Company Filing History:
Years Active: 2011
Title: The Innovative Contributions of Alison Rogers
Introduction
Alison Rogers is a prominent inventor based in Seattle, WA, known for her groundbreaking work in the field of biological tissue fusion. With a focus on enhancing medical procedures, she has made significant strides in developing technologies that improve patient outcomes. Her innovative approach has led to the creation of a unique patent that addresses critical challenges in tissue sealing.
Latest Patents
Alison Rogers holds a patent for the "Coaptive tissue fusion method and apparatus with energy derivative precursive energy termination control." This invention provides a method for sealing or fusing biological tissue to occlude openings by compressing the apposite sidewall portions of the tissue. The process involves applying sufficient energy to intertwine and fuse the fibers of the compressed tissue, forming a permanent seal. Notably, the energy application is controlled by detecting a precursor fusion condition, allowing for precise termination of energy application before achieving a permanent seal. This innovative method enhances the effectiveness of tissue fusion procedures.
Career Highlights
Throughout her career, Alison has demonstrated a commitment to advancing medical technology. Her work at Conmed Corporation has positioned her as a leader in the field of surgical innovations. With her expertise, she has contributed to the development of solutions that address complex medical challenges, ultimately improving surgical outcomes for patients.
Collaborations
Alison Rogers has collaborated with notable colleagues, including Francis T McGreevy and Katherine R Pavlovsky. These partnerships have fostered an environment of innovation and creativity, leading to the development of cutting-edge technologies in the medical field.
Conclusion
Alison Rogers is a trailblazer in the realm of medical inventions, with her patented technology offering significant advancements in tissue fusion methods. Her contributions continue to shape the future of surgical procedures, making a lasting impact on patient care.