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ADMA Biologics, Inc. is a late-stage biopharmaceutical company that develops, manufactures and intends to market specialty plasma-based biologics for the treatment and prevention of infectious diseases. The Company is engaged in the development and com...
Resilience is changing the way medicine is made – leveraging innovation to better serve scientific discovery, withstand disruptive events, and reach those in need.
insitro is a data-driven drug discovery and development company that leverages machine learning and high-throughput biology to transform the way medicines are created to help patients. At insitro, we are rethinking the entire drug discovery process, from the perspective of machine learning, human genetics, and high-throughput, quantitative biology. Over the past five decades, we have seen the development of new medicines becoming increasingly more difficult and expensive, leaving many patients with significant unmet need. We`re embarking on a new approach to drug development – one that leverages machine learning and unique in vitro strategies for modeling disease state and designing new therapeutic interventions. We aim to eliminate key bottlenecks in traditional drug discovery, so we can help more people sooner and at a much lower cost to the patient and the healthcare industry. We believe that by harnessing the power of technology to interrogate and measure human biology, we can have a major impact on many diseases. We invest heavily in cutting edge bioengineering technologies to enable the construction of large-scale, high-quality data sets that are designed specifically to drive machine learning methods. Our first application is to use human genetics, functional genomics, and machine learning to build a new generation of in vitro human cell-derived disease models whose response to perturbation is designed to be predictive of human clinical outcomes.
Type 1 diabetes (T1D), formerly known as juvenile diabetes, is a chronic, life-threatening disease that affects millions of people worldwide. In the United States, 30,000 new cases are estimated every year with half of those cases diagnosed in young children. Type 1 diabetes is an autoimmune disease in which the patient`s immune system goes awry and attacks and destroys the pancreatic beta cells. Beta cells are responsible for regulating blood sugar (glucose) levels by producing precise amounts of the essential hormone insulin. The discovery of injectable insulin in the 1920s changed T1D from a uniformly fatal disease with a life expectancy of months to one that could be carefully managed for decades through multiple daily blood glucose measurements and insulin injections. However, insulin injections are not a cure and patients face a lifetime of difficult disease management and serious complications including kidney failure, blindness and nerve damage. Despite nearly a century passing since the discovery of insulin, insulin injection remains the only treatment available to patients. Semma Therapeutics was founded to develop transformative therapies for patients who currently depend on insulin injections. Recent work in the laboratory of Professor Douglas Melton led to the discovery of a method to generate billions of functional, insulin-producing beta cells in the laboratory. These cells develop in islet-like clusters grown from stem cells. Initial preclinical work in animal models of diabetes has shown that transplantation of these cells are sufficient to control blood glucose levels. This breakthrough technology has been exclusively licensed to Semma Therapeutics for the development of a cell-based therapy for diabetes. Ongoing research at Semma Therapeutics is focused on combining these proprietary cells with a state-of-the-art cell delivery and immune protection strategy that can protect these cells from the patient`s immune system and allow the beta cells to function as they do in non-diabetic individuals. Implantation of the beta cell-filled device has the potential to provide a true replacement for the missing beta cells in a diabetic patient and would not require patient immunosuppression. Semma Therapeutics is working to bring this new therapeutic option to the clinic and improve the lives of patients with diabetes.
Pinetree Therapeutics is an award-winning, pre-clinical stage biotechnology company based in Cambridge, Massachusetts. We are dedicated to finding solutions for unmet medical need, such as drug resistance and tumor recurrence, in targeted therapy by degradation of disease-causing proteins with AbReptorTM platform. Novel degrader drugs have been exciting scientific field, due to its distinct mechanism of action (removal of disease-causing protein). AbReptorTM was developed for targeted degradation on membrane bound and extracellular proteins causing diseases. Receptor tyrosine kinase (RTK) and non-RTK inhibitors have made huge progress in the past few years, but their application is limited due to specificity, drug resistance, and on-target toxicity. Our platform`s RTK degraders promise to redefine their distinctive mutation-agnostic properties, differing from existing RTK therapeutics field. With the pre-clinical animal study, our lead molecule demonstrated on-target degradation, mutation agnostic anti-tumor effect, and potent anti-tumor effect in RTK inhibitor resistant tumor. Surprisingly, no signs of toxicity were found in rodent and cynomolgus monkey. Furthermore, it would unluck full potential to solve limitation of RTK and non-RTK therapeutics. Immune checkpoint inhibitors (ICIs) field made an initial breakthrough with poor response rate, high toxicity profiles, and exhausted poor clinical outcome. Our platform has full potential to solve the current problem of immune checkpoint inhibitors (ICIs), PD-(L)1 inhibitors. Our PD-(L)1 degrader is the first ever in-class to demonstrate enhanced anti-tumor immunity in pre-clinical animal studies. Pinetree Therapeutics` lead molecule is in pre-clinical IND stage, and we are committed to expanding our platforms to other target proteins, such as RTKs, non-RTKs, and ICIs. We believe our platform has the potential to transform the field of medicine and revolutionize the treatment of cancer and other diseases.