A metal alloy electrode drives electron flow in hydrochloric acid solution to produce hydrogen with lower energy use and minimal CO2 emissions.
Selective adsorption traps recover high-purity HCl, Cl2, and CCl4 from fuel salt chlorination gas, cutting chlorine-37 loss and cost.
Salt and crystalline forms of L-Ergothioneine improve stability and purification, supporting easier formulation for food, medicine, and cosmetics.
Halogens decompose hydrocarbons into hydrogen and solid carbon at lower temperatures, while recycling reduces heat demand and reactor constraints.
Replacing fluorine with hydrogen in sulfur hexafluoride reduces global warming potential while maintaining arc quenching capability.
Amine fixing agent slows mineral acid reaction with carbonate rock to enable deeper reservoir penetration.
Fermentation-derived magnesium chloride undergoes thermohydrolysis to yield magnesium oxide and hydrogen chloride for process reuse.
Segmented fluidized bed reactors remove oxygen then hydrogenate metal boron particles to lower energy consumption during reconversion.
Metallate anions in ionic liquids catalyze peroxide decomposition without freezing, eliminating toxic byproducts and structural complexity.
Vacuum ultraviolet light dissociates fluorine precursors into atomic fluorine, replenishing depleted coatings and preventing metal fluoride degradation.
An acidic aqueous solution extracts and stabilizes PBP2' and PBP2 antigens from Staphylococcus aureus specimens.
Dual thermo-catalytic reactors synthesize anhydrous hydrogen halides from organic halide fluids at 300°C to 900°C, avoiding high-temperature emissions.
A corrugated hose reactor enables countercurrent flow between liquid and gas phases during chlorine production.
A chlorine dioxide production system combines elemental chlorine with oxygen ions in water to generate aqueous solutions.
Converting agomelatine to a hydrogen halide salt via organic solvent reaction increases purity to 99.5% while maintaining process simplicity.
Direct ethane chlorination eliminates complex cracking steps, reducing raw material costs while maintaining high product selectivity.
A segmented electrochemical cell produces hydroxide and carbonate ions using ion-exchange membranes at reduced voltage.
Crystalline mesylate, hydrochloride, and maleate salts improve chemical stability and solubility by resolving unpredictable salt formation properties.
A closed-loop copper-chlorine cycle splits water into hydrogen and oxygen using intermediate chemical reactions.
Chlorine atoms at grain boundaries pin magnetic flux lines, resolving low critical current density under magnetic fields.