1535results about "Induction heating apparatus" patented technology

A curb stone or paving stone charging device for charging an energy store of an electrically driven vehicle. The curb stone or paving stone charging device includes a main body, an inner receiving space which is delimited on a plurality of sides by the main body, a cover which closes the receiving space, a charging unit having components which are arranged in the receiving space, a charging socket which is connected mechanically at least indirectly to the cover, and a heating element which heats the cover. The main body is produced from a metal, a concrete, a natural stone, a plastic or a composite material.

An aerosol generating article includes: a plurality of elongate first strips including an aerosol generating material; at least one elongate second strip including an inductively heatable susceptor material; and at least one elongate carrier strip to which the at least one elongate second strip is adhered. Each of the plurality of elongate first strips has a width which is less than a width of the at least one elongate second strip and a width of the at least one elongate carrier strip is greater than the width of the at least one elongate second strip. The elongate first strips, the at least one elongate second strip and the at least one elongate carrier strip are arranged to form a rod-shaped aerosol generating article.

The present specification relates to a coil module and a home appliance including the same. A home appliance according to one embodiment of the present invention may comprise: a coil module comprising a plurality of first coil units stacked in a vertical direction and comprising a plurality of working coils, and a plurality of second coil units stacked in the vertical direction, a plurality of second coil units including a plurality of sensing coils and a wiring pattern electrically connecting the terminal unit with the working coil or the terminal unit with the sensing coils, and arranged in a different layer from the plurality of first coil units; and a control unit that performs container detection by using the sensing coil, and controls driving of the working coil in accordance with a result of the container detection.

A micro-vibration wave generating device includes: a power indicator circuit, a first transformer micro-vibration wave generating circuit, and a receptor. An input end of the power indicator circuit is connected to the power source; an input end of the first transformer micro-vibration wave generating circuit is connected with an output end of the power indicator circuit; the receptor is connected with an output end of the first transformer micro-vibration wave generating circuit. Micro-vibration waves generated by the transformer micro-vibration wave generating circuit can resonate with the water molecules in the food, and thereby the water molecules form soft and non-spiky crystals of water molecules when they are frozen, which greatly reduces the damage to the food cells. Accordingly, the quality of the food is intact without mixing odors. The present invention can also be used in cooking deep fried food with almost no oil smoke produced.

An induction cooktop comprises a cooktop surface, induction heating coils beneath it, a power supply with power semiconductors for the induction heating coils, and an external electrical connection. The power supply is located on a power circuit board, and the electrical connection is located on a connection circuit board. At least one cooling device is also provided, comprising at least one fan with a fan inlet for intake and a fan outlet for exhaust air to cool the power supply, a cooling air duct, and at least one heat sink to which the cooling air duct leads. In a vertical direction perpendicular to the cooktop surface and to one of the circuit boards, the fan is positioned lower than the heat sink.The connection circuit board runs below the power circuit board, the connection circuit board has an electrical connection to the outside, and the cooling air duct runs with a bend and deflection of 90° or 180° between the fan outlet and the heat sink.

In addition to being able to load ingredients and remove them after cooking in a comfortable working position, it also allows for convenient and unrestricted adjustment of the installation position of the induction heating coil that heats the bottom of the food storage pot, as well as maintenance. [Solution] An IH heater that heats the flat bottom surface of the food storage pot T is fixedly mounted horizontally between the left and right installation boxes on the stirring side and the operation side, while the body surface 6 of the food storage pot, which is rotating due to a pot rotation drive motor 17 fixedly installed on the pot holder M, is supported by a plurality of freely rotatable pot support rollers journaled on the pot holder, and the pot holder is pivotally attached to both installation boxes so that it can rotate up and down freely by a pair of left and right rotating support shafts 29L, 29R that extend from a position eccentric forward of the diameter line that crosses the center of the food storage pot, so that the food storage pot can be raised and turned over from behind it.

The application discloses an electromagnetic heating circuit, a control method and device of an electrical appliance, and the electrical appliance. The circuit comprises at least two resonance modules, at least two switch modules, an inverter module, a gating module, an oscillation driving module, a voltage signal extraction module, and a control module. The switch module comprises a fixed end, a movable end, a first position end, and a second position end. The fixed end of the at least two switch modules is connected to the at least two resonance modules one by one. The inverter module is connected to the first position end. The gating module is connected to the second position end. The oscillation driving module is connected to the gating module. The voltage signal extraction module is connected to the oscillation driving module. The control module is connected to the inverter module, the voltage signal extraction module, the gating module, and the at least two switch modules. The technical scheme provided by the embodiment of the application can detect whether a pot is placed at a position corresponding to a resonance module not in a heating state when part of the resonance modules in the electromagnetic heating circuit are in the heating state.

The invention relates to a temperature control induction heating system for surfacing of the inner wall of a nuclear power main pump shell. The system is formed by splicing a top induction heating tool, a bottom induction heating tool and a plurality of side induction heating tools through a stainless steel connecting frame, and an intelligent temperature control system. The intelligent temperature control system is composed of a distributed temperature measurement sensor, a central control unit and a man-machine interaction terminal. The heating method comprises the steps of tool assembly, preheating, dynamic interlayer temperature control in the surfacing process, programmed postweld heat treatment and data recording and dismounting. The device has the advantages that the device is adaptive to the special-shaped curved surface of the pump shell through modular design, the power of each tool is dynamically and independently adjusted, the problems of uneven temperature and low efficiency of a traditional heating mode are solved, and the surfacing quality and the process traceability are remarkably improved.

Provided is a glass which can replace a Li2O-Al2O3-SiO2-based crystallized glass and which has a low coefficient of linear thermal expansion and excellent light transmittance. A glass characterized by containing, in mass%, 45 to 80% of SiO2, 10 to 30% of Al2O3, 0 to 12% of B2O3, and 0 to 5% of Li2O.

To reduce the thickness of an electromagnetic cooker.SOLUTION: An electromagnetic cooker 1 comprises: a casing 2 having an upper opening 17; a heating coil 4 disposed inside the casing 2; a top plate 3 which closes the upper opening 17 of the casing 2 and is disposed above the heating coil 4; a plug receptacle support part 20, provided on the casing 2, which is disposed outside the upper opening 17; and a plug receptacle 5 into which power to be supplied to the heating coil 4 is inputted, and which is supported by the plug receptacle support part 20 so as to be disposed in a manner not overlapping the top plate 3 in plan view.SELECTED DRAWING: Figure 1

The invention provides an in-situ thermal field induction heating module design method and device, and relates to the technical field of laser manufacturing, and the in-situ thermal field induction heating module design device comprises an optical fiber laser, a laser cladding nozzle, a six-axis mechanical arm, a coil adjusting structure, an induction coil, an induction power supply, a water cooling machine, a molten pool monitoring and control system and a base material; the optical fiber laser is connected with the laser cladding nozzle, the six-axis mechanical arm is used for controlling the laser cladding nozzle to move, and the coil adjusting structure is installed on the six-axis mechanical arm and connected with the induction coil so that the induction coil can synchronously move along with the laser cladding nozzle. The sprayed metal powder is solidified on the base material to form a cladding layer, the induction power supply generates high-frequency current and conducts the high-frequency current to the induction coil, the induction coil heats the cladding layer, and the water cooling machine is used for cooling the induction coil; the molten pool monitoring and control system is installed on the side face of the molten pool and used for monitoring thermal field distribution of the molten pool in real time. The method has the advantage that the problem that defects such as cracks and air holes are prone to being generated in the laser cladding process is solved.

Air cooking device, including device main body, cooking pot, electromagnetic coil disc and stirring assembly in device main body, there is a spacer between electromagnetic coil disc and cooking cavity;Stirring assembly includes driving part and stirring part, driving part is located above the spacer, stirring part is located below the spacer;Stirring part has multiple induction heating parts, multiple induction heating parts are spaced in the annular direction of stirring part, and at least the upper end surface of induction heating part is set to be a plane structure in the horizontal direction;There is a stirring part with a convex structure downward at the lower end surface position of a single induction heating part;The covering area formed by a single induction heating part in the horizontal direction is greater than the covering area formed by a single stirring part in the horizontal direction and greater than the area formed by a single first spacing part in the horizontal direction.The scheme solves the problem of poor heating effect of direct heating fan blade existing in the existing air cooking device, and further solves the problem of inconvenient cleaning.

An image heating device configured to heat an image formed on a recording material, includes a tubular rotary member, a magnetic core material, an excitation coil, an inverter, a control unit, and a power cutoff unit configured to cut off supply of power from the inverter to the excitation coil regardless of a control state of the inverter by the control unit in a case where the power input from the inverter to the excitation coil exceeds a threshold, the control unit is configured to change a driving frequency of the inverter. The power cutoff unit is configured to change a value of the threshold based on a value of the driving frequency of the inverter.

The invention discloses a working parameter determination method and device, electromagnetic heating equipment and a storage medium, the method is applied to the electromagnetic heating equipment with a plurality of detection devices, and the detection devices are used for detecting working parameters of corresponding positions; the method comprises the steps that under the condition that electromagnetic heating equipment heats cookware, detection devices covered by the cookware are classified into detection groups according to the current heating position of the cookware; and determining the working parameters corresponding to the cookware according to the detection data corresponding to the detection device with the normal working state in the detection group under the condition that the working state of at least one detection device in the detection group is abnormal and the working state of at least one detection device in the detection group is normal, so that the working parameters of the cookware are determined according to the detection data corresponding to the detection device with the normal working state in the detection group. Under the condition that the working states of part of the detection devices are abnormal, the working parameters can be determined through the detection devices in the normal working states, and the probability of normal working of the electromagnetic heating equipment is effectively improved.

Temperature sensor assembly for an induction hob. The temperature sensor assembly includes an axial thermistor and a support having a base on which the thermistor is horizontally arranged. The thermistor includes an elongated main body, a first pin projecting from a first end of the main body, and a second pin projecting from a second end of the main body. The first pin is connected to a first connecting cable forming a first connecting segment, and the second pin is connected to a second connection cable forming a second connecting segment. The first pin includes an initial bent segment and an additional segment following the initial bent segment which is arranged on the base of the support on one side of the main body of the thermistor and extends at least to the second end of the elongated main body in an axial direction defined by the elongated main body.

An apparatus (2) for an aerosol provision device, the apparatus comprising a central controller (4) and a plurality of induction cells (7a-c). Each induction cell of the plurality of induction cells (7a-c) comprises a resonant circuit (6a-c) comprising an inductive element (8a-c) and a capacitive element (10a-c) configured to inductively heat a susceptor, and a local controller (12a-c). The local controller (12a-c) is configured to: receive one or more commands from the central controller (4); perform at least one action based on the one or more commands received from the central controller (4); and send feedback to the central controller (4).

To suppress deformation of a coil of a heating cooker having a plurality of coils.SOLUTION: A heating cooker comprises: a housing part 40 with a bottom that houses a pot; a non-cylindrical shape coil 55 that is arranged to a peripheral direction as a center of a shaft line of the housing part 40 on an outer surface side positioned at the side opposite to the pot in the housing part 40, and guides and heats the pot; and a coil depressing part 67 that is adjacent from an outer surface side to an end part of a peripheral direction of the coil 55. Deformation easily occurred in the end part of the peripheral direction of the outer side coil 55 is suppressed.SELECTED DRAWING: Figure 11

An aerosol-generating device (12) comprising a cavity (41) configured to removably receive at least a portion of an aerosol-generating article comprising an aerosol-forming substrate. The aerosol-generating device (12) comprising an inductor (42) configured to generate an alternating magnetic field in the cavity (41) to heat a susceptor in the aerosol-generating article; a power supply (44) for supplying power to the inductor (42); and power control electronics (43) configured to control power supplied from the power supply (44) to the inductor (42) to generate an alternating magnetic field in the cavity (41). In a first mode the power control electronics (43) are configured to: supply a monitoring power to the inductor (42) to monitor an electrical quantity response to the monitoring power; detect whether the monitored electrical quantity meets a predetermined condition that indicates a puff; and if the monitored electrical quantity meets the predetermined condition, to supply a heating power to the inductor (42) to heat the susceptor to generate an aerosol from the aerosol-forming substrate.

The embodiment of the utility model provides an electromagnetic heating assembly and an electromagnetic heating device, and the electromagnetic heating assembly comprises a coil which is provided with a first side for arranging a to-be-heated part; the shielding piece covers the first side of the coil, the shielding piece comprises at least two shielding combs, and the at least two shielding combs are uniformly arranged in a circumferential mode. By covering the shielding piece on the coil, at least part of electromagnetic waves can be shielded, so that the influence of electromagnetic interference on other electronic equipment is reduced; moreover, the shielding piece is arranged to be in the shape of the shielding comb, so that the area of the shielding piece can be reduced on the basis of shielding at least part of electromagnetic waves, and the heat productivity of the shielding piece is further reduced.

An accommodating cavity is formed in a central guide column, a through hole is formed in the side wall of the central guide column, and a locking pin is arranged in the through hole; the gear adjusting sleeve is arranged outside the center guide column in a sleeving mode. The side wall, close to the center guide column, of the gear adjusting sleeve is provided with multiple sets of gear grooves. The side wall, away from the center guide column, of the gear adjusting sleeve is a conical surface, and an inclined groove is formed in the conical surface in the generatrix direction. The magnetic steel is distributed in the circumferential direction of the gear adjusting sleeve. One end of the transmission slider is in sliding fit with the chute, the other end of the transmission slider is connected with the magnetic steel, and the gear adjusting sleeve drives the transmission slider and the magnetic steel to radially move through axial movement to adjust the radius of the disk; the moving block is arranged in the containing cavity, an unlocking groove is formed in the moving block, and the moving block pushes the locking pin to be clamped into the gear groove by moving to the locking position in the axial direction. And at the unlocking position, the gear adjusting sleeve pushes the locking pin to be clamped into the unlocking groove through axial movement. Multi-gear quick locking and unlocking are achieved through cooperation of the locking pin, the gear groove and the unlocking groove.

To manage the heat generation distribution of a rotary heating element with high accuracy.SOLUTION: The image heating apparatus includes a rotary heat generation member having a heat generation layer, a magnetic field generation unit that generates an induced current in the heat generation layer of the rotary heat generation member by generating an alternating magnetic flux in accordance with supplied AC power, an inverter that controls the AC power supplied to the magnetic field generation unit, a control unit that controls the inverter, and a detection unit that detects a change in electrical resistance of the heat generation layer. The control means changes the drive frequency of the inverter according to the electric resistance of the heat generation layer based on the detection result of the detection means.SELECTED DRAWING: Figure 10

The present invention relates to an overheating prevention device and a heating system, comprising: an infrared imaging device (300) provided at a position separated from a heating unit (21) above the heating unit (21) such that the heating unit (21) and a user enter an imaging range; a temperature calculation unit (7) that calculates the temperature of the object to be heated on the basis of the thermal image obtained from the infrared imaging device (300); a person detection unit (6) that detects the presence of a user on the basis of the thermal image; and a control unit (2) that controls the operation of the heating unit (21) via the communication unit (4) on the basis of the information relating to the operation of the user obtained from the heating device (200) via the communication unit (4), the detection result of the user obtained from the person detection unit (6), and the temperature information of the object to be heated obtained from the temperature calculation unit (7).

The present invention provides a molten material discharge device and discharge method for a glass melting furnace in a nuclear power plant. The molten material discharge device for a glass melting furnace in a nuclear power plant includes a target body containing molten material positioned at the top and a discharge assembly for continuously discharging the molten material to the bottom, the discharge assembly including a main body module, a drive module for providing driving force, a nozzle module for discharging the molten material from the target body, a heating module for heating the nozzle module by induction heating, a first temperature measurement module for acquiring first temperature information due to heating the nozzle module, and a second temperature measurement module for acquiring second temperature information, which is temperature information due to heating the nozzle module, separately from the first temperature information, the heating module maintains the nozzle module at a set temperature based on the first and second temperature information.

An induction cooktop has a cooktop plate, induction heating coils thereunder, a power supply with power semiconductors for the induction heating coils and an electrical connection to the outside, wherein the power supply is arranged on a power printed circuit board and the electrical connection is arranged on a connection printed circuit board. At least one cooling device is also provided, which has at least one fan with a fan inlet as intake and with a fan outlet for blown-out air for cooling the power supply, a cooling air duct and at least one heat sink, to which the cooling air duct leads. The fan is arranged lower than the heat sink in a vertical direction which runs at right angles to the cooktop plate and to one of the printed circuit boards. The connection printed circuit board runs underneath the power printed circuit board, the connection printed circuit board has an electrical connection to the outside and the cooling air duct runs with a bend and deflection of 90° or of 180° between the fan outlet and the heat sink.

The invention provides an induction heating cooker and a control method of the induction heating cooker, which can shorten cooking time. This induction heating cooker is provided with: a top plate on which an object to be heated is placed; a heating coil disposed below the top plate; and a controller for controlling a high-frequency current supplied to the heating coil, the controller preheating the object to be heated at a first thermal power in a fried food cooking mode in which oil contained in the object to be heated is used for heating and cooking, maintaining the object to be heated at a predetermined temperature after the preheating is completed, and controlling the high-frequency current supplied to the heating coil in a fried food cooking mode in which the oil contained in the object to be heated is used for heating and cooking. And when it is detected that the food material is put into the heating object, the heating object is heated with second fire higher than the first fire.

Induction heating from an induction coil (108) is used to separate a metal medical sharp (144) from its holder (142) by applying a high-frequency oscillating magnetic field that excites eddy currents and resistance heating in the sharp. The heated metal sharp melts the adhesive or plastic securing the sharp to its holder. The use of induction heating is advantageous in that it does not require direct contact between the electrical circuit and the sharp or its holder. The heating can also act to sterilize the sharp and thereby render it less hazardous at the same time that it separates the sharp from its holder. The induction coil can have a stepped or conical shape to concentrate the RF energy at the interface between the metal sharp and its holder.

The utility model provides a drive control circuit and cooking equipment. The drive control circuit comprises a first power supply; a resonance circuit; a power device; the sampling end of the first sampling circuit is connected with the first end of the resonance circuit, and the first sampling circuit is used for collecting first voltage at the first end of the resonance circuit; the sampling end of the second sampling circuit is connected with the first end of the power device, and the second sampling circuit is used for collecting second voltage at the first end of the power device; the comparator is respectively connected with the output end of the first sampling circuit and the output end of the second sampling circuit and is used for outputting a comparison result of the first voltage and the second voltage; and the controller is respectively connected with the output end of the comparator and the control end of the power device and is used for driving the power device according to the comparison result. In the process, the probability that the power device is broken down or the service life is attenuated is reduced, so that the reliability of the driving control circuit is improved.

The application discloses a cavity sealing device suitable for inductive heating in a closed cavity, which comprises a ceramic substrate, the ceramic substrate is sealingly connected with the closed cavity, a first pipe and a second pipe are respectively arranged on the left side and the right side of the ceramic substrate, a gap is formed between the two pipes and the ceramic substrate to form a cavity, and the first pipe and the second pipe are respectively provided with a first sealing ring, a second sealing ring and a third sealing ring, the end of the first pipe is provided with an elastic structure which is in contact with the second pipe, the first pipe and the second pipe are further connected with a fastener, and the first pipe and the second pipe are both split conical structures which are hollow and communicated, the inner diameter of the second pipe is matched with the outer diameter of the first pipe; during operation, the conical structure is pressed to compress the edge sealing gasket to strengthen the sealing through the pressure difference between the inside and the outside of the closed cavity, the closed cavity can adapt to the case that the pressure in the cavity is less than or greater than the atmospheric pressure outside, the current conduction is ensured, the circumferential sealing ring ensures the flow of cooling water in the pipeline, the ceramic substrate is made of non-conductive ceramic material and can realize overall sealing, and the problem that the existing sealing device can only be used in a single pressure field is effectively solved.

A method for controlling an induction heating apparatus comprises steps of receiving a power level for a heating region, supplying a switching signal to an inverter circuit based on a predetermined reference frequency, measuring an output current value of the inverter circuit, measuring a DC link voltage value, calculating an output power value of the working coil based on the output current value of the inverter circuit and the DC link voltage value, determining a heating frequency of the inverter circuit based the result of comparison by comparing the output power value of the working coil with a required power value, and supplying a switching signal to the inverter circuit based on the heating frequency.