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MODELING  of  NANOSTRUCTURES  &  MATERIALS  –  Summer  Semester  2013

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MODELING  of  NANOSTRUCTURES  &  MATERIALS  –  Summer  Semester  2013    

List  of  Lectures    

1)  Introduction  to  Computational  Science,  Computational  Materials  Science,   Modeling  of  Nanostructures  

 

2)  Density  Functional  Theory  –  The  Key  to  the  Computational  Materials  Science,   The  Basics  

 

3)  Kohn-­‐Sham  realization  of  DFT,  Functionals,  Generelizations  of  K-­‐S  Equations,   Examples  of  Calculations  

 

4)  Kohn-­‐Sham  Method  with  plane-­‐waves  &  pseudopotentials    

5)  Kohn-­‐Sham  Method  with  plane-­‐waves  &  pseudopotentials  (cnt.),  Introduction   to  Molecular  Dynamics  

 6)  Molecular  Dynamics  (MD),  Classical  vs.  Ab  Initio  MD,  Born-­‐Oppenheimer  MD,   Car-­‐Parrinello  MD,  Thermostats,  Time  evolution  of  Atomic  Positions  in  MD    

7)  Molecular  Dynamics  &  Coarse  Graining,  Tight-­‐Binding  Methods    

8)  Kohn-­‐Sham  equations,  Concept  of  Muffin-­‐Tin  Potentials,  LAPW  and  FP-­‐LAPW   Method,  LMTO  Method  

 

9)  Basics  of  the  Alloy  Theory,  Continuum  Methods  in  Materials  Science    10)  Band  Gap  Energies  in  DFT,  Further  Developments  of  DFT  methods  

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