Iron cobalt molybdenum magnetic saturation alloy hot rolled or forged bar (GB/T14990-1994)
Iron cobalt molybdenum magnetic saturation alloy hot rolled or forged bar, also commonly called magnetic saturation steel (GB/T14990-1994), is a kind of high-tech, high-precision alloy material produced using extremely advanced technologies. It can be classified into hot rolling and forging processes.
This alloy is mainly composed of carbon, manganese, silicon, nickel, tungsten, molybdenum, cobalt and iron. Iron cobalt molybdenum magnetic saturation alloy is an alloy with high magnetic saturation and can be used as the core of various electrical and electronic industrial devices, such as transformers, magnetic amplifiers, switches and relays, generators and motors.
Its advantages include its high magnetic saturation, good thermal stability and mechanical properties, high-temperature resistance and oxidation resistance. It also features excellent weldability, low price and low carbon content. Its excellent magnetic performance, thermal stability and mechanical properties contribute to its wide applications in electrical engineering.
In the production process of iron cobalt molybdenum magnetic saturation alloy hot rolling and forging, the techniques used are well researched and perfected. The control of temperature, time and pressure during the heating-up and forging process of raw materials is strictly regulated. This is to ensure that the alloy material is not deformed or cracked when cooled. The steel bar is then tempered and quenched in order to obtain excellent mechanical properties and will be finally pressed into shape.
The measurements of the steel bar mainly depend on customer’s specific requirements. Generally, the specifications of iron cobalt molybdenum magnetic saturation alloy are relatively more exacting than the ones of other alloy steel bars.
In conclusion, iron cobalt molybdenum magnetic saturation alloy hot rolled or forged bar (GB/T14990-1994) is an advanced, high-tech alloy material with extremely precise manufacturing techniques and techniques. Its excellent magnetic performance, thermal stability and mechanical properties makes it suitable for electrical engineering applications. It is also characterized by low cost and low carbon content.
