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Driving dynamics (3cr)

Code: 8C00CW84-3005

General information


Enrollment
22.04.2025 - 08.10.2025
Registration for the implementation has ended.
Timing
20.10.2025 - 14.12.2025
Implementation is running.
Number of ECTS credits allocated
3 cr
Local portion
3 cr
Mode of delivery
Contact learning
Unit
SeAMK Mechanical Engineering
Campus
SeAMK Seinäjoki, Frami
Teaching languages
Finnish
Seats
0 - 35
Degree programmes
Bachelor of Engineering, Mechanical Engineering
Teachers
Roni Kuru
Jarno Arkko
Scheduling groups
Avoin AMK (Ei koske tutkinto-opiskelijaa) 1 (Size: 8 . Open UAS : 8.)
Groups
AUTO24
Insinööri (AMK), Konetekniikka
AUTOTEK25
Automotive technology
Small groups
Open UAS (Doesn't apply to degree student) 1
Course
8C00CW84

Evaluation scale

1-5

Objective

Upon completion of the course, students will:
- be competent in determining the formation of driving resistance under various circumstances.
- understand the factors affecting fuel consumption.
- be able to determine the factors corresponding to the performance of a car
- be able to seek information on the subject

Content

Theory:
- Power generation / formation of engine power
- Driving resistances (road load forces)
- Driving condition diagram / tractive effort diagram
- Acceleration
- Significance of final drive ratios
- Fuel consumption
- Elasticity (engine flexibility / torque elasticity)
- Acceleration and gradeability limits

Automotive labs:
- Determining the tire–road contact patch
- Experimental determination of the center of gravity
- Simulation of driving resistances using a dynamometer

Materials

-Field-related publications
-Lecturers material
-Theory of Ground Vehicles; J.Y Wong
-Fundumentals of Vehicle Dynamics; Thomas D. Gillespie

Teaching methods

-Lectures
-Group exercise
-Independent studies
-Automotive lab. exercises

Student workload

-Lectures 26 hours
-Laboratory exercises 4 hours
-Group exercise 28 hours
-Final Exam 2 hours

Assessment criteria, satisfactory (1)

Recognizes different driving resistances (rolling, aerodynamic, gradient, and acceleration resistance), but the definitions contain inaccuracies. Understands engine and drivetrain losses at a general level but cannot assess their effect on total resistance. Recognizes the significance of final drive ratios but cannot independently evaluate their impact on acceleration or top speed. Identifies the basic factors affecting fuel economy (mass, resistances, speed, engine operating range), but does not yet grasp their relative importance. The calculation and interpretation of laboratory exercise results remain at a basic level.

Assessment criteria, good (3)

Determines driving resistances correctly in various situations and can calculate the required power and torque for different driving conditions. Takes engine and drivetrain losses into account and evaluates their contribution to total losses. Interprets the tractive effort diagram reliably and uses it in performance calculations. Can assess the effect of final drive ratios on a vehicle’s acceleration, top speed, and fuel economy. Evaluates factors affecting fuel consumption in practical examples and identifies the driving conditions that have the greatest impact on fuel usage.

Assessment criteria, excellent (5)

Is able to determine all driving resistances and analyze their relative significance in different driving situations. Creates and interprets tractive effort diagrams and uses them in demanding performance prediction tasks. Analyzes the effects of final drive ratios on overall drivability, fuel economy, and dynamic performance, providing technically justified reasoning. Calculates and interprets the limits of acceleration and gradeability even in complex situations and can assess the limitations of the models used. Is capable of analyzing fuel economy in various driving conditions and evaluating both fuel consumption and energy losses as a whole. In laboratory exercises, perform measurements systematically and with high accuracy, taking error sources and their effects into account. Analyzes results critically and links them to the theoretical models of vehicle dynamics.

Qualifications

Mechanics, Statics

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