电磁感应加热罐及反应釜
Electromagnetic induction heating tank and reactor
The electromagnetic induction heating reactor is an efficient and energy-saving industrial heating equipment designed based on the principle of electromagnetic induction, specifically developed for high-temperature reactions, mixing, dissolution, synthesis, and material processing processes in industries such as chemical, pharmaceutical, food, and new materials. Compared to traditional steam heating and heat transfer oil heating methods, this equipment generates heat energy by directly acting on the metal kettle body through electromagnetic eddy currents, fundamentally solving the problems of low efficiency, high energy consumption, and multiple safety hazards in traditional heating technology. It is an ideal choice for upgrading modern chemical production.


1. Efficient and energy-saving, significantly reducing operating costs.
Electromagnetic induction heating efficiency>95%: electrical energy is directly converted into thermal energy, and the kettle body generates heat on its own, with a heat loss of<5%;
Compared to traditional heating methods:
Steam heating: Additional boiler equipment is required, and the heat energy is transferred twice (water → steam → kettle body), with a comprehensive thermal efficiency of only 40% -60%, and large heat dissipation losses in the steam pipeline;
Thermal oil heating: relying on the circulation pump and oil system, the thermal efficiency is about 60% -70%, and long-term operation is prone to efficiency decline due to oil quality deterioration.
Energy saving data: Tested to be 30% -50% more energy-efficient than steam heating and 20% -40% more energy-efficient than thermal oil heating. Annual operating costs can be saved by hundreds of thousands of yuan (taking medium-sized reactors as an example).
2. Accurate temperature control to improve product quality
Intelligent PID temperature control system: With a temperature accuracy of ± 1 ℃, it supports multi-stage programmed heating and meets the temperature sensitive process requirements of fine chemicals, pharmaceutical intermediates, and other industries;
Traditional pain points:
Steam heating: The coupling control of pressure and temperature is difficult, with strong hysteresis and temperature fluctuations of up to ± 5 ℃;
Thermal oil heating: There is a local temperature difference in the oil circulation, and the temperature control response is slow, making it difficult to achieve rapid temperature rise and fall.
3. Safe and environmentally friendly, eliminating traditional risks
Zero leakage risk: No need for boilers, heat transfer oil pipelines or pressure vessels, avoiding the hidden dangers of steam explosions and heat transfer oil leaks causing fires;
No pollution emissions: no boiler exhaust gas, waste residue, no thermal oil volatilization pollution, in compliance with ISO 14001 environmental standards; Low temperature operating environment: The outer wall temperature of the kettle body is less than 50 ℃, avoiding the high temperature environment in the workshop caused by traditional heating methods and improving the working conditions of workers.
4. Simplified structure and extremely low maintenance costs.
Modular design: Non contact installation of electromagnetic coil and kettle body, no mechanical wear, service life>10 years;
Traditional maintenance pain points:
Steam system: requires regular cleaning of boiler scale and maintenance of pressure pipelines, resulting in high maintenance costs;
Thermal oil system: It is necessary to frequently replace the thermal oil (1-2 years/time), clean the carbon deposits in the oil circuit, and shut down for maintenance, which will affect production.
5. Fast heating speed, improving production efficiency。
Instant heating: Electromagnetic heating directly acts on the kettle body, with a heating rate of 5-10 ℃/minute (depending on the kettle material and power);
Limitations of traditional methods:
Steam heating: It is necessary to start the boiler preheating in advance, and the heating speed is limited by the steam pressure;



1. Synthesis of Polymer Materials:精确控制聚合反应温度,避免局部过热导致分子链断裂;
2. Production of pharmaceutical intermediates:满足GMP级工艺对温度稳定性的严苛要求;
3. Sintering of lithium battery materials: rapid temperature rise and fall to reduce lattice defects and improve material consistency;
4. Food grade oil processing: eliminates the risk of thermal oil contamination and complies with HACCP certification standards.
1. Economic benefits: recover equipment investment costs within 1-3 years (through energy-saving and maintenance cost savings);
2. Process upgrade: High precision temperature control improves product yield by 5% -15%;
3. Sustainable development: Reduce carbon emissions by over 30% and assist enterprises in obtaining green factory certification.
