Materials Engineering for Catalysis

Postgraduate

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Mode
Mode
Your studies will be on-campus, and may include some online delivery
On campus
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Area/Catalogue
ENGP 6027
Course ID icon
Course ID
202560
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Campus
Adelaide City Campus East
Level of study
Level of study
Postgraduate
Unit value icon
Unit value
6
Course owner
Course owner
School of Chemical Engineering
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Course level
1
Work Integrated Learning course
Work Integrated Learning course
No
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Inbound study abroad and exchange
Inbound study abroad and exchange
The fee you pay will depend on the number and type of courses you study.
Yes
University-wide elective icon
University-wide elective course
Yes
Single course enrollment
Single course enrolment
Yes

Course overview

This course will introduce concepts and history of catalysis, to introduce traditional and advanced functional and nanoscale materials for diverse catalytic applications in bio-production, environmental purification, clean fuel product, and petrochemical industrial processes. The materials include metals, metal alloys, zeolites, metal oxides, nanocarbon, microporous and mesoporous materials, and carbonaceous materials. The course will highlight the significance of catalyst materials engineering in modern society, and contextualise the selection of catalysts on the basis of their characteristics and end-use applications.

Course learning outcomes

  • Explain the fundamental principles of materials science and engineering, including types, properties, and structure–function relationships relevant to catalytic systems.
  • Describe the concepts, history, and significance of catalysis, recognising its central role in industrial, energy, health, and environmental processes.
  • Analyse and formulate engineering problems related to catalytic materials and processes and propose suitable solutions.
  • Apply knowledge of functional and nanostructured materials to the design and development of catalysts for fuel production, energy conversion, pollution control, and sustainable production.
  • Evaluate recent advances and emerging applications of catalytic materials in areas such as disinfection, therapies, clean fuel generation, waste upgrading, water purification, and electrochemistry.
  • Communicate technical findings effectively, both in written and oral formats, demonstrating professional standards of reporting and presentation in materials and catalysis engineering.

Prerequisite(s)

N/A

Corequisite(s)

N/A

Antirequisite(s)

  • Must not have completed MATENG7105 Materials Engineering for Catalysis at the University of Adelaide OR must not have completed MATENG7105 Materials Engineering for Catalysis at the University of Adelaide