Thermoelectricity is the generation of electrical power from heat flow and vice-versa. Semiconductor quantum dots are predicted to enable high-efficiency thermoelectric power generation and refrigeration.
The goal of John Nichol’s research is to realize this potential. The team will explore how nanoscale refrigerators based on quantum dots can make quantum computers colder to improve their performance, how the quantum phenomena of superposition and entanglement can enhance thermoelectric power generation and refrigeration, and how to harness the flow of heat to create superposition and entanglement. The unique feature of his approach is the use of optimized, high-performance quantum-dot devices for thermoelectric applications.
Dr. Nichol’s research could improve our understanding of the flow of heat and energy in nanoscale quantum systems and create new ways to realize ultra-low-temperature environments for quantum computing.
Experimental Physics Investigators Initiative
University of Rochester, Department of Physics and Astronomy