This paper will provide a foundation for understanding the relationship between material structure, processing and behaviour to support engineering of materials and engineering with materials.

This paper deepens the understanding of students on the relationships between processing conditions, microstructure and properties of materials manufactured via major materials processing technologies including solidification methods, ceramic processing, metallic powder consolidation, and fabrication of composite materials. The paper is based on advanced materials science knowledge and the principles underlying materials engineering.

This paper covers mass and heat transfer, thermodynamics, materials (including metal, polymer and composites) processing and the relationship between microstructure and properties, and bioprocessing and transformation.

This paper deals with advanced materials science knowledge and principles underlying materials engineering. It focuses on the relationships between processing conditions and microstructures of materials and major materials processing technologies.

This paper provides the "capstone" project required to complete an accredited engineering degree. The paper builds on the knowledge and skills students have gained in the first three years of their professional engineering degree and reinforces the multidisciplinary aspect of engineering. Students will learn how to carry out a Research &Development project as an individual or as part of a team, and also gain an appreciation of the depth and breadth of knowledge and skills required for completing a project that addresses real-world problems.

This paper requires students to carry out a theoretical or empirical investigation in a relevant subject/engineering discipline and write a report on the findings of the investigation.

It will develop understanding of the relationship between material structure, processing and behaviour to support engineering of materials and engineering with materials.

Advanced level knowledge on mechanics and performance of materials, covering stress and strain transformations, failure criteria, unsymmetrical bending, torsion of non-circular sections, fatigue, materials selection and materials testing.

This paper covers mass and heat transfer, thermodynamics, materials (including metal, polymer and composites) processing and the relationship between microstructure and properties, and bioprocessing and transformation.

This paper covers the basic theory and use of advanced analytical techniques used in materials characterization using optical microscopy, x-ray diffraction, scanning electron microscopy (SEM), transmission electron microscopy (TEM) and differential thermal analysis (DTA).

This paper will provide a foundation for understanding the relationship between material structure, processing and behaviour to support engineering of materials and engineering with materials.

This paper deepens the understanding of students on the relationships between processing conditions, microstructure and properties of materials manufactured via major materials processing technologies including solidification methods, ceramic processing, metallic powder consolidation, and fabrication of composite materials. The paper is based on advanced materials science knowledge and the principles underlying materials engineering.

This paper covers mass and heat transfer, thermodynamics, materials (including metal, polymer and composites) processing and the relationship between microstructure and properties, and bioprocessing and transformation.

This paper deals with advanced materials science knowledge and principles underlying materials engineering. It focuses on the relationships between processing conditions and microstructures of materials and major materials processing technologies.

This paper provides the "capstone" project required to complete an accredited engineering degree. The paper builds on the knowledge and skills students have gained in the first three years of their professional engineering degree and reinforces the multidisciplinary aspect of engineering. Students will learn how to carry out a Research &Development project as an individual or as part of a team, and also gain an appreciation of the depth and breadth of knowledge and skills required for completing a project that addresses real-world problems.

It will develop understanding of the relationship between material structure, processing and behaviour to support engineering of materials and engineering with materials.

Advanced level knowledge on mechanics and performance of materials, covering stress and strain transformations, failure criteria, unsymmetrical bending, torsion of non-circular sections, fatigue, materials selection and materials testing.

This paper covers the basic theory and use of advanced analytical techniques used in materials characterization using optical microscopy, x-ray diffraction, scanning electron microscopy (SEM), transmission electron microscopy (TEM) and differential thermal analysis (DTA).

This paper covers mass and heat transfer, thermodynamics, materials (including metal, polymer and composites) processing and the relationship between microstructure and properties, and bioprocessing and transformation.

This paper will provide a foundation for understanding the relationship between material structure, processing and behaviour to support engineering of materials and engineering with materials.

This paper provides the "capstone" project required to complete an accredited engineering degree. The paper builds on the knowledge and skills students have gained in the first three years of their professional engineering degree and reinforces the multidisciplinary aspect of engineering. Students will learn how to carry out a Research &Development project as an individual or as part of a team, and also gain an appreciation of the depth and breadth of knowledge and skills required for completing a project that addresses real-world problems.

This paper covers mass and heat transfer, thermodynamics, materials (including metal, polymer and composites) processing and the relationship between microstructure and properties, and bioprocessing and transformation.

Introduction to engineering materials (metals, ceramics, polymers, composites, semiconductors and biomaterials) and their atomic structure and mechanical properties. Includes; elastic and plastic deformation, fracture mechanisms, failure in service, iron-carbon phase diagram, redox reactions in corrosion, production of polymers, cement and concrete.

This paper deals with advanced materials science knowledge and principles underlying materials engineering. It focuses on the relationships between processing conditions and microstructures of materials and major materials processing technologies.

It will develop understanding of the relationship between material structure, processing and behaviour to support engineering of materials and engineering with materials.