Lectures related to X-ray Techniques and Applications

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

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

Explores synchrotron radiation, X-ray sources, scientific achievements, and recent highlights in synchrotron science.

Explores synchrotrons, x-ray lasers, phase-contrast tomography, fast tomography, and applications in metallic foams.

Covers x-ray magnetic imaging techniques, including XMCD, XRMS, and x-ray optics, for studying magnetic materials and domains.

Explores the historical development and industrial applications of radiography and computerized tomography with X-rays, gammas, and neutrons.

Explores advancements in miniaturized x-ray sources and detectors for improved medical imaging and non-destructive testing.

Explores X-ray imaging techniques in synchrotron science, covering various scales and structural complexities of materials.

Explores x-ray interactions with matter, covering cross-sections, Lambert-Beer law, and attenuation lengths.

Covers synchrotrons, x-ray techniques, and variations on tomography methods with practical examples.

Explores the history of quantum physics, the challenges in constructing x-ray sources, and the use of synchrotron radiation.

Explains linear attenuation coefficient, photon absorption, scattering, and typical attenuation coefficients for materials.

Explores synchrotrons, X-ray imaging techniques, nanomagnetism, and biological structures at multiple length scales.

Explores phase-contrast imaging techniques and applications in various samples.

Explores breakthroughs in X-ray technology, including pixelized sources and detectors.

Explores collimation in biomedical imaging, discussing its impact on resolution and sensitivity.

Explores synchrotrons, X-ray techniques, Hough transform, Radon transform, and back projections in X-ray tomography.

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

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

Explores radiation sources, including fast electrons, heavy charged particles, and neutrons, discussing their applications and characteristics.