Education and Training: Establish and promote an open environment for ongoing education and hands-on training to enhance the regional technical workforce with the skills needed to support and grow the emerging photonic integrated circuit ecosystem and related fields.
Research Collaboration: Provide subject matter expertise and research collaboration opportunities in photonic areas related to:
Prototyping: Establish and promote an open environment for internal and external clients from industry, academia, and government sectors to create and test prototypes that utilize photonic integrated circuit technologies essential for manufacturing advancement in areas related to:
It is my pleasure to work with students and colleagues to elevate the impact WPI has on the world. WPI has a dynamic and energetic environment with a strong focus on experiential learning and interdisciplinary research. The balance between theory and practice and the passion everyone shares for the WPI Plan and the Project Based Curriculum makes this a truly unique place, where you get degrees for project accomplishments rather than courses completed.
The overarching theme of my research is light-matter interactions and their applications in microscale and nanoscale. Particularly, my research interests include optical trapping, optofluidics, nanophotonics, cavity optomechanics, and fiber optic sensing systems, with an emphasis on optical actuation, damping, and sensing of mechanics in micro-/nano-scale structures and biological specimens. The potential applications of my research include on-chip disease diagnosis, in vivo disease treatments, motion detection in consumer electronics, health monitoring, and biomechanics.
My research is aimed at discovering, understanding and developing advanced materials for a range of applications including solar energy conversion, catalysis, printed electronics, sensors, and functional coatings. Our lab specializes in the synthesis of nanostructured thin film materials using scalable processes. Students and researchers in my lab can expect to work on highly interdisciplinary projects at the intersection of materials science, mechanical engineering, solid state physics, and thermal sciences.
Photonics involves the transmission and processing of information using light (photons) instead of electricity (electrons). Photonic devices are often faster, use less power, and can be made at smaller scales than electronic ones. This creates opportunities to develop new and better sensors, imaging technologies, medical diagnostics, and more.
While photonics is already applied widely in communications, computing, healthcare, and other industries, the field has the potential to usher in a new era in the Information Age. LEAP @ WPI/QCC looks forward to the helping make next big breakthrough by providing infrastructure and expertise to enable internal and external users to explore materials, components, and systems that can interface with integrated photonics.
The I-90 corridor, which connects Albany to Boston, is becoming a conduit that ties together elements of a vibrant integrated photonics education, research, and development ecosystem. LEAP @ WPI/QCC represents the Central Massachusetts section of the corridor
LEAP @ WPI/QCC is focused on strengthening regional partnerships with business, colleges and universities, and government entities to support research, development, education, and workforce development.
The LEAP @ WPI/QCC facility is equipped with state-of-the art tools for the realization, design, characterization testing, and reliability testing of photonic integrated circuits (PICs) and devices. The toolsets will complement various facilities in the AIM Photonics ecosystem including: AIM Academy, LEAP @ MIT, LEAP @ BSU/SC the Test Assembly and Packaging (TAP) Facility in Rochester, NY and the AIM Photonics Foundry in Albany, NY.
Researchers in multiple disciplines at WPI and QCC, in collaboration with several strategic partners, will use these facilities to design and test prototypes of PICs and systems that emerge from interdisciplinary research in such areas as health and biotechnology, advanced manufacturing, and robotics and cyberphysical systems.
LEAP @ WPI/QCC will collaborate on the development of programs, curricula, and training materials in partnership with industry, educators, and other education and practice sites in order to prepare a technologically competent workforce ready to help their employers succeed in the advanced manufacturing sector.
Educational programs will engage students at all levels—from K-12 outreach activities, to community college training programs, to graduate education—with an emphasis on giving tomorrow’s innovators and leaders access to the most advanced equipment and exposing them to ideas and challenges at the cutting edge of the integrated photonics field.
