• • Photothermal catalysis achieves 100% CO selectivity in CO2 reduction via dual-plasmon resonance, demonstrating complete suppression of competing H2 evolution under infrared irradiation (Ref. 94).
• • Photoelectrocatalytic partial oxidation of methane on BiVO4 with oxygen vacancy-induced defect dipoles yields selective oxygenates, with defect engineering enabling precise control of charge carrier dynamics (Ref. 95).
• • Rotating magnetic field-induced electromotive force boosts photocatalytic CO2 reduction rates, with Lorentz force promoting charge separation and enhancing reaction kinetics (Ref. 96).
• • Selective light-driven methane oxidation to ethanol on tailored photocatalysts achieves high product selectivity, with C–C coupling facilitated by spin-state manipulation and field-assisted charge transfer (Ref. 97).