Principles of Electrical Engineering
Niveau
Introduction
Learning outcomes of the courses/module
The students are able to:
• Reproduce and explain definitions of current and voltage, electric and magnetic field as well as Ohm's law and electromagnetic induction
• Describe quantum mechanical processes of charge transport in electric semiconduc-tors qualitatively and apply them to the photoelectric effect
• Read plans and data sheets of electric power engineering
• Understand basic principles of control systems and interpret the parameters of direct,
alternating and three-phase current
• Describe the function and operating behavior of electrical machines
• Set up electrical circuits in the laboratory, operate measuring equipment and visual-ize measurement results
• Question and analyze the technical interrelationships of an extensively described and
delimited task in the field of electrical engineering and reproduce a solution with a given structure
• Reproduce and explain definitions of current and voltage, electric and magnetic field as well as Ohm's law and electromagnetic induction
• Describe quantum mechanical processes of charge transport in electric semiconduc-tors qualitatively and apply them to the photoelectric effect
• Read plans and data sheets of electric power engineering
• Understand basic principles of control systems and interpret the parameters of direct,
alternating and three-phase current
• Describe the function and operating behavior of electrical machines
• Set up electrical circuits in the laboratory, operate measuring equipment and visual-ize measurement results
• Question and analyze the technical interrelationships of an extensively described and
delimited task in the field of electrical engineering and reproduce a solution with a given structure
Prerequisites for the course
none
Course content
• Kirchhoff's laws
• Basic quantities of alternating current and three-phase current
• Reactive, active and apparent power
• Applications of semiconductors in metrology, digital technology and power electronics
• Description of electrical machines, motors and generators by pointer diagrams
• Asynchronous and synchronous machines
• Properties and structures of control loops
• Definition of current and voltage
• Electric and magnetic field
• Theory of electrical conduction in doped electrical semiconductors
• Photoelectric effect
• Practical experimental setups in the laboratory
• Basic quantities of alternating current and three-phase current
• Reactive, active and apparent power
• Applications of semiconductors in metrology, digital technology and power electronics
• Description of electrical machines, motors and generators by pointer diagrams
• Asynchronous and synchronous machines
• Properties and structures of control loops
• Definition of current and voltage
• Electric and magnetic field
• Theory of electrical conduction in doped electrical semiconductors
• Photoelectric effect
• Practical experimental setups in the laboratory
Recommended specialist literature
• Tkotz, K., 2018. Fachkunde Elektrotechnik. 31. Auflage. Haan: Europa-Lehrmittel
• Hagmann, G., 2019. Grundlagen der Elektrotechnik. 18. Auflage. Wiebelsheim: AULA-Verlag
• Hagmann, G., 2019. Grundlagen der Elektrotechnik. 18. Auflage. Wiebelsheim: AULA-Verlag
Assessment methods and criteria
Written Exam
Language
German
Number of ECTS credits awarded
6
Share of e-learning in %
30
Semester hours per week
3.0
Planned teaching and learning method
Blended Learning and exercises
Semester/trimester in which the course/module is offered
1
Name of lecturer
Asc. Prof. (FH) Dipl.-Ing. Christian Huber
Academic year
1
Key figure of the course/module
TEC.2
Type of course/module
integrated lecture
Type of course
Compulsory
Internship(s)
kein