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Award details
- Awarding agency
- Department of Health and Human Services
- Branch
- National Institutes of Health
- Recipient company
- VALA SCIENCES, INC.
- Proposal award date
- Not reported
- Contract end date
- Not reported
- UEI
- CZZJVX2BKJF3
- Solicitation number
- PHS2006-2
- Topic code
- Not reported
Research abstract
DESCRIPTION (provided by applicant): We propose to develop an automated screen for small molecules that modulate insulin promoter activity. The assay is based upon a mouse insulinoma, MIN6, that normally expresses insulin mRNA. This cell was engineered to stably contain two cassettes that use a fluorescent reporter protein to monitor insulin promoter activity and a housekeeping gene activity. The secondary assay to be used to confirm the hits will be to verify modulation of endogenous insulin mRNA expression relative to control mRNAs. Like all cultured insulin-producing cells, MIN6 cells produce substantially less insulin mRNA and protein than do normal a-cells in the intact pancreas. Thus, it should be feasible to identify compounds that can either stimulate or suppress insulin production. The assay will be marketed as a tool for researchers to discover small molecule modulators of insulin mRNA synthesis. Such bioactive molecules will be used subsequently to probe the regulatory pathways that control insulin secretion and should contribute to cell-based or pharmacologic treatments for type-I and -II diabetes. Preliminary data indicate that the Insulin promoter-eGFP reporter transgene mimics the activity of the endogenous insulin gene and a pilot screen of 8,000 small synthetic compounds yielded small molecule hits that increased and decreased insulin gene expression. Calculated Z? values of 0.74 for increase and 0.43 for decrease in eGFP were obtained. The proposed Aims are to 1) Optimize the assay and verify its performance in a pilot screen of 50,000 compounds, and 2) Optimize image analysis algorithms and deliver a stand-alone software package to enable investigators to derive reliable numerical data on insulin gene activity from the images. P The project proposes to develop an automated screen for small molecules that modulate insulin promoter activity. The assay will be marketed as a tool for researchers to discover small molecule modulators of insulin mRNA synthesis. Such bioactive molecules will be used subsequently to probe the regulatory pathways that control insulin secretion and should contribute to cell-based or pharmacologic treatments for type-I and -II diabetes. Preliminary data indicate that the Insulin promoter-eGFP reporter transgene mimics the activity of the endogenous insulin gene and a pilot screen of 8,000 small synthetic compounds yielded small molecule hits that increased and decreased insulin gene expression. Calculated Z' values of 0.74 for increase and 0.43 for decrease in eGFP were obtained. The proposed Aims are to 1) Optimize the assay and verify its performance in a pilot screen of 50,000 compounds, and 2) Optimize image analysis algorithms and deliver a stand-alone software package to enable investigators to derive reliable numerical data on insulin gene activity from the images. Project Narrative: The project proposes to develop an automated screen for small molecules that modulate insulin promoter activity. The assay will be marketed as a tool for researchers to discover small molecule modulators of insulin mRNA synthesis. Such bioactive molecules will be used subsequently to probe the regulatory pathways that control insulin secretion and should contribute to cell-based or pharmacologic treatments for type-I and -II diabetes
Technology keywords
Not reported
Other awards by this recipient
Verified by the same UEI. These are other public SBIR/STTR award pages, not a merged company record.
- SBIR PHASE 1 (NIH/NIMH TOPIC 002 - DEVELOPMENT OF NOVEL IN-VITRO AND IN-VIVO MODELS TO SUPPORT NEUROHIV RESEARCH)
- An assay suite featuring hiPSC-derived neurons and support cells, to test toxicants and industrial chemicals for developmental neurotoxic effects
- Neural Circuits, Kinetics and Energetics HTS of Human iPSC-Neurons, -Microglia, and -Astrocytes: AI-Enabled Platform for Target ID, and Drug Discovery and Toxicity (e.g., Cancer Chemo & HIV ARTs)
- Neural Circuits, Kinetics and Energetics HTS of Human iPSC-Neurons, -Microglia, and -Astrocytes: AI-Enabled Platform for Target ID, and Drug Discovery and Toxicity (e.g., Cancer Chemo and HIV ARTs)
- Combined Cardiomyopathy, e.g., of Cancer Chemotherapeutics, and Proarrhythmia for Cardiotoxicity Clinical Trials-in-a-Dish (CTiD) with iPSC-Derived Cardiomyocytes
Research funding history
37 SBIR/STTR records share this UEI (2006–2024). Reported award amounts total $27,661,877. Reported amounts are not federal obligations.
Phases: Phase I, Phase II
Agencies: Department of Health and Human Services
Agency intelligence
Department of Health and Human Services
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