TS-003698 — This IP is an innovative advancement in the field of cochlear implantation. Traditionally, the manual insertion of cochlear implant electrodes poses a risk of trauma to delicate cochlear structures, potentially leading to loss of residual hearing. The IP technology addresses this challenge by introducing a robotic system designed to make precise, surgeon-directed movements during the implantation process. Key advantages and improvements over existing methods include the reduction of surgeon hand tremors, consistent insertion rates, and enhanced dexterity for modifying insertion parameters (e.g., pitch, rotation, and yaw). By automating the insertion process, this system aims to minimize trauma to the inner ear, thereby preserving residual hearing and improving patient outcomes. Beyond immediate use in cochlear implant surgeries, the IP has the potential to revolutionize the field of otolaryngology by reducing the risk of complications and improving patient outcomes. As the technology matures, it may find applications in other surgical procedures where precision and delicate manipulation are paramount. It offers a compelling value proposition to healthcare providers, highlighting its potential to improve patient safety, reduce surgical complications, and enhance overall surgical precision. Partnerships with leading cochlear implant manufacturers facilitate the integration of this technology into existing cochlear implant systems, further expanding its market reach. Continued development and collaboration with experts in mechanical engineering and otolaryngology will be essential to refine the technology, validate its efficacy through pre-clinical testing, and ultimately bring it to market.

TS-000792 — By importing images acquired through minimal user interaction in a clinical setting, a virtual surgical simulator is possible. This program creates a combination of visual, haptic, and aural feedback that processes images to register anatomical structures as a 3D rendering. A research team found that this technology creates a three-dimensional display of realistic bone transparency, fluid simulation rooted in physics, and a constraint-based algorithm of the bone-drill interaction haptics. By implementing and optimizing CUDA and OpenGL graphics, the simulator has the capacity to maintain real-time rendering of large data sets. The user can upload their data, while the algorithm provides information for surgical planning and rehearsal. Current adaptations are for cochlear implants, as well as nasal and sinus surgery.