Abstract: A food warming pad includes a heating pad and a heating wire. The heating pad is a flexible pad. A bottom surface of the heating pad is provided with a winding wiring groove. A bottom of the wiring groove is provided with a winding notch. A winding flexible sleeve is sleeved on the heating wire. The heating wire passes through the winding notch and is installed in the wiring groove. The heating wire is distributed along an extension direction of the wiring groove. A bottom of the flexible sleeve protruded outside of the winding notch. The flexible sleeve and the wiring groove are hot-melt-molded into one piece.

Abstract: A food warming pad includes a heating pad and a heating wire. The heating pad is a flexible pad. A bottom surface of the heating pad is provided with a winding wiring groove. A bottom of the wiring groove is provided with a winding notch. A winding flexible sleeve is sleeved on the heating wire. The heating wire passes through the winding notch and is installed in the wiring groove. The heating wire is distributed along an extension direction of the wiring groove. A bottom of the flexible sleeve protruded outside of the winding notch. The flexible sleeve and the wiring groove are hot-melt-molded into one piece.

Abstract: A foldable food warming pad includes a panel and a controller, the panel is bendable, and the panel is provided with a heat source. The controller includes a housing, a main control circuit board and a battery. The panel includes a first surface and a second surface arranged in opposite directions, the second surface is provided with a plurality of supporting bodies, a thickness of the panel is smaller than a thickness of the housing, and a height of the supporting bodies is configured to compensate for a thickness difference between the panel and the housing.

Abstract: A flexible cup warming pad includes a heater, a heat conductor and a base. The heater, the heat conductor and the base are all flexible structures. The heater is accommodated between the heat conductor and the base, the heat conductor and the base are embedded and fixed to each other. The flexible cup warming pad can be laid flat to heat the bottom of an item, or can be bent and fitted to the item.

Abstract: A modular food warming pad includes a first heating pad and a plurality of second heating pads. The first heating pad includes a first support panel, a controller and a first connector electrically connected to each other. Each second heating pad includes a second supporting panel, a second connector, and a third connector electrically connected to each other. The first heating pad and the second heating pads are arranged in a first direction. The first connector of the first heating pad is electrically connected to the second connector of an adjacent second heating pad; the third connector of one second heating pad is electrically connected to the second connector of its adjacent second heating pad.

Abstract: Disclosed in the present disclosure is an induction meal-warming panel, including at least two hobs provided adjacent to each other, wherein a flexible connecting part is provided between two adjacent hobs, two adjacent hobs are connected to each other via the flexible connecting part, at least one of the hobs is configured with a meal-warming zone, at least one of the hobs is configured with an induction-hob zone, and at least one of the hobs is foldable towards an adjacent hob via the flexible connecting part until it reaches a folded state with the adjacent hob. The structure of the present disclosure is reasonably designed to achieve cooking and meal warming at the same time. The flexible connecting part of the soft silica gel plate is connected to each hob configured with a meal-warming zone and an induction-hob zone, so that the induction meal-warming panel is portable and foldable.

Abstract: Disclosed in the present disclosure is a heat dissipation structure for induction hobs and an induction hob, in which the heat dissipation structure includes a bottom housing for induction hobs, an interior of the bottom housing is flatly provided with a motherboard and an electromagnetic coil, and the electromagnetic coil is provided with at least two fans adjacent thereto. The side wall of the bottom housing is provided as a curved wall with a vent opening in the present disclosure, which effectively increases the area of the vent opening and thus improves the ventilation volume and ventilation efficiency. At least two fans are provided inside the bottom housing, so that the two fans may simultaneously perform the heat dissipation on the electromagnetic coil and the motherboard, which improves the utilization efficiency of the fans.

Abstract: Disclosed in the present disclosure is a novel induction hob, the structure thereof including a bottom housing, in which the outer sidewall of the bottom housing is a curved wall with vent openings, and the curved wall is able to provide a larger ventilation area of the vent openings without increasing the height of the bottom housing, so that better heat dissipation is achieved and the height of the sidewalls of the bottom housing is also able to be designed to be as small as possible, thereby achieving the lightness and thinness of the induction hob. Combined with the fact that the motherboard, the first fan, and the second fan are spaced around a side of the electromagnetic coil, it leads to a reduction of space occupying the height inside the bottom housing, and further achieves a thin and light design of the induction hob.

Abstract: Disclosed in the present disclosure is an induction hob, including a bottom housing, a top housing, a glass front panel provided sequentially from bottom to top. A movable support that moves up and down is provided, a top of the movable support is provided with a non-ferrous probe, an upper end surface of the non-ferrous probe is protruded from the glass front panel, the movable support that moves up and down ensures that the non-ferrous probe stays in close contact with a bottom of the pan in real time. The temperature sensor is in close contact with the non-ferrous probe, so that heat from the non-ferrous probe is transferable to the temperature sensor, thereby allowing the heat from the pan to be transferred from the non-ferrous probe to the temperature sensor.

Abstract: Disclosed in the present disclosure is an induction hob for easy storage, including a first hob and a second hob, in which the first hob and the second hob are configured with a first cooking position and a second cooking position respectively, the first cooking position and the second cooking position are capable of performing cooking simultaneously, a rotation connecting mechanism is provided between the first hob and the second hob, the first cooking position and/or the second cooking position are/is able to rotate around the rotation connecting mechanism until the a front panel of the first hob is facing a front panel of the second hob or a back panel of the first hob is facing a back panel of the second hob. The structure of the present disclosure is reasonably designed, not only increasing the cooking space, but also convenient for storage.

Abstract: A manufacturing process for a food warming pad includes the following steps: a pad body with a groove formed on a second surface is manufactured by an integrated molding process; after the heating wire is embedded in the groove, an encapsulation glue is coated, and a drying operation is performed; after the encapsulation glue is completely cured, a controller is installed; and then, a test is performed to obtain a qualified food warming pad.

Abstract: A modular food warming pad includes a first heating pad and a plurality of second heating pads. The first heating pad includes a first support panel, a controller and a first connector electrically connected to each other. Each second heating pad includes a second supporting panel, a second connector, and a third connector electrically connected to each other. The first heating pad and the second heating pads are arranged in a first direction. The first connector of the first heating pad is electrically connected to the second connector of an adjacent second heating pad; the third connector of one second heating pad is electrically connected to the second connector of its adjacent second heating pad.

Abstract: A flexible heat preservation board with heating wire encapsulated therein includes a heating pad, a heating wire and a liquid adhesive. A first side of the heating pad is defined with a groove and arranged with a plurality of projections. The heating pad is provided with a power supplier. Inner surfaces of the groove are provided with a first protrusion and a second protrusion respectively. A bottom surface of the groove, lower surfaces of the first protrusion and the second protrusion define an open accommodating space for receiving the heating wire. A first gap is formed between the first protrusion and the heating wire, a second gap is formed between the second protrusion and the heating wire. The liquid adhesive encapsulates the first protrusion, the second protrusion, and the heating wire in the groove. Both the heating pad and the heating wire are flexible.

Abstract: A flexible heat preservation board with heating wire encapsulated therein includes a heating pad, a heating wire and a liquid adhesive. A first side of the heating pad is defined with a groove and arranged with a plurality of projections. The heating pad is provided with a power supplier. Inner surfaces of the groove are provided with a first protrusion and a second protrusion respectively. A bottom surface of the groove, lower surfaces of the first protrusion and the second protrusion define an open accommodating space for receiving the heating wire. A first gap is formed between the first protrusion and the heating wire, a second gap is formed between the second protrusion and the heating wire. The liquid adhesive encapsulates the first protrusion, the second protrusion, and the heating wire in the groove. Both the heating pad and the heating wire are flexible.

Abstract: The present disclosure relates to the technical field of heat preservation boards and, particularly to a flexible heat preservation board, including a heating pad and a heating wire, in which the heating pad is formed with a limiting groove for threading the heating wire, the limiting groove is uniformly distributed around the heating pad, the heating pad is provided with a power supplier to which an end of the heating wire is connected, a side of the heating pad is formed with a plurality of protruding structures having a same height, and the heating pad and the heating wire are both made of flexible materials. The proposed disclosure solves the problem that most of the existing meal heating devices are made of metal or glass materials, which, due to their high rigidity, lead to occupying a large space when they are not required for use and are difficult to store.

Abstract: A heating assembly, comprising a base plate, the base plate being provided with a plurality of ceramic heating sheets, the ceramic heating sheets being spaced apart side by side and being connected in parallel, and a heat conduction structure being provided over the ceramic heating sheets. An electrothermal furnace having the heating assembly is also provided.

Abstract: An ultra-thin heating device includes an upper heating pad, a lower heating pad, at least one electric heating piece and a power supply. The electric heating piece is installed at a preset position between the upper heating pad and the lower heating pad. The electrothermal sheet is electrically connected with the power supply. The upper heating pad and the lower heating pad are made of soft material. When a food needs to be heated, the food is placed on the preset position of the upper heating pad corresponding to the at least one electrothermal sheet, and the power supply provides electric power to the at least one electrothermal sheet to heat the food. Because the upper heating pad and the lower heating pad are made of soft material, when not in use, the ultra-thin heating device can be folded or rolled up for storage.