This work investigates non-classical effects emerging at the optical interface of single particles in semiconductors with a coherent optical control field. To this end, the investigation focuses on single quantum states localized in optically active quantum dots hosted in a solid state environment made of III-V compound semiconductors. We explore how the increased complexity of the semiconductor system compared to an isolated atomic energy level structure, leads to the emergence of novel quantum optical phenomena for single artificial atoms and leads to the emergence of novel quantum couplings in artificial molecules.
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This work investigates non-classical effects emerging at the optical interface of single particles in semiconductors with a coherent optical control field. To this end, the investigation focuses on single quantum states localized in optically active quantum dots hosted in a solid state environment made of III-V compound semiconductors. We explore how the increased complexity of the semiconductor system compared to an isolated atomic energy level structure, leads to the emergence of novel quantum...
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