All classes of crystalline materials, either in bulk or as thin films, such as the following:
- semiconductors;
- magnetic systems;
- superconductors;
- graphene;
- photonic crystals;
- piezoelectric crystals;
- ferroelectric crystals;
- optical crystals, including nonlinear and laser crystals;
- scintillating crystals;
- periodic metamaterials;
- minerals and biominerals;
- metals;
- salts;
- liquid crystals;
- biomolecules;
- small organic molecules, including drugs;
- cocrystals;
- mesocrystals.
Crystal growth techniques include, but are not limited to, the following:
- conventional crystal growth, including Bridgman, Czochralski, top seeding, solid state conversion, and high-temperature flux methods;
- molecular beam, chemical beam, and vapor phase epitaxy;
- design and processing of photonic crystals and metamaterials;
- non-classical growth by particle attachment and fusion.
Characterization techniques, such as the following:
- X-ray diffraction;
- photoluminescence;
- electron microscopy and diffraction;
- neutron diffraction;
- free electron lasers;
- scanning probe microscopy;
- carrier transport;
- magnetic property measurements;
- Rutherford backscattering;
- ellipsometry;
- AFM/PFM;
- property characterizations, including but not limited to optical, magnetic, electronic, etc.;
- thermoanalytical techniques, including but not limited to DSC, TGA, DVS, and TRPXRD.
Fundamental research into the following:
- solid-state physics and chemistry;
- crystalline surfaces;
- crystalline structure;
- crystalline interface;
- crystallization mechanisms, including liquid and amorphous precursor phases as well as clusters;
- crystalline structure of biological macromolecules (including the crystallization part).
Application of Artificial Intelligence in Crystallography |
All classes of crystalline materials, either in bulk or as thin films, such as the following:
- semiconductors;
- magnetic systems;
- superconductors;
- graphene;
- photonic crystals;
- piezoelectric crystals;
- ferroelectric crystals;
- optical crystals, including nonlinear and laser crystals;
- scintillating crystals;
- periodic metamaterials;
- minerals and biominerals;
- metals;
- salts;
- liquid crystals;
- biomolecules;
- small organic molecules, including drugs;
- cocrystals;
- mesocrystals.
Crystal growth techniques include, but are not limited to, the following:
- conventional crystal growth, including Bridgman, Czochralski, top seeding, solid state conversion, and high-temperature flux methods;
- molecular beam, chemical beam, and vapor phase epitaxy;
- design and processing of photonic crystals and metamaterials;
- non-classical growth by particle attachment and fusion.
Characterization techniques, such as the following:
- X-ray diffraction;
- photoluminescence;
- electron microscopy and diffraction;
- neutron diffraction;
- free electron lasers;
- scanning probe microscopy;
- carrier transport;
- magnetic property measurements;
- Rutherford backscattering;
- ellipsometry;
- AFM/PFM;
- property characterizations, including but not limited to optical, magnetic, electronic, etc.;
- thermoanalytical techniques, including but not limited to DSC, TGA, DVS, and TRPXRD.
Fundamental research into the following:
- solid-state physics and chemistry;
- crystalline surfaces;
- crystalline structure;
- crystalline interface;
- crystallization mechanisms, including liquid and amorphous precursor phases as well as clusters;
- crystalline structure of biological macromolecules (including the crystallization part).
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