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This course aims at equipping the students with the understanding of the deformation materials undergo during the external application of forces. The course first builds up on the topics centroids and centers of gravity and then introduces students to the concepts of stress and strain. It then concentrates on deformations during torsion and bending. Stresses in beams and columns together with a topic in energy methods are covered.

This course aims at equipping the students with the knowledge of the different aspects of dynamics and understanding of the basic methods required to perform kinematics and dynamic analysis on particles and rigid bodies, and includes topics such as kinematics of particles, rectilinear and curvilinear motion, kinetics of particles: force, mass, acceleration, kinetics of systems of particles and rigid bodies; planar kinematics of rigid bodies, impulse and momentum, work and energy and vibrations of a particle.

This course aims at equipping the students with the knowledge of the different aspects of dynamics and understanding of the basic methods required to perform kinematics and dynamic analysis on particles and rigid bodies, and includes topics such as kinematics of particles, rectilinear and curvilinear motion, kinetics of particles: force, mass, acceleration, kinetics of systems of particles and rigid bodies; planar kinematics of rigid bodies, impulse and momentum, work and energy and vibrations of a particle.

This course is designed to develop an understanding of various manufacturing processes. Since the economies of most countries in the south pacific region are driven by manufacturing industries, it is important that mechanical and manufacturing students are well versed with manufacturing processes. It builds the foundation for advanced courses in mechanical engineering such as manufacturing systems and engineering project.

This course enables the students to apply the basic engineering concepts to practical devices and systems. A number of engineering devices involve conversion, transfer and transport of energy from one form to another. The students need to clearly understand the working of these engineering devices and analyse the energy interaction involved. They may also need to design simple devices and test them to enhance their understanding of the subject. This course will provide the students with an opportunity to apply the basic knowledge of thermo-fluids, gained in earlier courses, to practical devices and systems. Topics include internal combustion engines, gas turbines, power cycles and plants, wind engineering and wind tunnel testing, aerodynamics, turbo-machinery, analysis of heat transfer in heat exchangers and fins, transient heat transfer, forced and natural convection.

This course enables the students to apply the basic engineering concepts to practical devices and systems. A number of engineering devices involve conversion, transfer and transport of energy from one form to another. The students need to clearly understand the working of these engineering devices and analyse the energy interaction involved. They may also need to design simple devices and test them to enhance their understanding of the subject. This course will provide the students with an opportunity to apply the basic knowledge of thermo-fluids, gained in earlier courses, to practical devices and systems. Topics include internal combustion engines, gas turbines, power cycles and plants, wind engineering and wind tunnel testing, aerodynamics, turbo-machinery, analysis of heat transfer in heat exchangers and fins, transient heat transfer, forced and natural convection.

MM492 – Industrial Engineering provides a comprehensive understanding of the fundamental principles and practical applications of industrial engineering in both manufacturing and service sectors. The course begins by introducing the historical evolution, roles, and responsibilities of industrial engineers, along with organizational fundamentals and workplace psychology. It progresses into core operations management areas including production and productivity, production planning and control (PPC), inventory management, work system design, quality systems, and lean practices.

Through focused modules, students learn to design efficient work systems, apply quality control methods, implement lean manufacturing principles, and evaluate planning and scheduling activities. Emphasis is placed on solving real-world problems using analytical tools and case study exercises. By the end of the course, students will be equipped with essential knowledge and skills to contribute effectively to productivity improvement and operational excellence in industrial settings.

The course is designed to enhance students understanding on the application of economic concepts and models to address policy questions with respect to marine resources. The course provides a theoretical and an applied context to the key issues and policy challenges in marine resource use and management in general and with some specific reference to the Pacific Islands. Economic underpinnings of issues on equity, efficiency and sustainability are analysed by looking at activities such as fisheries, aquaculture, marine protected areas, recreational fishery, ports and shipping and seabed mining.

This course provides a detailed introduction to the Law of the Sea Convention for non-law students wishing to understand the international framework governing the oceans and their resources. Topics covered include the history of the convention, offshore zones, and the rules governing fishing, navigation and other marine uses. Both arts and science students will benefit from this introduction to international oceans law and policy.