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Engage Therapeutics was founded by Greg Mayes, President and CEO; and Jouko Isojarvi MD, PhD Executive Vice President and Chief Medical Officer. Engage`s founders bring a combination of strong biopharma pedigrees and personal, family connections to epilepsy. Greg’s son has epilepsy, while Jouko has spent his entire career taking care of epilepsy patients as well as developing and commercializing approved treatments for this condition.
Epizyme is a clinical stage biopharmaceutical company that discovers, develops and plans to commercialize innovative personalized therapeutics for patients with genetically defined cancers. We systematically identify the genetic alterations that create cancer causing genes, called oncogenes, select patients in whom the identified genetic alteration is found, and then design small molecule therapeutic product candidates to inhibit the oncogene. The clinical development plan for each of our therapeutic product candidates is directed towards patients with a particular genetically defined cancer. Our approach is part of a broader trend towards personalized therapeutics based on first identifying the underlying cause of a disease affecting specific patient populations, applying rational drug design tools to create a therapeutic to inhibit a molecular target in the identified disease pathway, and using a companion diagnostic to select the right patients for treatment. We have built a proprietary product platform that we use to create small molecule inhibitors of a 96-member class of enzymes known as histone methyltransferases, or HMTs. Genetic alterations can result in changes to the activity of HMTs, making them oncogenic. When Epizyme was founded, we recognized that the HMT class of enzymes might contain many potential oncogenes and presented the opportunity to discover, develop and commercialize multiple personalized therapeutics. We have prioritized 20 of the 96 HMTs as attractive targets for personalized therapeutics based on their oncogenic potential. Our two most advanced therapeutic product programs target the HMTs DOT1L (for the treatment of acute leukemias with genetic alterations of MLL) and EZH2 (for a genetically defined subtype of non-Hodgkin lymphoma and solid tumors including INI1-deficient tumors). We believe that our ongoing Phase 1 adult trial for EPZ-5676, targeting DOT1L, is the first clinical trial of an HMT inhibitor. In May 2014, we initiated a Phase 1b clinical trial for EPZ-5676 in pediatric patients with MLL-r leukemia, which is considered to be the last largely untreatable pediatric acute leukemia. We are also conducting a Phase 1/2 clinical trial of EPZ-6438, which is being developed for the treatment of non-Hodgkin lymphoma and solid tumors including INI1-deficient tumors such as synovial sarcoma and malignant rhabdoid tumors, or MRT. We were founded in 2007 and are led by a management team with extensive experience in the pharmaceutical industry. We have entered into therapeutic collaborations with Celgene, Eisai and GSK that have provided us with approximately $184 million in non-equity funding. As of June 30, 2014, we had $232.1 million in cash, cash equivalents and accounts receivables.
ReproSource is a Bedford, MA-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Fraunhofer Center for Molecular Biology is a Newark, DE-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Kadmon is a fully integrated biopharmaceutical company engaged in the discovery, development and commercialization of small molecules and biologics to address disease areas of significant unmet medical need. We are developing product candidates within autoimmune and fibrotic diseases, oncology and genetic diseases. We leverage our multi-disciplinary research and clinical development team members, who prior to joining Kadmon had brought more than 15 drugs to market, to identify and pursue a diverse portfolio of novel product candidates, both through in-licensing products and employing our small molecule and biologics platforms. We utilize our advanced understanding of the molecular mechanisms of disease to establish development paths for disease areas where significant unmet medical needs exist.