Thermochemical conversion
Entry Requirements
Course facts
- Course name
- Thermochemical conversion
- Swedish course name
- Termokemisk omvandling
- Level
- First cycle (G2F)
- Main field of study
- Technology
- Subject
- Technique
- Credits
- 5.0 credits
- Rate of study
- 33 %
- Study location
- Uppsala
- Form of instruction
- Campus-based instruction
- Application code
- SLU-20163
- Course code
- TN0319
- Course language
- Swedish
- Included in program
-
Master Programme in Energy Systems Engineering
- Offered as a freestanding course
- Nej
- Tuition fee
-
12690 SEK
Tuition fees only for non-EU/EEA/Switzerland citizens
TN0319, Thermochemical conversion, 5.0 Hp
Print syllabus
Syllabus
Level
First cycle (G2F)
Main field of study
Technology
Subject
Technique
Grading Scale
The grade requirements within the course grading system are set out in specific criteria. These criteria must be available by the course start at the latest.
Course language
Swedish
Entry Requirements
Objectives
The course aims to provide the students with fundamental knowledge on combustion, gasification and pyrolysis of hydrocarbon fuels, of which combustion of solid fuels for heat and power production is the central issue, and technologies for performance and emission control of the processes.
After completion of the course, the students should be able to: • describe different technologies for combustion, gasification and fuel upgrading • use relevant equations to solve technical problems related to combustion • identify technical and environmental problems commonly encountered in industrial boilers, as well as propose suitable solutions to the problems • perform basic engineering calculations of mass and heat balances for the combustion process • build models for thermochemical processes and to be able to apply Matlab or Python to solve general problems related to thermal efficiencies, mass balances and emissions •utilize thermodynamic equations to calculate how the combustion process and thermo technical components influence the performance (evaluated in terms of for example thermal efficiency) of a thermal power plant
Content
• Combustion science with key concepts for flame combustion and combustion of droplets and particles • Conversion to fuel through gasification, pyrolysis and torrefaction • Combustion in industrial boilers; design, functionality and performance of common furnace types for different fuel types and sizes • Furnace process chemistry with emphasis on performance (slag formation, fouling, corrosion, and agglomeration) and emission (aerosols, trace elements, SO2, NH3 and NOx) controls. • Co-firing and energy from waste • Introduction to fuel cells • Methods to tie geochemical cycles affected by combustion processes.
The course is composed of scheduled activities and self-studies. The scheduled activities include lectures, study visits, exercises and laboratory exercises. Laboratory exercises and study visits are compulsary parts. Self-studies include literature studies and exercises.
Examination Formats and Requirements for Passing the Course
The examination of the course consists of written examinations and reports. Passing the course requires approved written examinations, approved reports and participation in compulsory parts of the course.
Responsible Department/Equivalent
Department of Energy and Technology
Supplementary information
Included in program
- Master Programme in Energy Systems Engineering
Module set
| Title | Credits | Code |
|---|---|---|
| Single module | 5.0 | 0601 |
The Course Replaces
TN0283
Other Information
The prerequisite of 7 credits in Thermodynamics can be fulfilled by the courses 1FA527 Technical Thermodynamics 5 credits and 1FA529 Fluid Mechanics for Energy-Related Applications 10 credits.
An Introduction to Combustion: Concepts and Applications
**Författare: **Stephen Turns
**ISBN: **978-007-108687-5
Supplementary literature
Comment: Supplementary literature will be provided through the internal course page. To gain access to this before the course starts, please contact the course leader or the examiner.
academic year 2025/2026
Thermochemical conversion (TN0319-20163)
2026-01-11 - 2026-02-01
academic year 2024/2025
Thermochemical conversion (TN0319-20181)
2025-01-12 - 2025-02-02
academic year 2023/2024
Thermochemical conversion (TN0319-20194)
2024-01-04 - 2024-01-28
academic year 2022/2023
Thermochemical conversion (TN0319-20046)
2022-12-08 - 2023-01-27
academic year 2021/2022
Thermochemical conversion (TN0319-20107)
2022-01-09 - 2022-01-30
academic year 2020/2021
Thermochemical conversion (TN0319-20145)
2021-01-15 - 2021-02-02
academic year 2019/2020
Thermochemical conversion (TN0319-20096)
2020-01-12 - 2020-02-02
academic year 2018/2019
Thermochemical conversion (TN0319-20156)
2019-01-13 - 2019-02-03
academic year 2017/2018
Thermochemical conversion (TN0319-20109)
2017-12-31 - 2018-01-28
academic year 2016/2017
Thermochemical conversion (TN0319-20044)
2016-12-19 - 2017-02-05
academic year 2015/2016
Thermochemical conversion (TN0319-20121)
2015-12-01 - 2016-01-17
academic year 2014/2015
Thermochemical conversion (TN0319-20055)
2015-01-08 - 2015-02-10
academic year 2013/2014
Thermochemical conversion (TN0319-20037)
2013-11-01 - 2014-08-11
Contact
- Course coordinator
- Niclas Ericsson
- Course administrator
- Niclas Ericsson
- Examiner
- Gunnar Larsson