Optical wavefronts, temporal and spatial coherence, diffraction of optical waves, optical diffraction limit, thin lens, point spread function and optical transfer function, convolution theorem, optical aberrations, optical phase conjugation, wavefront shaping, holographic detection, transmission matrix, selected topics in applications of wavefront shaping.
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Course Learning Outcomes: Course Learning Outcome Assessment Be able to apply basic knowledge on diffraction to optical imaging systems. Scrutinize the working principle of adaptive optics and optical imaging systems. Comprehend the limitations of an optical imaging system. Suggest ideas to improve the performance of an imaging system. Gain interdisciplinary research skills, and if applicable, utilize these skills to advance projects on characterization of materials using optical imaging systems
Introduction to optical wavefronts Diffraction Coherence Diffraction by a thin lens Point spread function, optical transfer function, and convolution theorem Optical imaging systems Aberrations in optical imaging systems Properties of aberrated optical wavefronts Optical phase conjugation Wavefront shaping methods Optical wavefront detection and reconstruction methods Transmission matrix approach to adaptive optics systems Applications of wavefront shaping Project presentations ECTS - Workload Table: Activities Number Hours Workload Midterm exam 2 15 30 Project (including preparation, reviewing the proposal, and presentation if applicable) 1 30 30 Homework 5 10 50 Course hours 14 3 42 Total Workload: 152 Total Workload / 30: 152 / 30 5.07 ECTS Credits of the Course: 5