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Faculty/Staff Login:

Kent Leung

Assistant Professor, Physics and Astronomy, College of Science and Mathematics

Office:
Richardson Hall 269A
Email:
leungk@montclair.edu
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STUDENT DROP-IN HOURS in my office (Richardson 269A):
Wed Nov 19, 1:30p-3:00p
Mon Nov 24, 3:30p-5:00p
Wed Nov 26, none. (Thanksgiving break)
Mon Dec 01, 3:30p-5:00p
Wed Dec 03, 1:30p-3:00p
Mon Dec 08, 3:30p-5:00p
Wed Dec 10, 1:30p-3:00p

Work number (call or text): +1 (973)604-9626
‬Do not hesitate to reach out if I'm supposed to be in my office or the door into the RICH 269 office suite is locked.

Research Assistant Professor: Duke University, Durham, NC (2020-2021)
Research Assistant Professor: North Carolina State University, Raleigh, NC (2017-2020)
Post-doc: North Carolina State University (2013-2017)
Doctor of Natural Science: Technical University of Munich, Germany (2007-2013)
Doctoral research fellowship: Institute Laue-Langevin, Grenoble, France (2007-2011)
B.S. & M.S.: University of Auckland, New Zealand (2005 & 2007)
Affiliated faculty: North Carolina State University, Raleigh, NC (2021-current)

The website for the Montclair State Experimental Nuclear Physics research group is here:
https://montclairstatenuclear.wordpress.com/

My research interests are in nuclear physics, fundamental symmetries, and searches for Beyond Standard Model physics. I am particularly interested in low-energy, high-precision experiments, performed at low-temperatures involving neutrons. These experiments allow us to address fundamental questions, such as:
- How was more normal matter than anti-matter generated during the Big Bang?
- Are there undiscovered forces or particles out there, and could these explain the missing Dark Matter?
- What are the symmetries of our physical laws? Why are some violated, some conserved, and some extremely fine-tuned?
- How did the primordial light elements form during the Big Bang?
- How do protons, neutrons, and quarks interact to form nuclei?

In order to push our experiments to the next-level of precision, we constantly implement and develop cutting-edge technologies. The interdisciplinary techniques I'm interested in are, for example, cryogenic devices and apparatuses involving superconductors and superfluid helium at milli-Kelvin temperatures, quantum sensors for magnetic and electric fields, nuclear magnetic resonance with hyper-polarized gases and solids, scintillation and fluorescence radiation detection, synthesis of high-purity deuterated polymers and coatings, and surface morphology and properties measurements.

I am a first-generation university student, born to asylum-seeking parents from Hong Kong who later immigrated to New Zealand, where I grew up. My passion for physics was sparked in my final year of high school after reading "A Brief History of Time" by Stephen Hawking, at a time when I was still uncertain about attending university. That experience taught me how reading and extracurricular exploration can open doors, foster deep connections across ideas, and ignite lasting interests.

Coming from a working-class background, I spent my summers operating manufacturing machines and driving forklifts—experiences that continue to shape my perspective on physics. For me, physics is everywhere: it enriches daily life if you know where, and how, to look. In the classroom, I strive to connect abstract principles to everyday experiences, showing students that physics is not obscure or esoteric but an active force in the world around us.

Physics is a key driver of current and future technologies, and it provides the deep insights for a wide range of fields. At the same time, history has shown us that fundamental research—-often pursued decades before actual applications are realized—-is required to plant the seeds for transformative understanding. I believe a balanced investment in both short-term applications and long-term foundational research best serves the advancement of science and society.

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