%0 Journal Article %1 noauthororeditor %A Hepp, Sefan %A Jetter, Michael %A Portalupi, Simone %A Michler, Peter %D 2019 %J Advanced Quantum Technologies %K ihfg %R 10.1002/qute.201900020 %T Semiconductor Quantum Dots for Integrated Quantum Photonics %X Quantum mechanics promises to have a strong impact on many aspects of research and technology, improving classical analogues via purely quantum effects. A large variety of tasks are currently under investigation, for example, the implementation of quantum computing, sensing, metrology, and communication. From a general perspective, in a similar way as classical computing benefited by the reduction of the device footprint, enabling the realization of highly complex chips, a range of quantum applications will sensibly improve thanks to the successful realization of on‐chip quantum photonics. Conversely to bulky table‐top experiments, it would be very advantageous to transfer all required functionalities on the same quantum photonic chip. The key elements for quantum photonic circuits are on‐demand nonclassical light sources, a versatile photonic logic, the ability to store quantum information, and highly efficient detectors, directly integrated on‐chip. Among several systems capable of the efficient generation of single‐ and indistinguishable photons, quantum dots are rapidly establishing as one of the most appealing candidates. This paper reviews the recent progress in the on‐chip integration of quantum‐dot‐based nonclassical light sources as well as in the development of the main building blocks, either integrated monolithically or hybridly on a compact and scalable platform.

@article{noauthororeditor, abstract = {Quantum mechanics promises to have a strong impact on many aspects of research and technology, improving classical analogues via purely quantum effects. A large variety of tasks are currently under investigation, for example, the implementation of quantum computing, sensing, metrology, and communication. From a general perspective, in a similar way as classical computing benefited by the reduction of the device footprint, enabling the realization of highly complex chips, a range of quantum applications will sensibly improve thanks to the successful realization of on‐chip quantum photonics. Conversely to bulky table‐top experiments, it would be very advantageous to transfer all required functionalities on the same quantum photonic chip. The key elements for quantum photonic circuits are on‐demand nonclassical light sources, a versatile photonic logic, the ability to store quantum information, and highly efficient detectors, directly integrated on‐chip. Among several systems capable of the efficient generation of single‐ and indistinguishable photons, quantum dots are rapidly establishing as one of the most appealing candidates. This paper reviews the recent progress in the on‐chip integration of quantum‐dot‐based nonclassical light sources as well as in the development of the main building blocks, either integrated monolithically or hybridly on a compact and scalable platform.}, added-at = {2019-08-02T09:37:40.000+0200}, author = {Hepp, Sefan and Jetter, Michael and Portalupi, Simone and Michler, Peter}, biburl = {https://puma.ub.uni-stuttgart.de/bibtex/264e50891daea0312c5513056af87b9c3/renerehwagen}, description = {Semiconductor Quantum Dots for Integrated Quantum Photonics - Hepp - - Advanced Quantum Technologies - Wiley Online Library}, doi = {10.1002/qute.201900020}, interhash = {45e5c65db65aacf0804d06dfee81f0bc}, intrahash = {64e50891daea0312c5513056af87b9c3}, journal = {Advanced Quantum Technologies}, keywords = {ihfg}, language = {english}, month = {July}, timestamp = {2019-08-02T08:07:32.000+0200}, title = {Semiconductor Quantum Dots for Integrated Quantum Photonics}, year = 2019 }