Multifunctional food processing device with heating function

Abstract

The embodiment of the utility model discloses a multifunctional food processing device with a heating function, which comprises a main machine, a heated container and a base, the main machine is connected with one side of the base, and the heated container is positioned above the base; a groove is formed in the middle of the top face of the base, a heating assembly and a heat insulation assembly are arranged in the groove, the top face of the heating assembly is higher than or flush with the top face of the base, the top face of the heating assembly abuts against the bottom of a heated container, the bottom face of the heating assembly is connected with the top face of the heat insulation assembly, and the bottom face of the heat insulation assembly is connected with the bottom of the groove. According to the embodiment, the adaptation range of the bottom size of the heated container is large, the heated container with the bottom size smaller than the groove opening can be heated, and the heated container with the bottom size larger than the groove opening can also be heated.

Description

TECHNICAL FIELD

[0001] The utility model relates to food processing technical field especially, it is a kind of multifunctional food processing device with heating function. BACKGROUND

[0002] Existing food processing device, such as eggbeater, only single stirring, eggbeating, and dough function, without fermentation dough function.Due to the south and north, even the same place four seasons temperature difference is larger, when room temperature is below 10°C, yeast activity in dough is weakened, dough in bowl is fermented under low temperature and needs to wait for a long time, usually needs 6-15 hours, and fermented dough volume is small, few air holes, taste rigid, time-consuming and laborious, cannot satisfy the demand of modern high-end consumer population.

[0003] Existing patent document CN118830553A discloses a kind of temperature control device and method for food processing, and its heating component is arranged at the bottom of base groove, the adaptation range of the bottom shape and size of heated container is smaller, not applicable to the heated container with bottom size greater than groove notch. UTILITARY MODEL CONTENT

[0004] The utility model embodiment discloses a kind of multifunctional food processing device with heating function, to solve the problem that the adaptation range of the bottom size of heated container is smaller in prior art, heating component is arranged at the bottom of base groove.

[0005] The utility model embodiment provides a kind of multifunctional food processing device with heating function, including: host computer, heated container and base, the host computer with the side of the base is connected, the heated container is located above the base;

[0006] The recess is provided in the middle of the top surface of the base, the heating component and the heat insulation component are arranged in the recess, the top surface of the heating component is higher than the top surface of the base or is flush with the top surface of the base, the top surface of the heating component is in abutment with the bottom of the heated container, the bottom surface of the heating component is connected with the top surface of the heat insulation component, and the bottom surface of the heat insulation component is connected with the bottom of the recess.

[0007] Further, the heat insulation component includes a heat insulation plate and at least one heat insulation support, one side of the heat insulation plate is connected with the heating component, the other side of the heat insulation component is connected with one end of the heat insulation support, and the other end of the heat insulation support is connected with the bottom of the recess of the base.

[0008] Further, the heating component includes a heat conduction plate and a heating device, and the heating device is arranged at the bottom of the heat conduction plate.

[0009] Further, the bottom of the heat-conducting plate is provided with a heat-conducting support, one end of the heat-conducting support is connected with the bottom of the heat-conducting plate, and the other end of the heat-conducting support is connected with the heat-insulating component.

[0010] Further, the heat generator is arranged at the middle of the bottom of the heat-conducting plate.

[0011] Further, the bottom of the heat-conducting plate is provided with a U-shaped piece, the recess of the U-shaped piece is used for placing the heat generator, the notch of the U-shaped piece is connected with the bottom of the heat-conducting plate, the outer surfaces of the two side walls of the U-shaped piece are provided with notches, the notches are used for causing the two side walls of the U-shaped piece to deform and fall down at the notches when the two side walls of the U-shaped piece are subjected to the pressure perpendicular to the heat-conducting plate, the height of the two side walls of the U-shaped piece is shortened, the distance between the groove bottom of the U-shaped piece and the bottom of the heat-conducting plate is reduced, and the heat generator is tightly attached to the groove bottom of the U-shaped piece and the heat-conducting plate respectively.

[0012] Further, the thickness of the bottom of the U-shaped piece is greater than the thickness of the side wall of the U-shaped piece.

[0013] Further, the bottom of the heat-conducting plate is further provided with a temperature detector, the temperature detection surface of the temperature detector is connected with the bottom of the heat-conducting plate, and the temperature detector is used for detecting the temperature of the heat-conducting plate.

[0014] Further, the bottom of the heat-conducting plate is connected with a curved convex piece which is consistent with the material of the heat-conducting plate, and the outer side of the temperature detector is surrounded by the curved convex piece.

[0015] Further, the temperature detector is arranged close to the heat generator.

[0016] It can be seen from the technical scheme that the embodiments provided by the utility model have the following advantages:

[0017] On one hand, the heating assembly is supported by the heat-insulating component, the top surface of the heating assembly is higher than or level with the top surface of the base, and the bottom of the heated container can abut against the heating assembly regardless of whether the size of the bottom of the heated container is greater than or smaller than the size of the notch. It can be seen that the adaptation range of the size of the bottom of the heated container is large, and the heated container with the bottom size smaller than the size of the notch can be heated, and the heated container with the bottom size greater than the size of the notch can also be heated. On the other hand, the top surface of the heating assembly is arranged at a position level with or higher than the top surface of the base, and there is a large space between the bottom surface of the heating assembly and the bottom of the notch. The embodiments increase the difficulty of heat transfer to the bottom of the notch by arranging the heat-insulating component, reduce the heat transfer space of the heating assembly in the notch, reduce the heat transferred to the bottom of the notch, concentrate the heat at the heating assembly and the bottom of the heated container, and improve the use efficiency of heat energy. BRIEF DESCRIPTION OF DRAWINGS

[0018] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings needed to be used in the embodiments or prior art description. Obviously, the drawings in the following description are only some embodiments of the present application, and for those skilled in the art, other drawings can also be obtained from these drawings without creative labor.

[0019] Figure 1 A base sectional view of a multifunctional food processing device with heating function provided in the embodiments of the present application;

[0020] Figure 2 A structure schematic view of a multifunctional food processing device with heating function provided in the embodiments of the present application;

[0021] Figure 3 A combination schematic view of a heating assembly and a heat insulation assembly in a multifunctional food processing device with heating function provided in the embodiments of the present application;

[0022] Figure 4 A perspective view of a heating assembly in a multifunctional food processing device with heating function provided in the embodiments of the present application;

[0023] Figure 5 A front view of a heating assembly in a multifunctional food processing device with heating function provided in the embodiments of the present application;

[0024] Figure 6 A bottom view of a heating assembly in a multifunctional food processing device with heating function provided in the embodiments of the present application;

[0025] The figure mark explanation: 1, main machine; 2, heated container; 3, base; 4, groove; 5, heat insulation assembly; 51, heat insulation plate; 52, heat insulation support; 6, heating assembly; 61, heat conduction plate; 62, heating device; 621, heating lead; 63, heat conduction support; 7, U-shaped piece; 71, notch; 8, curved convex piece; 9, temperature measurer; 91, temperature measurement lead. DETAILED DESCRIPTION

[0026] In the description of the present application, it should be understood that the terms "center", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer" and the like indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, therefore it cannot be understood as a limitation of the present application.

[0027] In the description of the utility model, unless otherwise specified, the meaning of "a plurality of" is two or more than two.

[0028] In the description of the utility model, it is to be explained that, unless otherwise explicitly provided and limited, the terms "installation", "connection" should be understood in a broad sense, for example, it can be fixed connection, can be detachable connection, or integrally connected;It can be directly connected, or indirectly connected through an intermediate medium, it can be the communication inside two elements.

[0029] In the description of the specification, specific features, structures, materials or characteristics can be combined in any one or more embodiments or examples in a suitable manner.

[0030] The utility model discloses an embodiment of a kind of multifunctional food processing device with heating function.

[0031] The heating assembly of the prior art is arranged at the bottom of the base recess, and can only heat the heated container with a bottom size smaller than the recess opening, so the adaptation range of the heated container bottom shape and size is small, and it is not suitable for the heated container with a flat bottom structure and a bottom size larger than the recess opening.

[0032] Please refer to Figures 1-3 An embodiment of a kind of multifunctional food processing device with heating function provided in the utility model embodiment includes: host computer 1, heated container 2 and base 3, host computer 1 is connected with the side of base 3, heated container 2 is located above base 3;

[0033] The recess 4 is provided with a heating assembly 6 and a heat insulation assembly 5, the top surface of the heating assembly 6 is higher than or flush with the top surface of the base 3, the top surface of the heating assembly 6 abuts against the bottom of the heated container 2, the bottom surface of the heating assembly 6 is connected with the top surface of the heat insulation assembly 5, and the bottom surface of the heat insulation assembly 5 is connected with the bottom of the recess 4.

[0034] It can be understood that, in specific implementation, on the one hand, the embodiment supports the heating assembly 6 by the heat insulation assembly 5, and the top surface of the heating assembly 6 is higher than or flush with the top surface of the base 3. When the bottom size of the heated container 2 is greater than or smaller than the size of the groove 4, the bottom of the heated container 2 can abut against the heating assembly 6. It can be seen that the embodiment has a large range of adaptation to the bottom size of the heated container 2, and can heat the heated container 2 with a bottom size smaller than the size of the groove 4, or heat the heated container 2 with a bottom size greater than the size of the groove 4. On the other hand, the top surface of the heating assembly 6 is arranged at a position flush with or higher than the top surface of the base 3, that is, there is a large space between the bottom surface of the heating assembly 6 and the bottom of the groove 4. The embodiment increases the difficulty of heat transfer to the bottom of the groove 4 by arranging the heat insulation assembly 5, reduces the heat transfer space of the heating assembly 6 in the groove 4, reduces the heat transferred to the bottom of the groove 4, and concentrates the heat at the heating assembly 6 and the bottom of the heated container 2, thereby improving the use efficiency of heat energy.

[0035] In a more specific embodiment, the heat insulation assembly 5 is made of nylon material. It can be understood that, on the one hand, nylon is a high molecular material, and the structure and arrangement of the molecular chain have an effect on heat conduction. There is a certain force of interaction between the nylon molecular chains, and heat needs to overcome the interaction between the molecules to transfer when passing through the nylon material. The resistance between the molecules slows down the speed of heat transfer, thereby producing a heat insulation effect. On the other hand, the nylon material also has good mechanical properties, such as high strength and good wear resistance, and can support the heating assembly 6 and the heated container 2.

[0036] In a more specific embodiment, the heat insulation assembly 5 includes a heat insulation plate 51 and a heat insulation support 52. One side of the heat insulation plate 51 is connected with the heating assembly 6, the other side of the heat insulation assembly 5 is connected with one end of the heat insulation support 52, and the other end of the heat insulation support 52 is connected with the bottom of the groove 4 of the base 3. It can be understood that, in specific implementation, the heat insulation plate 51 is used to block the heat transfer of the heating assembly 6 to the bottom of the groove 4, and the heat insulation support 52 is used to control the height of the heat insulation plate 51 relative to the bottom of the groove 4. In specific implementation, the height of the heat insulation support 52 can be adjusted according to the space requirement of the heating assembly 6.

[0037] In a more specific embodiment, the heat insulation plate 51 and the heat insulation support 52 are integrally formed, and the end of the heat insulation support 52 connected with the bottom of the groove 4 is connected with the bottom of the groove 4 by a screw.

[0038] In a more specific embodiment, the end of the heat insulation support 52 connected with the bottom of the groove 4 is internally provided with a threaded groove, and the bottom of the groove 4 is provided with a circular hole penetrating through the bottom of the base 3. In specific implementation, the bottom of the screw is fixed in the threaded groove of the heat insulation support 52 from the bottom surface of the base 3 through the circular hole, thereby realizing the fixed connection of the heat insulation support 52 with the base 3.

[0039] In a more specific embodiment, the heat insulation assembly 5 comprises a plurality of heat insulation pedestals 3, which are distributed at different positions on the bottom of the heat insulation plate 51, so as to improve the structural stability and support performance of the heat insulation plate 51.

[0040] In a more specific embodiment, the heating assembly 6 comprises a heat conduction plate 61 and a heating device 62, which is arranged on the bottom of the heat conduction plate 61. It can be understood that, in specific implementation, if the heating device 62 is directly in contact with the heated container 2, the heat will be concentrated near the contact point. Because the material of the heated container 2 (such as ceramic, glass, etc.) usually has relatively poor thermal conductivity, the heat at the contact point is difficult to quickly and uniformly spread. This is easy to cause the local temperature of the bottom of the heated container 2 to be too high, which may damage the bottom of the heated container 2 and cause cracks in the bottom of the heated container 2. At the same time, when directly in contact, the bottom of the container and the surface of the heating device 62 may not be flat enough, and there is an air gap between them. Air is a poor conductor of heat, which will hinder the heat transfer from the heating device 62 to the bottom of the heated container 2. The heat conduction plate 61 can closely fit the heating device 62 and the heated container 2, reducing the air gap.

[0041] In a more specific embodiment, the material of the heated container 2 is stainless steel, which has good thermal conductivity.

[0042] In a more specific embodiment, the material of the heat conduction plate 61 is aluminum. The heat conduction plate 61 formed by aluminum die casting has high thermal conductivity, which can efficiently transfer the heat generated by the heating device 62 to the bottom of the heated container 2 placed above, so that the food can be heated faster. In terms of processing performance, aluminum has good plasticity and can be processed into heat conduction plates 61 of different shapes and thicknesses by various processing methods. Moreover, the chemical properties of aluminum are relatively stable, and aluminum has good chemical stability in general heating environments. It will not rust as easily as some metals (such as iron). When aluminum is exposed to air, a dense layer of aluminum oxide protective film will form on its surface, which can prevent further oxidation of aluminum. In the heating equipment in the kitchen, the aluminum heat conduction plate 61 will not be corroded on a large scale due to oxidation even after long-term use, thereby ensuring the service life and performance of the heat conduction plate 61.

[0043] In a more specific embodiment, the bottom of the heat conduction plate 61 is provided with a heat conduction support 63, one end of the heat conduction support 63 is connected with the bottom of the heat conduction plate 61, and the other end of the heat conduction support 63 is connected with the heat insulation plate 51. It can be understood that, in specific implementation, the heat insulation support 52 is used to control the distance between the heat conduction plate 61 and the heat insulation plate 51, so as to provide a suitable installation space for the heating device 62.

[0044] In a more specific embodiment, the heat generator 62 is arranged at the middle of the bottom of the heat-conducting plate 61 to achieve uniform heating. It can be understood that, in actual implementation, when the heat generator 62 is arranged at the middle of the bottom of the heat-conducting plate 61, heat can be spread to the surroundings in a more symmetrical manner. According to the physical principle of heat conduction, such a symmetrical heat source can make the heat flow in each direction of the heat-conducting plate 61 more balanced.

[0045] In a more specific embodiment, the heat generator 62 is a PTC heat generator. One of the most important safety features of the PTC heat generator is its ability to automatically adjust temperature. When the temperature reaches a certain level, the resistance of the PTC heat generator increases, the current decreases, and the power decreases, thereby avoiding continuous temperature rise and overheating. The heat generator 62 can quickly reach the set temperature after being started. In cold weather, when the user needs to quickly heat, the PTC heat generator can quickly rise in temperature.

[0046] In a more specific embodiment, as shown in Figures 4-5 the bottom of the heat-conducting plate 61 is provided with a U-shaped piece 7. The recess of the U-shaped piece 7 is used to place the heat generator 62, the slot of the U-shaped piece 7 is connected with the bottom of the heat-conducting plate 61, the outer surfaces of the two side walls of the U-shaped piece 7 are provided with notches 71. When the two side walls of the U-shaped piece 7 are subjected to pressure perpendicular to the heat-conducting plate 61, the two side walls of the U-shaped piece 7 are deformed and collapsed at the notches, the notches 71 tend to close, the height of the two side walls of the U-shaped piece 7 is shortened, the distance between the bottom of the U-shaped piece 7 and the bottom of the heat-conducting plate 61 is reduced, and then the bottom of the U-shaped piece 7 presses the heat generator 62 on the bottom of the heat-conducting plate 61, that is, the heat generator 62 is tightly attached to the bottom of the U-shaped piece 7 and the bottom of the heat-conducting plate 61 respectively. It can be understood that, when the two side walls of the U-shaped piece 7 are subjected to pressure perpendicular to the heat-conducting plate 61, the material at the notches 71 is relatively weak, and after the pressure is transmitted, the stress concentration degree of this part is higher than the limit that the material itself can withstand, so the notches will deform first and tend to close, and then the vertical height of the U-shaped piece 7 will also be shortened.

[0047] It should be noted that, when the U-shaped piece 7 is pressed, the part near the notches on the two side walls of the U-shaped piece 7 will be slightly concave towards the inside of the recess of the U-shaped piece 7, but there is still a gap between the inner side wall of the U-shaped piece 7 and the side wall of the heat generator 62 to prevent the heat generator 62 from being pressed and exploded. In addition, the two side surfaces of the heat generator 62 hardly transmit heat, and the heat is mainly transmitted by the surface of the heat generator 62 that is tightly attached to the heat-conducting plate 61.

[0048] In a more specific embodiment, the notch 71 is a strip-shaped notch, parallel to the heat-conducting plate 61, and is a U-shaped or V-shaped notch formed on the surface of the two side walls of the U-shaped part 7. It is understood that in practice, when the two side walls of the U-shaped part 7 are subjected to pressure perpendicular to the heat-conducting plate 61, the two side walls of the U-shaped part 7 tend to close at the U-shaped or V-shaped notch, thereby shortening the height of the two side walls of the U-shaped part 7 and reducing the distance between the bottom of the U-shaped part 7 and the heat-conducting plate 61, i.e., reducing the gap between the bottom of the U-shaped part 7 and the heater 62.

[0049] In a more specific embodiment, the bottom thickness of the U-shaped member 7 is greater than the sidewall thickness. It is understood that, in practice, the bottom of the U-shaped member 7 bears the greatest pressure when pressure is transmitted through it. If the bottom and sidewall thicknesses are the same, the bottom is likely to deform first due to the higher stress, preventing pressure from being transmitted to the sidewalls and causing them to collapse, thus hindering the reduction of the sidewall height. Increasing the bottom thickness allows the thicker bottom of the U-shaped member 7 to withstand greater stress and is less prone to deformation, enabling pressure to be transmitted to the sidewalls and causing them to collapse, thus preventing the bottom from deforming before the sidewalls deform.

[0050] In a more specific embodiment, the bottom thickness of the U-shaped member 7 is approximately twice the thickness of the sidewall of the U-shaped member 7.

[0051] In a more specific embodiment, the U-shaped part 7 is made of aluminum. It is understood that aluminum has good plasticity, and since the U-shaped part 7 is made of the same material as the heat-conducting plate 61, the U-shaped part 7 can be integrally die-cast with the heat-conducting plate 61, reducing processing steps.

[0052] In a more specific embodiment, pressure is applied to the two side walls of the U-shaped part 7 by a press, which is a pneumatic press.

[0053] In a more specific embodiment, one end of the heater 62 is connected to a heating lead 621, which is disposed at the side opening of the U-shaped part and is covered with a high-temperature insulating sleeve.

[0054] In a more specific embodiment, such as Figure 6 As shown, a temperature sensor 9 is also provided at the bottom of the heat-conducting plate 61. The temperature measuring surface of the temperature sensor 9 is connected to the bottom of the heat-conducting plate 61, and the temperature sensor 9 is used to detect the temperature of the heat-conducting plate 61. It can be understood that in specific implementation, the temperature sensor 9 obtains the temperature information of the heat-conducting plate 61 and transmits it to the control board in the host 1. The control board in the host 1 then feeds back the temperature adjustment information to the heater 62 to adjust the heat-conducting plate 61 to a suitable temperature.

[0055] In a more specific embodiment, the bottom of the heat-conducting plate 61 is connected with a curved protrusion 8 consistent with the material of the heat-conducting plate 61, and the outer side of the temperature detector 9 is surrounded by the curved protrusion 8. It can be understood that, in specific implementation, the temperature detector 9 and the heat-conducting plate 61 are in contact with each other in a surface-to-surface manner to transfer heat, and the heat may be lost to the surrounding environment, resulting in that the temperature detected by the temperature detector 9 is lower than the actual temperature. In the embodiment, since the temperature detector 9 is surrounded by the curved protrusion 8, the heat loss is reduced, and the influence of the heat loss on the measurement result of the temperature detector 9 is avoided, so that the temperature detector 9 can more accurately measure the temperature of the heat-conducting plate 61.

[0056] In a more specific embodiment, the curved protrusion 8 is a U-shaped protrusion. In some more specific embodiments, the curved protrusion 8 is an arc-shaped protrusion.

[0057] In a more specific embodiment, one side of the temperature detector 9 is in contact with the bottom surface of the heat-conducting plate 61 through a heat-conducting paste. It can be understood that the heat-conducting paste is used to fill the gap between the temperature detector 9 and the heat-conducting plate 61. The surface of the temperature detector 9 has many tiny irregularities, and these microscopic gaps will hinder the heat transfer, resulting in that the temperature detected by the temperature detector 9 is inaccurate. The heat-conducting paste has good heat-conducting performance and can fill these gaps, so that the heat of the heat-conducting plate 61 is more smoothly transferred to the temperature detector 9, and the accuracy and precision of the temperature detected by the temperature detector 9 are improved.

[0058] In a more specific embodiment, the other side of the temperature detector 9 is fixed in the curved protrusion 8 through high-temperature adhesive paper or aluminum foil pulp, so as to fix the temperature detector 9 at the bottom of the heat-conducting plate 61.

[0059] In a more specific embodiment, the temperature detector 9 is arranged close to the heat generator 62 but does not contact the heat generator 62. It can be understood that, in specific implementation, the part of the heat-conducting plate 61 contacting the heat generator 62 has the fastest heat transfer rate. By feeding back the temperature of the part in real time, it can be ensured that the local problem of the heat-conducting plate 61 is higher than the set value, and even if it occurs, it can quickly respond to reduce the temperature of the heat generator 62. Therefore, by arranging the temperature detector 9 close to the heat generator 62, it can be ensured that the highest temperature of the heat-conducting plate 61 is lower than the set temperature as much as possible, and the heat-conducting plate 61 is prevented from overheating.

[0060] In a more specific embodiment, the temperature measuring device 9 is an NTC temperature probe. It can be understood that the NTC temperature probe can generally measure a temperature range of about -50℃ to 150℃, and has the advantage of small size and easy installation in various narrow spaces. In some more specific embodiments, the temperature measuring device is a digital temperature sensor with a unique single-wire interface, which can communicate with a microprocessor through only one data line. The temperature measuring range is -55℃ to +125℃, the accuracy is ±0.5℃ in the range of -10℃ to +85℃, and the conversion time is short.

[0061] In a more specific embodiment, the temperature measuring device 9 is provided with a temperature measuring lead 91 at one end, and the curved protrusion 8 is provided with a temperature measuring lead gap for placing the temperature measuring lead 91. The temperature measuring lead 91 is covered with a high-temperature insulating sleeve. It can be understood that since the temperature measuring device 9 is arranged at the bottom of the heat-conducting plate 61, the temperature measuring lead 91 is also arranged at the bottom of the heat-conducting plate 61. By covering the temperature measuring lead 91 with a high-temperature insulating sleeve, the temperature measuring lead 91 is not affected by high temperature.

[0062] In a more specific embodiment, the host 1 is provided with a control board, and one end of the heat-conducting plate 61 is provided with a lead-in port. The heating lead 621 of the heating device 62 and the temperature measuring lead 91 of the temperature measuring device 9 pass through the lead-in port at the bottom of the heat-conducting plate 61 into the host 1 and are connected to the control board, for leading out the leads of the heating device 62 and the temperature measuring device 9 to the control board in the host 1. It can be understood that the temperature information of the heat-conducting plate 61 obtained by the temperature measuring device 9 is transmitted to the control board in the host 1 through the temperature measuring lead 91. The control board in the host 1 feeds back temperature adjustment information to the heating device 62 through the heating lead 621, so as to adjust the temperature of the heating device 62 and adjust the heat-conducting plate 61 to the appropriate temperature.

[0063] In a more specific embodiment, the heat-conducting plate 61 and the heat-insulating plate 51 are provided with gaps on both sides and the inner wall of the base 3. When the screws fixed to the heat-insulating support 52 and the base 3 are removed, the heat-conducting assembly and the heat-insulating assembly 5 can be easily taken out by hand, and can be disassembled for cleaning or reinstalled.

[0064] The multifunctional food processing device with heating function of the embodiment can be applied to a hot milk device, a thawing device, a water boiling device, and the like.

[0065] In a more specific embodiment, the multifunctional food processing device with heating function is applied to a eggbeater, forming a multifunctional eggbeater with fermentation function. The temperature of the heat-conducting plate 61 is accurately obtained in real time by the temperature detector 9, and the temperature of the heater 62 is adjusted, so as to realize low-temperature heating and fermentation of the food or dough in the heated container 2. When the fermentation function is turned on, the control panel in the main machine 1 controls the stirring assembly to stop working. The average fermentation power is usually 15-40W, which is energy-saving and power-saving. The fermentation temperature can be set within 30-65°C (experiments show that the yeast activity is best in this temperature range), and the fermentation time can be set within 1-5 hours. The dough fermented by the above device has the advantages of volume expansion, dense and uniform pores, moderate hardness, and is suitable for the cooking needs of customers of different ages.

[0066] Therefore, in the embodiment, the heating assembly 6 is added to the base 3 to realize the integration of mixing and fermentation, and the work mode can be switched freely and safely without changing the bowl.

[0067] It should be noted that the terms describing the positional relationship in the above examples and the drawings are only used for illustrative description, and cannot be understood as a limitation of the patent. The above embodiments of the utility model are only examples for clearly illustrating the utility model, and are not a limitation of the embodiments of the utility model. For ordinary skilled persons in the art, other different forms of changes or variations can be made on the basis of the above description. Here, it is not necessary and impossible to enumerate all the embodiments. Any modification, equivalent replacement and improvement made within the spirit and principle of the utility model should be included in the protection scope of the claims of the utility model.

Claims

1. A multifunctional food processing device with heating function, characterized in that, The utility model relates to a heating device for a host computer (1), a heated container (2) and a base (3), the host computer (1) is connected with one side of the base (3), and the heated container (2) is located above the base (3). The base (3) top surface middle part is provided with a recess (4), the recess (4) is provided with a heating assembly (6) and a heat insulation assembly (5), the heating assembly (6) top surface is higher than the base (3) top surface or is flush with the base (3) top surface, the heating assembly (6) top surface is in abutment with the bottom of the heated container (2), the heating assembly (6) bottom surface is connected with the heat insulation assembly (5) top surface, and the heat insulation assembly (5) bottom surface is connected with the recess (4) bottom. The heat insulation assembly (5) includes a heat insulation plate (51) and at least one heat insulation support (52), one side of the heat insulation plate (51) is connected with the heating assembly (6), the other side of the heat insulation assembly (5) is connected with one end of the heat insulation support (52), and the other end of the heat insulation support (52) is connected with the recess (4) bottom of the base (3).

2. The multifunctional food processing device with heating function according to claim 1, characterized in that, The heating assembly (6) includes a heat conduction plate (61) and a heater (62), and the heater (62) is arranged at the bottom of the heat conduction plate (61).

3. The multifunctional food processing device with heating function according to claim 1, characterized in that, The bottom of the heat conduction plate (61) is provided with a heat conduction support (63), one end of the heat conduction support (63) is connected with the bottom of the heat conduction plate (61), and the other end of the heat conduction support (63) is connected with the heat insulation assembly.

4. The multifunctional food processing device with heating function according to claim 3, characterized in that, The heater (62) is arranged at the middle of the bottom of the heat conduction plate (61).

5. The multifunctional food processing device with heating function according to claim 3, characterized in that, The bottom of the heat conduction plate (61) is provided with a U-shaped piece (7), the recess of the U-shaped piece (7) is used for placing the heater (62), the notch of the U-shaped piece (7) is connected with the bottom of the heat conduction plate (61), the outer surfaces of the two side walls of the U-shaped piece (7) are provided with notches (71), the notches (71) are used for causing the two side walls of the U-shaped piece (7) to deform and get off when the two side walls of the U-shaped piece (7) are subjected to pressure perpendicular to the heat conduction plate (61), the height of the two side walls of the U-shaped piece (7) is shortened, the distance between the groove bottom of the U-shaped piece (7) and the bottom of the heat conduction plate (61) is reduced, and the heater (62) is tightly attached to the groove bottom of the U-shaped piece (7) and the heat conduction plate (61) respectively.

6. The multifunctional food processing device with heating function according to claim 3 or 5, characterized in that, The bottom thickness of the U-shaped piece (7) is greater than the thickness of the side wall of the U-shaped piece (7).

7. The multifunctional food processing device with heating function according to claim 6, characterized in that, The bottom of the heat conduction plate (61) is further provided with a temperature detector (9), the temperature detection surface of the temperature detector (9) is connected with the bottom of the heat conduction plate (61), and the temperature detector (9) is used for detecting the temperature of the heat conduction plate (61).

8. The multifunctional food processing device with heating function according to claim 3, characterized in that, The bottom of the heat conduction plate (61) is connected with a curved convex piece (8) consistent with the material of the heat conduction plate (61), and the outer side of the temperature detector (9) is surrounded by the curved convex piece (8).

9. The multi-functional food processing device with heating function according to claim 8, characterized in that, The temperature detector (9) is arranged close to the heater (62).

10. The multi-functional food processing device with heating function according to claim 8, wherein, ​

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