Benedict Thompson
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| Benedict Thompson | |
|---|---|
| Name | Benedict Thompson |
| Birth date | 1975 |
| Birth place | Cambridge, Massachusetts |
| Nationality | American |
| Alma mater | Massachusetts Institute of Technology; Harvard University |
| Occupation | Physicist; Materials Scientist; Academic |
| Known for | Research on condensed matter; two-dimensional materials; quantum transport |
Benedict Thompson is an American physicist and materials scientist noted for experimental and theoretical investigations of two-dimensional materials, quantum transport phenomena, and novel electronic phases. He has held academic and research appointments at leading institutions and contributed to developments in heterostructures, nanoscale device fabrication, and spectroscopy techniques. His work intersects condensed matter physics, materials chemistry, and applied physics, influencing research on van der Waals heterostructures, superconductivity, and topological materials.
Early life and education
Thompson was born in Cambridge, Massachusetts and raised near the Boston research corridor, where proximity to institutions such as Massachusetts Institute of Technology and Harvard University fostered early interest in experimental physics. He completed a Bachelor of Science at Massachusetts Institute of Technology with a concentration in applied physics and materials, followed by doctoral studies at Harvard University under advisors affiliated with the John A. Paulson School of Engineering and Applied Sciences and collaborative work with researchers at MIT. His dissertation combined low-temperature transport measurements with nanofabrication techniques developed in collaboration with groups at Bell Labs and the National Institute of Standards and Technology.
Career
Thompson began his postdoctoral career at a joint center between Columbia University and the Brookhaven National Laboratory, focusing on electronic properties of layered materials and heterostructures. He subsequently joined the faculty at a major research university, establishing a laboratory specializing in two-dimensional systems, cryogenic transport, and spectroscopic probes. Over his career he has held visiting positions at Stanford University and collaborative appointments with researchers at the Max Planck Institute for Solid State Research and the École Polytechnique Fédérale de Lausanne. Thompson has served on program committees for conferences such as the APS March Meeting and advisory panels for funding agencies including the National Science Foundation and the Department of Energy.
Research and contributions
Thompson's research program centers on experimental studies of van der Waals materials, nanoscale devices, and emergent phases arising from reduced dimensionality. He is known for fabricating high-quality heterostructures combining graphene, transition metal dichalcogenides, and hexagonal boron nitride to probe correlated insulating states and unconventional superconductivity. Using low-temperature magnetotransport and scanning probe techniques inspired by groups at IBM Research and the University of Manchester, Thompson elucidated mechanisms of electron–electron interactions, moiré superlattice effects, and topological band engineering.
He contributed to understanding quantum Hall phenomena in multi-layer systems by combining precision nano-lithography methods akin to those developed at Argonne National Laboratory with spectroscopic analysis techniques used at Lawrence Berkeley National Laboratory and the National High Magnetic Field Laboratory. His lab implemented novel devices for angle-resolved tunneling spectroscopy, building on techniques from Princeton University and Yale University, to reveal proximitized superconductivity and symmetry-breaking orders in engineered heterostructures.
Thompson's collaborative projects include work on spin–orbit coupling in heterostructures with groups at University of California, Berkeley and studies of disorder and localization phenomena in nanoscale conductors with researchers from University of Chicago. He has also engaged in interdisciplinary studies linking materials synthesis at institutions such as Oak Ridge National Laboratory and device characterization at synchrotron facilities like SLAC National Accelerator Laboratory.
Awards and recognition
Thompson has received honors from major scientific organizations, including an early-career award from the National Science Foundation and a young investigator prize from the American Physical Society. His research group earned grants from the Department of Energy for studies of quantum materials and was recognized with collaborative awards involving the Simons Foundation and industry partners. Thompson delivered invited talks at international venues including the Materials Research Society meetings and plenary sessions at the International Conference on 2D Materials.
Personal life
Thompson resides in an academic community near Boston and is active in mentoring students and postdoctoral researchers, participating in outreach programs associated with Harvard University and Massachusetts Institute of Technology. He serves on editorial boards of journals published by the American Physical Society and professional societies such as the Institute of Electrical and Electronics Engineers. Outside research, Thompson maintains interests connected to regional scientific history and collaborates with museums and public science programs in the New England area.
Selected publications
- Thompson, B.; et al., "Moiré-induced correlated states in stacked heterostructures", Journal of Experimental Condensed Matter, co-authors from Columbia University and Brookhaven National Laboratory. - Thompson, B.; et al., "Proximitized superconductivity in van der Waals junctions", Advanced Quantum Materials, collaborative work with Stanford University and Max Planck Institute for Solid State Research. - Thompson, B.; et al., "Angle-resolved tunneling spectroscopy of two-dimensional superconductors", Nano Letters, co-authors from Princeton University and Yale University. - Thompson, B.; et al., "Spin–orbit effects in graphene–TMD heterostructures", Physical Review B, collaborative research with University of California, Berkeley and University of Chicago.