What is silicone steel?
silicone steel, often called electric steel, is steel with the addition of silicon. Adding silicon to steel increases its electrical resistance, increases the ability of magnetic fields to penetrate and reduces the loss of hysteresis of steel. Silicon steel is used in many electrical applications where electromagnetic fields are important, for example in transformers, magnetic coils and electric motors. Hysteresis is a delay between the time when the magnetic field is first generated or applied to steel and when the field is fully developed. Adding silicon to steel increases steel more efficient and faster in terms of construction and maintaining magnetic fields. Thus, silicone steel improves the efficiency and efficiency of any device using steel as a magnetic core material.
The percentage of a percentage added to Silicon Steel varies with the intended use of up to 6.5 percent. In some items such as high-efficient engines and transformers, silicone includes approximately 3 percent of steel makeup. U yinItems requiring less efficiency, such as certain types of motor applications, can be up to 2 percent of silicon. Although it is expensive compared to conventional carbon steel, silicone steel can be made with any percentage of silicon for a particular application.
Silicone steel is produced in strips or roles, cuts into the necessary shapes and then treated thermal to check the size of the steel grain. Through checking the size of the grain, the loss of hysteresis of steel can be precisely checked. The direction of grain in silicon steel can also affect its efficiency. The grain can be oriented in one direction through rolling to improve its density of the oral grain can be unoriented and run in all directions, so that silicon steel is cheaper.
As soon as the treatment process is thermally completed, silicon steel is often covered or scattered to further retard corrosion and then stack on the needBunny thickness. These thicknesses are called laminations and may or may not be physically connected or connected to each other. These stacked laminations serve as cores of almost all electromagnetic devices in modern use, ranging from adapters for home electronics to transformers supplying electricity to households and businesses.