Timothy Shaw
About Timothy Shaw
Timothy Shaw is a Principal Scientist at Digital Control Incorporated, specializing in ultra-high vacuum and cryogenic vacuum systems. He has extensive experience in RF engineering and has developed algorithms for high-energy particle detectors.
Current Role at Digital Control Incorporated
Timothy Shaw has been serving as Principal Scientist at Digital Control Incorporated since 2013. In this role, he focuses on advanced scientific research and development, particularly in areas related to vacuum systems and cryogenics. His position in the Greater Seattle Area allows him to lead projects that require high levels of precision and expertise in vacuum technology.
Previous Experience at Rapiscan Systems
Before joining Digital Control, Timothy Shaw worked at Rapiscan Systems as a Senior Scientist and Project Manager from 2001 to 2013. During his 12 years in the San Francisco Bay Area, he contributed to the development of technologies related to security and detection systems, leveraging his expertise in vacuum systems and RF engineering.
Educational Background in Physics
Timothy Shaw earned his Ph.D. in Physics from the University of California, Berkeley, where he studied from 1990 to 1997. His academic journey also includes a Bachelor of Science in Applied and Engineering Physics from Cornell University, completed from 1986 to 1990. This strong educational foundation supports his extensive knowledge in scientific research and engineering.
Specialization in Vacuum Systems and Cryogenics
Timothy Shaw specializes in the design and operation of ultra-high vacuum (UHV) and cryogenic vacuum systems. His work is essential for experiments that require minimal interference from air molecules, particularly in scientific applications that involve extremely low temperatures. His background includes significant experience in cryogenic system design, enhancing his capabilities in this specialized field.
Expertise in Engineering Simulations
Timothy Shaw possesses expertise in finite element method (FEM) and boundary element method (BEM) simulations. These techniques are critical for solving complex engineering and physical problems. His experience in RF engineering further complements his skill set, particularly in the design and application of radio frequency systems, which are important for various communication technologies.