Brian Thibeault spends much of his time researching Optoelectronics, Optics, Light-emitting diode, Laser and Doping. Brian Thibeault conducted interdisciplinary study in his works that combined Optoelectronics and Disperser. His Optics research focuses on Optical fiber in particular.
His Laser study combines topics in areas such as Detector, Parasitic extraction, Bandwidth and Data transmission. Brian Thibeault works mostly in the field of Doping, limiting it down to concerns involving Active layer and, occasionally, Total internal reflection and Equivalent series resistance. His work carried out in the field of Diode brings together such families of science as Voltage, Substrate, Wavelength range and Optical radiation.
His primary areas of study are Optoelectronics, Optics, Laser, Light-emitting diode and Gallium arsenide. In his work, Wall-plug efficiency is strongly intertwined with Voltage, which is a subfield of Optoelectronics. His study in Semiconductor laser theory, Optical fiber, Tunable laser, Aperture and Distributed Bragg reflector laser falls under the purview of Optics.
His work on Vertical-cavity surface-emitting laser, Quantum well and Distributed Bragg reflector as part of general Laser research is often related to Surface, thus linking different fields of science. His research in Light-emitting diode focuses on subjects like Active layer, which are connected to Total internal reflection and Electrical conductor. His research integrates issues of Ohmic contact, Molecular beam epitaxial growth, Dielectric and MOSFET in his study of Gallium arsenide.
Brian Thibeault mostly deals with Optoelectronics, Optics, Electrical engineering, Quantum well and Plane. His Optoelectronics research integrates issues from Layer and Electronic engineering. Brian Thibeault combines subjects such as Light-emitting diode, Total internal reflection and Benzocyclobutene with his study of Layer.
His Optics study frequently draws parallels with other fields, such as Dielectric. The various areas that Brian Thibeault examines in his Quantum well study include Raman spectroscopy, Analytical chemistry, Direct and indirect band gaps, Silicon photonics and Subthreshold swing. His Common emitter research includes elements of Atomic layer deposition, Ohmic contact, Semiconductor and Indium phosphide.
Brian Thibeault focuses on Optoelectronics, Electrical engineering, Common emitter, Speech recognition and Analytical chemistry. His research on Optoelectronics focuses in particular on Semiconductor. His Electrical engineering research is multidisciplinary, incorporating perspectives in Layer, Chemical-mechanical planarization and Resolution.
His study in Common emitter is interdisciplinary in nature, drawing from both Breakdown voltage, Resist, Electron-beam lithography, Indium phosphide and Contact resistance. Brian Thibeault has included themes like Quantum well, Semiconductor quantum wells and Subthreshold swing in his Analytical chemistry study.
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Light emitting diodes including optically matched substrates
David B. Slater;Robert C. Glass;Charles M. Swoboda;Bernd Keller.
Solid state lamp
Eric J. Tarsa;Brian Thibeault.
Enhanced light extraction in LEDs through the use of internal and external optical elements
Siviewlt Brian;シビュールト ブライアン;Mack Michael;マック マイケル.
Enhanced light extraction through the use of micro-LED arrays
Brian Thibeault;Steven DenBaars.
Enhanced performance of offset-gain high-barrier vertical-cavity surface-emitting lasers
D.B. Young;J.W. Scott;F.H. Peters;M.G. Peters.
IEEE Journal of Quantum Electronics (1993)
Band‐gap engineered digital alloy interfaces for lower resistance vertical‐cavity surface‐emitting lasers
M. G. Peters;B. J. Thibeault;D. B. Young;J. W. Scott.
Applied Physics Letters (1993)
Scalable led with improved current spreading structures
Eric J. Tarsa;Brian Thibeault;James Ibbetson;Michael Mack.
High efficiency light emitters with reduced polarization-induced charges
Brian Thibeault;James Ibbetson.
Inductively Coupled Plasma Etching of Bulk Titanium for MEMS Applications
E. R. Parker;B. J. Thibeault;M. F. Aimi;M. P. Rao.
Journal of The Electrochemical Society (2005)
Parallel free-space optical interconnect based on arrays of vertical-cavity lasers and detectors with monolithic microlenses.
Eva M. Strzelecka;Duane A. Louderback;Brian J. Thibeault;Geoff B. Thompson.
Applied Optics (1998)
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