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Applying Algebraic Modelling Language Techniques To Integrated Power Systems

Robert Browning

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Published in Optimal Operation And Control Of Power Systems Using An Algebraic Modelling Language: Applying Algebraic Modelling Language Techniques To Integrated Power Systems (Green Energy And Technology)

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In the rapidly evolving landscape of energy systems, the need for efficient and reliable power system management has become paramount. Algebraic Modelling Language (AML) has emerged as a powerful tool for addressing this challenge, offering a systematic and comprehensive approach to optimizing integrated power systems.

Optimal Operation and Control of Power Systems Using an Algebraic Modelling Language: Applying Algebraic Modelling Language Techniques to Integrated Power ... Systems (Green Energy and Technology)

5 out of 5

Language	:	English
File size	:	42464 KB
Text-to-Speech	:	Enabled
Screen Reader	:	Supported
Enhanced typesetting	:	Enabled
Print length	:	354 pages

Chapter 1: to AML

This chapter provides a comprehensive overview of AML, its key features, and its applications in power systems. Readers will gain a solid understanding of AML's syntax, structure, and capabilities for modelling complex power system components and interactions.

Chapter 2: Power System Planning with AML

Chapter 2 focuses on the application of AML in power system planning. Readers will learn how to use AML to model and solve problems related to generation expansion, transmission network design, and distribution system planning. Case studies and examples illustrate the practical applications of AML in optimizing power system infrastructure.

Chapter 3: Power System Operation with AML

This chapter explores the use of AML in power system operation. Readers will gain insights into how AML can be used to model and optimize day-ahead and real-time power system operations, including load forecasting, unit commitment, and economic dispatch. Advanced topics such as voltage and frequency control are also covered.

Chapter 4: Power System Control with AML

Chapter 4 presents the application of AML in power system control. Readers will learn how to use AML to model and design controllers for various power system components, such as generators, transformers, and transmission lines. Case studies demonstrate the effectiveness of AML in enhancing power system stability and reliability.

Chapter 5: Integrated Power Systems with AML

This chapter tackles the challenges of integrating multiple energy sources and distributed generation into power systems. Readers will gain knowledge on how to use AML to model and optimize hybrid power systems, including renewable energy sources, microgrids, and energy storage systems.

Chapter 6: Smart Grids and AML

Chapter 6 focuses on the application of AML in smart grid technologies. Readers will explore how AML can be used to model and optimize smart grid components, such as demand response programs, energy storage systems, and advanced metering infrastructure. Case studies showcase the benefits of AML in enhancing smart grid efficiency and resilience.

Chapter 7: Case Studies and Applications

This chapter presents a compilation of real-world case studies and applications of AML in integrated power systems. Readers will gain practical insights into how AML has been successfully used to solve complex power system problems and improve system performance.

, this book provides a comprehensive guide to the application of Algebraic Modelling Language (AML) techniques to integrated power systems. With its detailed explanations, case studies, and hands-on examples, readers will gain the necessary knowledge and skills to harness the power of AML for optimizing power system planning, operation, and control.

Optimal Operation and Control of Power Systems Using an Algebraic Modelling Language: Applying Algebraic Modelling Language Techniques to Integrated Power ... Systems (Green Energy and Technology)

5 out of 5