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        Lecturer(s)
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        Course content
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        - Basic terms, definitions and experimental sources of the Maxwell theory.  - Basic equations of the Maxwell theory.  - Propagation of electromagnetic waves in a zero-loss indefinite medium. Homogenous wave equation, solution, properties of solution. - Polarization of electromagnetic waves, energy transmitted by monochromatic waves. Spherical waves. - Propagation of electromagnetic waves in a loss indefinite medium. Generaqlized wave equation,  its solution for the monochromatic waves, properties of solution. Energy transmitted by waves, true absorption. - Propagation of electromagnetic waves in dielectric anisotropic crystals.   - Electromagnetic waves at the interface of two media. Derivation of the law of reflection and refraction and Fresnel equations at the interface of the two zero-loss media from the boundary conditions. - Reflectance and transmittance of the interface of the two zero-loss media. - Total reflection at the interface of the two zero-loss media. Properties of the reflected and the refracted waves. - Kirchhoff theory of diffraction, Kirchhoff integral equation and its assumptions. - Calculation of the complex amplitude (disturbance) in the case of point source.  - Fraunhofer diffraction at a basic types of apertures. 
         
         
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        Learning activities and teaching methods
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        unspecified
        
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                Learning outcomes
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                Basic terms and principles of the Maxwell theory of non-stationary electromagnetic field. 
                 
                Knowledge Define the main ideas and conceptions of the subject, describe the main approaches of the studied topics, recall the theoretical knowledge for solution of model problems.
                 
                
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                Prerequisites
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                No prior requirements.
                
                
                    
                        
                    
                    
                
                
  
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                Assessment methods and criteria
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                        unspecified
                    
                
                 Knowledge the scope of the course topics (examination), active attendance in seminars 
                 
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        Recommended literature
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                    Bajer, J. (2018). Optika 2. Olomouc. 
                
 
            
                
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                    Born, M., Wolf, E. (1993). Principles of optics. Pergamon Press New York. 
                
 
            
                
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                    Čechová, M. (1989). Elektromagnetické vlny. UP OLomouc. 
                
 
            
                
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                    Čechová, M., Vyšín, I. (1998). Teorie elektromagnetického pole. UP Olomouc. 
                
 
            
                
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                    Edminister, J. (2010). Schaum's Outline of Electromagnetics. Third Edition. McGraw-Hill. 
                
 
            
                
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                    Hecht E. (2002). Optics. 4th Edition, Addison Wesley. 
                
 
            
         
         
         
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