Md Raisul Islam – författare

This book draws on the authors’ industry and academic expertise to explain the theory and practice of district cooling systems (DCS). The in-depth exploration of the design and development of DCS presents detailed best practices for their optimization in both the development and operation phases.

Readers will gain in-depth practical knowledge on all areas and considerations related to DCS technology''s best practices, including current practical research areas and future potential research areas. This book addresses five areas related to DCS: the fundamentals of DCS technology, design optimization for development purposes, real-time optimization for daily operations, techno-commercial decision-making framework, and industry best practice. This information is presented through analyses of technological progress to date; case studies of current operations; and in-depth discussions of the theoretical bases and commercial, technical, and environmental benefits. Through this book, readers can recognize and apply best practices for the design, development, and operation of an optimal DCS design based on multiple factors including financial analysis, energy efficiency considerations, and practical operation issues. This will enable them to contribute to national and international sustainable development goals regarding sustainable cities and climate action.

As this book provides both industry know-how and future research directions related to DCS, it is invaluable for DCS industry professionals and advanced undergraduate and postgraduate engineering students who aim to enter this industry and develop leading, highly efficient DCS systems. Overall, it is a vital resource for anyone involved in the planning, execution, and management of DCS projects.

This book draws on the authors’ industry and academic expertise to explain the theory and practice of district cooling systems (DCS). The in-depth exploration of the design and development of DCS presents detailed best practices for their optimization in both the development and operation phases.

Readers will gain in-depth practical knowledge on all areas and considerations related to DCS technology''s best practices, including current practical research areas and future potential research areas. This book addresses five areas related to DCS: the fundamentals of DCS technology, design optimization for development purposes, real-time optimization for daily operations, techno-commercial decision-making framework, and industry best practice. This information is presented through analyses of technological progress to date; case studies of current operations; and in-depth discussions of the theoretical bases and commercial, technical, and environmental benefits. Through this book, readers can recognize and apply best practices for the design, development, and operation of an optimal DCS design based on multiple factors including financial analysis, energy efficiency considerations, and practical operation issues. This will enable them to contribute to national and international sustainable development goals regarding sustainable cities and climate action.

As this book provides both industry know-how and future research directions related to DCS, it is invaluable for DCS industry professionals and advanced undergraduate and postgraduate engineering students who aim to enter this industry and develop leading, highly efficient DCS systems. Overall, it is a vital resource for anyone involved in the planning, execution, and management of DCS projects.

This book highlights key recent developments in air conditioning technologies for cooling and dehumidification with the specific objectives to improve energy efficiency and to minimize environmental impact. Today, air conditioning, comprising cooling and dehumidification, is a necessity in commercial and residential buildings and even in many industrial processes. This book provides key update on recent developments in air conditioning systems, cooling cycles and innovative cooling/dehumidification technologies. Key technologies related to cooling include heat-driven absorption and adsorption cooling and water-based dew point evaporative cooling. Technologies connected with dehumidification involve new generations of adsorbent–desiccant dehumidifiers, liquid-based desiccants and membranes that sieve out water vapor from air. Losses in cooling cycles and thermo-economic analysis for a sustainable economy are also judiciously documented.