Conventional electronic devices based on flexible or rigid printed circuit boards (PCBs) cannot conform to curved surfaces or stretch to accommodate new requirements of disruptive technologies. Additionally, existing methods for the production of stretchable electronics are unable to produce devices with high integration densities achievable with conventional methods. These methods also rely on processes that cannot be implemented at scale. This technology overcomes these limitations and enables practical applications of stretchable electronic devices for health monitoring, wearable computing, medical devices, and beyond.
Cayuga Biotech is a preclinical therapeutics company developing therapies for bleeding disorders. Our lead candidate is a platelet-like drug that accelerates clotting in the presence of injury. Cayuga has already held its pre-IND meeting with the FDA and received guidance on the GLP trials required for IND approval. The Cayuga team is made up of PhD scientists who developed CAY001 during their PhD research. We have two KOLs who are experts in the field of hemostasis and have overseen clinical trials on anticoagulant reversal drugs. Our regulatory strategy is developed by an advisor who spent 23 years at the FDA in CDER. Our manufacturing advisor has overseen 9 drugs reach clinical trials and 4 drugs receive approval. Our business advisors have overseen 4 successful business exits worth over $1 B. Cayuga has raised over $2 MM from DARPA and the Army. We are raising a round to complete the remaining IND-enabling studies, add experienced drug developers to the team, and prepare for the first in man trial.
Many diseases can only be diagnosed properly by looking at sections of the tissue post-mortem or from invasive biopsies. Imaging of subtle textural aspects of tissue is not possible due to low resolution in magnetic resonance (MR) images. bioProtonics has developed a method to measure tissue texture using MR data without the need for rendered images. In many diagnostic workflows, the bioProtonics technique could replace biopsies. Such applications include neurodegenerative disease, liver disease, osteoporosis, cancer, lung disease, prostate disease.
Soft robotics shows promise for creating robots which are better able to navigate narrow and variable environments. The vine robot is able to extend its length many thousands of percent its body length with an internal pressurized vessel, which can be manipulated to change the direction of the robot tip. In testing, the vine robot is able to navigate through small passages and can even autonomously navigate towards light source with the addition of a camera.
Foot Drop is a mobility disorder prevalent in patients that is a common result of neurological injuries or diseases such as stroke cerebral palsy, MS or brain tumors. Foot drop is characterized by the inability to lift the toes toward the shin. It inhibits the rhythmic swing phase of the gait, increasing the probability of falls and manifests in abnormal gait patters that inhibit mobility and create imbalances and stress. Currently, there is not a rehabilitative solution that is cost effective and practical for every day independent use. Dr. Tyler Susko has developed a shoe that provides a low-friction out-sole during the swing phase of the gait, and a high-friction out-sole during the stance phase of the gait. The design can be used on any style shoe. Preliminary pilot studies with impaired adults have shown immediate gait improvement.