Porous spinel-type transition metal oxide (PS-TMO) nanocatalysts comprising two kinds of
metal (denoted as AxB3− xO4, where A, B= Co, Ni, Zn, Mn, Fe, V, Sm, Li, and Zn) have …

Alkaline exchange membrane fuel cells (AEMFCs), as an important clean energy conversion
technology, exhibit the possibility of employing complete platinum-group-metal-free …

Cobalt-based spinel oxides (ie, Co3O4) are emerging as low-cost and selective
electrocatalysts for the electrochemical nitrate reduction reaction (NO3–RR) to ammonia …

Due to the structural complexity and limited controllability of conventional microwave‐
absorption materials (MAMs), the precise regulation of atomically‐resolved structures and …

Fundamentally understanding the structure–property relationship is critical to design
advanced electrocatalysts for lithium‐sulfur (Li− S) batteries, which remains a formidable …

Promoting the electron occupancy of active sites to unity is an effective method to enhance
the oxygen evolution reaction (OER) performance of spinel oxides, but it remains a great …

Multimetallic alloys have demonstrated promising performance for the application of metal-
air batteries, while it remains a challenge to design multimetallic single-atom catalysts (MM …

While certain ternary spinel oxides have been well-explored with colloidal nanochemistry,
notably the ferrite spinel family, ternary manganese (Mn)-based spinel oxides have not been …

The reconstructed surface structure of Co‐based spinel oxides serves as the active site for
oxygen evolution reaction (OER). However, the structural complexity of spinel oxides and …

Surface-structure engineering represents an attractive strategy to optimize the energy
conversion performance of nanocatalysts using their deliberately controlled exposed facets …