Solid-state ion conductors made from ceramic oxides that provide exceptional chemical stability, high mechanical strength, and non-flammability. They are highly valued in safety-critical industrial applications for enabling solid-state batteries that can withstand extreme thermal and mechanical stresses.
A solid-state ceramic electrolyte material characterized by high thermal stability, chemical safety, and mechanical robustness against dendrite penetration. It is critical for high-temperature and high-safety industrial battery applications where liquid leakage cannot be tolerated.
The anodic half-reaction of water splitting where water molecules are oxidized to produce oxygen gas and protons. Optimizing this reaction is a key engineering focus for improving the efficiency and reducing the energy requirements of water electrolyzers.
A highly destructive form of localized corrosion that produces small, deep cavities on metal surfaces due to the presence of dissolved oxygen in boiler water. It presents a severe risk of sudden boiler tube rupture and premature equipment failure.
A fundamental electrochemical reaction where diatomic oxygen gas is reduced by gaining electrons, typically forming water or metal oxides. This reaction is the limiting cathodic step in fuel cells and metal-air batteries, largely dictating the device's operational efficiency and heat generation.
A control function that adjusts combustion air using measured flue-gas oxygen levels. It maintains an appropriate excess-air level as fuel quality and load change, improving efficiency and emissions performance.
An automated feedback system that continuously measures residual oxygen in flue gases and dynamically adjusts the combustion air flow. This maintains the optimal air-fuel ratio, maximizing fuel efficiency while minimizing emissions and safety hazards.
Automated systems that continuously measure excess oxygen in the flue gas and dynamically adjust the burner's air-to-fuel ratio. This real-time tuning maximizes combustion efficiency by preventing both incomplete combustion and excessive dry flue gas losses.
A closed-loop control system that continuously measures excess oxygen in the flue gas and automatically fine-tunes the combustion air damper to maintain optimal combustion. This minimizes fuel waste and prevents unsafe, fuel-rich combustion conditions caused by changes in ambient temperature or fuel composition.
An Oxygen-Trim Control System is an automated feedback loop that continuously measures flue gas oxygen levels and adjusts the combustion air damper to maintain optimal burner efficiency. This technology is vital for minimizing fuel consumption, reducing carbon emissions, and adapting to fluctuating environmental conditions.