COMPUTER SIMULATION IN MANUFACTURING AUTOMATION
Study Program:
UBMA220A007-002, MSc (graduate) Academic Studies
Course Code:
ПРО220-0327
Lecturer:
Dr. Miroslav Pilipović, Professor
Course Status:
Elective
ECTS Credits:
6
Prerequisites for Course Attendance:
There are no special prerequisites. Desirable prerequisites: BSc Academic studies – Machine Tools, Control Engineering; MSc Academic studies – Manufacturing Automation
AIMS:
The aim of the course is to acquaint the student with the application, design and introduction of contemporary manufacturing automation, with the use of computer simulation, to develop student skills for practical problem solving in automation, with the use of computer simulation, and to develop student proficiency in scientific methods of modeling computer simulation in manufacturing automation using contemporary simulation software.
LEARNING OUTCOMES:
The student should understand the principles of computer simulation application in manufacturing automation, approach critically the effects of computer simulation application in automation, link knowledge from related subjects so as to apply it to computer simulation in automation, be proficient in scientific methods and theory of computer simulation for the manufacturing automation systems, be able of problem-solving in a critical manner and of applying contemporary software in automation simulation.
THEORETICAL TEACHING (Syllabus):
1.Computer simulation in automation. Continuous and discrete models. Deterministic and stochastic simulation. 2. Stochastic simulation. Sampling methods and random numbers. Monte Carlo simulation. 3. Discrete events simulation. Elements, object and operations in simulation. Activities cycle diagram. Simulation model building. 4. Software for discrete events simulation. Programming languages and simulation model programming. 5. Discrete events simulation project and simulation experiment. 6. Simulations in automation. Simulation models of fixed, programmable and flexible automation. 7. Continuous systems simulation. Formal model of continuous systems. Continuous systems with feedback. 8. Virtual manufacturing and simulation. Virtual manufacturing systems.
PRACTICAL TEACHING (Syllabus):
1.Auditorial exercises: tasks in stochastic simulation and Monte Carlo simulation, discrete events simulation, continuous systems simulation, and examples of simulation application in flexible and programmable automation. 2. Laboratory exercises. 3. Project: design of the example of automation with simulation model building, creation of the activities cycle diagram, creation of graphic models for simulation objects, design of simulation output: by programming, simulation experiment, results presentation and simulation model revision.
LEARNING RESOURCES:
1.Pilipović, M. Computer simulation in manufacturing automation, FME, Belgrade (Textbook in preparation) /In Serbian/, КПН 2. Carrie, A. Simulations of manufacturing systems, John Willey & Sons, New York, 1988, КДА 3. Computers for simulation programming, Lab for manufacturing automation, ИКТ/РРС. 4. Arena software for simulation, Lab for manufacturing automation, ИКТ/РРО.

Active teaching – number of teaching hours:
[4]; Lectures: [2]; Exercises: [1.33]; Other forms of teaching: [0.67]; Research work: [0];
Other – number of teaching hours:
[1]
Teaching methods:
Active teaching: Lecturing of new material: 20; Lecture explanations and examples: 10;
Practical teaching: Auditorial exercises: 8; laboratory exercises: 10; Project design: 10; Consultations: 2;
Knowledge check: Laboratory report assessment: 4; Project assessment: 2; Test assessment: 4;
Assessment of knowledge
Pre-exam assignments (points)
Points
Final examination format Points
Feedback during course study
Laboratory exercises
Project
Seminar work
Calculation tasks
Test/colloquium
5
15
20
0
0
20
written
40