Headings denoted with an asterisk ( * ) is retrieved from the course syllabus version Autumn 2026
Content and learning outcomes
Course contents
The course gives an overview over both component casting and processes such as ingot casting, continuous casting and direct casting and describe and explain the problems that can arise during metal casting, solidification and cooling.
In particular, the following is addressed during lessons, exercises and practical work:
Casting methods for production of components and manufacturing of sheet metal, steel bars and wire.
The hydrodynamics, flow processes at casting and the properties of the melt system in relation to its casting properties.
Models for solidification from thermal conductivity viewpoint for different casting processes.
The structure formation in different casting processes. Nucleation in and inoculation in melts.
Formation of micro and macro segregation.
Structural changes at heating, forming and homogenisation.
The solubility of gases in melts and precipitation of gas and of secondary phases during solidification.
Influence of shrinkage on solidification processes.
Cooling shrinkage, thermal stress and crack formation during cooling.
Analytical and numerical modelling of solidification and casting processes.
Intended learning outcomes
After passing the course, the student should be able to:
Give example of and justify for the use of common casting processes for manufacturing of components, as well as blanks (workpieces)
Apply and calculate fluid dynamic processes for metal flow at tapping and filling of a casting system for manufacturing of components, as well as blanks
Explain principles and justify adopted models for heat transport at the moulding and solidification of metals
Explain and justify for structure and structure formation in casted materials and the appearance of micro and macro segregations during solidification
Explain the origin of casting defects such as shrinkage, gas porosity, slags, secondary phases and cracks and methods and processes to control and minimise these
Dimension and simulate a casting system with the purpose of minimising casting defects and maximising yield, and present this in a scientific context.
Describe and give examples of the complexity of a real industrial process chain for casting of components or blanks and present this during a seminar
Learning activities
The course consists of thirteen (13) lectures, two (2) exercise sessions and two (2) laboratory sessions.
Some lectures are given by industrial guest lecturers with particular expertise in each topic.
In exercise sessions, you will be set computer simulation exercises to complete with the support of a member of staff.
In the laboratory session, you will see how electrolytic extraction is used to analyse defects in cast material.
Detailed plan
Here is a course schedule correct as of 2026-05-20. To see the up-to-date schedule, please refer to the KTH Schema service or subscribe to the course calendar.
Activity
Date
Start time
End time
Location
Teacher
Description
Lecture
2026-08-24
10:00
12:00
M121
Chris Hulme
Course introduction, introduction to casting
Lecture
2026-08-28
10:00
12:00
M121
Chris Hulme
Nucleation, undercooling and solidification
Lecture
2026-09-01
13:00
15:00
M121
Chris Hulme
Casting processes I
Lecture
2026-09-03
08:00
10:00
M121
Chris Hulme
Casting processes II
Lecture
2026-09-07
13:00
15:00
M121
Chris Hulme
Non-metallic inclusions
Lecture
2026-09-08
13:00
15:00
M121
Chris Hulme
Casting defects
Lab
2026-09-10
13:00
15:00
L148
Yu-Chiao Lu
Lab
2026-09-11
08:00
10:00
L148
Yu-Chiao Lu
Lecture
2026-09-14
13:00
15:00
M121
Chris Hulme
Mould flux and casting powder
Lecture
2026-09-17
10:00
12:00
M121
Mikael Ersson
Fluid flow and simulations in casting
Lecture
2026-09-18
10:00
12:00
M121
TBC (guest lecturer)
TBC
Lecture
2026-09-22
15:00
17:00
M121
TBC (guest lecturer)
TBC
Lecture
2026-09-23
10:00
12:00
M121
TBC (guest lecturer)
TBC
Lab
2026-09-25
10:00
12:00
L148
Yu-Chiao Lu
Lab
2026-09-25
13:00
15:00
L148
Yu-Chiao Lu
Lecture
2026-09-29
10:00
12:00
M121
Chris Hulme
Course review
Exercise
2026-09-29
13:00
16:00
M102
TBC
Exercise
2026-09-30
13:00
16:00
M102
TBC
Preparations before course start
Recommended prerequisites
Basic knowledge of metal casting processes.
Basic knowledge of the fluid dynamics of melts.
Literature
The course follows the teaching in Fredriksson, H., & Akerlind, U. (2006). Materials processing During casting. Wiley. This is available in print or electronically through the KTH library.
Any additional literature shall be recommended during the course.
Support for students with disabilities
Students at KTH with a permanent disability can get support during studies from Funka:
STU1 - Study visit, 0.5 credits, grading scale: P, F
TEN2 - Written exam, 4.0 credits, grading scale: A, B, C, D, E, FX, F
PRA1 - Practical training, 1.5 credits, grading scale: P, F
Based on recommendation from KTH’s coordinator for disabilities, the examiner will decide how to adapt an examination for students with documented disability.
The examiner may apply another examination format when re-examining individual students.
If the course is discontinued, students may request to be examined during the following two academic years.
The section below is not retrieved from the course syllabus:
STU1 - Study visit, 0.5 credits
This is the computer exercise at the end of the course. Successful participatio nand submission of a reasonable attempt at a solution is sufficient to pass this part of the examination.
TEN2 - Written exam, 4.0 credits
Traditional written exam, as scheduled in the timetable for the exam week after study period 1 (P1).
PRA1 - Practical training, 1.5 credits
This is a combined grade from the two laboratory sessions.
Other requirements for final grade
An examination (TEN1; 3.8 credits)
Computer assignment (ÖVN1; 1.5 credits)
Lab and study visits (LAB1; 0.7 credits)
Opportunity to complete the requirements via supplementary examination
Should the written examination be failed with a grade of FX, the student may elect to compelte an additional exercise, the form of which shall be decided by the examiner at their sole discretion. Satisfactory completion of this exercise shall result in a grade of E being awarded for both the written examination and the course. Alternatively, the student may elect to take a new examination to attempt to achieve a higher grade.
Should an examination be failed with a grade of F, the student may complete a new examination.
Opportunity to raise an approved grade via renewed examination
There is no possibility to raise an approved grade via renewed examination. Once the course is passed, the grade is final and cannot be improved.
Alternatives to missed activities or tasks
Activities missed without a valid reason shall be considered to be failed with a grade of F.
Should any student know in advance that they shall be unable to complete any examination or activity for any reason whatsoever, they should inform the examiner as soon as possible to discuss alternative examintion.
Should any student miss an exam or be unable to complete an activity without prior warning for a justifiable reason, e.g. illness, or death in the family, that student should inform the examiner as soon as possible to discuss an alternative examination.
Reporting of exam results
Exam results shall be reported in Canvas in the first instance and then on Ladok.
Ethical approach
All members of a group are responsible for the group's work.
In any assessment, every student shall honestly disclose any help received and sources used.
In an oral assessment, every student shall be able to present and answer questions about the entire assignment and solution.
Further information
Additional regulations
On 15/10/2019, the Dean of the ITM School has decided to establish this official course syllabus to apply from spring term 2020 (registration number M-2019-2226).
Changes of the course before this course offering
The teachers giving the lectures have changes and the lectures have been restructured to reflect this change. The new topics are listed in the detailed course plan in the course memo.