Postgraduate Course: Power Systems and Machines (MSc) (PGEE10013)
Course Outline
| School | School of Engineering | 
College | College of Science and Engineering | 
 
| Course type | Standard | 
Availability | Not available to visiting students | 
 
| Credit level (Normal year taken) | SCQF Level 10 (Postgraduate) | 
Credits | 10 | 
 
| Home subject area | Postgrad (School of Engineering) | 
Other subject area | None | 
   
| Course website | 
None | 
Taught in Gaelic? | No | 
 
| Course description | This course deals with: the steady state performance of induction machines; the transient behaviour of synchronous machines; principles of operation of power system protection equipment; protection of power system components and machines; the operation and protection of distributed generators. | 
 
 
Course Delivery Information
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| Delivery period: 2012/13  Semester 1, Not available to visiting students (SS1) 
  
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WebCT enabled:  Yes | 
Quota:  None | 
 
	
		| Location | 
		Activity | 
		Description | 
		Weeks | 
		Monday | 
		Tuesday | 
		Wednesday | 
		Thursday | 
		Friday | 
	 
| King's Buildings | Lecture | Classroom 10, Alrick Building | 1-11 |  09:00 - 10:50 |  |  |  |  |  | King's Buildings | Tutorial | Classroom 10, Alrick Building | 1-11 |  11:10 - 12:00 |  |  |  |  |  
| First Class | 
First class information not currently available |  
| Exam Information | 
 
    | Exam Diet | 
    Paper Name | 
    Hours:Minutes | 
    
     | 
     |  
  
| Main Exam Diet S1 (December) | Power Systems and Machines (MSc) | 1:30 |  |  |  
 
Summary of Intended Learning Outcomes 
After successful completion of this course, the students will be able to: 
- calculate, model, and represent graphically the steady state operation and performance of induction motors and generators; 
- represent the closed-loop control models of statically-excited and brushless synchronous generators using Laplace techniques, and determine their time domain and s-plane performance; 
- estimate the steady state and transient fault levels in simple power systems containing distributed generation; 
- determine relay operating currents in overcurrent protection schemes and calculate clearance times, incorporating amplitude and time discrimination; 
- represent the effects of transmission network faults and establish the typical response of protection relays. | 
 
 
Assessment Information 
| Assessment will be based on a single written paper of 90 minutes duration. |  
 
Special Arrangements 
| None |   
 
Additional Information 
| Academic description | 
Not entered | 
 
| Syllabus | 
L1 Induction Machines: Revision and Fundamentals 
L2 Induction Machines: Power Flow and Characteristics 
L3 Equivalent Circuit Model of Induction Machines 
L4 Steady State Behaviour of Induction Machines 
L5 Operation of Induction Machines as Motors or Generators 
L6 Determining Equivalent Circuit Model Impedances from Machine Test Results 
L7 Operation of Induction Machines On and Off the Power Supply System 
L8 Synchronous Machines: Revision and Fundamentals 
L9 Steady State Behaviour of Synchronous Machines 
L10 Operation and Voltage Control of Synchronous Generators 
L11 Synchronous Generator Modelling: Control Systems and Stability 
L12 Operation of Distributed Generators in the Power Supply Systems 
L13 Balanced Per-unit Short Circuit Fault Analysis 
L14 Fault Analysis in Networks with Distributed Generators 
L15 Power System Protection Equipment 
L16 Overcurrent Protection: Operate Currents and Device Characteristics 
L17 Overcurrent Protection: Time and Amplitude Discrimination 
L18-19 Overcurrent Protection Case Study 
L20 Protection of Distributed Generators 
 
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| Transferable skills | 
Not entered | 
 
| Reading list | 
Electric Machinery Fundamentals: Chapman (McGraw Hill)  
Power Systems Analysis: Grainger & Stevenson (McGraw Hill) | 
 
| Study Abroad | 
Not entered | 
 
| Study Pattern | 
Not entered | 
 
| Keywords | power systems machines | 
 
 
Contacts 
| Course organiser | Dr Sasa Djokic 
Tel: (0131 6)50 5595 
Email:  | 
Course secretary | Mrs Laura Smith 
Tel: (0131 6)50 5690 
Email:  | 
   
 
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© Copyright 2012 The University of Edinburgh -  6 March 2012 6:22 am 
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