Course content

Microscopic mechanisms of diffusion and calculation of non-steady-state diffusion. Dislocation movement and strengthening mechanisms for metallic materials. Phase transformations in metals, ceramics and polymers. Classification, fabrication and heat treatment of metals and alloys. Stainless steel and corrosion resistance in metals. Functional material properties: electrical, magnetic, thermal and optical properties in metals, ceramics and polymers.

Learning outcome

After completing the course, the candidate should be able to:

• Describe microscopic mechanisms of diffusion in solids
• Perform analytical and numerical calculations of heat and mass transport in solids for selected geometries
• Discuss how dislocation movement influences plastic deformation and strength in metallic materials
• Describe and compare different strengthening mechanisms in metals
• Read and interpret phase diagrams and transformation diagrams (TTT/CCT) to predict development of microstructure during heat treatment of selected materials
• Explain the main types of metallic materials and their properties, with particular emphasis on corrosion resistance and stainless steels
• Apply knowledge of electrical, magnetic, thermal and optical properties to suggest materials for specific functional applications
• Carry out practical laboratory work in materials engineering and interpret and communicate the results in an appropriate and professional manner

Learning methods and activities

Lectures, problem sets, laboratory work and self-study. Estimated workload: Lectures 40 hours, problem sets 20 hours, laboratory work 20 hours (including preparation and follow-up), self-study 120 hours, in total 200 hours.

Compulsory assignments

• Problem sets
• Laboratory work

Specific conditions

Recommended previous knowledge

IMAK1011 Materials and Chemistry 1

IMAK1012 Materials and Chemistry 2

Course materials

Information will be provided at the start of the semester.

Credit reductions