Ordu University Lifelong Learning Programme

Description of Individual Course Units

Course Unit Code	Course Unit Title	Type of Course Unit	Year of Study	Semester	Number of ECTS Credits
OTO205201291190	MOVEMENT CONTROL SYSTEMS	Compulsory	2	3	4

Level of Course Unit

Short Cycle

Objectives of the Course

The aim of the course is • to teach vehicle dynamic behavior of complex systems and motion control technology • to equip students with the knowledge and skills of road, vehicle-to-driver interaction • to develop the ability of the students compare statics and dynamics of vehicles with theoretical knowledge

Name of Lecturer(s)

Öğr. gr. Şükrü YILMAZ

Learning Outcomes

1	Frame and bodywork
2	Fren sistemlerin yapısal özellikleri ve çalışmalarının bilgisi.
3	Taşıt hareket organlarıyla ilgili temel bir bilgiye sahip olmak, bu sistemlerin birbiriyle uyumlu çalışma gerekliliğinin bilgi ve becerisine sahip olmak.
4	Hareket kontrol sistemini oluşturan parçalarla ilgili arızaları onarabilme bilgi ve becerisine sahip olmak.
5	Taşıtlarda hareket kontrol sistemlerini meydana getiren parçaların yapısı ve çalışma özeliklerinin bilgisi.
6	Torque transmission, Free suspension systems
7	Pre-order by the geometry parameters
8	Camber, caster, king pin, and rotation angles, rod opening and closure
9	Steering systems
10	Leaf springs and helical springs
11	Central pump, vestinghouse, drum and disc brake systems

Mode of Delivery

Formal Education

Prerequisites and co-requisities

Recommended Optional Programme Components

Week 1 Basic tasks of the frame and bodywork. Structures and properties of the different frame. The frame and superstructures load distribution and balance mechanisms. Measurement and control systems of chassis. 1 Week 2 Forms of motion and torque transmission. Free suspension systems, anti-roll bar. 1 Week 3 Pre-order by the geometry parameters, the angular and dimensional geometric details in relation to control vehicle direction. 1 Week 4 Camber, caster, king pin, and rotation angles, rod opening and closure, pre-order the physical principles of geometry, pre-order distortion effects of the movement of vehicles, to correct choice, steering system and geometry of pre-order relation. 1 Week 5 Steering systems components and different applications, power steering, electro-mechanical steering, electric power steering, steering system failure detection and removal methods. 1 Week 6 Effects of suspension systems for vehicle dynamic. Effects of suspension systems for vehicle performance. 1 Week 7 Effects of suspension systems for vehicle dynamic. Effects of suspension systems for vehicle performance. 1 Week 8 Midterm Exam 1 Week 9 Structural properties of leaf springs and helical springs. 1 Week 10 Dampers function, operating principles, types, different suspension systems, suspension equipment. 1 Week 11 Folding top, hydraulic power-assisted systems, electronically-controlled suspension systems and working conditions, suspension system diagnostics, diagnostics and troubleshooting methods 1 Week 12 The concept of friction, types and physical principles of braking, basic hydraulic and pneumatic terminology, classic brake systems and components. 1 Week 13 Central pump, vestinghouse, drum and disc brake systems structure and operation, engine brake shaft and working mechanisms. 1 Week 14 The parking brake and properties, other braking mechanisms (retarder). 1 Week 15 The brake system diagnostics, discovery, tuning operations. 1 Week 16 Final Exam 1

Course Contents

• Frame and bodywork • Torque transmission, Free suspension systems • Pre-order by the geometry parameters • Camber, caster, king pin, and rotation angles, rod opening and closure • Steering systems • Leaf springs and helical springs • Central pump, vestinghouse, drum and disc brake systems

Weekly Detailed Course Contents

Week	Theoretical	Practice	Laboratory
1	Basic tasks of the frame and bodywork. Structures and properties of the different frame. The frame and superstructures load distribution and balance mechanisms. Measurement and control systems of chassis.
2	Forms of motion and torque transmission. Free suspension systems, anti-roll bar.
3	Pre-order by the geometry parameters, the angular and dimensional geometric details in relation to control vehicle direction.
4	Camber, caster, king pin, and rotation angles, rod opening and closure, pre-order the physical principles of geometry, pre-order distortion effects of the movement of vehicles, to correct choice, steering system and geometry of pre-order relation
5	Steering systems components and different applications, power steering, electro-mechanical steering, electric power steering, steering system failure detection and removal methods
6	Effects of suspension systems for vehicle dynamic. Effects of suspension systems for vehicle performance
7	Effects of suspension systems for vehicle dynamic. Effects of suspension systems for vehicle performance.
8	Midterm Exam
9	Structural properties of leaf springs and helical springs
10	Dampers function, operating principles, types, different suspension systems, suspension equipment.
11	Folding top, hydraulic power-assisted systems, electronically-controlled suspension systems and working conditions, suspension system diagnostics, diagnostics and troubleshooting methods
12	The concept of friction, types and physical principles of braking, basic hydraulic and pneumatic terminology, classic brake systems and components.
13	Central pump, vestinghouse, drum and disc brake systems structure and operation, engine brake shaft and working mechanisms
14	The parking brake and properties, other braking mechanisms (retarder).
15	The brake system diagnostics, discovery, tuning operations
16	Final Exam