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Overview|
Admission Requirements|
Programme Structure|
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Content of Courses|
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Consumers today demand products that have extended functionality,
increased complexity, enhanced smartness and impeccable aesthetics. The
increased functionality, complexity, and smartness means the ability of
products to identify and respond to changes in the environment and user's
needs. These must be achieved with higher quality and reliability with
reduced manufacturing and societal costs.
The smart product design process is concerned with the flexibility of
response and adaptability of design to meet to these customer requirements
and also product life cycle demands; and at the same time enabling the
trade-offs to take place between discipline-specific capabilities. This is
achieved through the enhancement of control in the products using
electronics, including microprocessors and micro-controllers. In short,
integrating mechatronics into product design.
Product design and mechatronics has been identified by the Economic
Development Board, National Science and Technology Board and the
Productivity and Standards Boards as one of the key areas critical to the
development of the industries in Singapore.
This programme is specifically designed for graduate engineers,
designers, research and development engineers and other related
professionals with the knowledge and expertise in product design,
electronics and control, software engineering and manufacturing to design,
develop and manufacture smart products.
Candidates must possess a good Bachelor's degree in Mechanical,
Manufacturing, Production, Electrical or Electronic Engineering, Applied
Science or other equivalent qualifications. Preference will be given to
those with post-graduate working experience.
An average TOEFL score of 570 for graduates from universities with
non-English medium of instruction.
This programme is conducted on a semester basis. Candidates are now offered with 2 Options of Study:
Option 1 : Coursework and Dissertation
Candidates are required to complete 8 courses, with a combination of 4 core
courses and 4 electives, and submit a dissertation on a project.
Option 2: Coursework only
Candidates are required to complete 10 courses, with a combination of 4 core
courses, 5 electives, and a compulsory course entitled ‘ Independent Study' .
Each course is covered in 39 hours and usually consists of 13 lectures of 3 hours each. Classes are usually held in the evenings on week days. Examinations are held during office-hours at the end of each semester.
The programme of study can be completed within a minimum of 1 year for full-time students and 2 years for part-time students and a maximum of 2 years for full-time students and 4 years for part-time student.
1) Core Courses
M6401 Product Design & Development
M6402 Advanced Microprocessor Applications
M6403 Applied Mechatronic
M6404 Advanced Mechanism Design 2)
Electives
In addition to the 4 core courses, a candidate is required to take 4
electives of which at least 2 of the courses must be selected from
Elective Module A:
Elective Module A
EE6205 Real Time and Embedded Systems (from School of EEE, MSc(CCA) )
M6421 Advanced Design for Manufacturing
M6423 Prototype & Rapid Prototyping
M6426 Management of Technology & Innovation
M6429 Thermal Management in Product Design
M6602 Interaction Design
Elective Module B
M6102 Advanced Materials Engineering
M6141 Quality Engineering
M6226 Virtual Design and Manufacturing
M6303 Fundamentals of Precision Engineering
M6321 Precision Mechanism Design
M6324 Microsensors & Microsensor
Systems
M6601 Human Factors Engineering Fundamentals
M6802 Engineering Measurements
The candidate may, with the approval of the Dean of the School of Mechanical and Aerospace Engineering, take as elective
course one course from the other M.Sc. programmes offered by the School. The elective
course chosen will be classified under “Other Electives”.
3) Compulsory
Course for Option 2 of Study:
M6488 Independent Study
Note: Curriculum is subject to changes. Not all
electives will be offered at the same time.
M6102
ADVANCED MATERIALS ENGINEERING |
Metallic
materials and composites: metallurgical fundamentals and fracture,
copper, stainless steels, advanced composite materials, heat
resistant superalloys. Selection and service performance of
materials: materials selection in design, materials testing, failure
of engineering materials. Polymeric materials: polymer synthesis and
classification, engineering polymers, polymer blends, liquid
crystalline polymers. Ceramic materials: functional ceramics,
optical ceramics, magnetic ceramics, colossal magneto-resistant
ceramics, case studies. Superconductors. |
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M6141
QUALITY ENGINEERING |
Quality concepts, statistical process control, process
improvement, design of experiments, reliability, quality management
systems and design, product liability. Case studies and examples of
industrial applications will be used throughout the course. The
course develops an appreciation of advanced quality engineering
techniques and a perception of how quality can be built into all
stages of a product life cycle and throughout an industrial
enterprise. |
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M6226
VIRTUAL DESIGN & MANUFACTURING |
Computer graphics, hardware and software. Projections, transformations and viewing. Geometric modelling. Curves, surfaces and solids. Computer-aided design. Parametric and feature-based design. Display and visualisation. Product data management. Computer-aided manufacturing. Numerical control machines. Rapid prototyping. |
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M6601
HUMAN FACTORS ENGINEERING FUNDAMENTALS |
This course provides the students with the necessary background and fundamentals of human factors engineering for the programme. The topics include: Overview of human factors and its design process. Cognitive Human Factors and Human Computer Interaction. Human Machine Interaction. Physical Human Factors and Ergonomics. Organizational Aspects and Macro Ergonomics. Environmental Aspects. |
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M6602
INTERACTION DESIGN |
The main objective is to give on overview of the most important research issues in human-computer interaction. Several design methodologies as well as specific design information will be reviewed. On completion of the course, students should be able to design and evaluate an interface. The topics include: Cognitive Issues in Interaction Design. Design of Computer Systems. Organizational Issues in Software Design. Evaluation of HCI. |
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M6802
ENGINEERING MEASUREMENTS |
Advanced principles of measurements which examine the static
and dynamic characteristics of instruments. The design of
measurements system through the application of sensing and signal
conditioning elements for data acquisition. Overview of the
operations of some specialized measurements systems which have
important industrial applications. |
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M6303
FUNDAMENTALS OF PRECISION ENGINEERING |
History of precision engineering. Principles and definitions
of precision machine design. State-of-the art in research,
prototyping and full production from ultra precision machining
through micro-engineering, microelectronics and molecular
manipulation. Application of displacement transducers to machines
and instruments. Tolerance technology. |
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M6321
PRECISION MECHANISM DESIGN |
Fundamental concepts in designing precision machinery;
metrological instrumentation, ultra-precision motion generators, and
precision assembly. Flexure mechanisms for precision engineering.
Mechanics of contact, kinetic coupling, vibration isolation and
material selection. Actuators and sensors to control mechanisms.
Manufacturing of micron scale machinery and structures using
non-conventional processes. Case studies on precision
instruments. |
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M6324
MICROSENSORS & MICROSENSOR SYSTEMS |
Introduction to sensors. Principles of sensors and
interfacing circuitry. Common problems and remedies; sensor systems.
Principles of operation of sensors for temperature, radiation,
mechanical signals, magnetic fields, chemical signals and
bio-electric signals; Fabrication and forms of sensors; silicon
micromachining, multi-sensors and smart sensors. Special
applications of sensors; microresonator, electronic nose,
micro-robot applications. |
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M6401
PRODUCT DESIGN & DEVELOPMENT |
Multi-disciplinary approach to product design and
development. Product development process and strategies. Need
identification and product specifications. Generation and evaluation
of ideas and concepts. Product architecture. Product aesthetics and
form creation. Product semantics and identity. |
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M6402
ADVANCED MICROPROCESSOR APPLICATIONS |
Microprocessor architecture and concepts. Microprocessor
families. Software building blocks and expansion methods. I/O
interfacing and software development tools. Signal Processing in
mechatronics. |
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M6403
APPLIED MECHATRONIC |
Elements of mechatronic systems and introduction to tools
for design. Industrial automation in manufacturing systems. Study of
power electronics and drives. Electromechanical drives and their
control techniques. Fundamentals of micro-processor controlled
motion systems. Examples of mechatronic systems highlighting the
various elements and their interactions. |
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M6404
ADVANCED MECHANISM DESIGN |
Overview of mechanism design and simulation. Analytical
synthesis. Advanced mechanism synthesis. Computer-aided kinematic
modelling and analysis. Computer-aided dynamic modelling and
analysis. |
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M6421
ADVANCED DESIGN FOR MANUFACTURING |
DFM principles and strategies. Classification system for
manual, automatic and robotic assemblies. Evaluation of assembled
parts. Analysing products for high-speed automatic assembly.
Procedure for redesign. Design of parts for feeding and orienting.
Vibratory and non-vibratory feeders. QFD process. Reliability
analysis for product design. Selection of materials and processes.
Design for repair and recycling. |
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M6423
PROTOTYPE & RAPID PROTOTYPING |
Introduction to prototyping. Soft and virtual prototyping.
Fundamentals of rapid prototyping. Rapid prototyping systems. Rapid
prototyping data format. Applications of rapid
prototyping. |
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M6426
MANAGEMENT OF TECHNOLOGY & INNOVATION |
Introduction to productivity, quality and innovation. System
thinking and approach. The innovation process. Project management
techniques. System modelling, analysis, and design. Systems approach
to organization. The management of innovation and
change. |
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M6429
THERMAL MANAGEMENT IN PRODUCT DESIGN |
Thermal issues in product design. Related heat and fluid
flow fundamentals. Methodologies for thermal analysis. Heat transfer
enhancement techniques: free and forced convection in channels,
extended surfaces, compact heat exchangers, liquid cooling, heat
pipes and microscale cooling devices. Applications to small
components and enclosures. Thermal design
optimisation. |
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This a creative
course based on an issue, case study, problem or an area of interest related to the programme. The candidate is required to propose and undertake an independent supervised research on a topic of study
course to the agreement of the Programme Director. The candidate will have to demonstrate expertise in the topic of study, together with creativity, diligence and critical thinking in addressing the problems and issues on the topic. |
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