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Click Therapeutics, Inc. develops and commercializes software as prescription medical treatments for people with unmet medical needs. Through cognitive and neurobehavioral mechanisms, Click’s Digital Therapeutics™ enable change within individuals, and are designed to be used independently or in conjunction with biomedical treatments. The Clickometrics® adaptive data science platform continuously personalizes user experience to optimize engagement and outcomes. Following a groundbreaking clinical trial, Click’s industry-leading smoking cessation program is available nationwide through a wide variety of payers, providers, and employers. Click is also progressing a broad pipeline of prescription Digital Therapeutics across a variety of high-burden therapeutic areas, including Major Depressive Disorder, Schizophrenia, Acute Coronary Syndrome, Migraine, Chronic Pain, Insomnia, COPD, Obesity, and more.
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.
entrinsic bioscience is a recognized leader in the development, manufacturing and commercialization of disruptive, science-derived amino-acid technologies that are clinically-proven to deliver better health outcomes in a broad range of therapeutic areas including gut health, hydration, skin and respiratory health.
Mcnan Technologies Inc is a Glen Allen, VA-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Arvinas is a pharmaceutical company focused on developing new small molecules ‒ known as PROTACs (PROteolysis TArgeting Chimeras) ‒ aimed at degrading disease-causing cellular proteins via proteolysis. Based on innovative research conducted at Yale University by Dr. Craig Crews, Founder and Chief Scientific Advisor, the company is translating natural protein degradation approaches into novel drugs for the treatment of cancer and other diseases. The proprietary PROTAC-based drug paradigm induces protein degradation, rather than protein inhibition, using the ubiquitin proteasome system and offers the advantage of potentially targeting “undruggable” as well as “druggable” elements of the proteome. This greatly expands the ability to create drugs for many new, previously unapproachable targets.