Details - Tematika

Vehicle electronics I. (GAJABAN-GEPJELE1-1)

Basic data

Name and type of the study programme

Vehicle Engineering, undergraduate program

Curriculum

2023

Classes / consultation hours

2 + 2 + 0 (L+S+Labs)

Credits

5 credits

Theory – Practice

Theory: 50%, Practice: 50%

Recommended semester

Semester 5

Study mode

full-time

Prerequisites

Electrical Engineering

Evaluation type

Colloquium

Course category

Compulsory elective in the specialization

Language

English

Instructors

Responsible instructor

Dr. Csák Bence Zoltán

Responsible department

Innovatív Járművek és Anyagok Tanszék

Instructor(s)

Sárkány Richárd, Dr. Csák Bence Zoltán

Checked by

Kelemen János

Course objectives

The aim of the course is to familiarize students with basic electric/electronic notions, definitions to have the right approach to automotive electronic problems and problem solving. Students will learn how new and already known physical quantities appear and handled in automotive environment. Calculations with said quantities will be practiced and applied.The aim of the course is to familiarize students with basic electric/electronic notions, definitions to have the right approach to automotive electronic problems and problem solving. Students will learn how new and already known physical quantities appear and handled in automotive environment. Calculations with said quantities will be practiced and applied.

Course content

Lectures

Electrostatics (basic notions, electric charge, principle of conduction, Coulomb’s law, dielectric polarization, E-field, understanding electric potential, capacity, discharge) Resistive networks, Kirchhoff’s laws, Ohm’s law, heat calculations, characteristic impedance. Periodic signals, Fourier’s law, modulation techniques, PWM and it’s use in automotive. Calculations with inductivities, capacitors and passive networks both in case of transient and sinusoidal excitation. The notion of signal, modulation techniques (AM, PM, FM and hybrid) Magnetism basics (basic notions, Ampere’s law, Faraday’s law, Lorentz’s force, Lenz law, electromagnetic induction, eddy current, skin effect, magnetic materials) Electric rotary machines (motors, generators and their working principles) Semiconductor devices (basics of P-N junction, light emitting devices and their principles, solar cells

Seminars

–

Acquired competences

Knowledge

Additional professional competences: The student will understand the basics of electric engineering and application of electric laws. Automotive examples and parallels will be understood. Ability to solve calculations on practice given examples in said field. Is able to evaluate realistically the results of his/her own work.

Skills

–

Attitude

–

Autonomy and responsibilities

–

Additional professional competences

The student will understand the basics of electric engineering and application of electric laws. Automotive examples and parallels will be understood. Ability to solve calculations on practice given examples in said field. Is able to evaluate realistically the results of his/her own work.

Requirements, evaluation and grading

Mid-term study requirements

During the semester, one final examination will be written, which can be corrected or made up once. In addition, three minor examinations will be done on calculation skills. A satisfactory result in the three minors and the final examination is a prerequisite for obtaining a satisfactory mid-semester grade. The mid-term mark is the final examination mark.

Exam requirements

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Generative AI usage

Not specified

Study aids, laboratory background

–

Readings

Compulsory readings

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