Covers the principles and applications of Transmission Electron Microscopy, including imaging, diffraction, contrast mechanisms, and in situ techniques.
Introduces the basics of heterogeneous catalysis, focusing on catalyst types, surface reactivity, and the role of surface energy in catalytic processes.
Explores the principles of Scanning Transmission Electron Microscopy (STEM) for analytical microscopy, covering TEM diffraction, detectors, and EDS analysis.
Explores 3D Microscopy and Tomography techniques, including Atom Probe Tomography and Field Emission Microscopy, emphasizing electron tomography principles and applications.
Covers high-resolution transmission electron microscopy imaging techniques, focusing on phase contrast, simulations, and the impact of aberrations on image interpretation.
Covers Lorentz Transmission Electron Microscopy and its role in analyzing magnetic domain structures and properties through various imaging modes and quantitative methods.
Discusses hydrogen's role in the future energy mix, key drivers of energy transition, challenges in modeling domestic energy demand, and integration of energy models.
Covers the construction of pe-pH diagrams, the distribution of species, and the application of geochemical modeling in environmental engineering challenges.