Dr. Bruce Mork | Office Hours
Course Syllabus | Pre-Req Material | Text & References | Useful Web Links | Homework Cover Sheet | Final Grades
Guidelines | List of Term Projects
| Past Term Project Examples: Ex:1 Ex:2
JPA:1 JPA:2 | ATP Quick-Start
thru: Week 8 (updated as lectures
Schedule and Coverage (Subject to Change Depending on Learning Needs of Students):
Smart Grid Overview
L2 - Sep 4th
| Labor Day, no lecture.
Course prepration - Study course pre-req materials. Rate your skills.
Homework 1 - Due Mon Sep 9th, 1pm (collect in class).
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 10th)
K-Day, no lecture.
|| CKTS homework | Answrs - Due Wed Sep
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
XFMR Homework (Due 9am Mon Sep 23rd)
|| L7 -
L8 - Sep 18th
L9 - Sep 20th
| Three-Phase network analysis, per-phase,
per-unit, transformer basics.
LTCs, 3-winding transformers, Factory Tests, Binary SC Impedance, star equivalent. | xls example
More on 3-winding transformers, Followup on CKTS | Intro to Matlab Assignment (Due ~Oct 2nd, 5pm)
||L10 - Sep 23rd
L11 - Sep 25th
L12 - Sep 27th
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 Oct 9th 9am)
Synchronous Machines study problems ( Ch.3 Soln )
||SM - Notes
L13 - Sep 30th
L14 - Oct 2nd
L15 - Oct 4th
| Ch.3 - Synchronous Machines a-b-c -- d-q-0 analysis
of Dr. Bohmann guest lecture)
Synchronous Machines - d-q circuit analysis | Capability Curves
Synch Machine Wrapup - physical construction, more on d-q
Synch Machines recap: Over- vs. Underexcited, control via Ea and δ, Cap Curves, Faults.
L17 - Oct 9th
Oct 7, 2016
L18 - Oct 11th
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 )
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.
In-Class Guest Lecture: Quick Start to Simulink - Dr. Jeff Burl
Inductance for 3-phase systems of conductors using Line Constants of ATPDraw
Use of Line Constants (from EMTP, Aspen, CAPE, etc) | TLIN Homework - Due Oct 21st 9am
7 - Ch. 6
L20 - Oct 16th
L21 - Oct 18th
| By end
of week: Submit formal outline
of project with key references.
Capacitance, Double-circuit lines, Zero Sequence Coupling (Ch.6 Soln )
Line Charging Current, Oct 28th, 9am: TLIN2 Hmwk (all problems + supplemental prob)
Transmission Lines as a two-port network, ABCD parameters, etc.
ATP Tutorial Video
(skip first 5:30)
L23 - Oct 23rd
L24 - Oct 25th
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
|| 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 )
Term Project - Submit detailed outline and nearly-complete reference list by end of week.
L28 - Nov 4th
L29 - Nov 6th
L30 - Nov 8th
Fault Calculation using [Z],
Current contributions using [Y].
X/R Ratio, Circuit Breaker Ratings, Practical [Ybus] method for SC calculation.
Practical [Ybus] and Z[bus] methods for SC calculation. ( Ch.10 Soln ) ( Ch.11 Soln )
Wrapup on balanced 3-ph fault calcs, circuit breaker ratings, fuses.
Sequence Networks, unsymmetrical faults ( Short Circuit Exercises ) Due Mon Nov 11th, 9am.
Intro to Planning Studies ( Loadflow Exercises due 9am Nov 18th, extension possible, Dec 2nd latest), Contingencies ( Ch.14 Soln )
Calculation Methods for Fault Studies (Dr. Bohmann video lecture is also in Modules area of Canvas)
Term Project - Journal paper outline (and begin analysis) by Mon Nov 11th.
L31 - Nov 11th
L32 - Nov 13th
L33 - Nov 15th
| Intro to Loadflow, see also "NR Details"
and 17-bus New Zealand case (Example Cases
Intro to Loadflow, Aspen software, : [ Sample 5-bus system | Ch.9 Soln
Wrapup on Loadflow - Remedial actions for planning study, Contingencies, Security.
|L34 - Nov 18th
L35 - Nov 20th
L36 -Nov 22nd
| Term Project
- By Mon Dec 9th (end of Week 13), submit
final draft of journal
Frequency control, droop, AGC, unit commitment ( Ch.13 Soln )
Generator Paralleling and other operational issues. Homework Syst_Op - due Dec 8th (ok til Dec 11th 9am).
Economic Dispatch - lossless; Intro to Dispatch - Hand Notes
Take-home Exam - 48 hrs in Dec 6th to Dec 11th time window
| Fall Break
|| Nov 25th - 29th
|| Thanksgiving Recess
- Enjoy. Come back refreshed and ready
L38 - Dec 4th
L39 - Dec 6th
| Economic Dispatch derivation and
Exercises - Due Dec 13th 5pm
Economic Dispatch, example of simplistic lossless case; Economic Dispatch including losses.
Economic Dispatch including losses. System Stability ( Ch.12 Soln )
Submit final Journal Paper Analysys and short .ppt presentation or "mini-lecture" by Fri Dec 6th.
L40 - Dec 9th
L41 - Dec 11th
L42 - Dec 13th
| ( Ch.16 Soln )
Full Set of Stability Notes
| Stability Exercises (not
collected) | Stability Exer Soln
System Stability, Swing Equation, Out-of-Step problem
Power System Protection (EE5223) - basic overview, building on EE5200.
Intro to State Estimation ( Ch.15 Soln ); Overview of Smart Grid Technologies.
Term Project - Final Report is due Mon Dec 16th; PowerPoint slides due 9am Tues Dec 17th.
|| Wed Dec 18th
||Term Project Presentations are on Wed Dec 18th, 12:45 pm, Rekhi G06. Attendance is mandatory.|
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 smart grid technologies, operational complexities imposed by deregulation of the power industry, lessons learned from major blackouts, NERC system security/reliability concerns, installation of distributed generation, 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):
Prerequisite Material, Useful References
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) Introduction to Transient Analysis: Short circuit waveforms, line energization and traveling wave (ATP, MatLab). System-Level Stability Analysis (MatLab, PSS/E) time permitting.
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 11:20) | 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 |