| Name | Title | Contact Details |
|---|---|---|
Devin Smith |
General Counsel and Chief Compliance Officer | Profile |
Comp-U-charge is a Spokane, WA-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Life Biosciences was co-founded in 2017 by David Sinclair, PhD, a professor in the Department of Genetics at Harvard Medical School, and Tristan Edwards, who developed its innovative structure as Chapter Two in his life, after a highly successful career as a global institutional investor, working across all asset classes. The company`s novel Daughter company business model creates the robust research ecosystem required to forge industry leadership through two investment strategies. The first is to establish new companies, thereby extending the research of visionary scientists around the world. Secondly, Life Biosciences invests in other groundbreaking firms, providing them with the resources to maximize their potential. In addition to Lua, there are six Daughter companies working independently and together within the Life Biosciences research environment. The company provides Daughter companies with the resources required to maximize human potential, including Lua`s AI-driven data and communications platform, experienced management, drug development experience, and a 25,000 square foot, state-of-the-art vivarium, robotics and drug screening facility in Cambridge, Mass, augmented by laboratories and offices on four continents. Co-founded in 2017 by David Sinclair, PhD, AO, and Tristan Edwards, Life Biosciences is the first and largest biotech company addressing the eight pathways of age-related decline (ARD) in totality. It has established Daughter companies around the world, led by a Dream Team of respected scientists, to independently and collaboratively attack these pathways through pioneering research and product development. The company provides Daughter companies with resources to maximize human potential, including Lua`s AI-driven data and communications platform, drug development experience, and a 25,000 square foot, state-of-the-art vivarium, robotics and drug screening facility. Life Biosciences seeks to increase healthspans for everyone, including companion animals, by addressing the systemic breakdown of the body, rather than as a series of isolated symptoms and conditions.
IsoPlexis is leading a new era of functional proteomics. By identifying our most proteomically active single cells (or "superhero cells") for the first time, IsoPlexis enables researchers to connect more directly to in vivo biology and develop more precise and personalized therapies. IsoPlexis has been named Top Innovation or Design by The Scientist Magazine, Fierce, BIG Innovation, Red Dot and multiple others. The IsoPlexis platform is used globally by researchers, including those at the top 15 global pharmaceutical companies and at the majority of leading U.S. comprehensive cancer centers.
SynFine Research, Inc. is a Richmond Hill, ON-based company in the Healthcare, Pharmaceuticals, & Biotech sector.
Trevena is a publicly traded clinical stage biopharmaceutical company based in King of Prussia, PA, dedicated to the discovery and development of GPCR biased ligands. Established in late 2007, Trevena was created to translate groundbreaking research on GPCR signaling into a new generation of medicines. We have three programs in clinical development: TRV027, currently in phase 2 clinical testing for the treatment of acute heart failure; TRV130, currently in phase 2 testing for the intraveneous treatment of postoperative pain; and TRV734, currently in phase 1 testing for oral treatment of acute and chronic pain. In addition, Trevena has built an early-stage portfolio of drug discovery programs currently in lead optimization. G protein coupled receptors are the targets for more than 30% of all currently marketed therapeutics. There is significant opportunity to improve upon currently marketed GPCR drugs because many have limited efficacy and undesirable adverse effects, which can prevent broader use. Furthermore, many GPCRs are linked to diseases but cannot be translated into medicines because of specific target-related adverse effects. Trevena's biased ligand approach has the potential to address these problems across a wide range of receptors and therapeutic areas.