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School of Mechanical Engineering

School of Mechanical Engineering, Universiti Sains Malaysia

Undergraduate programme

Bachelor of Mechanical Engineering

Mechanical engineering encompasses design, management, production, maintenance and infrastructure development, and mechanical engineers make effective use of available resources to develop efficient, reliable and economical products and systems across a wide range of industrial sectors.

Related disciplines
5
Industries
7
Professional skills
3
Training components
3
ME

Mechanical engineering at the centreFive linked disciplines and seven industries

Programme overview

  • Broad engineering foundationPreparation for careers across the full spectrum of mechanical engineering.
  • Interdisciplinary learningExposure to five related engineering disciplines plus management skills.
  • Hands-on trainingLaboratory courses, workshop practice and industrial training.

Mechanical engineers play important roles across many industries. Their contributions are essential to infrastructure development, industrial advancement and economic growth.

The Bachelor of Mechanical Engineering programme at Universiti Sains Malaysia prepares students for engineering careers across a broad spectrum of mechanical engineering fields, while promoting interdisciplinary learning with related engineering disciplines.

Beyond technical competence, students are exposed to non-technical areas such as management, accounting and communication skills, so they are well prepared for the professional engineering environment.

Interdisciplinary learning with

  • Electrical and Electronic Engineering
  • Materials and Mineral Resources Engineering
  • Chemical Engineering
  • Civil Engineering
  • Aerospace Engineering

Industries where mechanical engineers contribute

  • Power generation
  • Heavy machinery
  • Electronics
  • Construction
  • Product development
  • Medical equipment
  • Food processing

Professional skills

  • Management
  • Accounting
  • Communication

Main areas of study

Each short animation shows a typical problem that engineers in that area learn to solve.

  • Animation: a beam on two supports bends under a central load, and colours show where the stress is highest. Stress lowhigh F
    A loaded beam bends. Colours show where stress is highest.

    Applied mechanics

    How structures and machine parts carry load, deform, move and vibrate, and how to predict failure before it occurs.

    • Engineering mechanics
    • Statics
    • Strength of materials
    • Solid mechanics
    • Dynamics and mechanisms
    • Noise and vibration
    • Applied finite element analysis (FEA)
    • Stress analysis
    • Structural impact
    • Composite structures
  • Animation: flow divides around a cylinder and forms a wake, while a heated wall transfers energy into the fluid. Flow is slowest next to the walls. Flow Heated wall
    Flow splits around a cylinder while a heated wall warms the fluid.

    Thermofluids

    How fluids flow and how heat and energy are transferred, converted and managed in engines, buildings and power systems.

    • Fluid mechanics
    • Thermodynamics
    • Fluid dynamics
    • Applied thermodynamics
    • Heat transfer
    • Numerical methods for engineers
    • Computational fluid dynamics
    • Internal combustion engines
    • Refrigeration and air conditioning
    • Energy conversion systems
  • Animation: a part moves along a conveyor, is inspected by a vision camera, and is picked and placed by a robot arm while a gauge settles on its reading. Gauge Vision
    A part is inspected, measured and placed by a robot.

    Systems, manufacturing technology, measurement and control

    How products are made, measured and controlled, from machining and quality control to sensors, robots and automated lines.

    • Manufacturing technology
    • Measurement and instrumentation
    • Metrology and quality control
    • Industrial engineering
    • Robotics and automation
    • Industrial machine vision
  • Animation: a bracket is sketched, dimensioned and extruded into a three-dimensional model, then a test curve is plotted in the laboratory. Sketch Model Test 120 90 Extension Load
    A sketch becomes a dimensioned model, then is tested.

    Design and laboratory

    How ideas become engineered products, through drawing, computer-aided design, hands-on laboratory work and the final year project.

    • Engineering drawing
    • Engineering practices
    • Conceptual design and computer-aided design
    • Component and machine design
    • Systems design
    • Engineering laboratories
    • Final year project

Professional preparation

The programme places strong emphasis on practical training relevant to the professional engineering environment, giving students valuable hands-on experience in real engineering settings.

Engineering laboratory courses

Structured experiments that connect engineering theory with measurement, testing and analysis.

Workshop practice

Practical work with tools, machines and fabrication processes used in engineering practice.

Industrial training

Placement in industry, where students apply their learning in a real professional setting.

The programme produces graduates who are technically competent, professionally prepared and ready to pursue membership in relevant professional engineering organisations.

Programme brochure

The programme brochure provides additional information about the Bachelor of Mechanical Engineering curriculum, academic structure and student learning experience.

Please refer to the School of Mechanical Engineering for the most updated programme information and booklet details.

Programme booklet

Download the programme booklet for the full details of the Bachelor of Mechanical Engineering, or open it in your browser.