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This concerns a Practical |
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In the program of MSc
MSE and
of |
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EC (European Credits): 4 (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.ir.
M.J.M. Hermans |
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Lecturer 2: |
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Catalog data: |
Course year: |
MSc 1st
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 / 1B |
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Hours per week: |
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Other hours: |
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Assessment: |
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Assessment period: |
1A / 1B |
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(see academic
calendar) |
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Prerequisites (course codes): |
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Follow up (course codes): |
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Detailed description of topics:
A research-like subject involving techniques such as microscopy, XRD,
SEM, temperature measurements, dilatometry, welding and corrosion.
• Sample Preparation
and Metallographic Microscopy, 4hr.
• Introduction in the
use and application of Scanning Electron Microscopy and Energy Dispersive
X-ray
Spectroscopy in materials research. 8 hr,
lab report.
• Microstructure
evolution during welding of unalloyed steel (Welding, temperature
measurement, dilatometry,
microscopy, microstructure evaluation, CCT
diagrams), 16 hr, written report.
• Corrosion,
electro-chemistry and materials selection – Case studies; 28 hr, lab report,
presentation.
• X-ray diffraction; 24
hr, lab report. |
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Course material: |
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References from literature: |
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Remarks assessment, entry requirements,
etc.:
See 'Detailed description of topics' for various assessment methods
(written report, lab report, presentation) |
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Learning goals:
The student is able to select techniques for materials/process
characterisation, can describe those techniques, specify the physical
principles and can interpret the obtained results.
More specifically, the
students is able to:
• use light microscopy
for materials characterisation. This includes sample preparation and
selection of
appropriate etching agents,
• describe the
principles and justify the use of scanning electron microscopy and energy
dispersive x-ray
spectroscopy in materials research and is
able to analyse the data,
• describe the
principles of the x-ray diffraction technique and analyse the data,
• describe a number of
joining techniques, perform temperature measurements during welding and
extract
cooling rates. He/she is able to relate
this data to the microstructure of the material,
• derive information on
phase transformations from dilatometry experiments, compare the results to
CCT
diagrams and correlate the data with the
observed microstructure and the phenomena occurring during
welding and heat treatments,
• identify corrosion
mechanisms and quantify parameters which influence the corrosion rate.
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Computer use:
Computer use for data evaluation of XRD, control of experimental
set-ups, reports |
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Laboratory project(s): |
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Design content: |
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