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This concerns a Course |
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In the program of MSc
MSE and
of |
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EC (European Credits): 2 (1 EC concerns a work load of 28 hours) |
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Faculty of Mechanical, Maritime and Materials
Engineering |
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Department of MSE |
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Lecturer 1: dr.
J. Zhou |
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Lecturer 2: dr.ir.
J. Duszczyk |
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Catalog data:
powder metallurgy, material production, material processing, rapid
solidification, forming, sintering, advanced materials |
Course year: |
MSc 2nd
year |
Course language: |
English |
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In case of
Dutch: Please contact the
lecturer about an English alternative, whenever needed. |
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Semester: |
1A |
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Hours per week: |
2 |
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Other hours: |
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Assessment: |
Written exam |
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Assessment period: |
1A |
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(see academic
calendar) |
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Prerequisites (course codes):
MS3021 - Metals Science, MS4011 - Mechanical Properties, MS4101 -
Production of Materials |
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Follow up (course codes): |
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Detailed description of topics:
The course concerns the fundamentals of the technology to prepare
conventional alloys and most of all non-conventional alloys with
non-equilibrium microstructures via rapid solidification and to consolidate
these materials into near-net-shape products. It introduces the methods to
produce powdered materials such as atomisation, the methods to produce nearly
densified preforms such as Osprey spray deposition, characterization of the
initial materials such as particle size, size distribution, morphology and
density, and the methods to convert the initial materials into engineered
shapes such as compaction and to provide structural integration such as
sintering. It details the mechanisms operating during full-density processing
to enhance mechanical properties such as extrusion, forging, isostatic
pressing and dynamic and explosive compaction. Qua materials, it covers a
wide range of microstructured metallic alloys and intermetallic compounds,
amorphous and nanostructured materials, as well as metal matrix
composites.
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Course material: |
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References from literature: |
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Remarks assessment, entry requirements,
etc.: |
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Learning goals:
- recognise the capabilities and
limitations of modern material processing technology in comparison with the
conventional
technology;
- select non-conventional material
processing routes and process parameters for the end product to meet specific
performance
requirements;
- predict microstructural evolution and
dimensional changes occurring during each processing step and the
performance
of the product at the end of the processing chain, on the basis of a
fundamental understanding of
process
physics and related metallurgy;
- identify the faults as a result of
improper material selection and processing and to propose solutions to the
problem;
- evaluate the gains in product
performance against processing complexity.
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Computer use: |
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Laboratory project(s): |
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Design content: |
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