Doctoral Thesis / Dissertation from the year 2014 in the subject Engineering - Power Engineering, grade: magna cum laude, Technical University of Munich (Institute for Energy Economy and Application Technology – Lehrstuhl für Energiewirtschaft und Anwendungstechnik), language: English, abstract: Abstract Within the scope of this dissertation, a model for synthesising the future development of EV power consumption is presented and incorporated in a European energy system model. Three allocation methodologies – the mix, delta and parallel market methods – are presented and allow a differentiated evaluation of selected sustainability criteria of EVs (well-to-wheel efficiencies, CO2 emissions and energy costs). These are compared to values of ICVs from 2015 to 2050 in 27 European countries. Results conclude that the sustainability advantages of EVs in Europe fully come to effect from 2025 onwards. Zusammenfassung Im Rahmen dieser Arbeit wird ein Modell für die Synthese des zukünftigen Stromverbrauchs von Elektrofahrzeugen vorgestellt und in einem europäischen Energiesystemmodell integriert. Drei Zuweisungsmethoden – die Mix-, Delta- und Parallelmarkt-Methode – ermöglichen eine differenzierte Bewertung von Elektrofahrzeugen (Primärenergieeffizienz, CO2-Emissionen und Energiekosten). Diese werden mit den Werten von konv. Kfz von 2015 bis 2050 in 27 europäischen Ländern verglichen. Die Ergebnisse zeigen, dass die Nachhaltigkeitsvorteile von Elektrofahrzeugen in Europa ab 2025 voll zum Tragen kommen.

Energy Transformation towards Sustainability explores how researchers, businesses and policymakers can explore and usefully improve energy systems and energy consumption behavior, both to reflect the reality of climate change and related environmental degradation and to adapt to the expanding periphery of renewable energy technologies. It introduces the reader to a suite of potential policy pathways to the necessary transformation in societal energy consumption, usage and behavior. Solutions discussed include energy efficiency, energy security, the role of political leadership, green public policy, and the transition to renewable energy sources. International contributions address the range and depth of current research from a position of advocacy for 'energy stewardship' as the driver of this transformation. Case studies illustrate the range of various countries to diminish energy use. Finally, policy avenues are covered in depth.

This book is a printed edition of the Special Issue "Selected Papers from SDEWES 2017: The 12th Conference on Sustainable Development of Energy, Water and Environment Systems" that was published in Energies

Electrifying Mobility: Realising a Sustainable Future for the Car considers the drivers, barriers to adoption and the current lived experience of electric vehicles, drawing upon this experience to inform planning for mass adoption and how regulation might change to reflect the specific needs and challenges raised.

This book is a selection of the most relevant contributions to the LCM 2011 conference in Berlin. The material explores scientific and practical solutions to incorporating life cycle approaches into strategic and operational decision making. There are several sections addressing methodological topics such as LCSM approaches, methods and tools, while more application-oriented sections deal with the implementation of these approaches in relevant industrial sectors including agriculture and food, packaging, energy, electronics and ICT, and mobility.

Green Sustainable Process for Chemical and Environmental Engineering and Science: Solid-State Energy Storage - A Path to Environmental Sustainability offers an in-depth analysis of the synthesis methods, manufacturing techniques and underlying mechanisms of ionic and electronic-ion transport in various single phase and multi-phase components for electric power storage, such as lithium and sodium ion batteries, sulfur batteries, and lithium-metal electrochemical systems. Though solid-state batteries are not yet available on the market, many large corporations and small companies pursue the goal of implementing this technology for numerous applications and its transfer to other markets. - Includes information regarding solid-state energy storage technology as key to a green and sustainable environment - Describes recent advances in the areas of solid-state ionics, electrochemistry, materials science and engineering, and sustainable energy - Introduces materials synthesis approaches, including chemicals in aqueous and organic solutions, mechanical ball-milling, and physical approaches, including ink-jet and physical vapor deposition - Provides electrochemical data and in-situ-operando approaches for the evaluation of solid-state battery performance