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Power System Dynamic Analysis and Symmetrical Components Training

Power System Dynamic Analysis and Symmetrical Components Training

Power System Dynamic Analysis and Symmetrical Components Training:

Power System Dynamic Analysis and Symmetrical Components Training – Hands-on

The Power System Dynamic Analysis and Symmetrical Components Training course will help you to understand the basic concepts of complex power, per phase analysis, modeling of power system components, power flow analysis, fault analysis, and symmetrical components.

The power system dynamic analysis and symmetrical components training course simply teach you the definition of complex power, active and reactive power, and the fundamentals of the three phases balanced system. Moreover, taking this course will help you to understand the concept of per unit system, per phase analysis, and the difference between time domain analysis and phasor domain analysis.

Upon completion of the power system dynamic analysis and symmetrical components course, you will have sufficient knowledge to understand the main components of the power system including; generators, transmission lines, transformers, circuit breakers, disconnectors, and different types of loads in power systems. Moreover, design considerations for improving reliability and efficiency will be introduced with examples for voltage and frequency control. By taking this course, the audience will be introduced to the power flow analysis and dynamic models for the main components of the power system (such as generators, transformers, and transmission lines).

The audience will also learn about:

  • Per unit normalization
  • Conservation of complex power
  • Substations
  • Power electronic-based loads
  • Induction machines
  • Gauss and Newton-Raphson solutions for power flow
  • Stability in steady state, transient and dynamic
  • Auto-transformers
  • Different types of faults in power systems (SLG, DLG, LL)
  • Positive, negative, and zero sequence
  • Fault analysis models for generators, transformers, and lines.
  • Z-matrix in fault analysis
  • Short circuit ratio (SCR)
  • Weak AC system

Finally, the power system dynamic analysis and symmetrical components training course will introduce the concept of symmetrical components which is a vital part of fault analysis. Different sequences will be explained and you will learn to model the main components of the system under different types of faults.

What’s included

  • 2 days of Power System Dynamic Analysis and Symmetrical Components Training with an expert instructor
  • Power System Dynamic Analysis and Symmetrical Components Electronic Course Guide
  • Certificate of Completion
  • 100% Satisfaction Guarantee

Resources

Related Courses

Customize It:

  • If you are familiar with some aspects of Power System Dynamic Analysis and Symmetrical Components Training, we can omit or shorten their discussion.
  • We can adjust the emphasis placed on the various topics or build the Power System Dynamic Analysis and Symmetrical Components Training course around the mix of technologies of interest to you (including technologies other than those included in this outline).
  • If your background is nontechnical, we can exclude the more technical topics, include the topics that may be of special interest to you (e.g., as a manager or policy-maker), and present the Power System Dynamic Analysis and Symmetrical Components course in a manner understandable to lay audiences.

Audience / Target Group:

The target audience for this Power System Dynamic Analysis And Symmetrical Components Course is defined here:

  • All individuals who need to understand the power system dynamic analysis.
  • Power traders to understand the power system components.
  • Independent system operator personnel.
  • Faculty members from academic institutes who want to teach the power system analysis course.
  • Investors and contractors who plan to make investments in the power industry.
  • Designers who want to design a system consider all the aspects of stability.
  • Professionals in other energy industries.
  • Marketing people who need to know the background of the products they sell.
  • Electric utility personnel who recently started a career in power systems or have new job responsibilities.
  • Technicians, operators, and maintenance personnel who are or will be working at power plants or power system generation companies.
  • Managers, accountants, and executives of the power system industry.
  • Scientists or non-electrical engineers involved in power system-related projects or proposals.

Objectives:

Upon completing this Power System Dynamic Analysis And Symmetrical Components Course, learners will be able to meet these objectives:

  • Conduct the per phase analysis for power system components.
  • Understand the concept of time domain and phasors.
  • Differentiate different elements in power systems with their operation principle.
  • Understand the concept of unbalance in power systems.
  • Understand the transformer operation and modeling.
  • Analyze the generator and transmission lines models.
  • Recognize the stability criteria in power system analysis.
  • Explain the power flow analysis with various solution alternatives.
  • Understand different types of faults in power systems.
  • Analyze different fault types with their equivalent circuits.
  • Understand the concept of weak AC systems and SCR.
  • Explain the sequences in power systems.
  • Analyze unbalanced systems.
  • Solve for the fault currents based on different types of faults.

Course Syllabus:

The outline of power system dynamic analysis and symmetrical components training is mentioned in the following which can be revised and tailored to the client’s need:

Basic principles

  • Review of complex numbers.
  • Complex power.
  • Conservation of complex power
  • Balanced three-phase
  • Unbalanced three phase
  • Phasor and time domain
  • Per phase analysis
  • Per unit normalization
  • Change of base in per unit systems
  • Per unit analysis of normal system
  • Complex power transmission

Main Components of Power Systems

  • Generators
  • Transformers
  • Transmission lines
  • Substations (switchgear)
    • Circuit breakers
    • Disconnectors
  • Loads
  • Constant: Resistive, Inductive, Capacitive
  • Dynamic: Power electronic and electric vehicle charging
  • Induction Machines

System Design Considerations

  • Safety
  • Reliability
  • Flexibility
  • Voltage and frequency support

Power Flow Analysis

  • AC power flow
  • DC power flow
  • Solutions for power flow
    • Gauss iterations (Gauss-Seidel)
    • Newton-Raphson
    • Fast decoupled solution

Power System Modeling

  • Transmission line modeling
  • Waves in transmission lines
  • Simplified transmission line models
  • Power-handling capability of transmission lines
  • Transformer modeling
  • Single-phase transformers
  • Three phase transformers
  • Auto-transformers
  • Generator modeling
  • Circuit model
  • Instantaneous power output
  • Synchronous operation
  • Steady-state model
  • Simplified model
  • A generator connected to an infinite bus

Fault Analysis

  • Definition of faults
  • Main causes for faults
  • Lightning
  • Wire blowing due to wind
  • Animals
  • Pollution on insulators
  • Types of faults in transmission lines
  • Fault event sequence
  • Fault analysis in simple circuits
  • RMS fault current calculations
  • Superposition approach for analysis of fault
  • Common types of faults
  • Single line to ground (SLG)
  • Double line to ground (DLG)
  • Line to line (LL)
  • Short circuit ratio (SCR) in power systems
  • Weak AC power system

Symmetrical Components And Unbalanced Operation

  • Introduction to symmetrical components
  • Symmetrical components for fault analysis
  • Sequence network connections
  • Positive sequence
  • Negative Sequence
  • Zero sequence
  • Sequence network connections for different fault types
  • Single-line to ground
  • Double line to ground
  • Line to line
  • Power from sequence variables
  • Generator model in sequence networks
  • Transformer model in sequence networks
  • Transmission line model in sequence networks
  • Sequence model for the entire system
  • The z-matrix method in fault analysis
  • Calculation of Z-matrix

Wrap-up – Power System Dynamic Analysis And Symmetrical Components Training

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