A curved-wall corona discharge cell uses adjustable power and gas flow to vary ozone output efficiently for disinfection and decontamination.
A supported dielectric and connected gas gaps enable compact high-pressure ozone generation while reducing cracking and short-circuit risk.
A conductive adhesive electrode link cuts contact resistance and heat, preventing dielectric tube electrode peeling in ozone generation.
Annular heat pipes cool ozone generator discharge gaps more efficiently, raising ozone concentration while reducing NOx and cooling complexity.
O3 generated inside the lamp absorbs ignition energy, enabling oxygen-containing LSP startup with lower laser power and no oxidizing electrodes.
Vacuum ultraviolet light converts O2 to O3 so oxygen-containing LSP lamps can ignite plasma at lower power without electrode oxidation.
Integrated annular heat pipes cool ozone discharge gaps at the electrode, improving ozone concentration while avoiding bulky added cooling systems.
A porous cooling-fluid channel boosts heat transfer in an ozoniser, raising ozone yield while reducing coolant use and thermal decomposition.
A quartz dielectric barrier confines corona discharge away from metal electrodes, reducing oxidation and extending ozone tube life.
Pressure-based ozone estimation and dilution-air control stabilize target concentration while reducing meter drift and vacuum pump corrosion.
A non-conductive metal compound layer suppresses ozone decomposition and enables higher-concentration ozone from high-purity oxygen.
Optimized trench pitch and volume ratios raise ozone concentration while limiting pressure loss, electrode damage, and voltage demand.
A narrow coaxial annular flow path limits 254 nm ozone breakdown while improving photon absorption for higher ozone yield.
Bent ceramic bodies support high-concentration ozone generation and durable electrode bonding.
Segmenting the ozone generator into independent cells allows individual electrode replacement without full disassembly, eliminating cascade failure risks.
An adaptive power supply modifies pulse parameters to maintain optimal ozone yield while reducing energy consumption.
A dual controller ozone delivery system adjusts generator power via a predictive algorithm to maintain stable concentration levels.