Curtin University

What you'll study

The course builds core metallurgy skills across both extractive and physical metallurgy. It combines advanced taught modules with laboratory and pilot-scale practical work to develop competence in processing, characterisation and problem solving.

• Extractive metallurgy – fundamentals of pyrometallurgy and hydrometallurgy, leaching, solvent extraction, smelting and refining routes for common metals.
• Mineral processing – comminution, classification, flotation, gravity concentration and processing circuit design.
• Physical metallurgy and materials science – phase diagrams, microstructure–property relationships, heat treatment and mechanical behaviour of metals and alloys.
• Corrosion and materials degradation – mechanisms of corrosion, prevention strategies and failure analysis techniques.
• Process modelling and control – mass and energy balances, simulation of metallurgical processes and fundamentals of process control and optimisation.
• Materials characterisation – use and interpretation of microscopy (optical and electron), X-ray diffraction, thermal analysis and spectroscopic techniques commonly used in metallurgy.
• Laboratory and pilot-scale practicals – hands-on work with mineral processing and extractive metallurgy equipment; sample preparation and analytical testing.
• Industry-focused project or case studies – applied investigations into plant problems, flow-sheet improvement or materials selection and failure investigations.

Entry requirements

Applicants are typically expected to hold a recognised bachelor degree in engineering, metallurgy, materials science, chemistry, geology or a closely related science discipline. Applicants with substantial relevant industry experience may also be considered. Evidence of quantitative and laboratory competence is usually required. International applicants must meet Curtin's English language proficiency standards.

Specific entry conditions may include consideration of academic transcripts, a CV outlining relevant experience, and where applicable, certification of prior learning or professional registration. Prospective students should consult Curtin's admissions office for assessment of individual qualifications.

Career prospects

Graduates are prepared for technical and professional roles across the mining, minerals processing and metals manufacturing sectors. Typical roles include:

• Metallurgist and process engineer in mining operations and concentrators
• Smelter and refinery process engineer or operator
• Materials engineer or corrosion specialist in manufacturing and oil & gas
• Quality control and analytical laboratory roles
• Technical consultant, project engineer or research assistant in R&D organisations

These roles are found in industry, government laboratories, consultancy firms and research institutions, with opportunities to progress into senior technical, supervisory or project management positions.

Why study at Curtin University

Curtin is located in a global minerals and resources region and has strong, longstanding links with mining and metals industries. The university offers industry-relevant teaching delivered by academic staff with practical metallurgical experience and active research in metallurgical processes, materials characterisation and corrosion.

Students benefit from modern laboratory and pilot-scale facilities, access to advanced analytical equipment and opportunities for industry projects and collaborations. Curtin's connections with major resource companies and research centres provide practical learning experiences that help graduates transition directly into professional metallurgical roles.