Lectures related to Crystallographic database

Explores cubic crystal structures, coordination numbers, and packing factors in metals and alloys.

Explores crystal structures, unit cells, Miller indices, and X-ray diffraction principles.

Delves into the microscopic Hamiltonian of Cu₂OSEO3, exploring anisotropic exchange interactions and T-REXS experiments on FeGe and Cu₂OSEO3.

Analyzes magnetization curves in iron, nickel, and cobalt to explain magnetic anisotropy.

Covers the theory and applications of electron diffraction in materials science.

Explores macromolecular crystallography techniques using synchrotrons and x-ray lasers for large molecules.

Explores surface energy, crystal growth, adhesion, and nucleation theories in thermodynamics and materials science.

Covers the formation and structures of intermetallics, with a focus on CsCl and Laves phases.

Explores grain boundaries, surface energy, geometry parameters, and micelle formation.

Explores the crystallographic structures and stability of intermetallic compounds, focusing on borides, carbides, and nitrides.

Explores diffraction principles for observing atomic arrangements and determining crystal structures in solids.

Explores stiffness, types of bonds, glass transition, and elasticity in materials under stress.

Explores plasticity and hysteresis in martensitic transformation, stress-strain curves, and shape memory effects.

Covers exercises on electron diffraction to identify crystal structures and analyze diffraction patterns accurately.

Explores chemical bonds, solid structuring, metallic properties, weak bonds, and crystal systems.

Introduces crystallography basics, covering crystal structures, diffraction patterns, and atomic arrangements.

Explains how sample geometry affects the size and shape of reciprocal lattice nodes in multiple beam scattering.

Discusses stationary creep, material properties, magnetic properties of ferromagnetics, and Miller indices in crystallography.

Explores advanced spectroscopy techniques revealing electronic, chemical, and magnetic properties of materials.

Explores multiple beam scattering in electron diffraction, focusing on zone axis diffraction patterns and theoretical approaches.