A concentric reactor uses a magnesium sacrificial anode to precipitate phosphate salts from wastewater.
Magnetic field generators create vibrational movement in plating solutions, improving metallization uniformity while maintaining deposition speed.
A hydrogen network system converts renewable electricity into stored chemical energy via electrolysis and high-pressure distribution lines.
A plating apparatus uses a single power supply with main and auxiliary cathodes to regulate film thickness.
Orthogonal tube mount channels enable continuous X-ray fluorescence analysis, eliminating manual sampling delays in electroplating bath monitoring.
A water electrolysis system uses a bypass line to route low-quality reaction fluid through a circulation filter for reprocessing.
A mitigation unit with a coil and diode suppresses counter electromotive force, reducing oxygen electrode catalyst elution in the water electrolysis cell.
Forward in-line path with air-cushion transfer removes carriers to reduce processing time and manufacturing costs.
Nonconductive dividers create precise electrolyte channels that eliminate ports in electrode plates, reducing voltage loss and device complexity.
A bio-electrochemical cathode transfers electrons to reduce organic sulfur compounds to bisulfide under anaerobic conditions.
Solid oxide electrolysis cells reduce carbon dioxide to high purity carbon monoxide, eliminating expensive cryogenic separation processes.
A condensing filter device cools generated hydrogen gas to maintain stable operating temperatures within the electrolytic system.
An electrochemical compressor unit collects secondary hydrogen from station leaks and vents.
Micron-scale triangle grid arrays redirect incident radiation onto unoccluded photoabsorbing surfaces to enhance light harvesting.
Replacing heavy metal oxides with magnesium hydroxide reduces component dissolution in alkali solutions while lowering production costs.
A porous positive electrode supplies metal ions through a solid electrolyte membrane to enable continuous film deposition on substrates.
An electrochemical process converts captured carbon dioxide and steam into syngas suitable for Fischer-Tropsch synthesis using renewable electricity.
A tantalum sputtering target with controlled tungsten and molybdenum content stabilizes plasma during deposition.