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Single exciton trapping in an electrostatically defined 2D semiconductor quantum dot
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Single exciton trapping in an electrostatically defined 2D semiconductor quantum dot
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Paper
Single exciton trapping in an electrostatically defined 2D semiconductor quantum dot
2022
Overview
Interlayer excitons (IXs) in 2D semiconductors have long lifetimes and spin-valley coupled physics, with a long-standing goal of single exciton trapping for valleytronic applications. In this work, we use a nano-patterned graphene gate to create an electrostatic IX trap. We measure a unique power-dependent blue-shift of IX energy, where narrow linewidth emission exhibits discrete energy jumps. We attribute these jumps to quantized increases of the number occupancy of IXs within the trap and compare to a theoretical model to assign the lowest energy emission line to single IX recombination.
Publisher
Cornell University Library, arXiv.org
Subject
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