Cut Warm Air Heating Costs with Optiburner

Optiburner focuses on controlling burner behaviour within the warm-air heater’s combustion chamber. By monitoring internal temperatures and adjusting firing cycles, it prevents unnecessary burner operation and improves the use of generated heat. This targeted optimisation increases efficiency, reduces fuel waste, and helps heaters deliver more stable comfort across large commercial spaces.

Warm-air heaters often continue firing even after generating enough heat, wasting valuable energy that could be used elsewhere. Optiburner prevents this by pausing burner activity when the optimal chamber temperature is reached, allowing the system to use stored heat more effectively. This significantly reduces wasted thermal energy across operating cycles.

High-ceiling buildings trap warm air near the roof, leaving floor areas cooler. Optiburner improves airflow and stabilises burner operation, reducing excessive ceiling temperatures. This promotes a more balanced heat distribution, enhances comfort at ground level, and lowers the extra fuel required to overcome severe stratification.

Yes. Optiburner is a retrofit optimisation unit that integrates with most commercial warm-air heaters, including older models. Compatibility is confirmed during the site survey, where engineers assess heater condition, airflow behaviour, and cycle patterns. As long as the heater operates safely, Optiburner can typically be installed successfully.

Efficiency gains appear almost immediately because Optiburner prevents the heater from firing above the required temperature. Fuel savings become noticeable during the first weeks of operation, and stratification improvements follow as air movement stabilises. Many sites achieve meaningful reductions in consumption early on, with full payback commonly occurring within the first heating season.

Traditional warm-air heaters often cycle on and off due to basic thermostat control. Optiburner monitors internal temperatures and extends cooling periods to prevent premature burner restarts. This results in longer, more efficient burn cycles, fewer unnecessary stops, and a noticeable reduction in fuel consumption and mechanical strain.

Yes. By regulating firing behaviour and reducing excessive heat at ceiling level, Optiburner encourages a more even temperature profile throughout the building. Improved distribution means less reheating is required to maintain comfort, helping large spaces stay warmer at floor level without increasing overall fuel consumption.

Warm air heaters often expel unused heat through the flue when firing continues past required temperature levels. Optiburner minimises this by adjusting cycle behaviour and ensuring heat is used efficiently before new combustion begins. This reduces flue losses significantly and improves overall thermal performance.

Warm air heater optimisation is especially effective in buildings with tall ceilings, open layouts, and long heating hours. Warehouses, factories, logistics centres, sports halls, and agricultural environments typically experience the greatest gains because they suffer most from stratification, frequent cycling, and extensive flue heat loss.

Yes. By reducing stratification and creating steadier heat output, Optiburner helps maintain comfortable temperatures in the areas people occupy. This is especially valuable in warehouses, production spaces, and sports facilities where comfort is often inconsistent due to uneven heating and constant fluctuations in burner performance.

Installation is typically quick and completed while your heating system remains operational. Optiburner is fitted to the existing heater controls and calibrated on-site. Most installations require minimal downtime, allowing businesses to continue operating normally while gaining immediate improvements in efficiency and heating performance.

By preventing rapid cycling, reducing internal overheating, and stabilising temperature behaviour, Optiburner eases mechanical strain on warm air heaters. This leads to smoother operation, fewer stress-induced faults, and improved reliability across the heating season. Many users see reduced maintenance needs and longer component life as a direct result.