Company Filing History:
Years Active: 1989-1994
Title: Bernd Noll: Innovator in Coherent Optical Technologies
Introduction
Bernd Noll is a prominent inventor based in Munich, Germany. He has made significant contributions to the field of coherent optical technologies, holding a total of 7 patents. His work focuses on enhancing the performance and reliability of optical systems.
Latest Patents
Among his latest patents is the "Coherent Optical Multi-Channel Arrangement." This invention addresses the stabilization of frequency spacing between carrier frequency channels of individual transmitters. It effectively eliminates the risk of channel crosstalk for an arbitrarily large number of transmitters. The arrangement includes a coherent optical heterodyne setup for heterodyning portions of the output from each transmitter with respective reference frequency lines. Additionally, a control arrangement is utilized to manage the channel carrier frequency of each transmitter based on the heterodyne signal.
Another notable patent is the "Optical Comb Generator." This invention aims to reduce power fluctuations of spectral lines in a comb generator featuring an annularly closed waveguide. It incorporates a coupler for light coupling from a separate light source into and out of the waveguide, along with a sideband modulator. The design allows for various operational modes to manage power fluctuations effectively.
Career Highlights
Bernd Noll has worked with notable companies, including Siemens Aktiengesellschaft and Siemens AG. His experience in these organizations has contributed to his expertise in optical technologies and innovations.
Collaborations
Throughout his career, Bernd has collaborated with esteemed colleagues such as Franz Auracher and Alfred Ebberg. These partnerships have fostered advancements in the field of coherent optics.
Conclusion
Bernd Noll's contributions to coherent optical technologies through his patents and collaborations highlight his role as an influential inventor. His work continues to impact the field significantly.