Lectures related to Energy Dispersive X-ray Microanalysis

Instrumental Chemistry Examples

Covers instrumental chemistry techniques like X-ray diffraction and mass spectrometry for analyzing biological compounds.

Tomography: Imaging by Sections

Covers the principles and applications of tomography in various fields, focusing on imaging by sections and different reconstruction techniques.

X-ray Diffraction Applied to Cement MOOC: Cement Chemistry and Sustainable Cementitious Materials

Covers the basics of X-ray diffraction applied to cement and advanced data analysis techniques.

Basic concepts of photons and x-rays

Explores the interaction of x-rays with matter, matching photon energy, and ionizing radiation.

X and Gamma-ray Detectors

Explores X and gamma-ray imaging devices, semiconductor detectors, and charge transport applications in detectors.

Wigglers and Undulators: Tuning Photon Energy and Polarization

Covers tuning photon energy, selecting desired energy, varying polarization, APPLE undulators, and rapid switching.

Introduction to X-rays and X-ray Sources

Covers the basics of x-rays, including generation, interactions, and applications in imaging and scattering techniques.

Absorption and X-ray Spectrum MOOC: Fundamentals of Biomedical Imaging: Ultrasounds, X-ray, positron emission tomography (PET) and applications

Covers the fundamentals of biomedical imaging, including CT imaging and x-ray spectrum.

Interactions of X-rays with Tissue II MOOC: Fundamentals of Biomedical Imaging: Ultrasounds, X-ray, positron emission tomography (PET) and applications

Explores the interactions of x-rays with tissue, focusing on photoelectric effect and pair production.

3D EDX: Challenges and Applications

Explores the challenges and applications of 3D EDX, including limitations, resolution, and quantification enhancement techniques.

X-ray Detection Technologies

Explores X-ray detection technologies, including semiconductor diodes and scintillators, for applications in cancer cell imaging and particle detection.

Principles of Lasers: Optical Tweezers

Explores the principles of lasers, including lasing transitions and optical tweezers, with applications in various fields.

X-ray Tomography Practical: Introduction

Covers practical aspects of X-ray tomography, including photon interaction and sample intensity measurement.

Radiation Sources

Explores radiation sources, including fast electron sources, heavy charged particle sources, and neutron sources, covering processes like beta decay, internal conversion, and Auger electrons.

Optical Methods in Chemistry

Introduces optical methods in chemistry, covering ray optics, lasers, spectroscopy, and X-ray physics, emphasizing light-matter interactions and Nobel Prize-winning advancements.

UV-Visible Spectrophotometry

Explains UV-Visible spectrophotometry principles, chromophores, solvents effects, biomolecule analysis, and protein quantification methods.

Optical Spectroscopy: Fundamentals and Applications

Covers the fundamentals of optical spectroscopy and its applications in various fields, exploring the design and operation of spectrometers.

Characterization Approaches for Solid Materials

Covers fundamental characterization approaches for solid materials, focusing on elemental analysis, thermal analysis, microscopy, and neutron-based spectroscopies.

Inference Engines: Resolution and Horn Clauses

Covers inference engines based on resolution, Horn clauses, filtering, and unification in artificial intelligence.

X-ray Spectroscopies: Dipole Transitions

Explores dipole transitions, symmetry rules, HOMOS, LUMOS, and Fermi's Golden Rule in X-ray spectroscopies.

Energy Dispersive X-ray Microanalysis

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