Chirp Microsystems

Tools at the Nano- and Micro-Scales

We will develop and employ cutting-edge miniaturized technologies to facilitate the advancement of our strategic research.

Thinking big often means thinking small-scale. Our ability to control matter at the molecular interfaces of materials allows us to create unique tools that cross fundamental disciplines. Sensors and actuators made on the nano- and micro-scales can take measurements and create actions in medical devices, civil infrastructures and more. By studying and controlling interfacial phenomena, we can achieve new solutions in realms including energy storage, medical solutions and surgical tools.

A New Era for Nano-MicroManufacturing

The UC Davis Center for Nano-MicroManufacturing (CNM2), home to a 10,000 square foot cleanroom, is UC Davis’ hub for nano- and micro-fabrication. With state-of-the-art equipment for techniques such as photolithography, electron beam lithography, dry etching, thin film deposition, thermal processing, characterization and more, the facility serves scientists and engineers across the university, as well as industry and other institutions.

Scientist in the cnm2 lab

Research in Action

Saif Islam Receives Inaugural CITRIS Innovation Fellowship and AIC Award

Professor Saif Islam will translate groundbreaking cybersecurity research into a viable commercial solution, thanks to a new award from the Center for Information Technology Research in the Interest of Society and the Banatao Institute, launched in partnership with the Academic Innovation Catalyst.

UC Davis Joins New $285 Million CHIPS Semiconductor Research Institute

The University of California, Davis will be part of a new, $285 million nationwide institute dedicated to advancing research and manufacturing of American semiconductors.

Professor Overcomes Casimir Force, a Fundamental Limitation for Quantum Technology

Professor of Electrical and Computer Engineering Jeremy Munday and his lab have demonstrated a method for controlling the Casimir force, a quantum mechanical effect that draws small objects toward each other. The force can be so strong as to tear components inside a device apart.

Engineering a better world calls for solutions of a different caliber, demanding innovation across disciplines using a design-centric approach.

We employ and develop intelligent systems and automation, tools at the nano-and-micro- scales and engineering for all that will revolutionize energy systems, strengthen climate resilience, advance human health and transform mobility to bring a sustainable, healthier and more resilient world within reach.