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The mission of 4D Molecular Therapeutics is to design and develop transformative gene therapy products using our proprietary technology to create novel adeno-associated virus variants to be utilized as treatments for serious unmet medical conditions. Our products are unlocking the full potential of gene therapy to treat, and potentially cure, genetic diseases. A large number of patients and diseases, who previously were not treatable by gene therapy, will be addressable by 4D products. 4D has one of the deepest and most diverse product pipelines in the gene therapy field. Adeno-associated virus (AAV) vectors have emerged as a favored delivery vehicle for gene therapy in the human body. They can deliver the genes for therapeutic proteins to accessible tissues in the body and are generally considered safe. Several AAV gene therapy products are in late-stage clinical development, and one product is approved in the EU (Glybera, Uniqure). However, these first-generation AAV vectors have limited utility for the majority of diseases. Many of these common AAV were discovered as laboratory contaminants and monkey infections, for example; they have not been customized as targeted medicines. In contrast, 4D customized AAV vectors, and the products made from them, are designed to unlock the full potential of gene therapy. Through 4D`s Therapeutic Vector Evolution, we are able to create customized vectors solutions to overcome the hurdles identified with first-generation AAV vectors. 4D is creating the ultimate gene therapy products to cure genetic diseases using new customized delivery vehicles (vectors) to shuttle genes into the cells in any organ in the body. This 4D “library” of vectors will soon include several for the liver, several for the brain, several for the heart, the eye, muscle, and so on. Doctors will be able to hand pick a vector for any patient based on the organ that is diseased.
LUMICKS is the leading supplier of Dynamic Single-Molecule and Cell Avidity analysis instruments` Our instruments enable – for the first time – the analysis of complex dynamic details related to the behavior and interaction of single molecules and cells` Built upon innovative and Nobel Prize-winning technologies, such as optical tweezers (Nobel Prize for Physics 2018), and STED super-resolution (Nobel Prize for Chemistry 2014), our tools enable the understanding of life to the smallest detail` Our goal is to improve human health by unlocking the power of Dynamic Single–Molecule and Cell Avidity analysis to provide unparalleled insight into the fundamental cause of disease and potential for drug optimization` These technologies are rapidly evolving as a mainstream approach in academic and pharma research for the study of DNA-protein interactions, molecular motor activity, protein folding, and cell-cell interactions`
AC Immune SA, a global leader in developing precision medicine for neurodegenerative diseases (incl. Alzheimer & Parkinsons) with cutting-edge technology platforms
Nonlethal Technologies, Inc is a Homer City, PA-based company in the Healthcare, Pharmaceuticals, and Biotech sector.
Tyra Biosciences, Inc. is a precision oncology company focused on developing purpose-built therapies to overcome tumor resistance and improve outcomes for patients with cancer. TYRA is using its proprietary SNÅP platform, which is optimized to enable rapid and precise refinement of structural design through iterative molecular SNÅPshots, in order to generate next-generation product candidates that are specifically designed to address acquired drug resistance and provide alternative treatment options. TYRA is initially focused on developing a pipeline of selective inhibitors of the Fibroblast Growth Factor Receptor (FGFR) family members, which are altered in approximately 7% of all cancers. TYRA is advancing multiple product candidates toward the clinic including its lead product candidate TYRA-300, an FGFR3 inhibitor with an initial focus on patients with bladder cancer, and TYRA-200, an FGFR2 inhibitor with an initial focus on patients with intrahepatic cholangiocarcinoma who have developed drug resistance mutations from existing FGFR inhibitors.