Explores light dosimetry in tissues for photomedicine applications, covering mechanisms of light therapy, laser classification, and the influence of laser parameters on treatment outcomes.
Explores fluorescence lifetime in photomedicine, covering health effects of artificial light, fluorescence guided surgery, and applications of optical spectroscopy.
Explores the Radiative Transport Equation in tissue optics, covering radiance, photon distribution, and numerical solutions like Monte Carlo simulations.
Explores the absorption of visible light by organic molecules and the generation of color, as well as the electronic excitation of molecules and the charge transport in organic devices.
Covers X-Ray Photoelectron Spectrometry (XPS), a surface analysis technique developed by Kai Siegbahn, explaining its components, mechanism, and analysis methods.
Covers exercises on carboxymethyl cellulose, pH considerations for ion exchange, UV-visible spectroscopy, Lambert-Beer law applications, protein retention, and infrared spectroscopy analysis.
Introduces fundamental concepts of fluorescence in microscopy, covering terms like excitation and emission spectra, Stokes shift, quantum efficiency, brightness, and photobleaching.
