What is he best known for?
The fields of study he is best known for:
- Quantum mechanics
- Semiconductor
- Electron
His scientific interests lie mostly in Optoelectronics, Analytical chemistry, Condensed matter physics, High-κ dielectric and Dielectric.
His Optoelectronics study integrates concerns from other disciplines, such as Field-effect transistor, Gate oxide and Capacitor.
His Analytical chemistry study combines topics in areas such as Layer, Atomic layer deposition, Amorphous solid and Corundum.
Akira Toriumi has researched Condensed matter physics in several fields, including Electrical resistivity and conductivity, Electrode, Contact resistance, MOSFET and Graphene.
His High-κ dielectric research integrates issues from Composite material, Void, Dipole, Torr and Thermal stability.
Akira Toriumi works mostly in the field of Dielectric, limiting it down to concerns involving Equivalent oxide thickness and, occasionally, Metal–insulator transition, Capacitive coupling and Capacitance.
His most cited work include:
- Evidence for strong Fermi-level pinning due to metal-induced gap states at metal/germanium interface (326 citations)
- Contact resistivity and current flow path at metal/graphene contact (264 citations)
- Origin of electric dipoles formed at high-k/SiO2 interface (226 citations)
What are the main themes of his work throughout his whole career to date?
Akira Toriumi spends much of his time researching Optoelectronics, Nanotechnology, Condensed matter physics, Dielectric and Analytical chemistry.
His research in Optoelectronics focuses on subjects like Gate stack, which are connected to Kinetics.
His work carried out in the field of Condensed matter physics brings together such families of science as Field-effect transistor, Metal and Fermi level pinning.
His Dielectric research incorporates themes from Gate dielectric and Capacitor.
The Analytical chemistry study combines topics in areas such as Annealing and Silicon.
He interconnects Layer and CMOS in the investigation of issues within Germanium.
He most often published in these fields:
- Optoelectronics (44.08%)
- Nanotechnology (19.94%)
- Condensed matter physics (20.58%)
What were the highlights of his more recent work (between 2015-2021)?
- Optoelectronics (44.08%)
- Ferroelectricity (11.51%)
- Condensed matter physics (20.58%)
In recent papers he was focusing on the following fields of study:
Optoelectronics, Ferroelectricity, Condensed matter physics, Germanium and Doping are his primary areas of study.
His Optoelectronics study combines topics from a wide range of disciplines, such as Transistor, Gate stack, Nanotechnology and Metal–insulator transition.
His study with Ferroelectricity involves better knowledge in Dielectric.
His studies deal with areas such as Subthreshold conduction and Capacitor as well as Dielectric.
His Condensed matter physics research is multidisciplinary, incorporating perspectives in Amorphous solid, Annealing and Metal.
His Germanium study incorporates themes from CMOS and Thermal oxidation.
Between 2015 and 2021, his most popular works were:
- Evolution of ferroelectric HfO2 in ultrathin region down to 3 nm (70 citations)
- Kinetic pathway of the ferroelectric phase formation in doped HfO2 films (67 citations)
- Fully coupled 3-D device simulation of negative capacitance FinFETs for sub 10 nm integration (53 citations)
In his most recent research, the most cited papers focused on:
- Quantum mechanics
- Semiconductor
- Electron
Akira Toriumi mostly deals with Ferroelectricity, Optoelectronics, Condensed matter physics, Negative impedance converter and Transistor.
His research on Ferroelectricity concerns the broader Dielectric.
His work on CMOS as part of general Optoelectronics research is often related to Communication channel, thus linking different fields of science.
His research in Condensed matter physics intersects with topics in High-κ dielectric, Instability, Amorphous solid, Metal and Germanium.
His study in Metal is interdisciplinary in nature, drawing from both Annealing, Semiconductor properties, Semiconductor, Ohmic contact and Schottky barrier.
He has included themes like Dispersion, Hysteresis and Graphene in his Transistor study.
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