| Name | Title | Contact Details |
|---|---|---|
Dan Jamieson |
Associate Director Enterprise Architecture | Profile |
Diana Atwell |
Associate Director, Information Systems | Profile |
Spring Bank Pharmaceuticals (NASDAQ: SBPH) is a clinical-stage biopharmaceutical company engaged in the discovery and development of a novel class of therapeutics using our proprietary small molecule nucleic acid hybrid (SMNH) chemistry platform. SMNH compounds are small segments of nucleic acids that the company designs to selectively target and modulate the activity of specific proteins implicated in various disease states. Spring Bank is developing its most advanced SMNH product candidate, inarigivir soproxil (formerly referred to as SB 9200), for the treatment of viral diseases, including hepatitis B virus (HBV), and other SMNH product candidates, including SB 11285, the company`s lead immunotherapeutic agent for the treatment of selected cancers through the activation of the STimulator of Interferon Genes, or STING, pathway.
SHYFT has been an integral part of the life sciences ecosystem for over 10 years and as the market undergoes a dramatic transformation to deliver more personalized and value-based medicine, the role of SHYFT has never been more important. We built the SHYFT Platform to help life science companies integrate clinical and commercial data and translate it into patient-centric intelligence and analytics for use across functional groups, shortening development cycles and commercialization activities while improving the probability of success. With a long history of success and deep client partnerships, we understand the market transformation and the actionable intelligence required for successful launch, growth and maintenance of new therapies. At SHYFT, we collaborate with our clients to ensure their success not only today, but in the future by providing flexible, agile solutions based on deep industry expertise. With an impressive customer retention rate, we`re committed to our client`s success and serve as a true partner in the transformation.
Exosome Diagnostics is developing biofluid-based molecular diagnostic tests for use in personalized medicine. Exosomes and other microvesicles are shed into all biofluids, including blood, urine and cerebrospinal fluid, forming a highly enriched source of intact, disease-specific nucleic acids. The Company`s proprietary exosome technology makes use of this natural enrichment to achieve high sensitivity and specificity for rare gene transcripts and the expression of genes responsible for cancers and other diseases.
Sage Bionetworks is a nonprofit biomedical research and technology development organization that was founded in Seattle in 2009. We develop and apply open practices to data-intensive research for the advancement of human health. Data-intensive research has become an important component of biomedicine, but it`s not always easy to understand how to apply computational approaches appropriately or how to interpret their results. Sage believes open practices can help. Our interdisciplinary team of scientists and engineers work together to provide researchers access to technology tools and scientific approaches to share data, benchmark methods, and explore collective insights, all backed by Sage`s gold-standard governance protocols and commitment to user-centered design. Sage is supported through a portfolio of competitive research grants, commercial partnerships, and philanthropic contributions. Sage embraces diversity, equity and inclusion. We are committed to pay parity and making our salary ranges available to all employees. We invite you to apply and we welcome a conversation. We are based in Seattle, WA, and collaborate broadly throughout the world.
Mirna Therapeutics, Inc. (Mirna) is a biotechnology research and development company focused on miRNA-directed oncology therapies. Featuring world-class research capabilities, a strong understanding of miRNA and cancer biology, and a broad IP portfolio, Mirna Therapeutics is well-positioned to capitalize on the emerging field of miRNA-based therapeutics.