skoolnaam: ingenieurswese departementnaam: meganiese en … · 2017. 2. 3. · the third year...
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Name of School: Engineering Skoolnaam: Ingenieurswese Name of Department: Mechanical and Aeronautical Engineering Departementnaam: Meganiese en Lugvaartkundige Ingenieurswese MANUFACTURING SYSTEMS MVS 311 Lecturer: Mr R Meeser Last Revision: 1 February 2017 © Copyright reserved
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TABLE OF CONTENTS
ORGANISATIONAL COMPONENT
GENERAL PREMISE AND EDUCATIONAL APPROACH 3
DEPARTMENTAL STUDY GUIDE 4
LECTURERS, VENUES AND CONSULTING HOURS 4
STUDY MATERIALS AND PURCHASES 5
LEARNING ACTIVITIES 5
RULES OF ASSESSMENT 6
GENERAL 6
STUDY COMPONENT
MODULE OBJECTIVES, ARTICULATION AND LEARNING OUTCOMES 7
MODULE STRUCTURE 7
STUDY THEME DESCRIPTIONS 8
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ORGANISATIONAL COMPONENT
1. GENERAL PREMISE AND EDUCATIONAL APPROACH
This third year course, called Manufacturing Systems (MVS 311) follows on the manufacturing
knowledge gained in the first year in Graphical Communication (MGC 110) as well as the
manufacturing knowledge gained in the second year in Manufacturing and Design (MOW 217).
In particular, the first year Graphical Communication (MGC 110) course gives a general
introduction to manufacturing processes and covers specific manufacturing topics such as metal
casting processes, sheet metal working as well as machining operations and machine tools.
In the second year, the Manufacturing and Design (MOW 217) course covers manufacturing
processes such as solidification processes, particulate processes, deformation processes, material
removal, heat treatment, cleaning and surface treatments, coating and deposition processes,
welding, brazing and soldering, adhesive bonding, threaded fasteners and permanent fastening
methods.
The third year Manufacturing Systems MVS 311 course uses the same textbook (Principles of
Modern Manufacturing, SI Version by Mikell P. Groover, 5th
edition 2013 or Global edition 2016)
as prescribed for the second year MOW 217 course and the contents of MVS 311 includes
• Rapid Prototyping and Additive Manufacturing,
• Processing of integrated circuits,
• Electronics assembly and packaging,
• Micro-fabrication technologies,
• Nanofabrication technologies,
• Automated technologies for manufacturing systems,
• Integrated Manufacturing systems,
• Process planning and production control, and
• Quality control and inspection.
The educational approach is to present the content of the topics as described in the prescribed text
book using illustrative and practical examples where possible. Emphasis will also be given to the
practical implementation of the treated technologies.
It is interesting to note that some of the topics listed under the contents of MVS 311 are also
mentioned in the closing paragraph of the article “The development of the industrial engineering
profession in South Africa” by F. Sperotto (S. Afr. J. Ind. Eng. Vol.26, No.2, Aug. 2015):
“Rapid changes in the social and industrial environment continue unabated, driven by accelerating
technological developments, availability of information, networking, and globalization.
Developments in polymers and new materials from nanotechnology, for example; the variety of
energy sources; new manufacturing processes and paradigms, such as additive manufacturing and
distributed manufacturing; aerial and robotic networking; neuromorphic technology and predictive
intelligence; the Internet of Things (IoT); the spread of integrating techniques, technologies and
systems throughout the whole supply chain and its parallel, waste flow management; the increasing
value-adding applications in the service industries; and the blossoming world of virtual reality; will
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extend the complexity of integrated systems and change the focus of industrial engineering, the
needs of industry, the nature of work, the human-machine relationship, and the culture and lifestyle
of people. Inevitably, the industrial engineering profession and its institutions will need to embrace
these changes in order to remain relevant and to contribute meaningfully to industry and society.”
2. DEPARTMENTAL STUDY GUIDE
This study guide is a crucial part of the general study guide of the Department. In the study guide of the
Department , information is given on the mission and vision of the department , general administration and
regulations (professionalism and integrity, course related information and formal communication, workshop
use and safety, plagiarism, class representative duties, sick test and sick exam guidelines, vacation work,
appeal process and adjustment of marks, university regulations, frequently asked questions), ECSA outcomes
and ECSA exit level outcomes, ECSA knowledge areas, CDIO, new curriculum and assessment of cognitive
levels. It is expected that you are very familiar with the content of the Departmental Study Guide. It is
available in English and Afrikaans on the Department’s website.
English: http://www.up.ac.za/media/shared/120/Noticeboard/2017/departmental-studyguide-eng-2017.zp107056.pdf Afrikaans: http://www.up.ac.za/media/shared/120/Noticeboard/2017/departementele-studiegids-afr-2017.zp107058.pdf
Take note of the specific instructions in the above study guide on:
a. Safety
b. Plagiarism
c. What to do if you were sick
d. Appeal process on the adjustment of marks
3. LECTURERS, VENUES AND CONSULTING HOURS
Room No.
and Building
Telephone No.
and E-mail Address
Lecturer
Mr. R Meeser Eng 1, 9-6 012 420 2194
Consultation hours: Consulting appointments’ times can be arranged via an e-mail with the
lecturer.
4. STUDY MATERIALS AND PURCHASES
Prescribed textbook: Mikell P Groover : Principles of Modern Manufacturing, SI version, 5
th edition 2013 or Global
edition 2016 - John Wiley & Sons
Lecture slides and other study material: Some of the slides presented during the lectures and additional notes (where applicable) will be
made available on the MVS 311 Click-UP page
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5. LEARNING ACTIVITIES
5.1 Contact time and learning hours
Average number of lectures per week: Three back-to-back lectures with 10min breaks in between
are scheduled as shown in the table below.
Weekly Practical session: The weekly Practical session is scheduled as per the table below.
Day Time Venue Type
Tuesday
Wednesday
Thursday
15:30 – 16:20,
12:30 – 13:20
14:30 – 15:20
Eng III – 5 Lectures
Friday 12:30 – 15:20 Eng III – 2 Practical
This module carries a weighting of 16 credits, indicating that on average a student should spend
some 160 hours to master the required skills (including time for preparation for tests and
examinations).
5.2 Lectures
The lectures will be presented based on the descriptions given in the prescribed text book.
5.3 Weekly Practical
Weekly practical sessions will as far as possible be scheduled with guest speakers from industry
presenting the practical side and implementation examples of the technologies discussed during the
lectures.
A factory / facility visit or visits may be arranged to be attended on a voluntary basis by interested
students. Factory / facility visit(s) will be scheduled during selected Friday afternoon practical
session(s). Announcements regarding such factory / facility visit(s) will be made during class and
on the MVS 311 module ClickUp website.
One or two 30 minute long class test(s) will be scheduled during selected Friday afternoon practical
session(s). Dates, times and venues for the class test(s) will be made known in advance.
Marks obtained for the class test(s) will be incorporated in the final mark as indicated under the
section RULES OF ASSESSMENT.
5.4 Assignment
An assignment is due at the end of the semester. All relevant details of the assignment will be given
in the class and will be posted on the MVS 311 module Click-UP page.
Marks obtained for the assignment will be incorporated in the final mark as indicated under the
section RULES OF ASSESSMENT.
Each student must be aware of the importance of avoiding plagiarism during the writing of the
assignment report. More information on this important topic is available in the departmental study
guide. An appropriate cover page with anti-plagiarism checks must be completed and attached to
the assignment report that gets handed in.
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6. RULES OF ASSESSMENT
Pass requirements
In order to pass the module a student must obtain a final mark of at least 50%.
Calculation of the final mark: Semester mark: 50%
Examination mark: 50%
Calculation of the semester mark: 1
st Semester Test: 30%
2nd
Semester Test 30%
Assignment 30%
Class test(s) 10%
Semester mark: 100%
Semester tests: Two tests of 90 minutes each will be written during the scheduled test weeks of the School of
Engineering. Dates, times and venues will be announced as soon as the timetables become
available.
Closed book test/examination A closed book test and examination process will be followed in all tests and in the exam.
7. GENERAL
Assignment submission
- The assignment due date will be announced in the class and on the MVS 311 Click-UP page
Conduct in class
- Students will not be allowed to disrupt the class, or to disturb fellow students during lectures
and practical sessions
Notices and announcements
- Any notice / announcement for this course will be posted on Click-UP. Please check the
Click-UP website regularly for such notices and announcements.
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STUDY COMPONENT
1. MODULE OBJECTIVES, ARTICULATION AND LEARNING OUTCOMES
At the end of this course, the student will have a good knowledge and understanding of the specific
manufacturing processes, -technologies, -systems and -support topics dealt with in the lectures and
practical sessions.
2. MODULE STRUCTURE
Study theme Mode of instruction Notional
hours (±) No. of
lectures (±)
Foreseen
Practical
1. Rapid Prototyping and
Additive Manufacturing
Class lectures & Practical
(if applicable)
12 3 1
2. Processing of integrated
circuits
Class lectures & Practical
(if applicable)
12 3 1
3. Electronics assembly and
packaging
Class lectures & Practical
(if applicable)
12 3 1
4. Microfabrication
technologies
Class lectures & Practical
(if applicable)
12 3 1
5. Nanofabrication
technologies
Class lectures & Practical
(if applicable)
12 3 1
6. Automated technologies
for manufacturing systems
Class lectures & Practical
(if applicable)
12 3 1
7. Integrated Manufacturing
systems
Class lectures & Practical
(if applicable)
12 3 1
8. Process planning and
production control
Class lectures & Practical
(if applicable)
12 3 1
9. Quality control and
inspection
Class lectures & Practical
(if applicable)
12 3 1
Assignment Not applicable (N/A) 52 (N/A) (N/A)
Total 160 27 9
The notional time indicates the total number of hours that the student will typically need to spend in
order to master the study theme and includes the attendance of lectures as well as practical sessions.
Note that the notional hours of the assignment are 52 hours, i.e., approximately 30% of the total
time spent to master the required skills for this module should be spent on the assignment.
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3. STUDY THEME DESCRIPTIONS
3.1 Study Theme 1: Rapid Prototyping and Additive Manufacturing
3.1.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Fundamentals of Rapid Prototyping and Additive Manufacturing
• Additive Manufacturing Processes
• Cycle Time & Cost Analysis
• Additive Manufacturing Applications
3.1.2 Study material
• Groover, Chapter 29, pp 751 - 772
• Additional notes (if applicable)
3.2 Study Theme 2: Processing of integrated circuits
3.2.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Overview of IC Processing
• Silicon Processing
• Lithography
• Layer Processes Used in IC Fabrication
• Integrating the Fabrication Steps
• IC Packaging
• Yields in IC Processing
3.2.2 Study material
• Groover, Chapter 30, pp 773 - 806
• Additional notes (if applicable)
3.3 Study Theme 3: Electronics assembly and packaging
3.3.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Electronics Packaging
• Printed Circuit Boards
• Printed Circuit Board Assembly
• Electrical Connector Technology
3.3.2 Study material
• Groover, Chapter 31, pp 807 - 830
• Additional notes (if applicable)
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3.4 Study Theme 4: Microfabrication technologies
3.4.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Microsystem Products
• Microfabrication Processes
3.4.2 Study material
• Groover, Chapter 32, pp 831 - 847
• Additional notes (if applicable)
3.5 Study Theme 5: Nanofabrication technologies
3.5.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Nanotechnology Products and Applications
• Introduction to Nanoscience
• Nanofabrication Processes
3.5.2 Study material
• Groover, Chapter 33, pp 848 - 866
• Additional notes (if applicable)
3.6 Study Theme 6: Automated technologies for manufacturing systems
3.6.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Automation Fundamentals
• Hardware for Automation
• Computer Numerical Control
• Industrial Robotics
3.6.2 Study material
• Groover, Chapter 34, pp 867 - 898
• Additional notes (if applicable)
3.7 Study Theme 7: Integrated Manufacturing systems
3.7.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Material Handling
• Fundamentals of Production Lines
• Manual Assembly Lines
• Automated Production Lines
• Cellular Manufacturing
• Flexible Manufacturing Systems and Cells
• Computer Integrated Manufacturing
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3.7.2 Study material
• Groover, Chapter 35, pp 899 - 929
• Additional notes (if applicable)
3.8 Study Theme 8: Process planning and production control
3.8.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Process Planning
• Other Manufacturing Engineering Functions
• Production Planning and Control
• Just-in-Time Delivery Systems
• Lean Production
3.8.2 Study material
• Groover, Chapter 36, pp 930 - 959
• Additional notes (if applicable)
3.9 Study Theme 9: Quality control and inspection
3.9.1 Learning outcomes
At the end of this study theme the student will have a good knowledge and understanding of:
• Product Quality
• Process Capability and Tolerances
• Statistical Process Control
• Quality Programs in Manufacturing
• Inspection Principles
• Modern Inspection Technologies
3.9.2 Study material
• Groover, Chapter 37, pp 960 - 985
• Additional notes (if applicable)