What is he best known for?
The fields of study he is best known for:
- Semiconductor
- Transistor
- Silicon
His primary areas of study are Nanotechnology, Graphene, Optoelectronics, Chemical vapor deposition and Analytical chemistry.
His research in Nanotechnology intersects with topics in Field-effect transistor, Transistor and Silicon.
Eric M. Vogel interconnects Thin film, Electron mobility and Substrate in the investigation of issues within Graphene.
Optoelectronics and Leakage are frequently intertwined in his study.
His Chemical vapor deposition study incorporates themes from Atomic layer epitaxy and Raman spectroscopy.
The Analytical chemistry study combines topics in areas such as Monolayer, Condensed matter physics and Dielectric.
His most cited work include:
- Large-Area Graphene Single Crystals Grown by Low-Pressure Chemical Vapor Deposition of Methane on Copper (994 citations)
- Graphene films with large domain size by a two-step chemical vapor deposition process. (819 citations)
- The effect of chemical residues on the physical and electrical properties of chemical vapor deposited graphene transferred to SiO2 (703 citations)
What are the main themes of his work throughout his whole career to date?
Eric M. Vogel mainly focuses on Optoelectronics, Nanotechnology, Dielectric, Analytical chemistry and Graphene.
His Optoelectronics study integrates concerns from other disciplines, such as Field-effect transistor, Gate dielectric, MOSFET, Transistor and Substrate.
His biological study deals with issues like Semiconductor, which deal with fields such as Atomic layer deposition.
His work in Dielectric addresses subjects such as Quantum tunnelling, which are connected to disciplines such as Heterojunction.
His studies deal with areas such as Annealing, Rapid thermal processing, Electron mobility and Capacitor as well as Analytical chemistry.
Eric M. Vogel works mostly in the field of Graphene, limiting it down to topics relating to Chemical vapor deposition and, in certain cases, Thin film.
He most often published in these fields:
- Optoelectronics (51.35%)
- Nanotechnology (25.10%)
- Dielectric (22.78%)
What were the highlights of his more recent work (between 2015-2021)?
- Optoelectronics (51.35%)
- Graphene (20.46%)
- Heterojunction (6.18%)
In recent papers he was focusing on the following fields of study:
His scientific interests lie mostly in Optoelectronics, Graphene, Heterojunction, Raman spectroscopy and Nanotechnology.
The concepts of his Optoelectronics study are interwoven with issues in Field-effect transistor, Substrate and Passivation.
His biological study focuses on Graphene nanoribbons.
His study in Raman spectroscopy is interdisciplinary in nature, drawing from both Diode, Resonator, Laser and X-ray photoelectron spectroscopy.
His work carried out in the field of Nanotechnology brings together such families of science as Signal and Polymer science.
His work deals with themes such as Chemical vapor deposition and Thermal oxidation, which intersect with Chemical engineering.
Between 2015 and 2021, his most popular works were:
- A potentiometric biosensor for rapid on-site disease diagnostics. (51 citations)
- Field-effect transistors based on wafer-scale, highly uniform few-layer p-type WSe2 (31 citations)
- In situ thermal oxidation kinetics in few layer MoS 2 (27 citations)
In his most recent research, the most cited papers focused on:
- Semiconductor
- Transistor
- Nanotechnology
Optoelectronics, Raman spectroscopy, Heterojunction, Transition metal and Graphene are his primary areas of study.
His work deals with themes such as Thermal conductivity, Oxide, Optical cavity, Work and Substrate, which intersect with Optoelectronics.
His Raman spectroscopy study is related to the wider topic of Analytical chemistry.
His Heterojunction research is multidisciplinary, relying on both Field-effect transistor, Nanotechnology, Quantum tunnelling and Logic gate.
He has researched Nanotechnology in several fields, including Ultraviolet photoelectron spectroscopy, Doping, Semiconductor and Tungsten diselenide.
His study on Graphene nanoribbons is often connected to Infrasound as part of broader study in Graphene.
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