Modelling in Power Engineering

Lecturer:

Tutor:

Supervisor:

Department of Electroenergetics

Synopsis:

Differential analytical methods of solution of electromagnetic field, integral methods, numerical treatment of coupled problems, SW information. Models and modeling, physical similarity and analogy. State and block scheme , the stability of systems and its determiter methods. The principles of analytical mechanics, electromechanical systems description.

Requirements:

Syllabus of lectures:

1.Vector analysis for elmg. field solution

2.Basic differential analytical methods of field solution

3.Basic integral methods

4.Overview of numerical methods of elmg. field solution

5.Basic differential numerical methods - MKD and MKP

6.Basic integral numerical methods -MHP

7.Basic information about SW for elmg. field solution

8.Model and modeling, dimensional analysis

9.Physical similarity

10.System and environment, separability, static and dynamic relations

11.Block and state scheme of the system

12.System stability, definition and determination

13.Introduction into principles of analytical mechanics

14.Electromechanical systems description

Syllabus of tutorials:

1.Vectors, matrices, differential operators, complex variable functions

2.Fourier expansion, conformal mapping

3.Air coil field

4.Complex potential in magnetic fields

5.Electrical field between electrodes-MKD application

6.Some details of MKP

7.Some SW demonstration, some problems

8.The use of Buckingham theorem

9.Examples of model-reality conversion

10.Examples of some elementary static and dynamic systems

11.State-block scheme conversion

12.Methods of differential equation - state scheme conversion

13.Electromechanical systems - description and calculations

14.Electromechanical systems - computer simulation (Matlab, Mathematicaâ)

Study Objective:

Study materials:

B.W.Bequete. Process Dynamics. Prentice Hall . 1998.

Note:

Further information:

No time-table has been prepared for this course

The course is a part of the following study plans:

• Elektroenergetika-inženýrský blok (compulsory elective course)
• Elektroenergetika-inženýrský blok (compulsory elective course)