| Name | Title | Contact Details |
|---|---|---|
Aymii Couzelis |
Chief Information Officer | Profile |
3-V Biosciences, Inc. is discovering and developing therapeutics that modulate key pathways in oncology and infectious diseases. In oncology, the company`s lead candidate is a first-in-class, oral fatty acid synthase (FASN) inhibitor in Phase 1 clinical development that has been shown to block tumor cell signaling pathways and induce tumor cell apoptosis. 3-V`s antiviral therapeutics have demonstrated the ability to block host-pathogen interactions, resulting in robust and broad-spectrum in vitro and in vivo antiviral activity, including efficacy against viruses resistant to other classes of antiviral drugs, and a high barrier to resistance. The 3-V team applies an integrated approach, leveraging internal expertise in biology, medicinal chemistry, drug discovery and development to drive programs forward. The company is located in Menlo Park, California.
IGM Biosciences, Inc. is a privately held biotechnology company that has been focused on creating and developing novel IgM and IgA antibodies that improve the treatment of cancer and other diseases since 2010.
ZyStor Therapeutics is a Milwaukee, WI-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Avalo is a leading clinical-stage biopharmaceutical company that employs a precision medicine approach to discover, develop, and commercialize highly targeted therapeutics in areas of significant unmet clinical need.
Protagonist Therapeutics is a biotechnology company pursuing the discovery and development of target oral peptides as well differentiated alternatives to antibodies, and also as new chemical entities (NCEs) against those targets and life threatening diseases for which suitable small molecule and/or biologic options are not available. Peptides typically suffer from limitations of poor proteolytic stability and therefore find scarce therapeutic utility that is largely limited to ‘injectable drugs’. Protagonist’s technology platform is aimed at overcoming these restrictions and expanding the scope of peptide therapeutics to address unmet needs. Specific emphasis is placed on identifying ‘orally stable’ scaffolds and/or engineering oral stability characteristics onto them. The platform has been optimized over the years and involves synergistic integration of rational drug design, diversity oriented computational tools, phage display libraries, recombinant peptide expression, ex vivo oral stability methods, and peptide/medicinal chemistry techniques. This activity has led to the identification of ‘privileged scaffolds’ with favorable oral stability characteristics. Furthermore, the technology platform is well suited both for de novo discovery against a target and optimization around a given chemical starting point.