UPDATED
WEEK-BY-WEEK
Course Syllabus | Pre-Req Material | Text & References | Useful Web Links | Homework Cover Sheet | Grades to Date
Term
Project Guidelines | List of Term Projects
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Past Term
Project Examples: Ex:1 Ex:2 | ATP Quick-Start |
Updated
thru: Week 14
Schedule and Coverage (Subject to Change Depending on Learning Needs of
Students):
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Weekly Coverage
(Read Material Before Class) |
Lecture Date |
Material Coverage: |
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L1 - Aug 31st L2 - Sep 2nd L3 - Sep 4th |
Course
prepration - Study
course pre-req materials. Rate your skills. Proper Use of "Closed" Voltage Phasor Diagrams for Graphical Analysis Basic Phasor Analsis Concepts, Practice Problems, Intro to Matlab Solutions: Ch.1 Review Probs (Complete by Sep 4th) |
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Labor
Day, no lecture. CKTS
- Due Sep 15th, 5pm Mag Circuits Review Suggested Study Probs: 2.2, 2.4, 2.6, 2.8, 2.9, 2.14, 2.16, 2.17, 2.18, 2.21 (Ch.2 Soln ) Transformer connections (Delta, Y, auto, zig-zag), core structure (G&S Overview) IEEE/IEC Phase Shifts (std 30° , non-std), 3-Winding Transformers, Nameplate, Schematic K-Day, no lecture. XFMR Homework (Due 5pm Wed Sep 23rd) |
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L7 -
Sep 14th L8 - Sep 16th L9 - Sep 18th |
Three-Phase network analysis,
per-phase, per-unit, transformer
basics. Office Hr#1 LTCs, 3-winding transformers, Factory Tests, Binary SC Impedance, star equivalent. More on 3-winding transformers, Followup on CKTS exercises |
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L10 - Sep 21st L11 - Sep 23rd L12 - Sep 25th |
Transformers: PSs, paralleling, etc. Office Hr#2 Off-nominal turns ratio, paralleling, circuit analysis methods. Hand-written notes/examples Circuit analysis methods (cont'd); Ch.3 Sychronous Machines. SYNC Hmwk, P1 (Due Sep 30th 5pm) Synchronous Machines study problems ( Ch.3 Soln ) |
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L13 - Sep 28th L14 - Sep 30th L15 - Oct 2nd |
Ch.3 - Synchronous
Machines a-b-c -- d-q-0 analysis methods (Dr. Bohmann guest
lecture) Synchronous Machines - d-q circuit analysis Synch Machine Wrapup - physical construction, more on d-q Synch Machines recap: Over- vs. Underexcited, control via Ea and δ, Cap Curves, Faults. |
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L16 - Oct 5th L17 - Oct 7th L18 - Oct 9th |
Term
Project
Guidelines - Send short
e-mail
with Term
Project idea by end of Week 6. Transmission Lines, T-Line Configs, Overhead Conductors, Overview of RLC effects, pi-equivalent, etc. Suggested Probs: 4.2, 4.5, 4.6, 4.12, 4.13, 4.14, 4.15, 4.17, 4.18, 4.21, 4.22 ( Ch.4 Soln ) T-Lin Homework (due date: TBA) Suggested Probs: 5.2, 5.4, 5.6, 5.8, 5.9, 5.11 ( Ch.5 Soln ) Self-Inductance & Mutual Inductance recap; Series Impedance: Resistance, Self Ind, Mutual Ind. Inductance for 3-phase systems of conductors using Line Constants of ATPDraw Use of Line Constants (from EMTP, Aspen, CAPE, etc) |
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7 - Ch. 6 |
L19 - Oct
12th L20 - Oct 13th L21 - Oct 16th |
By
end of week: Submit formal
outline of
project with key references. Capacitance, Transmission Lines as a two-port network, ABCD parameters, etc. (Ch.6 Soln ) Line Charging Current, Double-circuit lines, Zero Sequence Coupling Oct 28th, 5pm: TLIN2 Hmwk |
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§8.1, 8.2 ATP Quickstart ATP Tutorial Video |
L22 - Oct 19th L23 - Oct 21st L24 - Oct 23rd Trav Wave Notes |
ABCD parameters,
shunt and series compensation, Ferranti Rise, Voltage Regulation Transmission Line Performance Issues. Short-, medium-, and long-line models Long line behaviors, Zc, propagation constants, Ch.6 Recap, Adding lines, xmfrs, loads, into [Y] . ( Ch.7 Soln ) Traveling waves - ATP Video - Sample Case in ATP | Intro to Matlab Assignment |
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Admittance
Formulations
in
General, [Y] vs. [Z] considerations Switching lines and equipment in and out of system, off-nominal transformers Mutual Inductance of Double-Ckt Lines; network reduction (Kron method) Network Calculations with [Y] and [Z] ( Ch.8 Soln ) Fault Calculation using [Z], Current contributions using [Y]. X/R Ratio, Circuit Breaker Ratings, Practical [Ybus] method for SC calculation. Term Project - Submit detailed outline and nearly-complete reference list by end of week. |
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L28 - Nov 2nd L29 - Nov 4th L30 - Nov 6th |
Dr. Mork is at
Mipsycon Wed & Fri of this week.
Lectures on video as usual. Practical [Ybus] and Z[bus] methods for SC calculation. ( Ch.10 Soln ) ( Ch.11 Soln ) Calculation Methods for Fault Studies (Dr. Bohmann video lecture) Wrapup on balanced 3-ph fault calcs, circuit breaker ratings, fuses. Sequence Networks, unsymmetrical faults ( Short Circuit Exercises ) Due Wed Nov 11th, 5pm. |
L31 - Nov 9th L32 - Nov 11th L33 - Nov 13th |
Planning Studies (
Loadflow Exercises
due 9am Dec 2nd), Contingencies ( Ch.14
Soln ) Intro to Loadflow, see also "NR Details" and 17-bus New Zealand case (Example Cases below) Intro to Loadflow, Aspen software, : [ Sample 5-bus system | Ch.9 Soln Wrapup on Loadflow - Remedial actions for planning study, Contingencies, Security. Term Project - Journal paper outline (and begin analysis) by Fri Nov 13th. |
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Gen/Grid Operation Ch. 10,11,12 |
L34 - Nov 16th L35 - Nov 18th L36 -Nov 20th |
Frequency control, droop, AGC, unit
commitment ( Ch.13 Soln ) Generator Paralleling and other operational issues. Homework Syst_Op - due Dec 4th. Economic Dispatch - lossless; Intro to Dispatch - Hand Notes Term Project - By Friday Nov 20th, submit final draft of journal paper analysis and be prepared to present mini-lecture. |
| Fall Break | Nov 23rd - 27th | Thanksgiving Recess - Enjoy. Come back refreshed and ready |
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System Stability |
L37
- Nov 30th L38 - Dec 2nd L39 - Dec 4th |
Economic Dispatch derivation and
calculatioins. Dispatch Exercises - Due
Dec 11th Economic Dispatch, example of simplistic lossless case; Economic Dispatch including losses. Economic Dispatch including losses. System Stability ( Ch.12 Soln ) ( Ch.16 Soln ) Full Set of Stability Notes | Stability Exercises (not collected) | Stability Exer Soln |
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L40 - Dec 7th L41 - Dec 9th L42 - Dec 11th |
System Stability, Swing
Equation, Out-of-Step
problem Power System Transients - Basic Use of ATP program. Cap Bank Switching. Intro to State Estimation ( Ch.15 Soln ) Term Project - Final Report is due Fri Dec 11th. See instructions given in Lecture 41. |
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Dec 16th |
Term Project Presentations are 12:45-2:45pm Wed, EERC B45. |
EE 5200 is the lead-off graduate course in Electrical Power Systems. The main goal of the course is to quickly review and then advance the student's existing knowledge of power systems analysis. Emphasis is on foundation theories, advanced analysis methods, developing conceptual insights, and gaining experience with applicable software simulation and analysis packages. Although today's software is quite advanced, in order to properly apply the software and interpret the results we must have both a good analytical understanding and a practical/conceptual "big picture" understanding of how the system behaves and of all of the interactions between the equipment and components that make up the system. Power systems consist of hundreds or thousands of "buses" or nodes, and the network equations dealt with may have thousands of variables. New operational complexities imposed by deregulation of the power industry, recent major blackouts and system security/reliability concerns, installation of distributed generation, and application of FACTS and other state-of-the-art equipment has renewed the need for sound analysis, simulation, and design skills. This course provides the foundation for the remaining power area graduate courses. Computer simulation methods, formerly combined with this course, are now taught in EE5240 .
Topics typically covered in this 14-week course and the software used are as follows (textbook, instructor, and priorities may alter coverage):
Good habits in circuit analysis: double subscript notation, active/passive sign convention, visualization via phasor diagrams Three phase circuit calculations: source, transformers, transformer design/application, and loads - wye, delta, & zig-zag. Synchronous machines Transmission lines and cables. Advanced System Analysis, Operation, Design: Load Flow, Planning Studies, System Operation (Aspen) Load Flow, Planning Studies, System Operation (Aspen) State Estimation, System Operation, Frequency Control (MatLab, Matlab PowerSim) Symmetrical Components and Short-Circuit Analysis (Aspen) System-Level Stability Analysis (MatLab, PSS/E?) Introduction to Transient Analysis (ATP, MatLab), time permitting.
Prerequisite Material, Useful References
Euler's Identity - The foundation of phasor analysis, as well as hyperbolic functions (used for long transmission lines)
Basic Circuit Analysis, Thevenizing, Phasor Analysis, Impedance, P,Q,S, etc.: EE3120 pre-req practice problems | Solutions
Basic 3-Phase Phasor Analysis - Review problem from EE3120 Magnetic Circuits - quick review and introduction of how a transformer works
Mutual Inductance - concept handout from EE3120 (refer to Section 2.2 of your text)
Transformers 101 - Everything you wanted (or suddenly need to know) about transformers but were afraid to ask... Delta-Wye Transformer - detailed example with solution from EE3120 EE 4221 Pre-Req Course Description EE 4222 Pre-Req Course Description Pre-Req Review Videos with Notes (from 2003 Archives)
Basic Circuit Analysis, Phasors, Three Phase Phasors: Lect 1 (skip first 12 mins) | Lect 1 Notes Phasor Diagrams, Ideal Transformers, Nodal Analysis: Lect 2 (skip first 6:20) | Lect 2 Notes Nodal Analysis, 3-phase circuits, Deltas and Wyes, Per Unit System: Lect 3 (skip first 3 mins) | Lect 3 Notes
Active & Passive Sign Convention for power flow, Per Unit, Transformers, Symmetrical Components: Lect 4 (skip first 2 mins) | Lect 4 Notes
Transformers, Induced Voltage & Polarity Marks, Phase Shift: Lect 5 (skip 3:45 - 5:20) | Lect 5 Notes
Phase Shift in Transformers, Phasor Diagrams, Application of Symmetrical Components: Lect 6 (skip first 3 mins) | Lect 6 Notes ASPEN Software. Tutorial: Notes | Video Matlab Programming (fundamentals). Tutorials: [ Part 1 Notes | Part 1 Video ]; [ Part 2 Notes | Part 2 Video ]
Sample .m files from above tutorials: | for_ex.m | r2p.m | for_if_ex.m | while_ex.m | ft.m |