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Benjamin Hunt

Associate Professor, Physics, Mellon College of Science

  • Pittsburgh PA UNITED STATES

Benjamin Hunt's research centers on condensed-matter physics, particularly the way electrons behave when subjected to extreme conditions.

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Biography

Benjamin Hunt's research centers around condensed-matter physics, particularly in the way electrons behave when subjected to extreme conditions such as ultra-low temperatures and high magnetic fields. He is currently investigating the physics of low-dimensional structures, especially "van der Waals heterostructures" of two-dimensional crystals (the most familiar of which is graphene), which are built in the lab and then fashioned into mesoscopic devices using nanofabrication techniques, as well as a variety of methods for probing these mesoscopic devices, such as electronic transport, capacitance, tunneling spectroscopy and shot noise.

Areas of Expertise

Physics
Sustainability
Nanofabrication

Media

Social

Industry Expertise

Education/Learning
Nanotechnology

Accomplishments

Department of Energy Early Career Award

2017

Cottrell Scholar

2019

Education

Cornell University

Ph.D.

Physics

2009

Cornell University

Physics

M.S.

2007

McGill University

B.S.

Physics

2002

Affiliations

  • American Physical Society

Event Appearances

“Ising Superconductivity and Proximity Induced Pairing in Monolayer Transition-Metal Dichalcogenides”

(2019) Condensed-Matter Physics Seminar  Brown University

“Proximity Induced Superconducting Gap in the Quantum Spin Hall Edge State of Monolayer WTe2"

(2019) Department of Energy - Experimental Condensed Matter Physics - PI Meeting  

"Novel Superconductors in Two-Dimensional Materials"

(2019) Physics Colloquium  University of New Hampshire

Articles

Report on reproducibility in condensed matter physics

Physical Review B

Ana Akrap, Dominic Bordelon, Shubhayu Chatterjee, E Dan Dahlberg, RP Devaty, Sergey M Frolov, Charles Gould, LH Greene, Samaresh Guchhait, JJ Hamlin, BM Hunt, MJA Jardine, Morteza Kayyalha, RC Kurchin, Vladyslav Kozii, HF Legg, II Mazin, Vincent Mourik, AB Özgüler, J Peñuela-Parra, Babak Seradjeh, Brian Skinner, KF Quader, JP Zwolak

2026-03-20

We present recommendations to improve reproducibility and replicability in condensed matter physics. This area of physics has consistently produced both fundamental insights into the workings of matter and transformative inventions. Our recommendations result from a collaboration that includes researchers from academia and government laboratories, scientific journalists, legal professionals, representatives of publishers, professional societies, and other experts.

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Anomalously enhanced diffusivity of moiré excitons via manipulating the interplay with correlated electrons

Nature communications

Li Yan, Lei Ma, Yuze Meng, Chengxin Xiao, Bo Chen, Qiran Wu, Jingyuan Cui, Qingrui Cao, Rounak Banerjee, Takashi Taniguchi, Kenji Watanabe, Seth Ariel Tongay, Benjamin Hunt, Yong-Tao Cui, Wang Yao, Su-Fei Shi

2025-11-26

Semiconducting transition metal dichalcogenide (TMDC) moiré superlattices provide an unprecedented platform for manipulating excitons. The in-situ control of moiré excitons could enable novel excitonic devices but remains challenging. Meanwhile, as dipolar composite bosons, interlayer excitons in the type-II aligned TMDC moiré superlattices exhibit strong interactions with fermionic charge carriers. Here, we demonstrate active manipulation of exciton diffusivity by tuning their interplay with correlated carriers in moiré potentials.

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Quantum Spin Hall Edge States and Interlayer Coupling in Twisted Bilayer WTe2

Nano Letters

2022

The quantum spin Hall (QSH) effect, characterized by topologically protected spin-polarized edge states, was recently demonstrated in monolayers of the transition metal dichalcogenide (TMD) WTe2. However, the robustness of this topological protection remains largely unexplored in van der Waals heterostructures containing one or more layers of a QSH insulator.

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