The Precision Engineering
Workforce Skills Qualifications (PE WSQ) Specialist Diploma is a
joint initiative by the Singapore Institute of Manufacturing
Technology (SIMTech) and the Singapore Workforce Development Agency
(WDA) to provide hands-on training to equip current and future PE
professionals in practical cutting-edge technologies in precision
machining and laser processing, metal and plastic forming, surface
coating and engineering and advanced joining.
The programme consists of six modules covering Laser Machining
technology, Injection Moulding Tool Design Technology, Knowledge
Based High Speed Machining, Advanced Metal Forming and Casting
Technology, Surface Engineering and Coating Technologies and
Advanced Joining Technologies. This programme will be conducted
through a series of lectures, lab demonstrations or hands-on
training in selected industrial applications. Participants
will be awarded the PE WSQ Specialist Diploma upon completion of any
5 modules, or with a Statement of Attainment for completing selected
individual modules.
Benefits
This programme aims to equip workers
in the PE industry towards higher-value manufacturing activities and
higher productivity. Since the inception of the programme in 2008
till date, we have trained 300 plus PMETs and at least 50 companies
have benefited from sending their employees for training.
Who Should Join
This course is designed for
engineers, researchers, and technicians from precision engineering,
electronics, aerospace and automotive and other relevant industrial
sectors. The course will benefit the participants in their
respective work areas.
[ Modules
]
M1: Laser Machining
Technology
Laser is becoming an essential tool in
many industrial applications, where it demonstrates unparallel
capability in terms of speed and flexibility. An understanding of
material removal under different processing conditions and selecting
the right laser will affect the quality of the parts. This module
will introduce the fundamentals of laser technology, examines the
laser hazards, and the safety measures required in an industrial
workplace. It provides fundamental understanding of laser beam to
material interactions through heat transfer, which can be applied to
common laser processes such as cutting, drilling, and marking. The
course will also introduce emerging technologies such as laser
texturing for surface property enhancement, as well as established
and new industrial applications. Participants will be guided with
hands-on experience on using laser systems available in SIMTech to
enhance their understanding of laser machining technology.
What You Will Learn
• How to use
Laser Safely
- Laser beam
characterisation
- Safe use of laser in
manufacturing
- Case study: Setup of laser beam expander and
collimator
• How to apply Laser Machining Processes
- Heat transfer in laser processing
- Laser
cutting
- Laser drilling
- Case study: High quality
laser cutting of electronic substrates
- Case study: Defect
minimisation in laser drilling of metal sheets
• How to apply Laser Surface Modification and
Emerging Technologies
- Laser marking and
texturing
- New industrial applications and emerging
technologies
- Case study: Laser surface texturing for
modification of surface wettability in medial applications
M2: Injection Moulding Tool Design
Technology
Polymer materials are widely
used in all walks of our lives. In recent years owing to the
advancement of materials and process technologies, more and more
applications have been developed for polymer materials in high
precision and high demanding industries such as in the automotive,
aerospace, photonic, computer and medical device industries.
However, to make good use of the advanced polymer materials, it is
essential to have a good understanding of polymeric material
properties and the process technologies. The objective of the course
is to provide the participants with an opportunity to gain a good
understanding and essential practical skills on polymeric materials
processing properties and the injection moulding and mould design
technologies. The course comprises 3 main topics, covering injection
mould design principles, applications of CAE techniques in mould
design, and injection moulding processes. Industrial mould design
application examples will be introduced and studied through case
studies. On completion of this unit, learners will be equipped the
knowledge and application kills to employ the injection moulding
tool design technology for industrial application.
What You Will Learn
• How to
select materials for injection moulding
process
- Polymer materials: Properties and
industry applications
- Polymer materials selection and
product design
- Injection moulding process and mould
design
- Case study: Plastic material selection, part design
and mould design for high precision biomedical device
• How to apply CAE for mould design and mould flow
analysis
- Mould design using 3D CAD Platform:
Pro-E, Auto CAD
- Injection mould FEM modelling and boundary
condition setup
- Mould flow analysis, results
interpretation, and process optimisation
- Case study:
Design optimisation of injection mould for high precision biomedical
device moulding
• How to apply injection moulding process and
troubleshooting techniques
- Injection moulding
machine operation and process parameters
- Moulded part
testing and characterisation techniques
- Moulding defects
and troubleshooting techniques
- Case study: Injection mould
and moulding process development for high precision biomedical
device production and quality inspection
M3:
Knowledge Based High Speed Machining
High speed
machining technique has being widely used in the manufacturing
industries, such as aerospace, automotive, marine, medtech, moulds
and dies, offshore, etc. This Module will dedicate to providing
comprehensive training to participants on high speed machining
techniques, of which introduces several high speed machining methods
that may be used to carry out machining of 3D complex parts with
good surface quality, high geometrical accuracy and high efficiency.
It covers machining mechanics, machine tool dynamics, work
materials, cutting tool materials, cutting tool selection, high
speed machining strategy, NC code generation and measurement.
Applications include 3D complex components and difficult-to-machine
materials used in different industrial sectors such as precision
engineering, aerospace, semiconductor, automotives, marine,
electronics, biomedical and life science, consumer products,
etc.
What You Will Learn
• How to
apply High Speed Machining
- High speed machining
overview
- Machining principles and
fundamentals
- High speed grinding technology
- High
speed machining strategy
- QuickCNC NC code generation for
HSM
- Case study: HSM of micro wave channel for microfluidic
applications
• How to select High Speed Machining
tools
- Work materials
- HSM tool
materials
- Tool selection based on work
materials
- Case study: HSM tool wear classification
• How to apply High Speed
Machining
- Machine tool
dynamics
- Geometrical measurement
- Case study:
Chatter free high speed pocket milling for mould and die
application
M4: Advanced Metal Forming and
Casting Technology
Bulk forming and casting are
used for producing metallic components for a wide range of
engineering applications in various industries such as aerospace,
electronic, automotive, bio-medical etc. This course will
provide participants with a better understanding of current,
advanced and novel forming as well as casting methods. It will
also offer opportunities for hands-on experience with these
technologies. The course also covers forming technologies in
manufacturing bulk metal components including cold forging and cold
rotary forming of light metal and steels; finite element simulation
technology, metallurgy for bulk metal forming as well as casting and
liquid forging technologies on aluminum alloys. Participants will
gain insight into achieving high accuracy and quality in the formed
components, material performance, process characteristics and
evaluation of manufacturing cost. The course will include
hands-on experiments, operation and study using the equipment
available in SIMTech.
What You Will Learn
• How to
apply advanced and novel metal forming
processes
- Principles of bulk
forming
- Combined stamping and cold forging
- Form
rolling and flow forming (spin forming)
- Case study: Flow
forming of hard to deform materials for aerospace parts
• How to apply metal forming simulation and material
characterisation
- Finite element simulation for
cold bulk forming
- “3M” : material characterisation,
metallurgy, and material failure analysis
- Case study:
Simulation and characterisation of Al alloy for sheet metal
applications
• How to apply casting and liquid forging
technology
- Casting and liquid forging
fundamentals
- Metallurgy and simulation in
casting
- Case study: Liquid forging of Al6XXX alloy for
heat sink components
M5: Surface and Coating
Technologies
Surface and coating technologies have
played a pivotal role in the precision engineering industry.
Participants will learn the surface engineering technologies
commonly used in industrial and domestic appliances or components,
cutting and forming tools, mould and dies, and generic wear
components. Both wet and dry coating technologies, including surface
cleaning, electro- and/or electroless- plating, sol-gel, physical
vapour deposition (PVD) and chemical vapor deposition (CVD) will be
trained in this module. The course aims to furnish participants with
a better understanding on surface engineering and coating
technologies coupled with essential case studies to process,
characterize and assess various types of coating materials for
applications in precision engineering.
What You Will Learn
• How to apply sol-gel
coating technologies
- Fundamentals of sol-gel
coating technologies
- Introduction to easy-clean
coatings
- Case study: Hydrophobic easy-to-clean coating for
metallic and plastic substrates
- Case study: Hydrophilic
self-cleaning TiO2 coating for construction applications
• How to apply corrosion resistant composite
coatings
- Summary of Cr-free, self-healing and
developing trend
- Surface cleaning
technologies
- Sol-gel composite coatings for corrosion
protection
- EN composite coatings for corrosion
protection
- Case study: Corrosion-resistant hybrid
composite coating for light alloys protection
• How to apply PVD/CVD hard coatings for wear
protection
- Fundamentals of vacuum systems and
plasma characteristics
- PVD/CVD technologies for wear
resistant hard coatings
- Case study: Black wear resistant
a-C composite coatings for IC-chip pick up nozzles
- Case
study: Oxidation and wear resistant CrAIN coatings for cutting tools
applications
M6: Advanced Joining Technologies
Joining technologies have being widely employed in
almost all industrial sectors, from aerospace, automotive, to marine
and offshore, and from energy, chemicals, to electronics and
medicals. This module will dedicate to providing comprehensive
training to participants with the state-of-the-art joining
techniques through classroom lectures, lab hands-on training and
practical case studies on fundamental process knowledge, material
characterization, process control and optimization, quality and
reliability evaluation, as well as international regulations.
It aims to provide the participants with a sound understanding of
joining technologies and essential practical skills and competency
so that they are able to apply the advanced joining technologies in
their respective work environments.
What You Will Learn
• Usage of
Metal welding
- Fusion welding metallurgy and
physics
- Arc welding and its applications
- Laser
welding and cladding applications
- Case study: Welding
repair of pressure vessel component using shielded metal arc
process
- Case study: Repair of turbocharger components
using laser cladding
• How to apply Liquid/Solid state
joining
- Soldering and brazing
techniques
- Solid state diffusion bonding
- Case
study: Soldering and diffusion bonding for electronic devices and
performance assessment of their joints
• How to apply Polymer
joining
- Adhesive bonding
- Plastic direct
bonding
- Case study: Ultrasonic plastics welding process
design and polymer joint performance evaluation
When & Where
• Commencement
date: August 2012 for the Full Specialist
Diploma
Course
• Course Duration: One-year part-time course for the
full Specialist Diploma
• Venue: Singapore Institute of Manufacturing
Technology
71 Nanyang Drive, Singapore
639075
Tuesday and Thursday from 6.30pm to 9.30pm
[ Course
schedule ]
Click for
schedule
[ Admission
requirements & Course duration ]
• 1-year part-time course consists of 5 modules.
Participants need to complete any of the 5 modules in order to be
awarded the diploma.
• Up to three evenings per week from
6.30 pm to 9.30 pm
[
Course fee ]
• Singaporeans and Permanent Residents are
entitled to enjoy 70%
funding from Singapore Workforce Development Agency
(WDA)
• S$12,000.00 for Full Specialist Diploma (Before GST
& Funding)
[ How to apply ]
Click to apply
Please email your CV and
academic certifications to pe-wsq@SIMTech.a-star.edu.sg
[ Contact person ]
Miss Connie Ng
Tel: 6793 8986
Email: yyng@SIMTech.a-star.edu.sg
>> Click here to download
brochure.