What is he best known for?
The fields of study he is best known for:
- Quantum mechanics
- Semiconductor
- Electrical engineering
Optoelectronics, MOSFET, Electrical engineering, Electronic engineering and Transistor are his primary areas of study.
K. De Meyer has included themes like PMOS logic, Nanotechnology and Passivation in his Optoelectronics study.
His research in MOSFET intersects with topics in Electron mobility, Silicon, Equivalent series resistance, CMOS and Engineering physics.
K. De Meyer has researched Electrical engineering in several fields, including Doping and Quantum tunnelling.
The study incorporates disciplines such as Capacitance, Stress and Integrated circuit in addition to Electronic engineering.
His research integrates issues of Logic gate and Scaling in his study of Transistor.
His most cited work include:
- Electrical Modeling and Characterization of Through Silicon via for Three-Dimensional ICs (488 citations)
- Analysis of the parasitic S/D resistance in multiple-gate FETs (311 citations)
- Direct and Indirect Band-to-Band Tunneling in Germanium-Based TFETs (266 citations)
What are the main themes of his work throughout his whole career to date?
His primary areas of study are Optoelectronics, Electrical engineering, MOSFET, Electronic engineering and CMOS.
His Optoelectronics research is multidisciplinary, incorporating perspectives in PMOS logic, Transistor and NMOS logic.
His Transistor research integrates issues from Node, Indium and Dopant.
His work carried out in the field of MOSFET brings together such families of science as Metal gate, Electron mobility, Equivalent series resistance, Leakage and Threshold voltage.
His Electronic engineering research incorporates themes from Capacitance, Integrated circuit, Transconductance and Silicon-germanium.
His work on Cmos process as part of general CMOS study is frequently linked to AND gate, bridging the gap between disciplines.
He most often published in these fields:
- Optoelectronics (68.95%)
- Electrical engineering (42.96%)
- MOSFET (38.27%)
What were the highlights of his more recent work (between 2009-2017)?
- Optoelectronics (68.95%)
- Electrical engineering (42.96%)
- Electronic engineering (28.52%)
In recent papers he was focusing on the following fields of study:
K. De Meyer spends much of his time researching Optoelectronics, Electrical engineering, Electronic engineering, CMOS and Doping.
K. De Meyer is interested in Quantum tunnelling, which is a branch of Optoelectronics.
When carried out as part of a general Electrical engineering research project, his work on Field-effect transistor and NMOS logic is frequently linked to work in Stack, therefore connecting diverse disciplines of study.
K. De Meyer combines subjects such as Semiconductor device, Capacitance, Through-silicon via, Silicon-germanium and Germanium with his study of Electronic engineering.
In CMOS, K. De Meyer works on issues like Microelectromechanical systems, which are connected to Porosity, Seal and Composite material.
The concepts of his Doping study are interwoven with issues in Silicon, Sheet resistance, Ohmic contact, Electrical resistivity and conductivity and Density of states.
Between 2009 and 2017, his most popular works were:
- Electrical Modeling and Characterization of Through Silicon via for Three-Dimensional ICs (488 citations)
- Direct and Indirect Band-to-Band Tunneling in Germanium-Based TFETs (266 citations)
- Optimization of Gate-on-Source-Only Tunnel FETs With Counter-Doped Pockets (95 citations)
In his most recent research, the most cited papers focused on:
- Quantum mechanics
- Semiconductor
- Electron
His main research concerns Optoelectronics, Doping, Electronic engineering, Electrical engineering and Quantum tunnelling.
His study in Optoelectronics is interdisciplinary in nature, drawing from both Subthreshold conduction, Temperature measurement and Annealing.
His Doping study incorporates themes from PMOS logic, High-electron-mobility transistor and Electrical resistivity and conductivity.
His Electronic engineering study focuses on CMOS in particular.
In his study, Wafer, Transconductance, Gate stack and Voltage is inextricably linked to Nanowire, which falls within the broad field of Electrical engineering.
His study looks at the relationship between Quantum tunnelling and fields such as Field-effect transistor, as well as how they intersect with chemical problems.
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