Our Impact

If the exact temperature of the metal is unknown, operators may heat it slightly longer to be sure. Precise temperature measurement reduces the need for that extra margin: heating can stop at the right moment and tapping can begin on time.

Bath level measurement shows how much steel is in the furnace, allowing energy input to better match what is actually needed. In continuous casting, accurate temperature and superheat control can help the process run at optimal speed, reducing the total amount of energy required.

Measuring oxygen activity in steel and slag shows how much deoxidizer a heat really needs. Material can then be added based on measurements rather than rules of thumb.

Tight control of temperature and composition can also help prevent defects and breakouts, reducing the amount of material that ends up as scrap.

Every extra minute of heating and every degree of overheating increases wear on graphite electrodes and refractory materials. Tighter control of temperature can reduce that strain and extend the service life of equipment and tools.

Waiting for measurement results can make a heat take longer than necessary or delay adjustments. A manual immersion measurement can take several minutes. A Chameleon measurement takes only seconds, allowing operators to act without delay.

Energy and materials both have a carbon footprint. Using less energy and fewer materials per tonne of final product can therefore also reduce CO₂ emissions. The exact reduction depends on the process and the energy mix