Whole Energy System Dynamics
Theory, modelling and policy
1st Edition
Published on 21. February 2017
Book
Paperback/Softback
224 pages
978-1-138-79990-5 (ISBN)
Description
In order to address the twenty-first-century challenges of decarbonisation, energy security and cost-effectiveness it is essential to understand whole energy systems and the interconnection and interaction between different components. An integrated language is therefore needed to assist energy policymakers and to help industrial stakeholders assess future energy systems and infrastructure and make realistic technical and economic decisions.
Whole Energy System Dynamics provides an interdisciplinary approach to whole energy systems; providing insights and understanding of it in the context of challenges, opportunities and solutions at different levels and time steps. It discusses approaches across disciplinary boundaries as well as existing issues within three main themes: theory, modelling and policy, and their interlinkage with geopolitics, markets and practice. Spataru argues that there is an urgent need for a whole energy system integration. This is necessary for effective analysis, design and control of the interactions and interdependencies involved in the technical, economic, regulatory and social dimensions of the energy system.
This book is essential reading for students interested in the area of energy systems, policy and modelling. It is also a valuable read for policymakers, professionals, researchers, academics, engineers and industrial stakeholders.
Whole Energy System Dynamics provides an interdisciplinary approach to whole energy systems; providing insights and understanding of it in the context of challenges, opportunities and solutions at different levels and time steps. It discusses approaches across disciplinary boundaries as well as existing issues within three main themes: theory, modelling and policy, and their interlinkage with geopolitics, markets and practice. Spataru argues that there is an urgent need for a whole energy system integration. This is necessary for effective analysis, design and control of the interactions and interdependencies involved in the technical, economic, regulatory and social dimensions of the energy system.
This book is essential reading for students interested in the area of energy systems, policy and modelling. It is also a valuable read for policymakers, professionals, researchers, academics, engineers and industrial stakeholders.
Reviews / Votes
"Whole Energy System Dynamics provides a genuine means of understanding the energy system by identifying three main pillars: the theory of interacting systems, the practice of modelling the whole energy system and the policy that steers its future evolution. The book rises to the challenge of integrating the numerous parts of today's energy systems while connecting the different disciplines and thus allowing for various perspectives on the complex systems we are all part of." - Andreas Koch, Group Manager Energy Planning and Geosimulation, EIFER I European Institute for Energy Research, Germany"This book comes at a time when there is an urgent need to have a complete rethink of our future energy options. It cuts through the ingrained perceptions hindering our move from fossil fuel to sustainable forms of energy. This book, which integrates theory, practical perspectives, modelling and policy aspects and links traditional engineering ways with the very latest developments, will be a beacon in our quest for a secure and sustainable energy future." - Trevor Letcher, Emeritus Professor of Chemistry at the University of KwaZulu-Natal, Durban, South Africa and a Fellow of the Royal Society of Chemistry.
"This book is well written, hugely interesting and an excellent format for discussing new problems, particularly for people working on energy systems and policy. It provides profound analysis and understanding of the energy systems integration from theory, practice/modelling and policy perspectives as a whole. I enjoyed reading it." - Pierluigi Siano, Professor of Electrical Energy Engineering, Electrical Power Systems, University of Salerno, Italy
"The book is very timely as whole system energy modelling is one of the hottest research topics at the moment. Research funding agencies in many countries have recognized the need to research and model the energy system as the whole and provided ample funding to support it. This is a relatively new area of research and there are few books available on the subject. This book therefore fills an important gap in the market by covering theory, practice and policy. It will be relevant not only for researchers but also for policy makers." - Janusz Bialek, FIEEE, Director of Skoltech Center for Energy Systems, Russia
More details
Language
English
Place of publication
London
United Kingdom
Publishing group
Taylor & Francis Ltd
Target group
College/higher education
Professional and scholarly
Illustrations
49 s/w Abbildungen, 33 s/w Zeichnungen, 16 s/w Tabellen
16 Tables, black and white; 33 Line drawings, black and white; 49 Illustrations, black and white
Dimensions
Height: 246 mm
Width: 174 mm
Thickness: 13 mm
Weight
446 gr
ISBN-13
978-1-138-79990-5 (9781138799905)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
Additional editions
E-Book
02/2017
Routledge
€59.49
Available for download
E-Book
02/2017
Routledge
€59.49
Available for download
Book
02/2017
1st Edition
Routledge
€238.09
Shipment within 10-20 days
Person
Catalina Spataru is a Lecturer in Energy Systems and Networks at UCL Energy Institute in London, UK, Course Director of MRes in Energy Demand Studies at UCL and Group Leader of Energy Space Time Group. Her expertise is in whole energy system dynamics, with great interest for regional interconnections (EU, West Africa, MENA countries, Latin America) and market integration, future energy development in emerging economies, reliability and security of future energy systems and with particular interest in the interaction of water-energy-land nexus to assess water scarcity problems in risky countries like Brazil, Jordan, Egypt.
She regularly delivers presentations in academic and professional circles, public engagement events and for the media, recently visited Princeton University and MIT (USA), spoke at Cheltenham Science Festival and was interviewed by the Sunday Telegraph. Currently she teaches Smart Energy Systems for MSc EDE students at UCL, a multidisciplinary module that she proposed and developed in 2013. This multidisciplinary module provides students with an understanding of the methods, concepts and practice of whole energy systems, offering a combination of theory, modelling interactive exercises and case studies. Also she teaches Communication Skills to MRes EDS students and Metrics, Modeling and Visualisation of the Resource Nexus module for the ISR MSc sustainable resources programme. She supervises MSc, MRes and PhD students. She is the regional representative of the IEEE Women in Power (Region 8 - Europe).
She regularly delivers presentations in academic and professional circles, public engagement events and for the media, recently visited Princeton University and MIT (USA), spoke at Cheltenham Science Festival and was interviewed by the Sunday Telegraph. Currently she teaches Smart Energy Systems for MSc EDE students at UCL, a multidisciplinary module that she proposed and developed in 2013. This multidisciplinary module provides students with an understanding of the methods, concepts and practice of whole energy systems, offering a combination of theory, modelling interactive exercises and case studies. Also she teaches Communication Skills to MRes EDS students and Metrics, Modeling and Visualisation of the Resource Nexus module for the ISR MSc sustainable resources programme. She supervises MSc, MRes and PhD students. She is the regional representative of the IEEE Women in Power (Region 8 - Europe).
Content
Part I Theory and History
1. Global Energy Systems - A Historical Perspective
2. Scales and Systems Interactions at All Scales across Multiple Energy Domains
3. Whole Energy Systems Components
4. Brief Overview of Energy Systems Models and Methodologies
5. Discrepancies in Energy System Models: Actual vs. Forecast
6. Drivers and Challenges for Energy Systems Modelling for 20th Century and of Future WES Integration
7. Worldwide Conversation about Energy Systems Integration
Part II Modelling - Challenges and Discussions
8. Why do Mathematical Modelling?
9. Indicators and Their Role in Models
10. Research Challenges
11. Performance of Multi-Scale Energy Systems
12. Problems/Gaps/Research Questions and Issues
Part III Energy Policy, Markets and Geopolitics
13. Energy Policies - What Our Past Teaches Us
14. Measures, Practices, and Tools - Utilizing Best Practices to Reduce Air Pollution and Carbon Footprint World Wide
15. Energy Policy Simulators & Modelling Approaches
16. Energy Policy Simulators & Energy Modelling Approaches
17. Policy Instruments
18. Energy Resource Use and Geopolitics of Trade
1. Global Energy Systems - A Historical Perspective
2. Scales and Systems Interactions at All Scales across Multiple Energy Domains
3. Whole Energy Systems Components
4. Brief Overview of Energy Systems Models and Methodologies
5. Discrepancies in Energy System Models: Actual vs. Forecast
6. Drivers and Challenges for Energy Systems Modelling for 20th Century and of Future WES Integration
7. Worldwide Conversation about Energy Systems Integration
Part II Modelling - Challenges and Discussions
8. Why do Mathematical Modelling?
9. Indicators and Their Role in Models
10. Research Challenges
11. Performance of Multi-Scale Energy Systems
12. Problems/Gaps/Research Questions and Issues
Part III Energy Policy, Markets and Geopolitics
13. Energy Policies - What Our Past Teaches Us
14. Measures, Practices, and Tools - Utilizing Best Practices to Reduce Air Pollution and Carbon Footprint World Wide
15. Energy Policy Simulators & Modelling Approaches
16. Energy Policy Simulators & Energy Modelling Approaches
17. Policy Instruments
18. Energy Resource Use and Geopolitics of Trade