Contact
Tel: 18037961302
Sales hot line ( 24 hours service): 18037961302
Sales hot line ( 24 hours service): 18037961302
E-Mail: firstfurnace@gmail.com
whatsapp:+8618037961302
Adress: Luoxin Industrial Park, Luoyang, HenanLarge diameter steel pipe quen
Piston rod quenching and tempe
Grinding rod quenching and tem
High frequency induction heate
Quenching equipment for machin
Round steel end heating furnac
Steel pipe heat treatment prod
Square steel quenching and tem
Sucker rod quenching and tempe
Thickened petroleum steel pipe
Round steel quenching and temp
Steel pipe quenching and tempe
Steel plate quenching and temp
Induction Hardening Machine&nb
Flywheel ring gear high freque
Industrial electric furnace technical information
induction heating equipment is an ingenious and effective, non-contact process for electromagnetically heating electrically conductive materials such as metals and semiconductors. Heat is transferred to the material by a rapidly fluctuating magnetic field, created by running a high-frequency alternating current through an electromagnet specially designed for the application.
Induction heating is not only fast and efficient, but also provides a high-tech, precise heating technique.
Science of Induction Heating
An oscillating electrical current in an electromagnet gives rise to an oscillating electromagnetic field in the space around the magnet. The field carries energy and acts on charged particles, such as electrons, according to the Lorentz force law:
F = e(E + v 〜 B).
When the oscillating electromagnetic field encounters a conductor, it forces electrons in the material back and forth rapidly. This is possible because the electrons in a conductor are free to move about the material. The motions of the electrons due to the electromagnetic field are known as induced currents in the conductor. These induced currents are where induction heating gets its name.
An electrical current in a conductor heats the material by resistive heating, which is the familiar I2R loss, such as that found when running a current through a wire. Resistive heating familiar I arises from the electrons hitting against the atoms in the conductor, increasing their temperature. By controlling the current in the electromagnet, we control the motion of the electrons and thus we control the heating of the material. In magnetic materials, the electromagnetic fields flip the magnetic domains back and forth rapidly, resulting in additional hysteresis heating. Heat is induced without ever touching the material: this technique forms the basis of the non-contact, electromagnetic heating that sets induction apart from other heating methods.
Induction heating can be used to heat non-conductive materials as well. Simply place the material in close contact with a conductor, which can then be effectively and efficiently heated by induction. The scope of applications where induction heating makes an impact is huge due to its versatility and high degree of customizability. With detailed electromagnet design, the electromagnetic field can be precisely shaped to determine what parts of the load to heat and how much to heat them.
These types of electromagnetic fields have no known effect on biological materials such as the human body. The non-conducting materials of the body do not allow electrons to move about freely, so there are no induced currents and no heating effects. The well-studied science behind induction technologies make them safe and reliable for operation.
Induction heating is not only fast and efficient, but also provides a high-tech, precise heating technique.
Science of Induction Heating
An oscillating electrical current in an electromagnet gives rise to an oscillating electromagnetic field in the space around the magnet. The field carries energy and acts on charged particles, such as electrons, according to the Lorentz force law:
F = e(E + v 〜 B).
When the oscillating electromagnetic field encounters a conductor, it forces electrons in the material back and forth rapidly. This is possible because the electrons in a conductor are free to move about the material. The motions of the electrons due to the electromagnetic field are known as induced currents in the conductor. These induced currents are where induction heating gets its name.
An electrical current in a conductor heats the material by resistive heating, which is the familiar I2R loss, such as that found when running a current through a wire. Resistive heating familiar I arises from the electrons hitting against the atoms in the conductor, increasing their temperature. By controlling the current in the electromagnet, we control the motion of the electrons and thus we control the heating of the material. In magnetic materials, the electromagnetic fields flip the magnetic domains back and forth rapidly, resulting in additional hysteresis heating. Heat is induced without ever touching the material: this technique forms the basis of the non-contact, electromagnetic heating that sets induction apart from other heating methods.
Induction heating can be used to heat non-conductive materials as well. Simply place the material in close contact with a conductor, which can then be effectively and efficiently heated by induction. The scope of applications where induction heating makes an impact is huge due to its versatility and high degree of customizability. With detailed electromagnet design, the electromagnetic field can be precisely shaped to determine what parts of the load to heat and how much to heat them.
These types of electromagnetic fields have no known effect on biological materials such as the human body. The non-conducting materials of the body do not allow electrons to move about freely, so there are no induced currents and no heating effects. The well-studied science behind induction technologies make them safe and reliable for operation.
Iron induction furnace
Aluminum melting furnace
Copper melting furnace
Small steel melting furnace
Small induction melting furnace
Induction iron furnace
3T intermediate frequency iron melting f
0.25T Intermediate Frequency Furnace
0.5T Intermediate Frequency Furnace
Medium Frequency Furnace
2T Induction Melting Furnace
1T Induction Melting Furnace
500kg Induction Melting Furnace
250kg Induction Melting Furnace
Induction Melting Furnace
3 T Induction Melting Furnace
5T Induction Melting Furnace
1T One Belt Two Intermediate Frequency F
5T One Belt Two Intermediate Frequency F
3T One Belt Two Intermediate Frequency F
2T One Belt Two Intermediate Frequency F
5T Parallel Intermediate Frequency Furna
5T Intermediate Frequency Furnace
5T Series Intermediate Frequency Furnace
3T Series Intermediate Frequency Furnace
2T Series Intermediate Frequency Furnace
1T Series Intermediate Frequency Furnace
0.5T Series Intermediate Frequency Furna
0.25T Series Intermediate Frequency Furn
1T Parallel Intermediate Frequency Furna
2T Parallel Intermediate Frequency Furna
0.5T Parallel Intermediate Frequency Fur
Product Class