What is he best known for?
The fields of study he is best known for:
- Quantum mechanics
- Electron
- Photon
Thomas Garm Pedersen mainly focuses on Condensed matter physics, Graphene, Semiconductor, Exciton and Band gap.
His Condensed matter physics research is multidisciplinary, incorporating perspectives in Hyperbolic metamaterials, Quantum mechanics, Light dispersion and Optics.
The Graphene study combines topics in areas such as Optoelectronics and Fermi level.
His Fermi level research includes themes of Molecular electronics, Graphene nanoribbons, Graphane, Dirac fermion and Superlattice.
His Exciton research incorporates elements of Free electron model, Second-harmonic generation, Monolayer, Optical properties of carbon nanotubes and Carbon nanotube.
His work carried out in the field of Band gap brings together such families of science as Electronic structure, Lattice and Binding energy.
His most cited work include:
- Bandgap opening in graphene induced by patterned hydrogen adsorption (1085 citations)
- Graphene antidot lattices: designed defects and spin qubits. (386 citations)
- MEAN-FIELD THEORY OF PHOTOINDUCED FORMATION OF SURFACE RELIEFS IN SIDE-CHAIN AZOBENZENE POLYMERS (272 citations)
What are the main themes of his work throughout his whole career to date?
Thomas Garm Pedersen focuses on Condensed matter physics, Exciton, Graphene, Optics and Band gap.
His Condensed matter physics study combines topics in areas such as Magnetic field, Semiconductor and Second-harmonic generation.
His Exciton research integrates issues from Monolayer, Molecular physics, Carbon nanotube, Dielectric and Binding energy.
His work deals with themes such as Dirac equation, Fermi level, Lattice and Dirac, which intersect with Graphene.
Thomas Garm Pedersen combines subjects such as Optoelectronics and Silicon with his study of Optics.
He has included themes like Amorphous silicon and Absorption in his Optoelectronics study.
He most often published in these fields:
- Condensed matter physics (38.91%)
- Exciton (19.11%)
- Graphene (18.09%)
What were the highlights of his more recent work (between 2016-2021)?
- Condensed matter physics (38.91%)
- Exciton (19.11%)
- Monolayer (7.85%)
In recent papers he was focusing on the following fields of study:
Condensed matter physics, Exciton, Monolayer, Graphene and Electric field are his primary areas of study.
Particularly relevant to Spin-½ is his body of work in Condensed matter physics.
His Exciton study incorporates themes from Transition metal, Molecular physics, Dielectric, Eigenvalues and eigenvectors and Binding energy.
His Monolayer research is multidisciplinary, relying on both Polarization, Ab initio, Semiconductor and Current density.
His study looks at the relationship between Graphene and fields such as Nonlinear system, as well as how they intersect with chemical problems.
His Dirac research is multidisciplinary, incorporating elements of Fermi level, Bilayer graphene, Tight binding and Dispersion.
Between 2016 and 2021, his most popular works were:
- Model dielectric function for 2D semiconductors including substrate screening (66 citations)
- Dissociation of two-dimensional excitons in monolayer WSe2 (60 citations)
- Layered van der Waals crystals with hyperbolic light dispersion (53 citations)
In his most recent research, the most cited papers focused on:
- Quantum mechanics
- Electron
- Photon
Thomas Garm Pedersen mostly deals with Condensed matter physics, Monolayer, Exciton, Graphene and Semiconductor.
His Condensed matter physics study integrates concerns from other disciplines, such as Groove, Field, Nonlinear system, Electron and Magnetic field.
The concepts of his Exciton study are interwoven with issues in Electric field, Transition metal, Molecular physics, Dielectric and Nonlinear optical.
His Graphene research incorporates themes from Optoelectronics, High harmonic generation and Dirac.
His study in Dirac is interdisciplinary in nature, drawing from both Bilayer graphene, Fermi level, Tight binding and Dispersion.
Thomas Garm Pedersen has researched Semiconductor in several fields, including Momentum transfer, Substrate and Floquet theory.
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