The RAMON oxygen lance vibration and spatter prediction technology overcomes the limitations of traditional methods which focus on spatter—specifically slag thickness—as the detection target. Instead, it addresses the root cause of spatter by monitoring changes in furnace pressure caused by slag overflow. By predicting trends in furnace pressure and slag overflow, the technology enables forecasts 10 to 50 seconds in advance. This provides users with sufficient time to take measures to prevent spatter, thereby significantly reducing the spatter rate in converter smelting.

The RAMON oxygen lance vibration and spatter prediction technology overcomes the limitations of traditional methods which focus on spatter—specifically slag thickness—as the detection target. Instead, it addresses the root cause of spatter by monitoring changes in furnace pressure caused by slag overflow. By predicting trends in furnace pressure and slag overflow, the technology enables forecasts 10 to 50 seconds in advance. This provides users with sufficient time to take measures to prevent spatter, thereby significantly reducing the spatter rate in converter smelting.

The RAMON oxygen lance vibration and spatter prediction technology overcomes the limitations of traditional methods which focus on spatter—specifically slag thickness—as the detection target. Instead, it addresses the root cause of spatter by monitoring changes in furnace pressure caused by slag overflow. By predicting trends in furnace pressure and slag overflow, the technology enables forecasts 10 to 50 seconds in advance. This provides users with sufficient time to take measures to prevent spatter, thereby significantly reducing the spatter rate in converter smelting.