Symposium FC
Electrochemical Energy Storage Systems: the Next Evolution
Programme Chair:
Arumugam MANTHIRAM, The University of Texas at Austin, USA
Members:
Palani BALAYA, National University of Singapore, Singapore
Peter G. BRUCE, University of St Andrews, Scotland
Fausto CROCE, University of Chieti, Italy
Claude DELMAS, ICMCB-CNRS, France
Bruce S. DUNN, University of California, Los Angeles, USA
Helmer FJELLVAG, University of Oslo, Norway
John GOODENOUGH, University of Texas at Austin, USA
Steve G. GREENBAUM, City University of New York, USA
Dominique GUYOMARD, Institut des Matériaux Jean Rouxel, France
Chi-Chang HU, National Tsing Hua University, Taiwan
M. Saiful ISLAM, University of Bath, UK
Jari KESKINEN, VTT Technical Research Centre of Finland, Finland
Sehee LEE, University of Colorado, USA
Jun LIU, Pacific Northwest National Lab., USA
Katsuhiko NAOI, Tokyo University of Agriculture & Technology, Japan
Linda NAZAR, University of Waterloo, Canada
Peter H.L. NOTTEN, Eindhoven University of Technology, Netherlands
Petr NOVAK, Paul Scherrer Institute, Switzerland
Zempachi OGUMI, Kyoto University, Japan
Shigeto OKADA, Kyushu University, Japan
Stefano PASSERINI, University of Münster, Germany
Emanuel PELED, Tel Aviv University, Israel
S.R.S. PRABAHARAN, VIT University, India
Patrice SIMON, Universitè Paul Sabatier, France
Marshall C. SMART, California Institute of Technology, USA
M. Stanley WHITTINGHAM, Binghamton University, USA
Margret WOHLFAHRT-MEHRENS, Zentr.f.Sonnenenergie- u.Wasserstoff-Forschung, Germany
She-Huang WU, Tatung University, Taiwan
Yu-Ping WU, Fudan University, China
Arumugam MANTHIRAM, The University of Texas at Austin, USA
Members:
Palani BALAYA, National University of Singapore, Singapore
Peter G. BRUCE, University of St Andrews, Scotland
Fausto CROCE, University of Chieti, Italy
Claude DELMAS, ICMCB-CNRS, France
Bruce S. DUNN, University of California, Los Angeles, USA
Helmer FJELLVAG, University of Oslo, Norway
John GOODENOUGH, University of Texas at Austin, USA
Steve G. GREENBAUM, City University of New York, USA
Dominique GUYOMARD, Institut des Matériaux Jean Rouxel, France
Chi-Chang HU, National Tsing Hua University, Taiwan
M. Saiful ISLAM, University of Bath, UK
Jari KESKINEN, VTT Technical Research Centre of Finland, Finland
Sehee LEE, University of Colorado, USA
Jun LIU, Pacific Northwest National Lab., USA
Katsuhiko NAOI, Tokyo University of Agriculture & Technology, Japan
Linda NAZAR, University of Waterloo, Canada
Peter H.L. NOTTEN, Eindhoven University of Technology, Netherlands
Petr NOVAK, Paul Scherrer Institute, Switzerland
Zempachi OGUMI, Kyoto University, Japan
Shigeto OKADA, Kyushu University, Japan
Stefano PASSERINI, University of Münster, Germany
Emanuel PELED, Tel Aviv University, Israel
S.R.S. PRABAHARAN, VIT University, India
Patrice SIMON, Universitè Paul Sabatier, France
Marshall C. SMART, California Institute of Technology, USA
M. Stanley WHITTINGHAM, Binghamton University, USA
Margret WOHLFAHRT-MEHRENS, Zentr.f.Sonnenenergie- u.Wasserstoff-Forschung, Germany
She-Huang WU, Tatung University, Taiwan
Yu-Ping WU, Fudan University, China
Palani BALAYA, National University of Singapore, Singapore
Philippe BARBOUX, University of Paris, France
Thierry BROUSSE, IMN/CNRS, France
George Zheng CHEN, University of Nottingham, UK
Claude DELMAS, ICMCB-CNRS, France
Mickael DOLLE, CEMES-CNRS, France
Bruce S. DUNN, University of California, Los Angeles, USA
Steve G. GREENBAUM, Hunter College at CUNY, USA
Dominique GUYOMARD, CNRS-IMN, France
Hideki IBA / Shinji NAKANISHI, Toyota Motor Corporation, Japan
Kwang-Bum KIM, Yonsei University, Korea
Maksym KOVALENKO, ETH Zurich, Switzerland
Stefano PASSERINI, University of Münster, Germany
Emanuel PELED, Tel Aviv University, Israel
S.R.S. PRABAHARAN, VIT University, India
Jeffrey SAKAMOTO, Michigan State University, USA
Mathieu SALANNE, Université Pierre et Marie Curie, France
Hsi-Sheng TENG, National Cheng Kung University, Taiwan
Marcel WEIL, Karlsruhe Institut of Technologie (KIT), Germany
Philippe BARBOUX, University of Paris, France
Thierry BROUSSE, IMN/CNRS, France
George Zheng CHEN, University of Nottingham, UK
Claude DELMAS, ICMCB-CNRS, France
Mickael DOLLE, CEMES-CNRS, France
Bruce S. DUNN, University of California, Los Angeles, USA
Steve G. GREENBAUM, Hunter College at CUNY, USA
Dominique GUYOMARD, CNRS-IMN, France
Hideki IBA / Shinji NAKANISHI, Toyota Motor Corporation, Japan
Kwang-Bum KIM, Yonsei University, Korea
Maksym KOVALENKO, ETH Zurich, Switzerland
Stefano PASSERINI, University of Münster, Germany
Emanuel PELED, Tel Aviv University, Israel
S.R.S. PRABAHARAN, VIT University, India
Jeffrey SAKAMOTO, Michigan State University, USA
Mathieu SALANNE, Université Pierre et Marie Curie, France
Hsi-Sheng TENG, National Cheng Kung University, Taiwan
Marcel WEIL, Karlsruhe Institut of Technologie (KIT), Germany
The potential of electrochemical energy storage in batteries and electrochemical supercapacitors and pseudocapacitors is enormous, ranging from low storage sizes for mobile electronics and other low-power applications to transportation and electric power sectors where storage sizes may be up to several megawatts. Electrochemical energy storage devices are also essential for the effective utilization and implementation of renewable resources such as solar and wind power.
Understanding, controlling, and predicting the structure and properties of solids and the synthesis of new materials with novel or enhanced properties have driven the energy storage field for the past three decades. Although the level of performance of current generation of storage devices is sufficient for a range of applications, novel intuitive concepts are needed for next-generation high-performing electrochemical energy storage systems at an affordable cost with improved safety to penetrate major new markets.
Design and synthesis of new electrode and electrolyte materials, advanced characterization methodologies including in situ techniques to understand at the atomic and nanoscale the surface, bulk, and interfacial characteristics, and computational analysis to predict materials behaviours and guide the design of new materials are among the main challenges for developing new next generation of high-performance materials.
The International Symposium “Electrochemical Energy Storage Systems: the Next Evolution” will emphasise breakthroughs in materials and energy storage systems for practical implementation. The Symposium will cover advances in electrode and electrolyte materials including new cell chemistries, novel electrode architectures, in situ and ex situ characterization, advanced computational methodologies, new cell configurations, and system development, along with addressing reliability, lifetime, cost, safety, and environmental issues for practical implementation.
Understanding, controlling, and predicting the structure and properties of solids and the synthesis of new materials with novel or enhanced properties have driven the energy storage field for the past three decades. Although the level of performance of current generation of storage devices is sufficient for a range of applications, novel intuitive concepts are needed for next-generation high-performing electrochemical energy storage systems at an affordable cost with improved safety to penetrate major new markets.
Design and synthesis of new electrode and electrolyte materials, advanced characterization methodologies including in situ techniques to understand at the atomic and nanoscale the surface, bulk, and interfacial characteristics, and computational analysis to predict materials behaviours and guide the design of new materials are among the main challenges for developing new next generation of high-performance materials.
The International Symposium “Electrochemical Energy Storage Systems: the Next Evolution” will emphasise breakthroughs in materials and energy storage systems for practical implementation. The Symposium will cover advances in electrode and electrolyte materials including new cell chemistries, novel electrode architectures, in situ and ex situ characterization, advanced computational methodologies, new cell configurations, and system development, along with addressing reliability, lifetime, cost, safety, and environmental issues for practical implementation.
Session Topics
FC-1 Batteries
- Anode materials
- Cathode materials
- Electrolytes
- New cell chemistries including Li-S, Li-air, Mg-ion, Na-ion, Al-ion, solid-state batteries, etc.
- Bulk, surface, and interfacial characterization
- Computational modeling
- Cell design
FC-2 Supercapacitors
- Supercapacitors
- Pseudocapacitors and hybrid devices
- Electrode materials
- Electrolytes
- Cell design