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Universiti Malaysia Pahang

• This course introduces force vector algebra, equilibrium of forces on particle, equilibrium of forces on single rigid body and force analysis on simple frames and machine structures (multi-rigid bodies) and problems involving dry friction. • Course Outcomes • Solve equilibrium of forces on particle • Problems Solve equilibrium of forces on single rigid body problems • Solve equilibrium of forces on structure problems. • Solve problems on centroid and moment of inertia • Course options • Full Time (4 years) • International fees • RM8,950.00 (US$ 2,142) per year • Domestic fees • RM740 per semester • Start date • 31 October 2016, 13 February 2017, 10 April 2017 • Venue • Universiti Malaysia Pahang (UMP) Lebuhraya Tun Razak, Pahang Darul Makmur, KUANTAN, Pahang, 26300, Malaysia • Domestic Entry Requirements • Students should have a pass in A-Level / High School Certificate (HSC) / Diploma holder / Equivalent qualification with at least GRADE C in 3 subjects. Language requirement, Programme specific requirement (Mathematics, Physics, Chemistry, Biology, Science).

More On Mechatronics Engineering Careers

Mechatronics engineers work in all aspects of the development of the smart machine – from design and testing right through to manufacture. This could be in industries like robotics, medical and assistive technology, human-machine interaction, manufacturing, unmanned aerial and ground vehicles and education.

As a Mechatronics engineer

Here are some things you might be expected to do in your job:

• ·         Develop new solutions to industrial problems using mechanical and electronic processes and computer technology.
• ·         Design and build completely new products by integrating various technologies, for example, developing robotic vehicles for underwater exploration.
• ·         Build and test factory production lines introducing automation to improve existing processes.
• ·         Maintain and improve previous industrial and manufacturing processes and designs, for example, robotic lawn mowers and robot floor cleaners.
• ·         Design, develop, maintain and manage high technology engineering systems for the automation of industrial tasks.
• ·         Apply mechatronics or automated solutions to the transfer of material, components or finished goods.
• ·         Apply advanced control systems, which are usually computer-driven.
• ·         Apply electronic and mechanical processes and computers to tasks where the use of human labour may be dangerous (like underwater exploration, mining or forestry).
• ·         Study the feasibility, cost implications and performance benefits of new mechatronics equipment.
• ·         Carry out modelling, simulation and analysis of complex mechanical, electronic or other engineering systems using computers.

Where do Mechatronics engineers work

Mechatronics engineers work in companies that require hi-tech input into what they are developing. They may work in a laboratory, a processing plant or an engineering office but are also research opportunities in emerging fields like bioengineering, nanotechnology and robotics.

You will find Mechatronics engineers in large global enterprises developing futuristic vehicles, challenging defence technology and revolutionising consumer products. They may also work in smaller innovative ‘high tech’ companies supplying software, parts and equipment. They could be product developers, work in manufacturing, or mining or defence industries, and in government and industry research groups.

Mechatronics Engineers may be required to travel to present at a conference or view a new design idea or innovative technology.

‘Aliases’ for Mechatronics engineering

Mechatronics engineering is an emerging field but it has been around in one form or another for some time. Mechatronics engineers have been cleverly disguised as many of the following: Automation Engineer, Control System Engineer, Data Logging Engineer, Instrumentation Engineer, Project Engineer, Software Engineer, Systems Engineer, and Service Engineer.

Career Opportunities in Mechatronics Engineering

Mechatronics engineers (men and women) may be employed in enterprises of any size. There are numerous small and medium sized enterprises that develop and use mechatronics systems where mechatronics engineers are needed. International trends indicate that the need for mechatronics engineers will increase significantly in the foreseeable future.

·         ​Aerospace industry

·         Automotive industry

·         Chemical Processing

·         Computers

·         Communications

·         Education

·         Electronics

·         Healthcare

·         Manufacturing and automation

·         Marine engineering

·         Research and development

Mechatronics Courses and Classes

In the engineering field of mechatronics, students can enroll in degree and certificate programs at colleges and universities. Common courses cover manufacturing, hydraulics and industrial electronics.

Essential Information

Mechatronics is a multidisciplinary engineering field that combines systems design, computer, electronic, mechanical, and control engineering. Students interested in studying mechatronics can gain hands-on experience working with pneumatics, hydraulics, electricity and manufacturing of mechanical parts and machines through degree and certificate programs at colleges and universities. Mechatronics courses might incorporate any or all of the engineering disciplines that the field comprises. You can find the following subjects in your studies:

• Conveyor belts
• Robots
• Conduits
• Hydraulics in machinery
• Bar code
• Stability
• Process control

List of Courses

Introduction to Mechatronics

Students typically study analog and digital electronics in introductory mechatronics courses. Electrical engineering basics, such as sensors, logic gates, op-maps, controllers and microprocessors are usually covered, often through both lecture and hands-on lab components. Introductory courses are typically among the first in-field classes taken in a mechatronics program.

MECHATRONICS ENGINEERING

Control Systems

Students study control systems topics like the creation, repair and troubleshooting of electrical, thermal, flow and mechanical systems. Topics like digital control help prepare students to work with remote controllers for mechanic-to-human interfaces. The use of computers and stability analysis systems to test mechanical systems may also be covered.

Industrial Electronics

Industrial electronics courses often follow guidelines set by the National Center for Integrated Systems Technology (NCIST) advanced manufacturing curriculum. Students learn industrial electronics topics like the use of alternating circuits (AC) and direct currents (DC) in manufacturing. Other areas of study might include pressure, speed motor control, servo-mechanisms, conduits and timers. Troubleshooting and replacing faulty circuits may also be addressed. Students are typically prepared to take industrial electronics courses after completing basic foundational mechatronics coursework.

Manufacturing

Through this course, students gain familiarity with computed numerically controlled (CNC) machines, conveyor belts, robots and other machines used in manufacturing. Coursework might include examining the reliability of machines and products, comprehension of manufacturing techniques, testing and diagnosing flawed manufacturing components and consideration of environmental factors. Class projects might include the creation of a robot-based bar code or other tasks that use a variety of engineering skills. This course is typically aimed at students who want to work in the manufacturing and sales field of mechatronics.

Hydraulics

This course focuses on topics like the diagnostics, repair and replacement of hydraulic components in a manufacturing machine. Coursework typically focuses on the construction and uses of hydraulics in machinery. Through lab work, students construct hydraulics and learn the assembly and disassembly of these components. Skills and techniques learned in this course may be applicable in many of the engineering areas in a mechatronics curriculum.