Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of Lithium in battery electrodes. Mechanical failure is responsible for poor cyclic behavior and quick fading of electrical performance, especially in energy storage materials for the next generation of Li-ion batteries. A multi scale modeling of the phenomena that lead to mechanical degradation and failure in electrodes is the concern of the present publication. The computational homogenization technique is tailored to model the multi physics events that coexist during batteries charging and discharging cycles. At the macroscale, diffusion–advection equations model the coupling between electrochemistry and mechanics in the whole cell. The mult...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction o...
Lithium-ion batteries are multiscale systems with processes occurring at different scales. We start ...
The behavior of battery cells is intrinsically multiscale, as the multiphysics phenomena involving d...
The performance and degradation of lithium batteries strongly depends on electrochemical, mechanical...
A microscopic model of a lithium battery is developed, which accounts for lithium diffusion within p...
\u3cp\u3eThis contribution describes a computational homogenization approach to model the multi-phys...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction of...
Very large mechanical stresses and huge volume changes emerge during intercalation and extraction o...
Lithium-ion batteries are multiscale systems with processes occurring at different scales. We start ...
The behavior of battery cells is intrinsically multiscale, as the multiphysics phenomena involving d...
The performance and degradation of lithium batteries strongly depends on electrochemical, mechanical...
A microscopic model of a lithium battery is developed, which accounts for lithium diffusion within p...
\u3cp\u3eThis contribution describes a computational homogenization approach to model the multi-phys...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...
This contribution describes a computational homogenization approach to model the multi-physics proce...