Undergraduate Course: Chemistry and Processes 2 (CHEE08007)
Course Outline
| School | School of Engineering | 
College | College of Science and Engineering | 
 
| Course type | Standard | 
Availability | Available to all students | 
 
| Credit level (Normal year taken) | SCQF Level 8 (Year 2 Undergraduate) | 
Credits | 20 | 
 
| Home subject area | Chemical | 
Other subject area | None | 
   
| Course website | 
None | 
Taught in Gaelic? | No | 
 
| Course description | Work visits component: The course involves an introduction to the plants and processes to be visited, a literature search on the process, a site visit that involves a question and answer session with plant engineers and a reporting back session involving oral presentation and a written report.  
 
Chemistry components: The course covers the following topics: quantum theory, infrared and NMR spectroscopy, aromatic chemistry, and industrial organic chemistry. | 
 
 
Information for Visiting Students 
| Pre-requisites | None | 
 
| Displayed in Visiting Students Prospectus? | Yes | 
 
 
Course Delivery Information
| Not being delivered |   
Summary of Intended Learning Outcomes 
Students should be able to: 
Work visits component 
read a process flowsheet, identify plant items and discuss the reasons for particular operating conditions chosen; work together as a group to delegate tasks and prepare oral presentations and written reports; prepare a succinct written report, relying as much as possible on informative diagrams to reduce word count; talk for 10 minutes on an assigned topic 
 
Chemistry component 
- Describe and explain the fundamental principles of quantum theory, infrared and NMR spectroscopy, aromatic chemistry, and industrial organic chemistry. 
- Account for the stability, structure, and reactivity of benzene, its simple derivatives, and polycyclic analogues. 
- Identify and explain the synthetic principles which enable the conversion of simple benzene derivatives into more complex molecules 
- Outline the principles of quantum mechanics and their significance to modern experimental and theoretical chemistry. 
- Carry out calculations on simple systems, such as a particle in a one-dimensional box. 
- Describe the absorption and emission of electromagnetic radiation by atoms and molecules in terms of energy level diagrams and selection rules  
- Describe how energy is distributed within molecules and use the Boltzmann distribution to calculate the relative populations of energy levels. 
- Describe the electronic states and spectra of hydrogenic atoms. 
- Identify the characteristic absorption bands of functional groups in the infrared spectra of organic molecules 
- Use spectroscopic data to determine the vibrational frequency, bond strength and bond length of diatomic molecules. 
- describe the process whereby electromagnetic radiation interacts with matter. 
- explain the key concepts of vibrational spectroscopy and derive structural information from group and skeletal vibrational frequencies. | 
 
 
Assessment Information 
| Two and half hour degree exam at end of semester (80%) and works visits (20%) |  
 
Special Arrangements 
| None |   
 
Additional Information 
| Academic description | 
Not entered | 
 
| Syllabus | 
Not entered | 
 
| Transferable skills | 
Not entered | 
 
| Reading list | 
Not entered | 
 
| Study Abroad | 
Not entered | 
 
| Study Pattern | 
Not entered | 
 
| Keywords | Not entered | 
 
 
Contacts 
| Course organiser | Dr Khellil Sefiane 
Tel: (0131 6)50 4873 
Email:  | 
Course secretary | Miss Lucy Davie 
Tel: (0131 6)50 5687 
Email:  | 
   
 
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