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Lecturer(s)
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Vacula Martin, Mgr.
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Pech Miroslav, Mgr. Ph.D.
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Course content
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1) Introduction to radiometry: electromagnetic spectrum, basic quantities and concepts. 2-3) Propagation of optical radiation: inverse square law, étendue, radiative transfer. 4) Practical task: simulation of a model example of optical radiation propagation in ZEMAX software. 5-6) Radiometric properties of materials: transmission, reflection, absorption, emission, integrating spheres. 7) Practical task: measurement of spectral properties of materials using an integrating sphere. 8) Generation of optical radiation: radiation laws, selected radiation sources. 9) Practical task: measurement of the emission profile using a goniometer. 10) Detectors of optical radiation: selected types of detectors, detector arrays, types of noise. 11) Practical task: measurement of optical parameters using a CCD/CMOS camera. 12) Radiometric system components; Calibration and measurement. 13) Exam
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Learning activities and teaching methods
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Monologic Lecture(Interpretation, Training), Demonstration, Laboratory Work
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Learning outcomes
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Students will acquire basic knowledge in the field of radiometry. They will understand the fundamental laws on which advanced theory and methods of radiometric measurements and calibrations are based. They will also learn about the various radiometric properties of materials and how to describe radiometric sources and detectors. The course will also include practical tasks in which students will try out not only a virtual simulation environment, but also laboratory techniques for measuring optical elements and light sources such as headlights from the automotive industry or mirror segments and filters for astroparticle experiments.
1) Knowledge of basic radiometric quantities and terminology. 2) Knowledge of radiometric properties of materials. 3) Insight into the generation, propagation, and detection of optical radiation. 4) Overview of radiometric calibrations and measurements. 5) Familiarization with laboratory optical measurement techniques. 6) Introduction to Monte Carlo ray tracing simulation methods.
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Prerequisites
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unspecified
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Assessment methods and criteria
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Oral exam, Written exam
Basic knowledge of optics. Attendance at lectures and practical classes. Willingness to participate in solving model examples in the form of group work.
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Recommended literature
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A dále online dostupné manuály.
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Arecchi, A.V., Messadi, T., Koshel, J.R. (2007). Field Guide to Illumination.
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Grant, B.G. (2011). Field guide to radiometry.
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Gross, H. (2005). Handbook of Optical Systems, Volume 1: Fundamentals of Technical Optics.
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Gross, H. (2012). Handbook of Optical Systems, Volume 5: Metrology of Optical Components and Systems.
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Langer, V. (1980). Energetika Optických Paprskových Svazků.
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McCluney, W.R. (2014). Introduction to Radiometry and Photometry.
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Palmer, J.M., Grant, B.G. (2009). The Art of Radiometry.
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Parr, A.C., Datla, R.U., Gardner, J.L. (2005). Experimental Methods in the Physical Sciences. Volume 41 - Optical Radiometry.
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Willers, C.J. (2013). Electro-Optical System Analysis and Design: A Radiometry Perspective.
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Wolfe, W.L. (1998). Introduction to Radiometry.
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