks to enhance photosynthesis, improve nutritional value, and optimize plant growth, thereby enabling the development of high-value crops. |
Social Impact
Kanazawa University
Toyama Prefectural University
Hokuriku University
National Institute of Technology, Toyama College
Kanazawa College of Art