Radiation Detection: Scintillation Detectors

Related lectures (32)

Page 3 of 4

Explores particle detection using scintillators, cloud chambers, and wire chambers for various applications.

Explores laser micro-processing of materials, fluorescence, spectroscopy, and band structures.

Explains the principles of photomultiplier tubes and their applications in optical detection, focusing on gain, efficiency, and signal amplification.

Explores radiation detection principles, semiconductor detectors, light collection methods, and signal processing.

Explores pulse techniques for signal measurements and noise reduction methods like gated integration and boxcar averaging.

Explores optical methods in chemistry, covering microscopy, manipulation, and spectroscopy techniques.

Covers photomultiplier tubes, focusing on their configurations and the dynamics of dark current and noise equivalent power.

Explores SiC detectors for radiation detection, including prototype testing and new converting materials.

Covers the observation of pulsars, including dynamic spectrum, dispersion, and timing residuals.

Covers theories and practices in radioprotection, including dose measurement, detector use, and radioactive substance identification.