230 results about "Magnetic heating" patented technology

A carbon dioxide (CO2) stream reacts with an amine-modified magnetic nanoparticle in solution to form an amine-CO2 adduct. The solution that includes the amine-modified magnetic nanoparticle is heated by an external alternating magnetic field. The heat provided by the external alternating magnetic field is localized such that only the amine-CO2 adduct is heated to release the CO2, without heating the entire solution. This process helps with the capture and release of CO2 with a significantly reduced energy during the CO2 release step.

The present disclosure relates to an active graded magnetic compensation system and method for an unshielded SERF magnetometer. The system comprises: a detection laser, a half-wave plate, a magnetic field compensation coil, a magnetic field modulation coil, a non-magnetic heating assembly, an alkali-metal atomic vapor cell, a polarizing beam splitter prism, a balanced photodetector, a graded feedback control module, a pump laser, a quarter-wave plate, a focusing lens and a photodetector. By means of the present disclosure, a graded compensation system is used to realize high-precision compensation for a magnetic field within a large dynamic range in a geomagnetic environment, thereby ensuring that an instrument carries out high-sensitivity magnetic field measurement under geomagnetic conditions.

The utility model relates to the technical field of electromagnetic heating, in particular to a graphite boat electromagnetic induction drying device. A graphite boat electromagnetic induction drying device comprises a drying container which is provided with an upper cover plate and a containing space; the lower heating assembly is arranged in the containing space, a graphite boat to be dried is suitable for being placed on the lower heating assembly, the lower heating assembly comprises an electromagnetic heating coil, and the electromagnetic heating coil is used for generating a high-frequency electromagnetic field to enable the graphite boat to be dried to generate heat energy. The graphite boat drying device solves the problems that an electric heating coil, an electric heating piece and the like can only heat in a certain area, so that a graphite boat outside the area needs to be dried through heat in air flow, and the drying efficiency is low.

A temperature control device for a non-magnetic packaging VCSEL laser comprises a main control module which adopts NI equipment and a LabVIEW program, provides high-resolution data acquisition and real-time PID parameter adjustment, and realizes accurate temperature control. And the high-frequency modulation module shifts the temperature control signal to a high frequency band to suppress low-frequency magnetic field noise. The power supply module is composed of a switching power supply and a voltage stabilizing circuit, provides a stable power supply for the power amplifier operational amplifier and the radiator, and reduces noise and transient interference. The power amplification module is composed of two stages of amplification circuits, and a low-noise amplifier and a high-frequency current feedback amplifier are adopted to achieve efficient power amplification of signals. The heating module comprises a double-layer 2N polar distance heating film and an NTC negative feedback thermistor, the upper magnetic field and the lower magnetic field of a heating coil are mutually offset, non-magnetic heating is ensured, meanwhile, the NTC thermistor is combined for accurate temperature measurement, current is controlled in cooperation with a PID algorithm, and temperature stability is ensured. Compared with the prior art, the device has remarkable advantages in the aspects of non-magnetic heating, low-noise power supply and temperature control precision.

The invention relates to the field of quantum measurement, and provides a CPT magnetometer magnetic measurement signal-to-noise ratio improving method and device based on a differential EIT-EIA signal. The CPT magnetometer solves the problem that a traditional CPT magnetometer is low in magnetic measurement signal-to-noise ratio due to the influence of environment temperature noise, laser stability and atomic gas chamber buffer gas. According to the main scheme, the CPT magnetometer comprises a laser generation module, a reference correction module, a differential detection module, a non-magnetic heating module and a signal processing module. The laser generation module generates reference / measurement double beams through the laser and the polarization regulation and control assembly; the reference correction module performs polarization conversion and optical path regulation and control on the reference light; the differential detection module divides the measurement light into two paths by adopting polarization beam splitting, the first path is subjected to polarization state conversion through an interference light path after frequency modulation, the second path is converted into circularly polarized light after optical fiber transmission, the two paths of light are coupled and then enter an atomic gas chamber for interaction, and differential detection is realized through a polarization beam splitting detector; and the non-magnetic heating module accurately controls the temperature of the air chamber by using a non-contact photo-thermal conversion technology.

An electromagnetic heating glass kettle comprises a shell, a base, a coil panel, a cooling fan, a temperature sensor, a kettle base, a silica gel bottom cover, a magnetic conduction heating plate and a glass kettle body, and the shell comprises a containing cavity with an upper opening and a mounting hole; the magnetic conduction heating plate is fixedly attached to a bottom plate of the glass kettle body, the silica gel bottom cover is arranged in the kettle base, the glass kettle body is inserted into the kettle base, and the annular clamping tongue and the annular clamping groove are embedded. The annular protrusion and the sensing cavity support the magnetic conductive heating plate, and the cylinder connector is inserted into the circular hole. The shell and the base are fixed, the temperature sensor is arranged on the mounting hole, can move up and down and is in in-out fit with the sensing cavity and the cylindrical connector, and the top of the temperature sensor is matched with a bottom plate of the glass kettle body; the containing cavity supports the kettle base. Due to the arrangement of the containing cavity, after the glass kettle is placed in the containing cavity, the temperature sensor is accurately matched with the bottom plate of the glass kettle body; and a temperature sensor is arranged, so that automatic control is realized.

The utility model relates to a glass kettle and an electromagnetic heating glass kettle, the glass kettle comprises a glass kettle body with an upper opening, a kettle cover, a kettle handle, a hollow inner cover plug with an upper opening, a cylindrical silica gel sleeve, a magnetic attraction piece and a fixed magnet, the hollow inner cover plug is made of a non-magnetic material, the cylindrical silica gel sleeve is sleeved on the kettle cover, and the upper end of the cylindrical silica gel sleeve is matched with an annular cover edge plate for stopping; the magnetic attraction piece is arranged on the cylindrical silicon rubber sleeve, the kettle cover and the cylindrical silicon rubber sleeve are inserted into the inner cover plug, and the plug edge plate is attached to the annular cover edge plate; the kettle handle is fixed to the glass kettle body, the fixed magnet is arranged at the joint of the kettle handle and the glass kettle body, and the fixed magnet and the magnetic attraction piece are attracted in a magnetic mode. Due to the arrangement of the fixed magnet on the kettle handle and the arrangement of the magnetic attraction piece on the kettle cover, the fixed magnet and the magnetic attraction piece are magnetically attracted after the kettle handle and the kettle cover are buckled, the kettle cover is effectively prevented from falling off, and disassembly and assembly are convenient.

The utility model discloses a coil panel assembly and an electromagnetic heating device, and relates to the technical field of electromagnetic heating, the coil panel assembly comprises a support and a plurality of winding groups, and a plurality of installation areas are formed on the support; the plurality of winding groups are arranged corresponding to the plurality of mounting areas, at least one winding group is arranged to be a first winding group, the first winding group comprises a plurality of winding units, the plurality of winding units are distributed along the peripheries of the mounting areas, and two adjacent winding units are arranged to be opposite in current direction; therefore, the two adjacent winding units form opposite magnetic poles. According to the technical scheme, the technical effect that the pot wall of the small pot can be heated in at least one installation area can be achieved.

The utility model discloses a coil panel assembly and an electromagnetic heating device, and relates to the technical field of electromagnetic heating. The coil panel assembly comprises a support, a plurality of winding units and a shielding structure, each winding unit is annularly arranged and is provided with a first winding ring section close to the center of the support and a second winding ring section close to the edge of the support, and in one pair of winding units, the current directions of the two winding units are opposite, and the shielding structure is arranged between the two winding units. In at least one winding unit, the magnetic pole formed in the middle of the winding unit is close to one side of the corresponding second winding ring section, and the magnetic pole formed in the middle of the winding unit is close to the other side of the corresponding second winding ring section. Therefore, the magnetic field can be coupled with the position corresponding to the pot wall from one side close to the edge of the bracket, so that the problems that the heating effect of the existing induction cooker on the pot wall is poor, and a relatively large magnetic field is easily generated around the coil panel to cause mistaken heating are solved.

The invention relates to the field of quantum sensing, and provides an SERF atom magnetometer based on pi pulse pumping detection and a magnetic field detection method. According to the method, 770nm pumping light and 795nm detection light are modulated into an alternating pulse sequence through an acousto-optic modulator, optical frequency shift interference is avoided by adopting a time division multiplexing technology, and pumping pulses are configured to have a pi rotation effect so as to enhance atomic spin polarization. The device comprises an alkali metal gas chamber with multiple layers of magnetic shielding, a graphene heat conduction non-magnetic heating system based on infrared laser, a time division control light path module and a synchronous signal processing unit. Electric heating is replaced by laser heating to eliminate magnetic noise, a pulse interval tau adjustable mechanism is utilized to balance sensitivity and measuring range, and common-mode noise is suppressed in combination with differential photoelectric detection and phase-locked amplification technologies. The alternating current stark effect caused by continuous illumination and magnetic field interference of traditional heating are overcome, the magnetic field measurement precision, the system stability and the signal-to-noise ratio are improved, and a high-precision weak magnetic field detection scheme is provided for biomedical detection and quantum navigation.

The well mouth electromagnetic heating device comprises a shell, the shell is of a hollow structure, an insulating layer is fixedly installed on the inner wall of the shell, a spiral electromagnetic induction coil is fixedly installed on the inner wall of the insulating layer, an inner ring of the electromagnetic induction coil is installed on a heat preservation layer in a winding mode, and a heating tank is fixedly installed on the inner wall of the heat preservation layer. The stirring column and the metal rod rotate along with the rotating rod to stir liquid in the heating tank, so that different parts of the liquid are fully mixed, the metal rod generates induction heat under the action of a magnetic field, the heat can be diffused in the liquid more quickly and uniformly, the phenomenon of temperature stratification is avoided, and the heating uniformity is further improved. Cleaning liquid is injected into the first channel of the rotating rod through the connector, the cleaning liquid is sprayed out of the nozzle through the second channel, the sprayed cleaning liquid comprehensively cleans the interior of the heating tank, meanwhile, the scraping plate can scrape the inner wall of the heating tank in the stirring process, and impurities or precipitates in the liquid are prevented from being attached to the inner wall.

The present application relates to the technical field of hydrogel, in particular to an injectable temperature-responsive enhanced composite double-network magnetic particle gel, a preparation method and application thereof, the hydrogel is composed of a particle gel network formed by gelatin nanoparticles and Fe3O4 nanoparticles through electrostatic interaction and a poly-N-isopropyl acrylamide (PNIPAM) based temperature-sensitive polymer gel network. At room temperature, the hydrogel has excellent shear thinning and self-healing properties, and can be easily injected through a needle and a microcatheter. When the temperature rises to human body temperature (37 DEG C), the temperature-sensitive polymer phase transition crosslinking enhances the mechanical properties of the gel network. The hydrogel is injectable in vitro, temperature-responsive in vivo, meets the requirements of vascular interventional embolization materials, and can be magnetically heated under an alternating magnetic field, and is used for liver cancer embolization combined with magnetic heating treatment. The preparation method is simple, has high biocompatibility, and has great clinical application potential.

The present invention discloses an electromagnetic heating smoking device and an electromagnetic heating system, which relate to the field of electromagnetic heating technology. The electromagnetic heating smoking device includes a shell, an electromagnetic coil, a parameter acquisition module, a drive device, and a control module. When alternating current is applied to the electromagnetic coil, a changing alternating magnetic field is generated. The parameter acquisition module acquires the magnetic field strength in the heating chamber. When the magnetic field strength is less than a preset magnetic field strength, the control module controls the electromagnetic coil to move in the shell through the drive device until the new magnetic field strength reaches the preset magnetic field strength. It can be seen that the present application controls the electromagnetic coil to move in the shell through the drive device when the magnetic field strength at the position where the ferromagnetic element in the cigarette is located is less than the preset magnetic field strength, until the new magnetic field strength reaches the preset magnetic field strength. At this time, the ferromagnetic element in the cigarette is at the center of the alternating magnetic field, so as to achieve the maximum heating efficiency of the electromagnetic heating smoking device and improve the user's experience satisfaction.

The utility model relates to a milk warmer which comprises a base and a milk bottle placed on the base, an electromagnetic heater is arranged on the base, and an electromagnetic heating matching piece used for being matched with the electromagnetic heater and heating an inner cavity of the milk bottle when the electromagnetic heater is started is arranged in the milk bottle. According to the electromagnetic induction principle, an alternating magnetic field is generated through alternating current, and the electromagnetic heater is an electromagnetic coil panel. When the electromagnetic heater is started, an alternating magnetic field is generated, the electromagnetic heating matching piece directly conducts heat to the inner cavity of the feeding bottle under the action of the alternating magnetic field, liquid in the inner cavity of the feeding bottle directly absorbs heat, the heating efficiency is high, heating is uniform, and the heat conversion rate is high.

This utility model relates to the field of life science technology, and in particular to a nucleic acid extraction device. The device includes a frame, a sample loading and waste liquid treatment mechanism, a oscillating magnetic heating mechanism, a control device, and a screen interaction system. The sample loading and waste liquid treatment mechanism achieves precise three-dimensional positioning through horizontal and vertical motion guides and vertical moving components. It includes parallel large and small pistons, allowing for flexible switching between different volume pipetting and sharing a common connector. The oscillating magnetic heating mechanism integrates oscillation, heating, and magnetic attraction functions, and works with various sizes of pipette tips and reagent kits to complete sample processing. The extraction process is automated through the control device, linking all mechanisms to automatically complete the entire process, including sample lysis, solid-liquid separation, magnetic bead purification, and elution. This application automates nucleic acid extraction, improving operational efficiency and extraction results, and is suitable for nucleic acid extraction from plant tissues, animal tissues, blood, plasmids, and other samples.

The application discloses an electromagnetic heating cooking appliance. It comprises a control device, an electromagnetic heating module, a cooking container, and a working condition display component. The electromagnetic heating module comprises at least one electromagnetic coil for generating an alternating magnetic field under the control of the control device, and the magnetic field area of the alternating magnetic field is non-uniformly distributed in the circumferential direction of the electromagnetic heating module; the cooking container comprises a ferromagnetic material, which is arranged in the magnetically inducible area of the electromagnetic heating module, and the central axis of the cooking container is substantially coincident with the central axis of the electromagnetic heating module; the working condition display component is electrically connected to the control device. The control device is configured to simultaneously perform the following operations during at least part of the cooking process: relatively rotating the cooking container and at least part of the electromagnetic heating module around the central axis to relatively rotate the alternating magnetic field and the cooking container; and making the working condition display component output at least a first visual signal representing the relative rotation.

The utility model discloses an electromagnetic heating humidifier which comprises a shell, an electromagnetic heating device, an electromagnetic heating device, an electromagnetic heating device, an electromagnetic heating device and an electromagnetic heating device. The middle of the shell is provided with a containing box, and the bottom of the containing box is provided with a plurality of hanging pins and connecting pins. The electromagnetic heating assembly is arranged in the shell and located below the containing box. The water tank is detachably arranged in the accommodating box; the base plate is arranged at the bottom of the shell, the weight of the humidifier acts on the base plate through butt joint and fixation of the connecting columns and the connecting feet, the base plate is provided with a weighing sensor, and the weighing sensor is electrically connected with the circuit board. According to the utility model, the weighing sensor is used for indirectly monitoring the water quantity, the signal interference of a magnetic conductive material to the sensor is avoided, the compatibility problem of the detachable water tank and electromagnetic heating is solved, the balance between the convenient cleaning of the detachable water tank and the electromagnetic heating efficiency is realized, and the installation limitation of the sensor is avoided through indirect weight detection; the rigid connection structure ensures the pressure measurement precision and effectively reduces the risk of dry burning.

This application discloses an electromagnetic heating method for tire vulcanization, comprising the following steps: Step one, dividing the tire mold into multiple regions corresponding to the tire crown, bead, and sidewall; applying heating power to each region using an electromagnetic heating device, the heating power matching the heat required by each region during the vulcanization process; Step two, dividing the tire vulcanization process into at least two dynamic control stages, including a rapid heating stage and a constant-temperature vulcanization stage; and calling an independent, pre-set set of control parameters for each dynamic control stage to perform real-time closed-loop feedback adjustment of the heating power. This electromagnetic heating method for tire vulcanization enables efficient, energy-saving, and intelligent precise temperature control throughout the entire tire vulcanization process, thereby achieving high-quality, low-energy, and intelligent tire manufacturing.

The utility model provides a multifunctional electromagnetic heating device which comprises a device body, an electromagnetic heating main circuit board and an output capacitor used for filtering are arranged in the device body, and the output end of the electromagnetic heating main circuit board is connected with an induction coil used for being wound on a coupling. The output capacitor is connected between the electromagnetic heating main circuit board and the induction coil, a control circuit board and a temperature control displayer are arranged on the side face of the device body, the input end of the control circuit board is connected with temperature sensors fixed to a coupling and a traction motor driving shaft, and the output end of the control circuit board is connected with the temperature control displayer. A cooling fan is arranged on the outer wall, close to one side of the output capacitor, of the device body. The device is simple in structure and reasonable in design, has the functions of temperature self-control, overload protection, current limitation and the like, can ensure the safety during use, and greatly improves the disassembly efficiency of the coupling.

The utility model discloses a close winding coil panel and an electromagnetic heating appliance, the close winding coil panel comprises an insulation board, the upper surface of the insulation board is connected with an electromagnetic coil, and the center of the insulation board is provided with a positioning hole; the center and the edge of the fixing support are provided with a center flange and a boundary flange respectively, the center flange penetrates through the positioning hole and is in close fit with the positioning hole, and a containing space is jointly formed between the center flange and the boundary flange; the number of the magnetic cores is multiple, a plurality of containing grooves are formed in the bottom face of the fixing support, and each magnetic core is connected into the corresponding containing groove; the bottom plate is provided with a plurality of groups of mounting holes, the fixing support is provided with at least two limiting buckles, and each limiting buckle is connected to the corresponding mounting hole. In the assembling process, the insulation heat insulation plate is positioned and installed in the containing space through the center flange, the fixing support and the bottom plate are connected in a buckled mode through the limiting buckles and the installation holes, the fixing support has the advantages of being simple in structure, convenient to install and reliable in connection, and the loosening and falling-off problems in a traditional fixing mode are avoided.

The invention discloses an alkali metal gas chamber non-magnetic heating method based on double-sided laser temperature control, which can eliminate magnetic interference introduced by traditional electric heating from a physical source and more effectively realize uniform, stable and continuous heat source temperature field distribution through double-sided laser closed-loop control. Comprising the steps that diamond sheets used for photo-thermal conversion are attached to the top face and the bottom face of a heat conduction layer defining an alkali metal air chamber, a first laser heating surface and a second laser heating surface are formed on the heat conduction layer respectively, the thickness of each diamond sheet ranges from 4 mm to 6 mm, the heat conductivity of each diamond sheet is 2000 W / m.K, a first temperature sensor is arranged on the first laser heating surface, and a second temperature sensor is arranged on the second laser heating surface. And a second temperature sensor is arranged on the second laser heating surface. The laser heating material has the main differences that the laser heating material has ultra-low material magnetic noise and ultra-high thermal conductivity; uniform heating of a large-size air chamber is realized through double-sided temperature control; a heating laser light path is separated from a pumping and detecting light path, and laser temperature control can be independently adjusted.

The utility model relates to an incineration closestool which comprises a sewage receiving cavity, an incineration cavity and an ash receiving cavity which are arranged on a closestool body. A sewage inlet and an ash outlet are formed in the incineration cavity, the sewage receiving cavity in the open state communicates with the incineration cavity through the sewage inlet, and the incineration cavity in the open state communicates with the ash receiving cavity through the ash outlet; a magnetic heating part and an electromagnetic coil are arranged on the incineration cavity and correspond to each other, and a magnetic field generated by electrifying the electromagnetic coil enables the magnetic heating part to generate high temperature for incinerating excrement. According to the incineration closestool, excrement is heated and incinerated in an electromagnetic heating mode, the incineration area and the ashing matter collecting area are separated from each other, and therefore the incineration closestool has the advantages of being high in heating efficiency, low in energy consumption, easy and convenient to use and the like.

The invention relates to the technical field of water heater control, and particularly discloses an air heating water heater control system which comprises a master control module, an electromagnetic heating module, a detection module, a safety protection module, a man-machine interaction module and a power module. The electromagnetic heating module comprises a high-frequency inverter, a self-adaptive coupling coil group and the like, and can convert power frequency alternating current into 20-50kHz high-frequency alternating current to realize 0-3000W stepless regulation non-contact air heating; the detection module feeds back operating parameters in real time through dual temperature measurement, capacitive water level and Hall magnetic field detection; the safety protection module integrates multiple protection mechanisms, and safety risks are avoided in an all-around mode. The main control module realizes closed-loop control, the man-machine interaction module supports parameter setting and state checking, and the power supply module provides stable power supply. The device is high in magnetic field transmission efficiency, high in heating speed, free of scale, accurate in temperature control, comprehensive in safety protection, convenient to operate, small in equipment abrasion and long in service life.

The application provides an electromagnetic heating device and a control method thereof. The electromagnetic heating device comprises K groups of induction heating units. Each group of induction heating units comprises two first induction coils located above a slab passage and two second induction coils located below the slab passage. In a first direction, the two first induction coils and the two second induction coils of each group of induction heating units are arranged correspondingly. The two first induction coils are arranged adjacently on the slab, and the two second induction coils are arranged adjacently below the slab. The coil plane of each induction coil is perpendicular to the first direction. The control units of the induction coils located at the same relative position in each group of induction heating units are the same control unit, and the control units of the induction coils located at different relative positions in each group of induction heating units are different control units, or the control units of the induction coils are independently arranged.

The present invention relates to the technical field of electromagnetic heating. Disclosed are an electromagnetic heating cigarette device and an electromagnetic heating system. The electromagnetic heating cigarette device comprises: a housing, an electromagnetic coil, a parameter acquisition module, a driving device and a control module; when an alternating current is applied to the electromagnetic coil, a varying alternating magnetic field is generated, the parameter acquisition module acquires the magnetic field strength in a heating cavity, and when the magnetic field strength is less than a preset magnetic field strength, the control module controls, by means of the driving device, the electromagnetic coil to move in the housing until a new magnetic field strength reaches the preset magnetic field strength. It can be seen that in the present application, when the magnetic field strength at the position where a ferromagnetic element in a cigarette is located is less than the preset magnetic field strength, the control module controls, by means of the driving device, the electromagnetic coil to move in the housing until the new magnetic field strength is the preset magnetic field strength, and at this time, the ferromagnetic element in the cigarette is located at the center position of the alternating magnetic field, so as to achieve the maximum heating efficiency of the electromagnetic heating cigarette device and improve the satisfaction of the user experience.

The invention discloses olefinic magnetic heating equipment and belongs to the technical field of linen ironing in the washing and dyeing industry. The problems that an ironing groove in the existing linen ironing field needs various auxiliary facilities, and potential safety hazards of high temperature and high pressure exist are solved. An electromagnetic coil fixing frame of a first arc-shaped heating body is sequentially provided with an electromagnetic coil, a high-temperature-resistant insulating layer, a first fireproof heat insulation layer and a first high-temperature-resistant anticorrosive layer; the second arc-shaped heating body comprises a laser polishing surface layer, a nanometer insulating base layer, a second high-temperature-resistant anticorrosive layer, a first mica insulating layer, a graphene printing coating, a nanometer heat preservation layer and a second mica insulating layer which are sequentially arranged, and a power supply wiring pile is arranged on the second mica insulating layer and connected with the graphene printing coating. According to the olefinic magnetic heating equipment disclosed by the invention, heat energy is exerted to the maximum on the arc-shaped heating body in a short time, and the efficiency of ironing linen is improved.

The application discloses a pot detection circuit and method of a global heating electromagnetic range and the electromagnetic range, and relates to the technical field of electromagnetic heating. The circuit comprises multiple groups of LC resonance circuits and an MCU control unit. Any group of LC resonance circuit is connected with a coupling feedback circuit and an inverter circuit. The first output end of the MCU control unit is connected with the input end of the coupling feedback circuit. The first output end of the coupling feedback circuit is connected with the LC resonance circuit. The second output end of the coupling feedback circuit is connected with the input end of the MCU control unit. The second output end of the MCU control unit is connected with the LC resonance circuit. The third output end of the MCU control unit is connected with the input end of the inverter circuit. The output end of the inverter circuit is connected with the LC resonance circuit. The application can detect whether the induction coil of the multiple LC resonance circuits of the global heating has a pot without interruption, can effectively improve the heating efficiency of the global heating electromagnetic range, and further improves the user experience.

The invention discloses an electromagnetic heating method and system and an intelligent electric appliance. The method comprises the steps that target temperature field data, initial heating frequency data and initial magnetic field intensity data corresponding to a to-be-heated object are acquired; determining first target heating frequency data based on first voltage data and first current data corresponding to the magnetic field generation unit under the initial heating frequency data; determining a position with the temperature data meeting a first preset condition in the temperature field as a target position; based on distance data and angle data between the magnetic field generation unit and the target position and area data of the magnetic field generation unit, optimizing the initial magnetic field intensity data to obtain first target magnetic field intensity data; and based on the first target heating frequency data and the first target magnetic field intensity data, controlling a magnetic field generation unit to generate a magnetic field so as to heat the to-be-heated object. According to the embodiment of the invention, the uniformity of electromagnetic heating can be improved, and the energy efficiency of electromagnetic heating can be improved.

The utility model relates to the technical field of electromagnetic heating, in particular to an electromagnetic induction heating device, which adopts the technical scheme that the electromagnetic induction heating device comprises a bottom plate and a shell, an electromagnetic induction coil is movably arranged in the shell, a cover plate is movably inserted into the front surface of the shell, and the electromagnetic induction heating device further comprises a protective sleeve; the protective sleeve is movably inserted into the shell; wherein the bottom of the protective sleeve penetrates through the electromagnetic induction coil. According to the utility model, the problem that the electromagnetic coil is damaged due to the fact that metal liquid drops on the electromagnetic coil when fusing operation is carried out on a metal piece through the electromagnetic coil at the present stage is solved.

The invention provides a magnetic heating deicing material as well as a preparation method and deicing coating application thereof. The magnetic heating deicing material comprises an inner core and a coating layer on the surface of the inner core, the inner core comprises an iron-manganese alloy doped with rare earth metal; the coating layer comprises reduced graphene oxide modified by an amino silane coupling agent. The magnetic heating deicing material has a low Curie point and can enable a magnetic heating deicing coating to rapidly increase the surface temperature in a low-temperature environment on one hand, and has excellent conductivity and can further increase the heating value of the coating on the other hand, so that the deicing effect is enhanced, the efficient deicing effect is achieved, and the service life of the coating is prolonged. And the magnetic heating deicing material can actively prevent the formation of an ice layer in a low-temperature environment, has dual functions of ice prevention and deicing, and can be prepared at low cost and in a large scale.