Location History:
- Marlboro, MA (US) (1996)
- Lexington, MA (US) (1998 - 2003)
- Bedford, MA (US) (2002 - 2004)
Company Filing History:
Years Active: 1996-2004
Title: Kristin A Rauschenbach: Innovator in Optical Technologies
Introduction
Kristin A Rauschenbach is a prominent inventor based in Lexington, MA (US). She has made significant contributions to the field of optical technologies, holding a total of 9 patents. Her innovative work focuses on methods and devices that enhance optical signal processing.
Latest Patents
Among her latest patents is a method for fast variable optical delay. This method introduces variable time offsets into a stream of optical pulses. It involves receiving a plurality of coherent optical pulses and control signals, forming a coherent pulse array (CPA) from each pulse in response to the control signals. The temporal spacings between pulses of each CPA are responsive to the associated control signals. The method also includes transmitting each pulse through a dispersive optical medium, resulting in overlapping pulses that create an interference pattern. Another notable patent is for all-optical bit phase sensing. This invention utilizes nonlinear interferometers to create all-optical bit phase sensors. It describes a sensor that employs an optical fiber and a detector optically coupled to the core of the fiber, as well as an electrooptic bit phase sensor using a semiconductor diode.
Career Highlights
Kristin has worked at the Massachusetts Institute of Technology, where she has been involved in groundbreaking research and development in optical technologies. Her work has significantly advanced the understanding and application of optical signal processing.
Collaborations
One of her notable collaborators is John D Moores, with whom she has worked on various projects related to her patents and innovations.
Conclusion
Kristin A Rauschenbach's contributions to optical technologies through her patents and research have established her as a leading figure in the field. Her innovative methods continue to influence advancements in optical signal processing.