A homogeneous diatomic catalyst anchors active sites in a transition-metal carrier to lower the initial overpotential.
An FeNiMoO anode catalyst material enables efficient oxygen evolution reaction kinetics.
Needle-like rare earth structures reduce metal elution under reverse current, maintaining durability without complex manufacturing.
A regenerator stack uses a radial arm to distribute electrolyte and dislodge metallic particles from the cathode surface.
A heterostructured photoelectrocatalyst combines semiconductor nanowires with transition metal sulfide films to enhance electron transfer.
Conductive oxide band structure aligns Fermi energy with conduction minima to drive spontaneous hydrogen ion reduction without external electrical bias.
Composite anode layers suppress by-product oxygen evolution while maintaining long-term stability against platinum consumption.
Iron foam substrate supports iron vanadate nanoparticles to drive electrochemical nitrogen reduction, replacing high-energy thermal processes.
Nickel oxide core-shell nanoparticles with mixed metal oxide shells reduce oxygen evolution reaction overpotential below 300 mV at 10 mA/cm2.
A bipolar electrochemical printer head uses an electrolyte meniscus to complete the electrical circuit for remote deposition.
Segmented busbars with correction conductors balance Lorentz forces, enabling 600 kA to 2,000 kA potlines while reducing system weight.
Phosphate-based cyanide-free electrolyte deposits uniformly white copper-tin alloys, resolving toxicity and coating uniformity trade-offs.