What is he best known for?
The fields of study he is best known for:
- Quantum mechanics
- Semiconductor
- Electron
His primary scientific interests are in Optoelectronics, Quantum dot, Gallium arsenide, Quantum dot laser and Optics.
His study focuses on the intersection of Optoelectronics and fields such as Absorption with connections in the field of Carrier lifetime.
His studies in Quantum dot integrate themes in fields like Quantum well and Condensed matter physics.
Jamie D. Phillips combines subjects such as Self-assembly, Scanning tunneling microscope and Differential gain with his study of Gallium arsenide.
His study on Grating and Plane of incidence is often connected to Planar as part of broader study in Optics.
His Photodetector study combines topics from a wide range of disciplines, such as Infrared and Detector.
His most cited work include:
- Evaluation of the fundamental properties of quantum dot infrared detectors (231 citations)
- Self-assembled InAs-GaAs quantum-dot intersubband detectors (217 citations)
- Far-infrared photoconductivity in self-organized InAs quantum dots (211 citations)
What are the main themes of his work throughout his whole career to date?
His scientific interests lie mostly in Optoelectronics, Quantum dot, Optics, Molecular beam epitaxy and Photoluminescence.
His research in Optoelectronics intersects with topics in Thin film and Infrared.
His biological study deals with issues like Dark current, which deal with fields such as Auger and Doping.
His Quantum dot study integrates concerns from other disciplines, such as Quantum well, Quantum point contact, Laser and Scanning tunneling microscope, Condensed matter physics.
The various areas that Jamie D. Phillips examines in his Molecular beam epitaxy study include Solid-state physics, Pulsed laser deposition and Band gap.
His Photoluminescence research incorporates elements of Luminescence, Full width at half maximum, Laser linewidth and Infrared spectroscopy.
He most often published in these fields:
- Optoelectronics (65.94%)
- Quantum dot (26.64%)
- Optics (21.83%)
What were the highlights of his more recent work (between 2015-2021)?
- Optoelectronics (65.94%)
- Photovoltaic system (8.30%)
- Optics (21.83%)
In recent papers he was focusing on the following fields of study:
Optoelectronics, Photovoltaic system, Optics, Photovoltaics and Electrical engineering are his primary areas of study.
The study incorporates disciplines such as Infrared and Voltage in addition to Optoelectronics.
The various areas that Jamie D. Phillips examines in his Photovoltaic system study include Leakage, Energy harvesting, Light intensity and Energy conversion efficiency.
His research in Optics tackles topics such as Dielectric which are related to areas like Condensed matter physics.
Jamie D. Phillips has included themes like Wireless power transfer and Light-emitting diode in his Photovoltaics study.
The concepts of his Band gap study are interwoven with issues in Quantum dot, Absorption, Order of magnitude and Quantum efficiency.
Between 2015 and 2021, his most popular works were:
- Subcutaneous Photovoltaic Infrared Energy Harvesting for Bio-implantable Devices (40 citations)
- Energy Harvesting for GaAs Photovoltaics Under Low-Flux Indoor Lighting Conditions (23 citations)
- 21.4 A >78%-efficient light harvester over 100-to-100klux with reconfigurable PV-cell network and MPPT circuit (21 citations)
In his most recent research, the most cited papers focused on:
- Quantum mechanics
- Semiconductor
- Electron
His main research concerns Optoelectronics, Photovoltaic system, Energy conversion efficiency, Energy harvesting and Photovoltaics.
His is involved in several facets of Optoelectronics study, as is seen by his studies on Band gap and Quantum dot.
His Quantum dot research includes elements of Thin film and Epitaxy.
His research investigates the connection between Photovoltaic system and topics such as Gallium arsenide that intersect with problems in Scale, Engineering physics, Chip and Millimeter.
His Energy harvesting research incorporates elements of Light intensity, Electronic engineering and Capacitor.
His Photovoltaics research is multidisciplinary, incorporating perspectives in Crystalline silicon, Silicon, Passivation and Leakage.
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