Company Filing History:
Years Active: 1998-2000
Title: Innovations of Stanley J Crossett
Introduction
Stanley J Crossett is a notable inventor based in Vadnais Heights, Minnesota. He has made significant contributions to the field of medical technology, particularly in the development of communication methods for implantable medical devices. With a total of two patents to his name, Crossett's work has the potential to enhance the functionality of medical assemblies, such as artificial hearts.
Latest Patents
Crossett's latest patents focus on a communication method for implantable medical devices. This innovative medical assembly is designed to be implanted within a living subject and includes an implantable data communications interface. This interface is capable of receiving an encoded data signal from a data communications interface located outside the subject, at a position remote from the medical assembly. The encoded data signal is transmitted in a series of periodic signal bursts. These bursts are transmitted at a first frequency to represent a first data value and a second frequency to represent a second data value. Each burst consists of multiple signal transitions that occur at a third frequency, which is greater than both the first and second frequencies.
Career Highlights
Crossett has spent a significant portion of his career at the Minnesota Mining and Manufacturing Company, where he has been able to apply his innovative ideas in a practical setting. His work has contributed to advancements in medical technology, particularly in the area of implantable devices.
Collaborations
Throughout his career, Crossett has collaborated with notable colleagues, including Richard A Nazarian and Michael E Hamerly. These collaborations have likely played a role in the development and refinement of his patented technologies.
Conclusion
Stanley J Crossett's contributions to the field of medical technology through his innovative patents demonstrate his commitment to improving healthcare solutions. His work in communication methods for implantable medical devices has the potential to significantly impact patient care and medical practices.