Rodney Hill

Rodney Hill was affiliated with the University of Cambridge in the United Kingdom. Their research spanned multiple fields within physics and engineering, with a primary focus on nuclear and high energy physics as well as astronomy and astrophysics.

Their scholarly work covered a range of topics including particle physics theoretical and experimental studies, neutrino physics research, and investigations into dark matter and cosmic phenomena. Additional areas of interest involved magnetic and electromagnetic effects, microfluidic and bio-sensing technologies, electrohydrodynamics and fluid dynamics, alongside atomic and subatomic physics research.

Frequently collaborating with other researchers, Hill worked extensively with coauthors including Ryan Plestid, Matthew M. Scase, Peter Vander Griend, Zehua Cao, and Kyle A. Baldwin.

Publications by Hill appeared mainly in the following venues:

• arXiv (Cornell University)
• Applied Physics Letters
• Physical review. D/Physical review. D.
• Physical review. E
• Communications Materials

Notable recent publications include:

• All orders factorization and the Coulomb problem, 2024, Physical review. D/Physical review. D.
• Magnetically induced Rayleigh-Taylor instability under rotation: Comparison of experimental and theoretical results, 2020, Physical review. E
• Sonomaglev: Combining acoustic and diamagnetic levitation, 2023, Applied Physics Letters
• Neutrino Scattering Measurements on Hydrogen and Deuterium: A Snowmass White Paper, 2022, arXiv (Cornell University)
• High-temperature Brown-Zak oscillations in graphene/hBN moiré field effect transistor fabricated using molecular beam epitaxy, 2024, Communications Materials

Hill contributed to advancing understanding in the main fields of physics and astronomy as well as engineering, with research outputs emphasizing theoretical frameworks and experimental results in particle physics and neutrino studies. Their work addressed complex phenomena such as magnetic instabilities under rotation and acoustic levitation methods, bridging theoretical investigations with applied physics techniques.