Stefan T. Bromley mainly investigates Chemical physics, Nanoparticle, Computational chemistry, Inorganic chemistry and Oxide. His Chemical physics study combines topics from a wide range of disciplines, such as Intermolecular force, Ground state, Condensation, Stellar evolution and Tetrathiafulvalene. His Nanoparticle research incorporates themes from Particle size, Physical chemistry, Atom, Reactivity and Vacancy defect.
His Computational chemistry research focuses on subjects like Cluster, which are linked to Crystallography and Hydride. His research integrates issues of Catalysis, Oxygen and Molecular oxygen in his study of Inorganic chemistry. His work carried out in the field of Oxide brings together such families of science as Ionic bonding and Nanotechnology.
Stefan T. Bromley focuses on Chemical physics, Density functional theory, Nanotechnology, Nanoclusters and Cluster. His Chemical physics research includes themes of Oxide, Nanostructure, Atom, Molecule and Ground state. Within one scientific family, he focuses on topics pertaining to Catalysis under Density functional theory, and may sometimes address concerns connected to Dissociation and Inorganic chemistry.
The Nanotechnology study combines topics in areas such as Electronic structure and Wurtzite crystal structure. The study incorporates disciplines such as Nanoscopic scale and Chemical engineering, Nanomaterials, Silicate in addition to Nanoclusters. Stefan T. Bromley interconnects Nucleation, Crystallography, Adsorption, Spectral line and Interatomic potential in the investigation of issues within Cluster.
Stefan T. Bromley spends much of his time researching Chemical physics, Nanoclusters, Density functional theory, Silicate and Electronic structure. His Chemical physics research is multidisciplinary, incorporating perspectives in Oxide, Amorphous solid, Metastability, Water splitting and Band gap. His Nanoclusters study results in a more complete grasp of Nanotechnology.
His studies in Density functional theory integrate themes in fields like Nanoparticle, Molecular physics, Catalysis and Methane. His Nanoparticle research incorporates elements of Crystallinity and Anatase. His Silicate research includes elements of Pyroxene, Olivine, Nucleation, Interstellar medium and Infrared spectroscopy.
His primary areas of study are Chemical physics, Density functional theory, Nanotechnology, Nanoparticle and Stoichiometry. His studies deal with areas such as Oxide, Nanoclusters, Charge, Ground state and Band gap as well as Chemical physics. The concepts of his Density functional theory study are interwoven with issues in Molecular physics and Catalysis.
Stefan T. Bromley interconnects Chemical substance, Aryl and Ring in the investigation of issues within Nanotechnology. Stefan T. Bromley has researched Nanoparticle in several fields, including Range, Cluster, Anatase, Interatomic potential and Atomic physics. He combines subjects such as Metastability and Nucleation with his study of Stoichiometry.
This overview was generated by a machine learning system which analysed the scientist’s body of work. If you have any feedback, you can contact us here.
QUASI: A general purpose implementation of the QM/MM approach and its application to problems in catalysis
Paul Sherwood;Alex H. de Vries;Martyn F. Guest;Georg Schreckenbach.
Journal of Molecular Structure-theochem (2003)
Correlation between crystal structure and mobility in organic field-effect transistors based on single crystals of tetrathiafulvalene derivatives.
Marta Mas-Torrent;Peter Hadley;Stefan T. Bromley;Xavi Ribas.
Journal of the American Chemical Society (2004)
Dust formation in the oxygen-rich AGB star IK Tau
D. Gobrecht;I. Cherchneff;A. Sarangi;J.M.C. Plane.
arXiv: Solar and Stellar Astrophysics (2015)
Modelling nano-clusters and nucleation
C. Richard A. Catlow;Stefan T. Bromley;Stefan T. Bromley;Said Hamad;Miguel Mora-Fonz.
Physical Chemistry Chemical Physics (2010)
Importance of intermolecular interactions in assessing hopping mobilities in organic field effect transistors: pentacene versus dithiophene-tetrathiafulvalene.
Stefan T. Bromley;Marta Mas-Torrent;Peter Hadley;Concepció Rovira.
Journal of the American Chemical Society (2004)
Dramatic reduction of the oxygen vacancy formation energy in ceria particles: a possible key to their remarkable reactivity at the nanoscale
Annapaola Migani;Georgi N. Vayssilov;Stefan T. Bromley;Stefan T. Bromley;Francesc Illas.
Journal of Materials Chemistry (2010)
Greatly facilitated oxygen vacancy formation in ceria nanocrystallites
Annapaola Migani;Georgi N. Vayssilov;Stefan T. Bromley;Stefan T. Bromley;Francesc Illas;Francesc Illas.
Chemical Communications (2010)
Point defects in ZnO
Alexey A. Sokol;Samuel A. French;Samuel A. French;Stefan T. Bromley;C. Richard A. Catlow.
Faraday Discussions (2007)
Single-crystal organic field-effect transistors based on dibenzo-tetrathiafulvalene
M. Mas-Torrent;P. Hadley;S. T. Bromley;N. Crivillers.
Applied Physics Letters (2005)
Dust formation in the oxygen-rich AGB star IK Tauri
D. Gobrecht;D. Gobrecht;I. Cherchneff;A. Sarangi;A. Sarangi;J. M. C. Plane.
Astronomy and Astrophysics (2016)
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