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We are bringing an entirely new approach to the treatment of autoimmune disease by engineering Tregs as targeted therapies that stop immune-mediated destruction, restore homeostasis – a state of harmony – and promote repair in the affected tissues. In addition to our lead program in progressive MS, Abata has early programs in Type 1 Diabetes (T1D) and inclusion body myositis (IBM). We bring together industry experts and deeply engaged pioneers in Treg biology, T cell receptor and antigen discovery, disease pathogenesis, and molecular and imaging biomarkers. We are bold in our mission and purpose and aim for nothing less than a transformative impact on people`s lives.
Finishing Touch Salon is a Waterbury, CT-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Aura Biosciences is a clinical-stage biotechnology company developing virus-like drug conjugates (VDC), a novel class of therapies, for the treatment of multiple oncology indications. At Aura, our mission is to deliver meaningful therapeutic benefit to a range of cancer indications with high unmet need in which we believe we can establish a new standard of care. We are driven by our passion and commitment to science and the patients battling cancer who are relying on us to pioneer these new therapies. We are focusing the initial development of our VDC technology platform to treat tumors of high unmet need in ocular and urologic oncology. Belzupacap sarotalocan (bel-sar), our first VDC candidate, is being developed for the first-line treatment of early-stage choroidal melanoma, a rare disease with no drugs approved. Beyond early-stage choroidal melanoma, we are developing bel-sar in additional ocular oncology indications, including choroidal metastasis. Leveraging our VDCs` broad tumor targeting capabilities, we have also initiated a clinical program in non-muscle invasive bladder cancer, or NMIBC, our first non-ocular solid tumor indication.
Cellectar Biosciences is developing agents to detect, treat and monitor a broad spectrum of cancers. Using a novel phospholipid ether analog (PLE) platform technology as a targeted delivery and retention vehicle, Cellectar's compounds are designed to be selectively taken up and retained in cancer cells including cancer stem cells. With the ability to attach both imaging and therapeutic agents to its proprietary delivery platform, Cellectar has developed a portfolio of product candidates engineered to leverage the unique characteristics of cancer cells to "find, treat and follow" malignancies in a highly selective way. I-124-CLR1404 is a small-molecule, broad-spectrum, cancer-targeted PET imaging agent currently being evaluated in a Phase II glioblastoma imaging trial. Additionally, multiple investigator-sponsored Phase I/II clinical trials are ongoing across 11 solid tumor indications. I-131-CLR1404 is a small-molecule, broad-spectrum, cancer-targeted molecular radiotherapeutic that delivers cytotoxic radiation directly and selectively to cancer cells including cancer stem cells. A Phase Ib dose-escalation trial of I-131-CLR1404 in patients with advanced solid tumors was completed in the first quarter of 2014 and results have been submitted to the American Society of Clinical Oncology (ASCO) 2014 Annual Meeting. CLR1502 is a preclinical, cancer-targeted, non-radioactive optical imaging agent for intraoperative tumor margin illumination and non-invasive tumor imaging.
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.