Talks
Plenary lectures will be offered by, in alphabetical order :
Bucci
,
G., Palo Alto Research Center :
"Chemo-mechanics and microstructural design of solid-state batteries"
Canepa
, P., NUSingapore :
“Millisecond Ion-Transport in Solid Electrolytes”
Ciucci
, F., HKUST, Hong Kong :
"Modeling the Defect Chemistry, Transport Properties, and Stability of Anti-perovskite Materials."
Danilov
, D., Technical University of Eindhoven :
“Mathematical modeling as an approach to the investigation of electrochemical storage”
Deshpande
, V., University of Cambridge :
“Failure mechanisms in solid electrolyte Li-ion cells: from void growth in anodes to cracking of electrolytes”
Di Leo
, C., GeorgiaTech :
“Continuum gradient theories for diffusion-reaction-deformation in solids: Application to conversion electrodes and Li filament growth.“
Figgemeier
, E., RWTH Aachen :
“Mechanical Aspects of Ageing in Lithium-Ion Batteries Probed by Computer Tomography and Optical Means”
Franco
, A., Université de Picardie Jules Verne :
“Digitalization of Battery Manufacturing using Multiscale Modeling and Machine Learning”
Guo
, K., A*STAR Singapore :
"Interfacial Degradation Mechanisms in Thin Film Electrodes"
Kamlah
, M., Karlsruhe Institute of Technology :
“Interaction of diffusion and transport with mechanics in active materials and electrodes for electrochemical energy storage”
Knobbe
, E., BMW :
“Challenges to simulate interaction of mechanics and electro-chemistry in battery cells – perspective of a cell developer.”
Krewer
, U., KIT :
“Model-based insight into Li-ion batteries – from cradle to grave”
Kwade
, A., TU Braunschweig :
"Modelling processing and resulting mechanical and transport properties of lithium ion battery electrodes using DEM"
Latz
, A., University of Ulm :
"Impact of structure and chemo – mechanical coupling on degradation in Lithium-Ion batteries”
Martinez-Paneda
, E., Imperial College :
“A phase field electro-chemo-mechanical model for predicting void evolution at the Li-electrolyte interface in all-solid-state batteries”
McDowell
, M., GeorgiaTech :
“Operando Experiments for Understanding the Chemo-Mechanics of Solid-State Batteries”
McMeeking
, R., University of California, Santa Barbara :
"Models for storage particle delamination and electrolyte cracking in cathodes of solid state batteries"
Monroe
, C., University of Oxford :
TBA
Oancea
, V., Dassault Systemes :
“Challenges to simulate interaction of mechanics and electro-chemistry in battery cells – perspective of a software developer.”
Pannala,
S., Sabic :
“How multiscale modeling of Lithium Ion Batteries for Safety and Performance helped to redesign a cell to achieve dense and safe battery packs?”
Perego,
O.
,
RSE,
“Lombardy Energy Cleantech Cluster support to the innovation and competitiveness of regional battery sector”
Qi
, Y., Brown University :
"When electrons meet ions, multiscale modeling of interfaces in Li-ion Batteries"
Runesson
, K., Chalmers University of Technology :
“Aspects on the computational modeling of structural batteries”
Salvadori
, A., University of Brescia :
“Recent advances in modeling and simulations of gel polymer and ceramic electrolytes"
Schmidt,
V., Universitaet Ulm :
"Stochastic microstructure modeling of battery electrode materials based on 3D image data - a prerequisite for virtual materials testing"
Siegel
, D., UT Austin :
“Chemo-mechanical phenomena of relevance for solid state batteries: an atomic scale perspective”
Sheldon
, B., Brown University :
“Chemo-mechanical phenomena in solid electrolytes”
Shearing
, P., UCL :
“Multi-scale imaging and modelling of coupled phenomena in battery materials and devices”
Smith
, K., NREL :
“Frontiers in Simulation of Battery Chemo-Mechanical Physics and Degradation”
Vegge
, T.,Technical University of Denmark : "
ML-accelerated simulations of solid-electrolyte interfaces in electrochemical systems"
Xu
, B., TU Darmstadt :
“Chemo-mechanical damage modeling and simulation of solid-state Li-ion battery materials”
Wall
, W., Technical University of Munich :
“Electro-chemo-thermo-mechanical modeling of all solid-state batteries with a focus on interfaces, uncertainties and inverse analysis”