Catalysts That Heal Themselves Could End Costly Industrial Deactivation
A new review details how self-regenerating catalysts that reversibly restructure their active metals could dramatically extend industrial catalyst lifetimes.
A new review details how self-regenerating catalysts that reversibly restructure their active metals could dramatically extend industrial catalyst lifetimes.
A defect-and-entropy co-engineered high-entropy layered double hydroxide cuts the oxygen evolution overpotential to 256 mV at 10 mA/cm2 and runs ...
A new Frontiers in Chemistry review surveys ruthenium-catalyzed C–H activation, annulation, and hydrogen-borrowing strategies for building bioactive heterocycles.
A reticular coordination strategy anchors single platinum atoms onto cerium-oxo clusters, yielding a 14.9 wt% atomically dispersed catalyst that resists ...
An alternating magnetic field locally heats ferromagnetic high-entropy alloy catalysts, suppressing carbonate precipitation and extending CO2 electroreduction durability beyond 200 ...
A copper nanowire catalyst coated with a covalent organic framework achieved 77 percent Faradaic efficiency for multi-carbon products in CO2 ...
A neighboring iron-chromium dual-atom catalyst raises the intrinsic activity of iron sites 4.6-fold while suppressing the reactive oxygen species that ...
A hydrothermally synthesized CdS-doped Ti3C2Tx MXene composite with 1 wt% CdS showed the best electrocatalytic hydrogen evolution performance in acidic ...
A laboratory study found that boron-doped diamond cathodes outperformed copper in nitrate electroreduction at higher current densities while keeping nitrite ...
A new review outlines how atomically precise catalyst interfaces, from dopants and vacancies to curved surfaces and local electric fields, ...
© 2025 Scienmag - Science Magazine
© 2025 Scienmag - Science Magazine