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Covers the basics of transmission electron microscopy, including components, operation, imaging modes, diffraction analysis, and the interaction of high-energy electrons with matter.
Covers electron microscopy techniques, components, and applications, including historical development, lens aberrations correction, and electron interaction with matter.
Covers the basics of the reciprocal lattice in electron diffraction, including diffraction vector geometry and properties of reciprocal lattice unit cell vectors.
Introduces dynamical scattering in TEM, covering single and multiple elastic scattering, 2-beam diffraction, Bloch wave theory, and scattering intensity.
Explores surface scattering phenomena, electron wavelength, constructive interference, organo-metallic particles, and synchrotron radiation in nanosciences.
Explores electron microscopy instrumentation in life sciences, covering techniques, instrument limitations, components, specimen preparation, beam interactions, and contrast functions.
Covers crystallography concepts, including veganicide cells, reciprocal lattices, and Brillouin zones, essential for understanding electron behavior in crystal structures.
Explores the components and operation of a Transmission Electron Microscope (TEM), including vacuum systems, electron sources, lenses, aberrations, and detectors.
Covers the fundamentals of electron diffraction and its applications in understanding crystal structures and symmetry, including lattice vectors, lattice planes, and dark-field imaging techniques.