Energy is everywhere: the sun shines, the rivers flow, and the fossil fuels wait under our feet. The challenge lies in delivering this energy at the right time, place, and form. This is why energy storage and conversion are the focus of such huge scientific and technological research efforts. This volume explains the importance of porous materials in energy applications. Open any electrochemical energy power device, and you will find a porous electrode. Porous materials are central to energy conversion applications, giving a high specific surface area within a limited device volume. Yet pores can also slow down the electronic conductivity through the solid matrix, creating unique challenges (and opportunities!) for designing the flow of fuels, electrolytes, and gases. Overall, this volume provides an up-to-date overview of the field, with solid theoretical foundations and a strong focus on practical materials that will be useful for many people working on materials for energy applications.
Contents:
- Modeling Nanoporous Materials for the Next Generation of Supercapacitors (Cheng Lian, Kun Liu, Yun Tian, David J Wesolowski and Jianzhong Wu)
- Fuel Cells and Electrolyzers: Nanoporous Materials for Electrocatalysis (Tao Zhang and Tewodros Asefa)
- Batteries: The Effect of Porosity (Andreas Stein)
- Subsurface Energy: Flow and Reactive-Transport in Porous and Fractured Media (M K Mudunuru, J W Carey, L Chen, Q Kang, S Karra, V V Vesselinov, R S Middleton, P A Johnson and H S Viswanathan)
Readership: This comprehensive reference work is most suitable for university libraries as well as technical institutes, industrial R&D departments and national and key laboratories. It is written for researchers, graduate students and engineers working in materials science, the energy transition, chemistry and chemical engineering. An up-to-date reference as well as a roadmap of the latest characterisation methods and applications of porous materials, it is useful for professionals in both academia and industry.
David Eisenberg is an Assistant Professor at the Schulich Faculty of Chemistry, Technion — Israel Institute of Technology. His research is at the interface between electrocatalysis and materials chemistry. In his quest to understand the formation of complex materials, and how their structure is linked with their activity, he studies porosity engineering in carbons, multi-doping in composite materials, and various electrocatalytic reactions in the oxygen- and nitrogen-cycles. Before joining the Technion, Eisenberg completed a PhD at the Hebrew University of Jerusalem, lead a research team at the Advanced Materials department of an Israeli National Lab, and pursued Post-doctoral research as a Fulbright Fellow in the USA and in the Netherlands. At the Technion, he teaches courses on inorganic chemistry, electrochemistry and analytical chemistry, having received several teaching awards. Eisenberg enjoys taking his group on outreach activities, studying alone and with friends, and spending time with his family. For more information see www.david-eisenberg.com.