General Chemistry and Chemical Sources of Energy
Entry Requirements
Course facts
- Course name
- General Chemistry and Chemical Sources of Energy
- Swedish course name
- Allmän kemi och kemiska energikällor
- Level
- First cycle (G1N)
- Main field of study
- Chemistry
- Credits
- 10.0 credits
- Rate of study
- 35 %
- Study location
- Uppsala
- Form of instruction
- Campus-based instruction
- Application code
- SLU-30172
- Course code
- KE0049
- Course language
- Swedish
- Included in program
-
Master Programme in Energy Systems Engineering
- Offered as a freestanding course
- Nej
- Tuition fee
-
25370 SEK
Tuition fees only for non-EU/EEA/Switzerland citizens
KE0049, General Chemistry and Chemical Sources of Energy, 10.0 Hp
Print syllabus
Syllabus
Level
First cycle (G1N)
Main field of study
Chemistry
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 objective of the course is to provide student with insight into the energy principles behind chemical reactions in the industrial and in natural systems and background necessary for treating the chemical equilibria in those systems.
After completion of the course the student should
- know the names, chemical formulae and properties of the most important inorganic compounds present in nature (acids, bases and salts) and the reactions they take part of
- be able to identify most common chemical reactions constituting the background of the processes within the area of energy production and their environmental effects, and be also able to give a quantitative descriptions of the energy transformations in the systems, where these processes occur
- be able to give quantitative estimations of the concentration changes in most common chemical processes on the basis of the data on changes in the related energy functions
- be able to carry out chemical experiments according to provided techniques and give written and oral account for the results obtained
- be able to carry out quantitative determinations of concentrations using electrical and optical instruments and provide statistic evaluation of the results obtained
Content
Thematic content:
Part 1. Chemical energy theory 5 credits: Stoichiometry, the elements and structure of the periodic table, chemical bonding, nuclear reactions, chemical thermodynamics and chemical kinetics
Part 2. Chemical equilibrium theory (chemical energy sources) 5 credits: Description and use of chemical equilibria such as acid-base equilibria, solubility, complex formation, redox reactions, coupled equilibria, ion exchange processes, and principles of chemical analysis such as titration and spectrophotometry. The module also includes basics of statistical processing and presentation of results of quantitative measurements.
Implementation:
The course uses different teaching methods to promote student learning and discussion through: Lectures, group discussions and laboratories
The course focuses on the following general skills:
Oral and written communication
The following sections are mandatory:
Laboratories with associated lessons, group exercises
Cooperation with the surrounding society takes place through a focus on current energy-relevant issues
Examination Formats and Requirements for Passing the Course
Approved written exams, approved oral and written laboratory reports and approved practice and/or submission tasks as well as active participation in mandatory activities.
Responsible Department/Equivalent
Department of Molecular Sciences
Supplementary information
Included in program
- Master Programme in Energy Systems Engineering
Module set
| Title | Credits | Code |
|---|---|---|
| Chemical energetics | 4.0 | 0301 |
| Chemical energetics - labs | 1.0 | 0302 |
| Chemical equilibria | 4.0 | 0303 |
| Chemical equilibria - labs | 1.0 | 0304 |
The Course Replaces
KE4009
Moore-Stanitski-Jurs Chemistry - The Molecular Science, 4th edition
Laboratory guide, Cengage Learning, Special edition
academic year 2024/2025
General Chemistry and Chemical Sources of Energy (KE0049-30087)
2025-05-15 - 2025-06-22
academic year 2023/2024
General Chemistry and Chemical Sources of Energy (KE0049-30298)
2024-03-19 - 2024-06-14
academic year 2022/2023
General Chemistry and Chemical Sources of Energy (KE0049-30087)
2023-03-20 - 2023-06-16
academic year 2021/2022
General Chemistry and Chemical Sources of Energy (KE0049-30172)
2022-05-29 - 2022-06-19
academic year 2020/2021
General Chemistry and Chemical Sources of Energy (KE0049-30259)
2021-05-30 - 2021-06-30
academic year 2019/2020
General Chemistry and Chemical Sources of Energy (KE0049-30054)
2020-05-31 - 2020-07-20
academic year 2018/2019
General Chemistry and Chemical Sources of Energy (KE0049-30116)
2019-06-02 - 2019-06-23
academic year 2017/2018
General Chemistry and Chemical Sources of Energy (KE0049-30140)
2018-05-24 - 2018-06-17
academic year 2016/2017
General Chemistry and Chemical Sources of Energy (KE0049-30003)
2017-05-22 - 2017-09-01
academic year 2015/2016
General Chemistry and Chemical Sources of Energy (KE0049-30188)
2016-05-12 - 2016-12-01
academic year 2014/2015
General Chemistry and Chemical Sources of Energy (KE0049-30131)
2015-06-08 - 2015-12-03
academic year 2013/2014
General Chemistry and Chemical Sources of Energy (KE0049-30280)
2014-06-09 - 2014-06-30
academic year 2012/2013
General Chemistry and Chemical Sources of Energy (KE0049-20029)
2013-03-21 - 2013-04-22
academic year 2011/2012
General Chemistry and Chemical Sources of Energy (KE0049-10122)
2012-03-29 - 2012-04-30
academic year 2010/2011
General Chemistry and Chemical Sources of Energy (KE0049-10158)
2011-03-29 - 2011-05-15
academic year 2009/2010
General Chemistry and Chemical Sources of Energy (KE0049-20108)
2010-03-22 - 2010-04-30
academic year 2008/2009
General Chemistry and Chemical Sources of Energy (KE0049-20041)
2009-04-15 - 2009-05-31
Contact
- Course coordinator
-
Vadim Kessler
Gulaim Seisenbaeva - Course administrator
- Vadim Kessler
- Examiner
- Vadim Kessler