Economic Dispatch & Grid Stability Constraints in Power System

Course Code: EEC 1033

357 Course Visits

Course Sector:

Electrical Engineering

Request in house training Call Me Back

Course Dates and Locations

Choose a date and location to book your seat

No.

Date

Days

Location

Fees

Enrollment

18 - 22 Aug 2025

5 Days

Dubai, UAE

$4,250

01 - 05 Dec 2025

5 Days

Dubai, UAE

$4,250

Introduction

Training course introducion / brief

Power System Stability denotes the ability of an Electric Power System, for a given initial operating condition, to regain a state of Operating Equilibrium after being subjected to a physical disturbance, with most system variables bounded so that system integrity is preserved. Integrity of the system is preserved when practically the entire Power System remains intact with no tripping of Generators or Loads, except for those disconnected by isolation of the faulted elements or intentionally tripped to preserve the continuity of Operation of the rest of the System. Stability is a condition of equilibrium between opposing forces; instability results when a disturbance leads to a sustain imbalance between the opposing forces.

Because of the high dimensionality and complexity of Stability Problems, it is essential to make simplifying assumptions and to analyze specific types of Problems using the right degree of detail of System Representation. The Power System is a highly nonlinear system that operates in a constantly changing environment; loads, generator outputs, topology, and key operating parameters change continually. When subjected to a transient disturbance, the stability of the system depends on the nature of the disturbance as well as the initial operating condition.

This course will assist power system professionals in planning for tomorrow’s dispatch as well as dispatching the generating units in the intraday. The economic dispatch under system constraints represents the building bloc in the operation and planning of the power system. The mechanism of the adaptation of the economic dispatch in a deregulated market environment is also discussed. The Optimal Power Flow module is an intelligent load flow that employs techniques to automatically adjust the power system control settings while simultaneously solving the load flows and optimizing operating conditions within specific constraints. The real time Optimal Power Flow is been discussed.

Understand Power System Stability Problems and their Classification.
Understand Modeling requirements of Power System Equipment for Different Studies.
Understand causes of Instability and Methods of Analysis and Enhancement of different Power System Small and Large disturbance Rotor Angle Stability phenomena.
Understand different methods and Techniques of Power System Stability Controls and their Limitations.
Use computer packages for Analysis of Power System Stability Problems.
Understand the Practical Implications of Team Dynamics

Circuits Engineer
Design Engineer
Electrical Controls Engineer
Electrical Design Engineer
Electrical Engineer
Electrical Project Engineer
Electronics-research engineer
Instrumentation and Electrical (I&E) Reliability Engineer
Power Systems Engineer
Project Engineer
Test Engineer
illuminating engineer
Technician, semiconductor development
Power-distribution engineer
Controls design engineer

Module (01) Bulk Electricity System

1.1 Power Electronic Technologies with Self-commutated Converters
1.2 Operational Constraints in a Deregulated Market Environment

Module (02) Generation System w/ Renewable Sources

2.1 Generator Limits
2.2 Solar
2.3 Wind

Module (03) Transmission System

3.1 Transmission Constraints
3.2 Transmission Loses

Module (04) Optimization Techniques

4.1 System Lambda
4.2 Utilization of Resources
Module (05) Energy Management System
5.1 Economic Dispatch
5.2 Load Frequency Control
5.3 Automated Generation Control
5.4 Generator Offers into Market
5.6 Economic Dispatch in Energy Policy Act of 200

Module (06) Optimal Power Flow

6.1 Active Power Optimization
6.2 Reactive Power Optimization
6.3 Optimal Generation Dispatch
6.4 Minimize Active and Reactive Power Losses
6.5 Generation Controls
6.6 Reactive Power Generation
6.7 Generator Voltage Controls
6.8 Capacitor Bank/SVC Controls

Module (07) Real Time Optimal Power Flow

7.1 Minimize System Real & Reactive Power Losses
7.2 Minimize Generation Fuel Costs
7.3 Minimize System Energy Costs

Module (08) Flexible Operation

8.1 Comprehensive Objectives & Constraints
8.2 Increase System Efficiencies
8.3 Reduce Operating Costs
8.4 Improve Electrical System Performance
8.5 Increase Reliability
8.6 Strengthen Security
8.7 Short-Term & Long-Term Planning

Module (09) Concepts of System Reliability

9.1 Reliability Criteria
9.2 Generation Reserve Margin
9.3 Loss of Load Probability

Module (10) Introduction to Power System Stability

10.1 Definition and Classification or P.S Stability
10.2 Brief Description of each category of System Stability
10.3 Challenges to secure Operation of Present day P.S

Module (11) Equipment Characteristics and Modelling

11.1 Synchronous Machines
11.2 Excitation Systems
11.3 Prime Movers and Governing System
11.4 AC Transmission
11.5 Power System Loads

Module (12) Transient (Angle) Stability

12.1 An Elementary View of the Transient Stability Problem
12.2 Simulation of Power System Dynamic Response
12.3 Performance of Protective Relaying
12.4 Case Studies
12.5 Transient Stability Enhancement
12.6 Examples of Major System Blackouts due to Transient

Module (13) Small-Signal (Angle) Stability

13.1 Description of Small-Signal Stability (SSS) Problems
13.2 Methods of Analysis, Model Analysis Approach
13.3 Case Studies
13.4 SSS Enactment

Module (14) Voltage Stability

14.1 Description of the Phenomenon
14.2 Classification : Short-Term, Long-Term V. Stability
14.3 Typical Scenarios of Short-Term, Long-Term V. Stability
14.4 Methods of Analysis
14.5 Prevention of Voltage Instability
14.6 Case Studies
14.7 Major System Disturbances due to Voltage Instability

Module (15) Frequency Stability

15.1 Nature and Description of Frequency Stability Problems
15.2 System Disturbances caused by Frequency Instability
15.3 Analysis of frequency Stability Problems
15.4 Mitigation of frequency Stability Problems
15.5 Case Studies

Boost certificate of completion

BOOST's Professional Attendance Certificate “BPAC” is always given to the delegates after completing the training course, and depends on their attendance of the program at a rate of no less than 80%, besides their active participation and engagement during the program sessions.

ENDORSED EDUCATION PROVIDER

Flexible deadlines

Customized dates accordance to your schedule

Shareable Certificate

Earn certificate upon completion

COURSE METHODOLOGY

Our Training programs are implemented by combining the participants' academic knowledge and practical practice (30% theoretical / 70% practical activities).

At The end of the training program, Participants are involved in practical workshop to show their skills in applying what they were trained for. A detailed report is submitted to each participant and the training department in the organization on the results of the participant's performance and the return on training. Our programs focus on exercises, case studies, and individual and group presentations.

Download Company profile

Download Calendar

Trending Courses

The most bespoke and flexible training courses

Open courses table

May

- 05 -
Days

Professional in Business Analysis (PMI-PBA Exam Preparation)

Jeddah, KSA

TRAINING COURSE: Economic Dispatch & Grid Stability Constraints in Power System