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Cyclacel Pharmaceuticals, Inc. is a biopharmaceutical company developing oral therapies that target the various phases of cell cycle control for the treatment of cancer and other serious diseases. Professor Sir David Lane, a recognized leader in the field of tumor suppressor biology, who discovered the p53 protein, founded the Company in 1996. In 1999, Cyclacel Pharmaceuticals was joined by Professor David Glover, a recognized leader in the mechanism of mitosis or cell division, who discovered, among other cell cycle targets, the mitotic kinases, Polo and Aurora, enzymes that act in the mitosis phase of the cell cycle. Sapacitabine (CYC682), Cyclacel`s most advanced product candidate, is the subject of SEAMLESS, a Phase 3 trial, which has completed enrollment and is being conducted under an SPA with the FDA as front-line treatment for acute myeloid leukemia (AML) in the elderly, and other indications including myelodysplastic syndromes (MDS). Cyclacel`s pipeline includes an oral regimen of seliciclib in combination with sapacitabine in a Phase 1 study of patients with Homologous Recombination (HR) repair-deficient breast, ovarian and pancreatic cancers, including BRCA positive tumors, and CYC065, a novel CDK2/9 inhibitor in a Phase 1 study of patients with solid tumors with potential utility in both hematological malignancies and solid tumors. Cyclacel`s strategy is to build a diversified biopharmaceutical business focused in hematology and oncology based on a development pipeline of novel drug candidates. Cyclacel Pharmaceuticals` corporate headquarters are in Berkeley Heights, New Jersey, where our business development and medical and regulatory functions are also located. The company`s primary research facility is located in Dundee, Scotland. Dundee is the main location of our translational research and preclinical activities.
Dyadic uses its proprietary C1 platform technology to discover and develop novel genes and other biological products from eukaryotic organisms found in the full spectrum of the earth’s biodiversity. Once useful genes are isolated, Dyadic uses its integrated platform to manufacture specific proteins, doing so more rapidly and efficiently — and with a much higher rate of success than existing gene discovery systems. Dyadic leverages its proprietary technology platform to discover novel genes and biological products for use by its strategic partners, and to further its own R&D efforts. Dyadic seeks strategic alliances with major leaders in the agricultural, bioenergy, industrial enzyme, chemical and biopharmaceutical industries that have in-house genomic capabilities. Dyadic will also collaborate with companies whose genomic capabilities are limited, discovering and expressing biological materials for these strategic partners. In addition, Dyadic, using these proprietary systems, will continue to commercialize enzymes for use in targeted markets, including the animal nutrition, detergent, ethanol, pulp and paper, biopharmaceutical, starch and textile industries. Dyadic expects to generate revenue from its product sales, revenue generated from research and development services and funding as well as revenue generated from licensing and other strategic collaborations in the form of milestone and royalty payments.
Affiliated Dermatologists, S.C. is a Brookfield, WI-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
TAU Systems is a deep-tech company developing the first compact particle accelerators and specialized X-ray free-electron lasers that combine the capabilities of large accelerators with a small footprint to provide easy and affordable beam-time access for any company. Led by premier experts in laser-driven particle accelerators, TAU is democratizing access for the progress of biotechnology, nuclear and more.
BIOAGE has a diverse team of computational biologists and medical scientists with expertise in aging and translational research. We share the vision that a synergy of machine learning approaches, high throughput human omics data, and new experimental approaches will make it possible to discover therapies that address unmet medical needs in an aging population.