Because of their apparent and intrinsic advantages—including their high-power density and
high-rate capability, which result from their high surface areas, appropriate pore …

There is a great appeal to develop an omnipotent player combining lithium‐ion batteries
(LIBs) with the capacitive storage communities. Hybrid capacitors as a kind of promising …

Exploring a universal strategy to increase Li-ion storage capacity and ionic conductivity
while maintaining a robust crystal framework is a significant challenge for advancing …

Wadsley–Roth phased niobates are promising anode materials for lithium‐ion batteries,
while their inherently low electrical conductivity still limits their rate‐capability. Herein, a …

The development of anode materials with high-rate capability is critical to high-power lithium
batteries. T-Nb2O5 has been widely reported to exhibit pseudocapacitive behavior and fast …

Lithium-ion batteries are essential for portable technology and are now poised to disrupt a
century of combustion-based transportation. The electrification revolution could eliminate …

High‐rate anode material is the kernel of develo** fast‐charging lithium ion batteries
(LIBs). T–Nb2O5, well‐known for its “room and pillar” structure and bulk pseudocapacitive …

Wadsley–Roth crystallographic shear structure niobium‐based oxides are of great interest in
fast Li+ storage due to their unique 3D open tunnel structures that offer facile Li+ diffusion …

To rationalize and improve the performance of newly developed high-rate battery electrode
materials, it is crucial to understand the ion intercalation and degradation mechanisms …

Wadsley‐Roth niobium oxide phases have attracted extensive research interest recently as
promising battery anodes. We have synthesized the niobium‐molybdenum oxide shear …