Using five or more transition metals, this DRX cathode composition suppresses short-range order to improve lithium percolation, capacity, and rate performance.
In-situ bismuth and molybdenum salt modification forms a protective cathode surface that improves high-temperature cycling in energy storage batteries.
A flat mirror, optical circulator, and power meter calibrate fiber collimators by maximizing returned power without interferometers.
A flat mirror and power meter calibrate a fiber collimator by tuning fiber position to the reflected power peak, cutting setup complexity.
An in-situ molybdenum deposition and silicon-gas conversion route lowers contact resistance while simplifying semiconductor silicide processing.
Waste catalyst is converted into self-Al-doped ferrous molybdate anode material through calcination, water leaching, and hydrothermal synthesis.
Niobium tungsten oxide electrodes improve lithium diffusion for fast charging while preserving volumetric energy density and reducing side reactions.
Oxidohalide Mn(IV) phosphors boost UV-blue absorption, red emission, and stability to enable warm white LEDs with high color rendering.
A tetragonal Li-Ti-Nb oxide anode raises lithium insertion capacity and operating potential to improve energy density while resisting dendrite formation.
Mixed-size rhenium oxide blocks in a nonperiodic composite oxide increase lithium insertion capacity while preserving battery stability and cycle life.
A tetragonal Ti-Nb-W/Mo composite oxide anode raises operating potential to suppress lithium dendrites while preserving reversible capacity.
Using phosphorus with a molybdenum flux controls α-alumina into plate-like or card house-like particles for better reflection and fluidity.
Ln2ABO8 barrier coatings form a stable surface layer that resists CMAS deposits and high-temperature steam in gas turbine components.
Controlled oxygen combustion forms high-circularity, high-purity zinc molybdate particles with low permittivity and dielectric loss for semiconductor fillers.
Acid reaction, pH precipitation, crystallization, milling, and washing produce Ti-Mo particulates that release at least 90% of technetium.