Power System Analysis - Oxford University Press

About the Book 

Power System Analysis aims at providing a comprehensive coverage of the 
curricula and will serve as a very useful textbook for electrical engineering students 
at the undergraduate level. The book provides a thorough understanding of the 
basic principles and techniques of power system analysis. Beginning with basic 
concepts, the book gives an exhaustive coverage of transmission line parameters, 
symmetrical and unsymmetrical fault analyses, power flow studies, power system 
control, and stability analysis. With the inclusion of some advanced topics such 
as state estimation, stability analysis, contingency analysis, and an introduction to 
HVDC and FACTS, it would also serve the requirements of teachers and students 
alike at the postgraduate level

Content and Coverage

The book comprises 15 chapters and three appendices. Each chapter in this book
commences with an overview, which briefly outlines the topics covered in the
chapter, and ends with numerous unsolved problems which help the readers to
assess their comprehension of the subject
 matter studied in the chapter.

Chapter 1 in addition to tracing the history of the growth of the power sector
outlines its structure and its present state. Statistical data is included to
provide a perspective of the Indian power sector and its future plans for
meeting the load demand and making it more energy efficient. The concept
of deregulation of the power industry is also covered.

Chapter 2 covers the representation of power system elements suitable for
circuit analysis. A review of phasor notation, phase shift operator for threephase systems, and the power in single-phase and three-phase circuits is presented. It describes per unit representation of power systems and its
advantages in power system analysis.

Chapters 3 and 4 deal with the parameters of transmission lines and steady-state
performance and analysis of transmission lines, respectively. Chapter 3 outlines
the computation of the parameters of transmission lines. Chapter 4 covers
their simulation as short, medium, and long lines. Power handling capability
and reactive line compensation of lines are discussed. The phenomenon of
travelling waves on transmission lines is also included in the chapter.

Chapter 5 covers the representation of synchronous machines, transformers,
and loads in the steady state and transient analysis.

Chapter 6 introduces graph theory along with the commonly employed
terminology in the formulation of network matrices. Since network matrices
form the basis of power system analyses, the chapter comprehensively
covers the formulation of bus admittance and bus impedance matrices of a
power system network. The chapter also includes the formulation of nodal
equations, both in the admittance and impedance frames of reference, and
their solutions by direct and indirect methods. Sparsity techniques for storing
non-zero elements, network reduction, and optimal numbering schemes are
also covered in the chapter.

Chapter 7 on power flow studies of integrated power systems, under normal
operating conditions, provides a detailed description of the formulation
of power flow equations. Solutions of these power flow equations by the
well-accepted Gauss, Gauss-Seidel, and Newton-Raphson methods have
been presented in detail in this chapter. Fast decoupled method for solution
of power flow problems suitable for online studies has also been presented.

Chapter 8 deals with the maintenance of active power balance and control
of voltage magnitude and power frequency, within specified limits, when
a system is operating in the steady state. Beginning with the basic control
loop in a generator, the automatic voltage control (AVC) and load frequency
control (LFC) loops are described and their steady-state and dynamic
performances are outlined in detail. The LFC of a single control area is first
discussed and then extended to a two-area control system. Tie-line bias
control and its application to a two-area control system are also presented
in detail. 

Power System Analysis - Oxford University Press

Power System Analysis, published by Oxford University Press, is a foundational text in the field of electrical engineering, providing an in-depth understanding of the principles, methodologies, and tools required for the analysis of power systems. It is widely used by students, educators, and professionals to gain insights into the operation, control, and optimization of modern power systems.


Key Features of the Book

  1. Comprehensive Coverage

    • The book covers a wide range of topics, including power flow analysis, fault analysis, stability studies, and economic operation of power systems.
  2. Theoretical and Practical Balance

    • Provides rigorous theoretical foundations while also addressing practical challenges encountered in power system analysis.
  3. Focus on Modern Challenges

    • Discusses contemporary issues such as renewable energy integration, distributed generation, and smart grid technologies.
  4. Pedagogical Approach

    • Includes solved examples, detailed illustrations, and exercises to reinforce learning.
  5. Use of Computational Tools

    • Explores numerical methods and software tools (e.g., MATLAB, PowerWorld) for analyzing complex power systems.

Core Topics Covered

1. Introduction to Power Systems

  • Overview of power generation, transmission, and distribution.
  • Components of power systems, including generators, transformers, and transmission lines.

2. Power Flow Analysis

  • Methods for determining the steady-state operation of a power system.
  • Algorithms such as Gauss-Seidel, Newton-Raphson, and Fast Decoupled Load Flow.

3. Fault Analysis

  • Techniques for analyzing symmetrical and unsymmetrical faults (e.g., line-to-ground, line-to-line).
  • Use of sequence networks and fault current calculations.

4. Power System Stability

  • Study of small-signal and transient stability.
  • Methods to ensure system stability under varying operating conditions.

5. Economic Operation of Power Systems

  • Optimization of power generation to minimize costs while meeting demand.
  • Economic dispatch and unit commitment methods.

6. Reactive Power and Voltage Control

  • Role of reactive power in maintaining voltage stability.
  • Devices and techniques for reactive power compensation.

7. Protection Systems

  • Design of protection schemes to isolate faults and ensure system reliability.
  • Relay coordination and fault detection.

8. Renewable Energy Integration

  • Impact of solar, wind, and other renewable sources on power systems.
  • Grid integration challenges and solutions.

9. Smart Grids and Advanced Technologies

  • Emerging trends in power systems, including smart grids, microgrids, and energy storage systems.

Why Choose "Power System Analysis" by Oxford University Press?

  1. Authored by Experts:

    • Written by leading academics and professionals with extensive experience in power systems.
  2. Widely Respected:

    • Recognized as a standard reference in universities and industries worldwide.
  3. Clear Explanations:

    • Presents complex concepts in an accessible and understandable manner.
  4. Real-World Applications:

    • Incorporates case studies and examples from actual power system operations.
  5. Comprehensive Learning Resource:

    • Suitable for undergraduate and graduate courses, as well as professional development.

Applications of the Book

  1. Academic Curriculum:

    • Used as a primary textbook for courses in power system analysis and electrical engineering.
  2. Professional Reference:

    • Serves as a valuable resource for engineers working in utilities, consultancy, and manufacturing.
  3. Research and Development:

    • Provides foundational knowledge for advanced research in power systems and renewable energy integration.
  4. Preparation for Competitive Exams:

    • Useful for students preparing for exams like GATE, ESE, and other engineering certifications.

Conclusion

Power System Analysis by Oxford University Press is an indispensable guide for understanding the complexities of modern power systems. By blending theoretical concepts with practical insights, it equips readers with the tools and knowledge to analyze, design, and operate reliable and efficient power systems. Whether you are a student, educator, or practicing engineer, this book is a must-have for mastering power system analysis.


You have to wait 06 seconds.

Download Timer
Previous Post Next Post