R Richard Nötzel mainly focuses on Optoelectronics, Quantum dot, Epitaxy, Gallium arsenide and Optics. In most of his Optoelectronics studies, his work intersects topics such as Laser. His studies in Quantum dot integrate themes in fields like Molecular beam epitaxy, Quantum, Condensed matter physics and Photoluminescence.
R Richard Nötzel has included themes like Quantum well, Exciton and Superlattice in his Photoluminescence study. His Epitaxy study integrates concerns from other disciplines, such as Surface finish, Lattice, Heterojunction and Microstructure. As a part of the same scientific study, R Richard Nötzel usually deals with the Gallium arsenide, concentrating on Semiconductor quantum dots and frequently concerns with Chemical beam epitaxy.
His primary scientific interests are in Optoelectronics, Quantum dot, Photoluminescence, Optics and Condensed matter physics. The study incorporates disciplines such as Laser and Epitaxy in addition to Optoelectronics. In his research on the topic of Quantum dot, Nanostructure is strongly related with Molecular beam epitaxy.
His research investigates the connection with Photoluminescence and areas like Quantum wire which intersect with concerns in Spectroscopy. Optics is closely attributed to Semiconductor in his research. His studies in Photonic crystal integrate themes in fields like Refractive index and Liquid crystal.
The scientist’s investigation covers issues in Optoelectronics, Quantum dot, Optics, Wavelength and Photonic crystal. The various areas that R Richard Nötzel examines in his Optoelectronics study include Laser and Epitaxy. His study in Quantum dot is interdisciplinary in nature, drawing from both Molecular beam epitaxy, Photon, Condensed matter physics, Superlattice and Photoluminescence.
His work carried out in the field of Photon brings together such families of science as Telecommunications, Quantum and Absorption. His Photonic crystal study integrates concerns from other disciplines, such as Q factor, Resonator, Refractive index and Liquid crystal. As part of the same scientific family, he usually focuses on Semiconductor, concentrating on Plasmon and intersecting with Spontaneous emission.
His scientific interests lie mostly in Optoelectronics, Quantum dot, Optics, Photonic crystal and Photoluminescence. His research integrates issues of Laser and Epitaxy in his study of Optoelectronics. His Quantum dot research is multidisciplinary, relying on both Wavelength, Molecular beam epitaxy, Condensed matter physics and Photon.
His work on Tunable laser, Optical amplifier and Photonics as part of general Optics study is frequently linked to Quantum amplifier, therefore connecting diverse disciplines of science. His Photonic crystal research includes themes of Fiber optic sensor, Optical fiber, Resonance and Refractive index. His Resonance research focuses on Quantum and how it relates to Spontaneous emission.
This overview was generated by a machine learning system which analysed the scientist’s body of work. If you have any feedback, you can contact us here.
Lasing in metallic-coated nanocavities
Martin T. Hill;Yok-Siang Oei;Barry Smalbrugge;Youcai Zhu.
Nature Photonics (2007)
Lasing in metal-insulator-metal sub-wavelength plasmonic waveguides.
Martin T. Hill;Milan Marell;Eunice S P Leong;Barry Smalbrugge.
Optics Express (2009)
Self-organized growth of strained InGaAs quantum disks
Richard Nötzel;Jiro Temmyo;Toshiaki Tamamura.
Nature (1994)
Self-organized growth of quantum-dot structures
Richard Nötzel.
Semiconductor Science and Technology (1996)
Laser emission and photodetection in an InP/InGaAsP layer integrated on and coupled to a Silicon-on-Insulator waveguide circuit.
G Gunther Roelkens;Van D Thourhout;Rgf Roel Baets;R Richard Nötzel.
Optics Express (2006)
Adhesive Bonding of InP ∕ InGaAsP Dies to Processed Silicon-On-Insulator Wafers using DVS-bis-Benzocyclobutene
G Gunther Roelkens;J Brouckaert;Van D Thourhout;Rgf Roel Baets.
Journal of The Electrochemical Society (2006)
Real-Space Transfer and Trapping of Carriers into Single GaAs Quantum Wires Studied by Near-Field Optical Spectroscopy
A. Richter;G. Behme;M. Süptitz;Ch. Lienau.
Physical Review Letters (1997)
Fast Purcell-enhanced single photon source in 1,550-nm telecom band from a resonant quantum dot-cavity coupling
M. D. Birowosuto;H. Sumikura;S. Matsuo;H. Taniyama.
arXiv: Optics (2012)
Uniform quantum-dot arrays formed by natural self-faceting on patterned substrates
Richard Nötzel;Zhichuan Niu;Manfred Ramsteiner;Hans-Peter Schönherr.
Nature (1998)
Fast Purcell-enhanced single photon source in 1,550-nm telecom band from a resonant quantum dot-cavity coupling
Muhammad Danang Birowosuto;Hisashi Sumikura;Shinji Matsuo;Hideaki Taniyama.
Scientific Reports (2012)
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