1. Importance, history and application of numerical methods, definition of nonlinearities
2. Types and using of numerical methods (FEM, BEM, CDM, FVM, MC, NR etc.)
3. Application of numerical methods in linear continuum (truss, beams, frames, 2D and 3D bodies, statics, elasticity), programming
4. Application of numerical methods in linear continuum (truss, beams, frames, 2D and 3D bodies, mechanical contact, nonlinearities, buckling, plasticity, elastomers, fatigue, creep, thermal loading, dynamics etc.), programming
5. Application of numerical methods in mechanics of liquids, programming
6. Application of numerical methods in stochastic and probabilistic mechanics, deterministic and probabilistic approach and reliability assessment, programming
7. Application of classical commercial sw (ANSYS, MSC.MARC, MSC.NASTRAN, ANTHILL, MATLAB, MATHCAD etc.)
2. Types and using of numerical methods (FEM, BEM, CDM, FVM, MC, NR etc.)
3. Application of numerical methods in linear continuum (truss, beams, frames, 2D and 3D bodies, statics, elasticity), programming
4. Application of numerical methods in linear continuum (truss, beams, frames, 2D and 3D bodies, mechanical contact, nonlinearities, buckling, plasticity, elastomers, fatigue, creep, thermal loading, dynamics etc.), programming
5. Application of numerical methods in mechanics of liquids, programming
6. Application of numerical methods in stochastic and probabilistic mechanics, deterministic and probabilistic approach and reliability assessment, programming
7. Application of classical commercial sw (ANSYS, MSC.MARC, MSC.NASTRAN, ANTHILL, MATLAB, MATHCAD etc.)