Lithium-ion batteries (LiBs) are recognized as the most rapidly growing energy storage
technology. To improve the energy and power density of LiBs, tremendous progress has …

Strong coupling between the chemical composition and crystal lattice dimensions resulting
in the contraction or expansion of a material upon change of its chemical composition is …

Solid‐state batteries (SSBs) currently attract great attention as a potentially safe
electrochemical high‐energy storage concept. However, several issues still prevent SSBs …

Alloy anodes hold promise for enabling high-energy solid-state batteries, but their
substantial volume changes during charge/discharge can cause structural and mechanical …

Evolution of complex fracture patterns during electrochemical cycling for the polycrystalline
particulate cathode of lithium-ion batteries is found to be a primary reason towards capacity …

Damage and fracture can be induced not only by mechanical loading but also due to
chemical interactions within a solid. On one hand, species concentration may embrittle or …

Solid‐state batteries with lithium‐metal anodes have emerged as a promising alternative to
traditional lithium‐ion batteries thanks to their enhanced energy density and safety …

We formulate a thermodynamically-consistent electro-chemo-mechanical gradient theory
which couples electrochemical reactions with mechanical deformation and damage in …

We review a broad range of topics related to the interplay of electrochemistry and mechanics
in all solid-state batteries. The modeling frameworks that exist in the literature are varied in …

Copper sulfide shows some unique physico‐chemical properties that make it appealing as a
cathode active material (CAM) for solid‐state batteries (SSBs). The most peculiar feature of …