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        Lecturer(s)
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        Course content
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        1) Magnetic properties of nanostructures - Introduction to magnetism of nanostructures - Special forms of magnetism - Nanopigments, absorption spectra 2) Magnetic applications of nanostructures - Nanomagnets - Magnetic separation and purification - Ferrofluid technologies - Magnetocaloric refrigeration - Magnetic recording media 3) Nanomaterials for special applications - Energy storage - Gas sensors - Photoelectrochemical applications 4) Lithography - Special lithographic techniques - Softlithography - DNA origami 5) Manipulation with nanoobjects - Manipulation with nanoobjects by using of SPM, FIB and EM - Optical and magnetic tweezer - Nanomanipulators - Microtools 6) Introduction to nanoelectronics - Problems of current electronics - Adaptation for nanosystems - Selected architectures and devices 7) Nano and microsystem technologies - Basic principles of integration - Microelectromechanical Systems - Microfluids - Nanoelectromechanical Systems - Molecular Machines 8) Bionanoapplications - introduction - Biomimetics - Application of nanomaterials in medicine - Contrast agents in MRI - Targeted drug delivery - Hyperthermia 9) Bionanoapplications - Antimicrobial effects of nanoparticles - Magnetic carries 10) Environmental and other aspects - Health, ecological and  impacts of nanotechnologies 11) Other nanostructures - Aerogels - Block polymers - Biological nanostructures
         
         
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        Learning activities and teaching methods
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        Lecture
        
            
                    
                
                    
                    - Homework for Teaching
                        - 20 hours per semester
                    
 
                
                    
                    - Attendace
                        - 25 hours per semester
                    
 
                
                    
                    - Preparation for the Exam
                        - 36 hours per semester
                    
 
                
             
        
        
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                Learning outcomes
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                The aim of the subject is to familiarize students with applications of nanotechnologies in various fields.
                 
                Students have knowledge about various applications of nanomaterials.
                 
                
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                Prerequisites
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                unspecified
                
                
                    
                        
                    
                    
                
                
  
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                Assessment methods and criteria
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                        Oral exam
                        
                        
                         
                        
                    
                    
                
                 Knowledge in the scope of the syllabus.
                 
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        Recommended literature
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                - 
                    Blundell, S. (2003). Magnetism in Condensed Matter. Oxford University Press. 
                
 
            
                
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                    Jiles, D. (1997). Introduction to Magnetism and Magnetic Materials, Second Edition. Chapman & Hall, London. 
                
 
            
                
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                    Poole Ch.P, Owens F.J. (2003). Introduction to Nanotechnology. John Wiley & Sons, New Jersey. 
                
 
            
         
         
         
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