What is she best known for?
The fields of study she is best known for:
- Composite material
- Thermodynamics
- Atom
Her scientific interests lie mostly in Grain boundary, Composite material, Nanocrystalline material, Crystallography and Grain size.
Her Grain boundary research is multidisciplinary, relying on both Slip and Condensed matter physics, Dislocation.
Her Composite material research integrates issues from Nanoporous, Nanoscopic scale, Optics and Nanostructure.
The concepts of her Nanocrystalline material study are interwoven with issues in Fracture mechanics, Molecular dynamics and Crystallite.
Diana Farkas interconnects Nial, Anisotropy, Crack tip opening displacement and Thermodynamics in the investigation of issues within Crystallography.
Her research investigates the connection with Grain size and areas like Deformation which intersect with concerns in Diffusion bonding, Sintering and Ceramic.
Her most cited work include:
- Interatomic potentials for monoatomic metals from experimental data and ab initio calculations (1016 citations)
- Structure and Mechanical Behavior of Bulk Nanocrystalline Materials (304 citations)
- COMPETING PLASTIC DEFORMATION MECHANISMS IN NANOPHASE METALS (295 citations)
What are the main themes of her work throughout her whole career to date?
Her main research concerns Grain boundary, Condensed matter physics, Dislocation, Crystallography and Composite material.
Diana Farkas has included themes like Grain size and Nanocrystalline material in her Grain boundary study.
Her Condensed matter physics research is multidisciplinary, incorporating perspectives in Alloy, Interatomic potential and Nial.
Her study on Dislocation also encompasses disciplines like
- Plasticity which connect with Hardening,
- Deformation together with Crystallite.
Her work on Partial dislocations, Crystal twinning and Microstructure is typically connected to Boundary as part of general Crystallography study, connecting several disciplines of science.
Her studies deal with areas such as Nanoporous and Molecular dynamics as well as Composite material.
She most often published in these fields:
- Grain boundary (36.00%)
- Condensed matter physics (36.00%)
- Dislocation (35.00%)
What were the highlights of her more recent work (between 2012-2021)?
- Grain boundary (36.00%)
- Dislocation (35.00%)
- Composite material (23.50%)
In recent papers she was focusing on the following fields of study:
Her primary scientific interests are in Grain boundary, Dislocation, Composite material, Condensed matter physics and Metallurgy.
Her Grain boundary research includes elements of Deformation mechanism, Stress and Grain size.
Her research in Dislocation intersects with topics in Crystallite, Microstructure, Transmission electron microscopy and Deformation.
Her Nanoporous research extends to the thematically linked field of Composite material.
Her research on Condensed matter physics focuses in particular on Stacking fault.
As part of one scientific family, she deals mainly with the area of Metallurgy, narrowing it down to issues related to the Molecular dynamics, and often Atom, High entropy alloys and Alloy.
Between 2012 and 2021, her most popular works were:
- Mechanical response of nanoporous gold (102 citations)
- Strain localization at dislocation channel–grain boundary intersections in irradiated stainless steel (58 citations)
- Atomistic simulations of metallic microstructures (47 citations)
In her most recent research, the most cited papers focused on:
- Thermodynamics
- Composite material
- Atom
Diana Farkas mainly investigates Grain boundary, Composite material, Dislocation, Metallurgy and Plasticity.
Diana Farkas is interested in Grain boundary strengthening, which is a field of Grain boundary.
Her studies in Grain boundary strengthening integrate themes in fields like Deformation, Nanocrystalline material and Grain Boundary Sliding.
Her Dislocation study deals with the bigger picture of Crystallography.
Her work deals with themes such as Nanoindentation and Nucleation, which intersect with Crystallography.
Her Plasticity research incorporates elements of Nanoporous, Yield, Condensed matter physics and Ultimate tensile strength.
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