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Course detail
FSI-QHVAcad. year: 2025/2026
The Vehicle Power Trains course introduces students to the basic concepts and layouts of the power trains of passenger and commercial vehicles with various drives. Computational models of power trains are a basic tool for finding optimal concepts and parameters of modern power trains. In addition to the engine itself, students are also introduced to the key functional units of the drive train for transmitting torque to the drive wheels. Learning in computer aided seminars is complemented by practical examples of the relevant parts of the power train.
Language of instruction
Number of ECTS credits
Mode of study
Guarantor
Department
Entry knowledge
Knowledge of mathematics taught at the bachelor’s level, including linear algebra (matrices, determinants, systems of linear equations, etc.), calculus, and ordinary differential equations. Knowledge of the basics of kinematics, dynamics and strength of materials.
Rules for evaluation and completion of the course
Credit is conditional on active participation in seminars. The examination verifies knowledge acquired in lectures and seminars; it is a written exam and may have an oral part verifying knowledge after the written part.
Aims
The aim of the Vehicle Power Trains course is to provide students with basic knowledge about the conceptual design and computations of the power unit and other parts of the drive chain. The course should help students to understand the issues of design, load, vibration and noise of parts of the power train in a wider context, which they can subsequently apply in other specialized courses, and especially in practice.
Study aids
Prerequisites and corequisites
Basic literature
Recommended reading
Classification of course in study plans
Lecture
Teacher / Lecturer
Syllabus
1) Mechanisms of power units, kinematics of crank train2) Dynamics of the crank train, computational models3) Balancing inertial effects in the crank train4) Balancing the crank train of multi-cylinder engines5) Balancing the crank train of V engines6) Vibration of drives with piston machines and its reduction7) Cam mechanisms, dynamics of hybrid and electric drives8) Concept of transmission devices, clutches9) Manual gearboxes10) Dual clutch transmissions11) Automatic gearboxes12) Gearboxes for hybrid drives and electric drives13) Differentials, universal joints, all-wheel drive
Computer-assisted exercise
1) Use of Matlab software for analytical solution of kinematics and dynamics of a power train2) Kinematics and dynamics of the crank train3) Engine torque and its Fourier numerical analysis4) Inertia effects in the crank mechanism and their balancing5) Vibration of drives with piston machines and its computational modeling6) Cam mechanisms7) Dynamics of hybrid drives8) Clutches9) Gear stepping10) Transmission shifted under load11) Automatic gearbox12) Gearbox for electric cars13) Universal joints and differential