Limitations in electrochemical performance as well as supply chain challenges have
rendered positive electrode materials a critical bottleneck for Li-ion batteries. State-of-the-art …

The diffusion pathways of Li‐ions as they traverse cathode structures in the course of
insertion reactions underpin many questions fundamental to the functionality of Li‐ion …

In many intercalation electrodes of Li-ion batteries, lithiation induces distortive structural
transformations with substantial implications for stress accumulation, capacity loss, and …

Increasing intercalation of Li-ions brings about distortive structural transformations in several
canonical intercalation hosts. Such phase transformations require the energy dissipative …

We use single-crystal-to-single-crystal transformations to directly image with sub-angstrom
resolution distortions of the host lattice, Li site occupancies, and diffusion pathways in a 2D …

The design of cathodes for intercalation batteries requires consideration of both atomistic
and electronic structure to facilitate redox at specific transition metal sites along with the …

The expanding toolbox of functionalization chemistries for selectively installing moieties on
specific sites of a substrate underpins almost all modern organic and biochemical …

The electrochemical energy storage systems based on Li-based insertion and reconstitution
chemistries are a vital component of future energy technologies. Development of high …

The atomistic design of positive electrode materials requires understanding of (1) how guest
cations diffuse through an intercalation host to fill empty interstices and (2) the distortions of …

Li+ transport in solid electrolyte interphase is recognized as important factor, which has
become a research hotspot. Recently, an one-step pore diffusion mechanism for Li+ …