CN215605153U

CN215605153U - Food processor

Info

Publication number: CN215605153U
Application number: CN202120941423.9U
Authority: CN
Inventors: 叶理德; 唐路蒙
Original assignee: Zhejiang Shaoxing Supor Domestic Electrical Appliance Co Ltd
Current assignee: Zhejiang Shaoxing Supor Domestic Electrical Appliance Co Ltd
Priority date: 2021-04-30
Filing date: 2021-04-30
Publication date: 2022-01-25
Anticipated expiration: 2031-04-30

Abstract

The application discloses cooking machine. The cooking machine comprises a host machine assembly, a gas input assembly, an instant heating assembly and a juice receiving cup assembly. The host assembly includes a host housing and a control board located within the host housing. The instant heating assembly and the gas input assembly are assembled on the host shell; the instant heating assembly heats the gas input through the gas input assembly to generate high-temperature gas, and the control board controls the high-temperature gas to be transmitted to the food in the juice receiving cup according to a cooking program to heat the food. So set up, high-temperature gas can be comparatively abundant contact food and take place heat exchange passing food in-process, and heating food is fast, and in addition, high-temperature gas passes food in-process and can make food take place the motion, and then, plays the effect of stirring, consequently, can ensure not stick with paste the end, not layering, also need not be in connecing the juice cup and set up mixing system.

Description

Food processor

Technical Field

The application relates to a small household electrical appliance technical field especially relates to cooking machine.

Background

The food processer comprises a host machine component, a water tank component, a stirring cup component and a juice receiving cup component. The water tank assembly, the stirring cup assembly and the juice receiving cup assembly are all assembled on the host machine assembly. The stirring cup assembly comprises a stirring cup. The water tank assembly supplies water into the stirring cup. In the blender cup, the comminuted food material and water are mixed into a slurry (also referred to as juice in some cases). The juice cup assembly includes a juice cup (also referred to in some cases as a cook cup). With the juice receiving cup in communication with the blender cup, the slurry is able to flow into the juice receiving cup. In some cases, one needs to heat the slurry in the juice receiving cup.

One way to heat the slurry is to: the juice receiving cup assembly includes a heating element. The heating element is in direct or indirect contact with the juice receiving cup, thereby heating the juice directly or indirectly. The cooking machine heating in this way has the following problems: uneven heating, easy bottom pasting and in order to prevent bottom pasting, a stirring system is required to be arranged in the juice receiving cup.

Disclosure of Invention

The application discloses cooking machine. The cooking machine heats evenly, is difficult to stick with paste the end and connect the juice cup subassembly and need not set up mixing system.

In order to achieve the purpose, the embodiment of the application discloses a food processor. The cooking machine includes control panel, gas input subassembly, instant heating subassembly and connects the juice cup subassembly, wherein: the juice receiving cup assembly comprises a juice receiving cup. The instant heating assembly heats the gas input through the gas input assembly to generate high-temperature gas, and the control board controls the high-temperature gas to be transmitted to the food in the juice receiving cup according to a cooking program to heat the food. So set up, because this application produces high-temperature gas through instant heating subassembly, high-temperature gas gets into and connects in the juice cup, discharge after passing food (for example juice or thick liquid), high-temperature gas can be comparatively abundant contact food and take place heat exchange passing food in-process, it is fast to heat food, furthermore, high-temperature gas passes food in-process and can make food take place the motion, and then, play the effect of stirring, consequently, can ensure not stick with paste the end, not layering, also need not set up mixing system in connecing the juice cup. Finally, some current methods heat the water in the water tank assembly to obtain water vapor, and heat the food in the juice receiving cup by the water vapor, which has the disadvantages that the water vapor becomes liquid after being cooled to raise the liquid level of the food, the water vapor becomes liquid to dilute (such as soybean milk) and affect the taste, and in addition, the water in the water tank of the water tank assembly is consumed. And this application connects the food in the juice cup through high-temperature gas heating, can not make the liquid level of food rise, can not dilute food and influence food taste. The transmission pipeline of high-temperature gas is independent of the hot water pipeline, so that the high-temperature gas cannot become steam, water in the water tank of the water tank assembly cannot be consumed, food cannot be diluted, the liquid level of the food cannot rise, in addition, the temperature of the high-temperature gas is higher than that of the steam, and the food in the juice cup can be heated more quickly.

Optionally, the food processor comprises a stirring cup assembly, wherein the stirring cup assembly comprises a stirring cup; the instant heating assembly comprises an air pipe, an air inlet of the air pipe is connected to the air input assembly, an air outlet of the air pipe is connected to the stirring cup and the juice receiving cup, and the control panel controls the high-temperature air to be conveyed to the stirring cup according to a cooking program so as to bake the stirring cup in a hot mode. So set up, the liquid food in the stirring cup flows into and connects the juice cup under the condition, and the food that is heated is mainly liquid food (for example, the thick liquid that the stirring cup subassembly produced etc.), and the cooking machine is more convenient to use. Dry by the fire through the high-temperature gas stirring cup (under this kind of condition, the stirring cup also can be other cups for cooking machine has the heat to dry by the fire the function), can play the effect of stoving, disinfecting, improves user experience, moreover, utilizes the high-temperature gas that the subassembly produced promptly dries by the fire to the stirring cup, makes the subassembly that heats promptly can realize more functions, and the cooking machine need not set up again and is used for the heat to dry by the fire the correlation structure of stirring cup, simplifies the structure of cooking machine in other words and makes cooking machine's simple structure and compactness.

Optionally, the food processor comprises a gas three-way valve, the juice receiving cup and the stirring cup are connected to a gas outlet of the gas pipe through the gas three-way valve, and the high-temperature gas enters the juice receiving cup or the stirring cup by switching the gas three-way valve; or, the cooking machine is including connecing juice two-way valve and stirring two-way valve, connect the juice cup to pass through connect the juice two-way valve connect in tracheal gas outlet, the stirring cup pass through the stirring two-way valve connect in tracheal gas outlet, through connect the break-make state of juice two-way valve with the combination of the break-make state of stirring two-way valve is in order to control high temperature gas gets into connect the juice cup and/or the stirring cup. So set up, realize high-temperature gas flow direction stirring cup through switching gas three-way valve, perhaps, the flow direction connects the juice cup to simple structure has realized high-temperature gas's transport, and control is convenient, and the cooking machine can be applicable to different application scenes, and user experience is good. Through setting up the stirring two-way valve with connect the juice two-way valve to realize stirring cup, gas input subassembly and tracheal intercommunication with simple structure relatively, perhaps, connect juice cup, gas input subassembly and tracheal intercommunication, in addition, through control connect juice two-way valve and stirring two-way valve, can also be when connecing the food in the juice cup to boil out, heat to the stirring cup and dry by the fire, saved whole flow and accomplished the time, improved user experience more.

Optionally, the food processor comprises a water tank assembly, the instant heating assembly further comprises a water pipe, the instant heating assembly heats water in the water pipe to generate hot water under the condition that the water pipe is communicated with the water tank assembly, the stirring cup is connected with the water pipe through a control valve, the hot water flows into the stirring cup through controlling the control valve, the hot water and food materials in the stirring cup form slurry, and the food flows into the juice receiving cup; or, the cooking machine includes water three-way valve and drink mouth promptly, the stirring cup with drink mouth promptly all through water three-way valve connects in the water pipe, through switching over the water three-way valve is in order to control hot water flow in the stirring cup or flow in drink mouth promptly, the hot water that flows in the stirring cup constitutes the thick liquid with the edible material in the stirring cup, the thick liquid flows in connect the juice cup. With this arrangement, the time for making the milk can be shortened by making the mixed food (e.g., the milk) of the hot water and the pulverized food material, and in addition, for making the food such as soybean milk, the fishy smell of the food itself, such as the beany smell, can be removed by making the milk with the hot water; finally, utilize the instant heating subassembly produces hot water, and offers hot water for the stirring cup, expands the application of instant heating subassembly, and the cooking machine need not set up the relevant part that adds hot water again, and then makes simple structure, the compactness of cooking machine, is favorable to the cooking machine miniaturization. In addition, through the water three-way valve will stir the cup and drink the mouth promptly and connect in the water pipe, the beneficial effect of this kind of embodiment has the beneficial effect under only providing the hot water condition at least, in addition, the cooking machine can also provide the hot water of drinking promptly, and the function is more complete, uses more extensively, and user experience is better.

Optionally, the heating element is located between the air pipe and the water pipe, the heating element, the air pipe and the water pipe are bent back and forth, and the water pipe, the air pipe and the heating element are stacked and arranged at intervals; or the heating element is positioned between the air pipe and the water pipe, and the heating element, the water pipe and the air pipe are bent back and forth in the same plane; or the heating element is positioned between the air pipe and the water pipe, and the water pipe and the heating element are both screwed around the air pipe; or, the heating element is located between the air pipe and the water pipe, and the air pipe and the heating element are wound around the water pipe in a spiral mode. So set up, because the water pipe trachea and heating member make a round trip to buckle, range upon range of and be separated by the setting, like this, be favorable to reducing the width of instant heating subassembly, simultaneously, heating member, trachea and water pipe all make a round trip to buckle and can also provide great heating part, and heating effect is good. Because the water pipe trachea and heating member make a round trip to buckle in the coplanar, like this, be favorable to reducing the height of instant heating subassembly, simultaneously, heating member, trachea and water pipe all make a round trip to buckle and can also provide great heating part, and heating effect is good. Under the condition that heating member and water pipe all wind the trachea spiral, the trachea is closer to the center of heating member, and is effectual to the heating of gas. In addition, through with the heating member with the water pipe sets up to helical structure, not only can provide great heating area, and heating effect is good, but also can make hot subassembly promptly cylindricly, is favorable to reducing the width and the height of hot subassembly promptly, is applicable to and can place the scene of the hot subassembly promptly of columnar. Under the condition that the air pipe and the heating element are wound around the water pipe in a spiral mode, the water pipe is close to the center of the heating element, and the water heating effect is good. In addition, through with the heating member with the trachea sets up to helical structure, not only can provide great heating area, and heating effect is good, but also can make hot subassembly promptly cylindricly, is favorable to reducing the width and the height of hot subassembly promptly, is applicable to and can place the scene of the hot subassembly promptly of columnar.

Optionally, the distance between the outer wall of the heating element and the outer wall of the water pipe is D2, 1-15 mm, D2 and/or R2, 1-10 mm, and/or R2 and/or the inner diameter of the water pipe is R2. So set up, D2 can make the heating effect better in above-mentioned scope because the distance too big can make the heating element can not better heat and make the speed of heating water slow, and whole time is long, and the distance is too little makes the preparation complicated, for example, in some embodiments, also can make water pressure too little be difficult to open water check valve and make hot water be difficult to get into the stirring cup. The inner diameter R2 of the water pipe is within the above range, so that the heating element can heat water in the water pipe effectively, because the inner diameter is too large, the heat of the heating element may not be enough to heat water, so that the temperature of the hot water is not high enough, and too small can make the manufacturing process of the water pipe complicated.

Optionally, the instant heating assembly comprises a heating element, the distance between the outer wall of the gas pipe and the outer wall of the heating element is D1, 1 ≦ D1 ≦ 15mm, and/or the inner diameter of the gas pipe is R1, 1 ≦ R1 ≦ 6 mm. So set up, D1 can make the heating effect better in above-mentioned scope because the distance is too big can make the heating member can't better heat and make high-temperature gas's speed slow, and whole heating time is long, and the distance is too little makes heating member and trachea preparation complicated. Too large an inner diameter R1 of the air tube may result in slow heating, and in some embodiments too large an inner diameter R1 of the air tube may result in a larger cross-sectional area of the air tube, such that a smaller air pressure within the air tube may not allow the gas check valve between the juice cup and the instant heating assembly to be opened; too small an internal diameter of the air tube can complicate the manufacturing process and can cause hot gases to be flushed out after the juice cup assembly is removed, i.e., the thermal buffer within the thermal assembly, causing scalding.

Optionally, the control board controls the gas input assembly to input external gas into the juice receiving cup when the instant heating assembly is in an unheated state, so as to cool the food heated in the juice receiving cup. So set up, pass through the external gas connect the food in the juice cup to reach the purpose of cooling food, the inside back of external gas entering food is discharged from the juice mouth that connects the juice cup, and the cooling food is faster, connects the juice cup subassembly and also need not set up cooling part or cooking machine and need not set up cooling part, connects the simple structure of juice cup subassembly or cooking machine.

Optionally, the gas input assembly is connected to a gas inlet of the gas pipe, and at least one of a space between the gas input assembly and the gas inlet of the gas pipe and a space between the juice receiving cup and a gas outlet of the gas pipe is provided with a gas check valve to prevent the high-temperature gas from flowing back. So set up, gaseous input assembly and the gaseous check valve between the subassembly of heating promptly can prevent the high-temperature gas backward flow to, high-temperature gas can not damage gaseous input assembly, ensures the life-span of gaseous input assembly. The gas one-way valve between the juice receiving cup and the instant heating assembly can prevent high-temperature gas from flowing back and prevent the juice receiving cup assembly from leaking gas, and further, the heating effect is ensured.

Optionally, the juice receiving cup assembly is arranged on the main machine assembly, the juice receiving cup comprises a juice receiving cup bottom and a juice receiving port communicating the inside and the outside of the juice receiving cup, and an air inlet assembly is arranged between the juice receiving cup bottom and the main machine assembly, so that the high-temperature gas enters the juice receiving cup from the juice receiving cup bottom and then is discharged from the juice receiving port; or the juice receiving cup comprises a bottom of the juice receiving cup and a juice receiving port communicated with the inside and the outside of the juice receiving cup, and an air inlet assembly is arranged between the side of the juice receiving cup and the main machine assembly, so that the high-temperature gas enters the juice receiving cup from the side of the juice receiving cup and then is discharged from the juice receiving port. So set up, above-mentioned two kinds of embodiments can reach aforementioned heating fast, not layering, can not make food liquid level rise etc.. Compared with the prior art, the high-temperature gas can be longer in moving path by feeding gas from the bottom of the juice receiving cup, the slurry can move more easily, and the heating effect is relatively better.

Optionally, the juice receiving cup comprises a juice receiving cup bottom, the juice receiving cup assembly comprises a temperature measuring element, a wireless transmitting module and a cup seat, the temperature measuring element is arranged at the juice receiving cup bottom and is used for detecting the temperature of the juice receiving cup or the liquid food in the juice receiving cup to obtain a temperature value; the cup seat and the juice receiving cup are assembled in a sealing mode to form an accommodating cavity; the wireless transmitting module is positioned in the accommodating cavity and transmits the temperature value outwards; the cooking machine includes the host computer subassembly, the host computer subassembly include the host computer shell and assemble in the wireless receiving module of host computer shell, wireless receiving module receives the temperature value, the control panel basis the temperature value control gas input subassembly stops to carry gas and/or the instant heating subassembly stops high-temperature gas. According to the arrangement, the containing cavity is formed by hermetically connecting the cup base and the juice receiving cup, the juice receiving cup assembly is communicated with the control panel through the wireless transmitting module and the wireless receiving module to realize related control, so that the juice receiving cup assembly can be made into an integral waterproof structure to facilitate washing of a dish washing machine and the like.

Optionally, the food processor includes a stirring cup assembly, the host assembly includes a host housing, the host housing includes a housing main body and a placement platform located at the bottom of the housing main body, the instant heating assembly and the gas input assembly are assembled in the housing main body, and the control board and a motor for driving a stirring knife of the stirring cup assembly to rotate are assembled in the housing main body; the juice receiving cup assembly is detachably assembled on the placing platform, and the wireless receiving module is arranged in the placing platform. So set up, wireless receiving module is closer to wireless transmitting module and keeps away from the parts of easy interfering signal transmission such as the coil of control panel or motor, signal transmission is more stable, in addition, wireless receiving module sets up in place the platform, place the platform's surface or the surface that does not have the interface, or only one the disk seat, and only there is the plug to stretch out from the cup on connecing the juice cup subassembly, and constitutes one-way switch-on (only just switch-on under the condition of equipment) with the disk seat, therefore above-mentioned structure can not lead to phenomenons such as electric leakage because of remaining thick liquid drips on place the platform, and the security is high.

Drawings

Fig. 1 is an exploded view of a food processor of the first embodiment of the present disclosure;

fig. 2 is a cross-sectional view of the food processor shown in fig. 1;

fig. 3 is an exploded view of a second food processor of the present application;

fig. 4 is a cross-sectional view of the food processor shown in fig. 3;

FIG. 5 is a first schematic view of the blending cup assembly, water tank assembly, instant heating assembly and juice receiving cup assembly connected;

FIG. 6 is a schematic diagram corresponding to FIG. 5;

fig. 7 is a flow chart of the operation of the food processor using the connection relationship shown in fig. 5;

FIG. 8 is a second schematic view of the blending cup assembly, water tank assembly, instant heating assembly and juice receiving cup assembly connected;

FIG. 9 is a schematic diagram corresponding to FIG. 8;

fig. 10 is a flow chart of the operation of the food processor using the connection relationship shown in fig. 8;

FIG. 11 is a third schematic view of the blending cup assembly, water tank assembly, instant heating assembly and juice receiving cup assembly connected;

FIG. 12 is a schematic diagram corresponding to FIG. 11;

fig. 13 is a flow chart of the operation of the food processor using the connection relationship shown in fig. 11;

FIG. 14 is a schematic view of a first instant heating assembly of the present application;

FIG. 15 is a cross-sectional view of a first instant heating assembly of the present application;

FIG. 16 is a perspective view of the heating element, gas tube and water tube arrangement of the first instant heating assembly of the present application;

FIG. 17 is a schematic view of a second instant heating assembly of the present application;

FIG. 18 is a cross-sectional view of a second instant heating assembly of the present application;

FIG. 19 is a perspective view of the heating element, gas tube and water tube arrangement of the second instant heating assembly of the present application;

FIG. 20 is another schematic view of the heating element, gas line and water line arrangement of the present application;

FIG. 21 is a schematic view of a trachea tube according to the present application.

Detailed Description

Reference will now be made in detail to the exemplary embodiments, examples of which are illustrated in the accompanying drawings. When the following description refers to the accompanying drawings, like numbers in different drawings represent the same or similar elements unless otherwise indicated. The embodiments described in the following exemplary embodiments do not represent all embodiments consistent with the present application. Rather, they are merely examples of apparatus consistent with certain aspects of the present application, as detailed in the appended claims.

The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the application. Unless otherwise defined, technical or scientific terms used herein shall have the ordinary meaning as understood by one of ordinary skill in the art to which this application belongs. The use of the terms "a" or "an" and the like in the description and in the claims of this application do not denote a limitation of quantity, but rather denote the presence of at least one. The word "comprising" or "comprises", and the like, means that the element or item listed as preceding "comprising" or "includes" covers the element or item listed as following "comprising" or "includes" and its equivalents, and does not exclude other elements or items. The terms "connected" or "coupled" and the like are not restricted to physical or mechanical connections, but may include electrical connections, whether direct or indirect. "plurality" includes two, and is equivalent to at least two. As used in this specification and the appended claims, the singular forms "a", "an", and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise. It should also be understood that the term "and/or" as used herein refers to and encompasses any and all possible combinations of one or more of the associated listed items.

Referring to fig. 1 and fig. 2 in combination with fig. 5, fig. 8 and fig. 11, an embodiment of the present application discloses a food processor. The food processor comprises a host machine component 1, a water tank component 2, an instant heating component 3, a stirring cup component 4, a juice receiving cup component 5 and a gas input component 6. The function and the corresponding configuration of the components are described as follows:

the host assembly 1 serves as a mounting carrier for the water tank assembly 2, i.e., the heating assembly 3, the stirring cup assembly 4, the juice receiving cup assembly 5 and the gas input assembly 6, and is not limited in structure and can be assembled, and in various embodiments of the present application, the host assembly 1 includes a host housing 10. In the embodiment of the present application, the water tank assembly 2, the stirring cup assembly 4 and the juice receiving cup assembly 5 are assembled on the main housing 10 and located outside the main housing 1, i.e. the heating assembly 3 and the gas input assembly 6 are assembled in the main housing 10, and of course, the components connected between the above components, the control board and the like can also be assembled in the main housing 10. The control panel is used for controlling the cooking machine to realize relevant functions, for example, stirring function, control that instant heating assembly 3 heats gas to produce high-temperature gas, control that instant heating assembly 3 produces hot water, control that gas input assembly 6 carries gas, control that water tank assembly 2 supplies water to instant heating assembly 3, etc. Of course, in other embodiments, the above components and/or related functions of the food processor may not be implemented by the same control board, but by different control boards. In other embodiments, the main unit assembly 1, the water tank assembly 2, the heating assembly 3, the stirring cup assembly 4, the juice receiving cup assembly 5 and the gas input assembly 6 may be assembled in other manners, and the assembled structure and/or form may not be as shown in fig. 1 and 2.

The water tank assembly 2 is used for supplying water to the instant heating assembly 3, and the structure thereof is not limited, and the purpose of supplying water can be achieved, for example, the water tank assembly 2 includes a water tank, a water pump and the like.

I.e. the heating assembly 3 is used to heat water from the tank assembly 2 to produce hot water. Further, in the technical idea of the present application, that is, the heating assembly 3 is used not only to heat water from the water tank assembly 2 but also to heat gas inputted from the gas input assembly 6 to generate high temperature gas, and the configuration thereof is not limited as long as gas and water can be heated. The hot gas is used to heat food, and belongs to the technical term, and the temperature range of the hot gas is known to those skilled in the art. The gas input module 6 inputs gas in two modes, the first mode is that the gas input module 6 is connected with a gas inlet of the instant heating module 3 and blows gas into the instant heating module 3; the second way is that the gas input assembly 6 is connected to the outlet of the instant heating assembly 3, where air is drawn to input the gas into the instant heating assembly 3, as described in detail below. That is, the heating unit 3 includes a heating member 30, an air pipe 31, and a water pipe 32, as shown in fig. 14 to 20. I.e. the more specific configuration of the thermal assembly 3, is described later.

The blender cup assembly 4 is connected to the instant heating assembly 3 and includes a blender cup 40. In the case where the mixing cup 40 is communicated with the water pipe 32, that is, the hot water generated by the heating unit 3 can flow into the mixing cup 40. The blender cup assembly 4 forms a slurry (also referred to in the industry as juice) of the food and hot water in the blender cup 40.

The juice receiving cup assembly 5 is assembled to the main unit assembly 1 and includes a juice receiving cup 50. With the juice receiving cup 50 in communication with the blender cup 40, the syrup can flow into the juice receiving cup 50, for example, the syrup (also referred to as juice) is discharged from the blender cup 40 through the syrup outlet 12 of the syrup discharge pipe, and flows into the juice receiving cup 50 through the juice outlet 502 at the top of the juice receiving cup 50. The structure for realizing the communication between the juice receiving cup 50 and the stirring cup 40 is not limited. Furthermore, the concept of the present application is to use hot gas to heat the food (mostly liquid food, such as the slurry produced by the blender cup assembly, but also other food items) in the juice cup 50, and thus the juice cup assembly 5 is also connected to the instant heating assembly 3 to allow hot gas to enter the juice cup 50. Some configurations that enable hot gases to enter the juice-receiving cup 50 are described below.

The control board controls the input of the high temperature gas into the food in the juice receiving cup 50 according to the cooking program to heat the food, for example, controls the operation of the gas input assembly 6 to input the high temperature gas into the juice receiving cup 50, or controls the valves (such as a gas three-way valve 7 described later) of the connection pipeline between the gas input assembly 6, the juice receiving cup assembly 5 and the instant heating assembly 3 to make the gas input assembly 6, the juice receiving cup assembly 5 and the instant heating assembly 3 constitute a passage. Briefly, the above process is as follows: the gas input assembly 6 can be used for inputting to the juice receiving cup assembly 5 (juice receiving cup 50), and therefore, the structure of the gas input assembly 6 is not limited, for example, in fig. 3, the gas input assembly 6 includes a gas pump, and in other embodiments, the gas input assembly 6 can also include a fan, etc. The gas input assembly 6 can be controlled by the control board to input gas, or the gas input assembly 6 can comprise buttons, and the input of gas is realized or stopped by operating the buttons. Of course, according to the difference that the gas input assembly 6 is connected to the gas inlet or the gas outlet of the instant heating assembly 3, the step of inputting the high-temperature gas into the juice receiving cup 50 includes blowing the high-temperature gas into the juice receiving cup 50 or sucking the high-temperature gas out of the juice receiving cup 50, and more specifically, in the case that the gas input assembly 6 is connected to the gas inlet of the gas pipe 31 and the juice receiving cup 50, the gas input assembly 6 and the gas pipe 31 are communicated (how to communicate the juice receiving cup 50, the gas input assembly 6 and the gas pipe 31 is in various ways, which is not described herein again), the gas input assembly 6 inputs the gas into the gas pipe 31 of the instant heating assembly 3, and the gas is heated by the heating element 30 to generate the high-temperature gas, for example, the control board controls the heating element 30 to heat the gas to generate the high-temperature gas. The high temperature gas is input into the juice receiving cup 50 through the gas outlet 312 of the gas pipe 31. In the case that the gas input assembly 6 is connected to the gas outlet of the instant heating assembly 3 and the juice receiving cup 50, the gas input assembly 6 and the gas pipe 31 are communicated (how to communicate is in various manners and is not described in detail), the gas input assembly 6 blows gas into the gas pipe 31, that is, the gas is heated by the heating element 30 of the instant heating assembly 3 to obtain high-temperature gas, in this case, the high-temperature gas can be sucked out from the gas pipe 31 of the instant heating assembly 3 by the gas input assembly 6 due to the suction force of the gas input assembly 6 at the gas outlet 312 of the gas pipe 31, so that the high-temperature gas is input into the juice receiving cup 50. The gas input member 6 blows gas into the instant heating member 3, and the gas input member 6 can ensure the service life of the gas input member 6 more than the gas input member 6 sucks the high-temperature gas of the instant heating member 3 out and then delivers the gas to the juice receiving cup 50, because the high-temperature gas does not affect the gas input member 6.

After the hot gas enters the juice-receiving cup 50, the hot gas passes through the food (such as the serum) to heat the food (not limited to the serum) within the juice-receiving cup 50. In fig. 1 and 2, the high temperature gas passes through the food (slurry or juice) in the juice receiving cup 50 from the bottom 501 of the juice receiving cup 50 upward, and after heat exchange with the food, is discharged from the juice receiving port 502 at the top of the juice receiving cup 50.

In various embodiments of the present application, the gas is heated to form a high temperature gas, and the high temperature gas is used for heating food, so that any gas harmless to the body can be used in the present application, for example, air, and in some embodiments, nitrogen or the like can be used as the gas.

Referring to fig. 3 and 4, fig. 3 and 4 are second food processor of the present application. This food processor is different from the first food processor in the way of introducing the high temperature gas into the juice receiving cup 50, and more specifically, in the embodiment shown in fig. 1 and 2, the high temperature gas enters into the juice receiving cup 50 from the bottom 501 of the juice receiving cup 50, while in the embodiment shown in fig. 3 and 4, the high temperature gas enters into the juice receiving cup 50 from the side of the juice receiving cup 50, in which case, the structure for introducing the high temperature gas into the juice receiving cup 50 may be any structure, and the structure adopted in the embodiments of the present application is as described later. The hot gases enter the juice receiving cup 50 from the side of the juice receiving cup 50 which is adjacent the bottom 501 of the juice receiving cup in figure 4. In other embodiments, the hot gases may not enter from the side near the bottom 501 of the juice receiving cup.

In the two embodiments, the high-temperature gas enters the juice receiving cup 50 from the bottom 501 of the juice receiving cup, and after heat exchange with food (juice or serum), the high-temperature gas is discharged from the juice receiving opening 502, and according to the position of the juice receiving opening 502, the high-temperature gas can enter the juice receiving cup 50 from other positions, so that the high-temperature gas can pass through the food, including partial or complete passing. Partially through the hot gas inlet means shown in fig. 3 and 4, and completely through the hot gas inlet means shown in fig. 1 and 2. Furthermore, although the two embodiments described above illustrate the blender cup assembly 4, the skilled artisan will appreciate that in some embodiments, a food processor that does not include the blender cup assembly 4 can also employ the teachings of the present application as long as it ensures that the food is present in the juice cup 50 of the juice cup assembly 5 (in the embodiments of the present application, the food is primarily liquid food (such as serum), but not limited to liquid food. furthermore, in embodiments where the thermal assembly 3 is capable of producing both hot water and hot gas, in which case the thermal assembly 3 includes the heating element 30, the gas tube 31 and the water tube 32. in some embodiments, the thermal assembly 3 may also produce only hot gas, in which case the thermal assembly 3 includes the heating element 30 and the gas tube 31.

In conclusion, because this application produces high-temperature gas through instant heating subassembly 3, high-temperature gas gets into and connects in juice cup 50, passes food (for example juice or thick liquid) back discharge, high-temperature gas can be comparatively abundant contact food and take place heat exchange at the food in-process of passing, it is fast to heat food, in addition, high-temperature gas passes the food in-process and can make food take place the motion, and then, plays the effect of stirring, consequently, can ensure not stick with paste the end, not layering, also need not set up mixing system in connecing juice cup 50. Finally, some current methods, in which steam is obtained by heating the water in the water tank assembly 2, and the food in the juice receiving cup 50 is heated by the steam, have the disadvantages that the steam becomes liquid when it is cold, so that the liquid level of the food rises, the steam becomes liquid to dilute the food (such as soybean milk) and affect the taste, and in addition, the water in the water tank of the water tank assembly is consumed. And this application is through the food in the high temperature gas heating juice receiving cup 50, can not make the liquid level of food rise, can not dilute food and influence food taste. The transmission pipeline of high-temperature gas is independent of the hot water pipeline, so that the high-temperature gas cannot become steam, water in the water tank of the water tank assembly cannot be consumed, food cannot be diluted, the liquid level of the food cannot rise, in addition, the temperature of the high-temperature gas is higher than that of the steam, and the food in the juice cup 50 can be heated more quickly.

An embodiment of how the connection between the water tank assembly 2, i.e. the heating assembly 3, the stirring cup assembly 4, the juice receiving cup assembly 5 and the gas input assembly 6 and how the related functions are achieved, which can be used in the various processors of the present application, is described in detail. The connection relationships shown in fig. 5, 6, 8, 9, 11 and 12 can be used not only in the food processor shown in fig. 1 and 2, but also in the food processor shown in fig. 3 and 4. The following are described respectively:

in fig. 5 and 6, the water tank assembly 2 is connected to the water pipe 32 of the instant heating assembly 3 by the flow pump 21 and the corresponding piping. The gas input assembly 6 is connected to the gas inlet 311 of the gas pipe 31 for inputting gas (e.g., air, nitrogen, etc.) into the gas pipe 31. The air outlet 312 of the air tube 31 is connected to the juice receiving cup 50, and there are various ways to connect the air tube to the juice receiving cup 50, as long as the high temperature air can enter the juice receiving cup 50 through the related control (such as the control of a valve).

Referring to fig. 7 in conjunction with fig. 5 and 6, based on the connection relationship shown in fig. 5 and 6, a workflow of the food processor is described as follows:

the control panel controls the communication of the water tank assembly 2 and the instant heating assembly 3. The water in the water tank of the water tank assembly 2 flows toward the instant heating assembly 3 and is heated by the heating member 30 of the instant heating assembly 3 to generate hot water. The hot water flows into the mixing cup 40. A blender cup assembly (e.g., a motor driving a blender blade) creates a slurry (also referred to as juice, or liquid food) of hot water and food. The control panel controls the juice outlet valve 41 of the stirring cup assembly 4 to be opened, and the slurry flows into the juice receiving cup 50 through the juice outlet valve 41, the slurry discharge pipeline connected with the juice outlet valve 41 and the slurry outlet 12. Of course, in some embodiments, the control board controls the instant heating module 3 to generate hot water and high-temperature gas at the same time, based on the structure of the instant heating module 3. In some embodiments, the high temperature gas and the hot water may not be simultaneously generated. In the embodiment shown in fig. 5 and 6, the gas input unit 6 inputs gas into the gas pipe 31 of the instant heating unit 3, and the heating member 30 heats the gas to generate high-temperature gas. The high temperature gas is discharged from the gas outlet 312 of the gas pipe 31, and the high temperature gas is output to the juice receiving cup 50 under the condition that the gas input assembly 6 continuously inputs the gas and the gas pipe 31 and the juice receiving cup 50 are communicated. In the process, the water tank assembly 2 can continuously supply water into the stirring cup 40, and rotate the stirring knife of the stirring knife assembly 4 to wash the cup wall of the stirring cup 40, and the step can be performed for 1 or 1+ N cycles. The slurry produced by the flushing may also continue to flow into the juice cup 50. The serous fluid is boiled in the juice receiving cup 50 until the serous fluid is well cooked, the high-temperature gas is continuously input into the juice receiving cup 50 in the serous fluid boiling process, after the food is well cooked, the gas input assembly 6 stops inputting the gas, namely, the heating assembly 3 stops generating the high-temperature gas, for example, the stop work of the gas input assembly 6 and the stop work of the heating assembly 3 can be controlled by the control panel.

In the above embodiment, the gas inlet 311 of the gas pipe 31 is connected to the gas inlet 6 of the gas pipe 6 to blow gas into the instantaneous module 3, but it will be understood by those skilled in the art that the gas inlet 6 may be connected to the gas outlet 312 of the gas pipe 31 to suck out high-temperature gas generated by the instantaneous module 3 and then convey the gas to the juice receiving cup 50.

Referring to fig. 8, 9, 11 and 12, in one embodiment, the food processor includes a stirring cup assembly 4, and the stirring cup assembly 4 includes a stirring cup 40. With the blender cup 40 and the juice-receiving cup 50 in communication, the slurry within the blender cup 40 flows to the juice-receiving cup 50. The instant heating assembly 3 comprises an air pipe 31, an air inlet 311 of the air pipe 31 is connected to the air input assembly 6, an air outlet 312 of the air pipe 31 is connected to the stirring cup 40 and the juice receiving cup 50, and the control board further controls the high-temperature air to be conveyed to the stirring cup 40 according to a cooking program so as to bake the stirring cup 40. So set up, through hot drying of high-temperature gas stirring cup 40 can play the effect of stoving, disinfecting, improves user experience. Moreover, utilize the high-temperature gas that instant heating assembly 3 produced carries out the stoving to stirring cup 40 for instant heating assembly 3 can realize more functions, and the cooking machine need not set up again and is used for the relevant structure that the stoving stirred cup 40, simplifies the structure of cooking machine in other words and makes the simple structure and the compactness of cooking machine. Of course, the material to be baked is not limited to the mixing cup 40, and may be other cups, considering only the baking function. How the blender cup 40, the gas input assembly 6 and the gas pipe 31 communicate can take a variety of embodiments. Embodiments for achieving this communication are described below.

Referring to fig. 8 and 9, the embodiment shown in fig. 8 and 9 is different from the embodiment shown in fig. 5 and 6 in that: the cooking machine includes gas three-way valve 7, connect juice cup 50 with stirring cup 40 passes through gas three-way valve 7 connect in trachea 31. The high-temperature gas enters the juice receiving cup 50 or the stirring cup 40 by switching the gas three-way valve 7. The connection relationship between other components, for example, the connection relationship between the gas input component 6 and the gas pipe 31, is referred to above and will not be described in detail. The switching of the gas three-way valve 7 can be realized by the control board, and the switching of the gas three-way valve 7 can also be realized by other controllers. By providing the gas three-way valve 7, the high temperature gas is supplied to either the juice receiving cup 50 or the blender cup 40. The operation of the food processor having such a component connection relationship will be described below with reference to fig. 10.

Referring to fig. 10, the operations of preparing the juice (or juice) and introducing the high temperature gas into the juice receiving cup 50 are as described above, and will not be described in detail. As shown in fig. 10, after the food (such as the syrup) is boiled, the gas three-way valve 7 is controlled to switch, for example, the control panel controls the gas three-way valve 7 to switch, so that the pipelines of the gas input assembly 6, the gas three-way valve 7 and the juice receiving cup 50 are open, and the pipelines of the gas input assembly 6, the gas three-way valve 7 and the stirring cup 40 are open, in this case, since the gas input assembly 6 continuously inputs gas into the gas pipe 31, the high-temperature gas generated in the heating assembly 3 is blown to the stirring cup 40 by the gas input assembly 6, and the stirring cup 40 is heated until the heat sterilization is completed. As a variation of the above embodiment, the skilled person can understand that the gas input assembly 6 can also be disposed at the gas outlet 312 of the gas pipe 31, and the working process in this case is the same as the working process in the case of connecting the gas input assembly 6 to the gas outlet 312 in fig. 5 and 6, and will not be described again. So set up, realize high-temperature gas flow direction stirring cup 40 through switching gas three-way valve 7, perhaps, the flow direction connects juice cup 50 to simple structure has realized high-temperature gas's transport, and control is convenient, and the cooking machine can be applicable to different application scenes, and user experience is good.

Referring to fig. 11 and 12, another embodiment for realizing the communication between the mixing cup 40, the gas input assembly 6 and the gas pipe 31 is as follows: compared with the embodiment shown in fig. 5 and 6 or the embodiment shown in fig. 8 and 9, the food processor comprises a juice receiving two-way valve 81 and a stirring two-way valve 82. The juice receiving cup 50 is connected to the air outlet 312 of the air pipe 31 through the juice receiving two-way valve 81, and the stirring cup 40 is connected to the air outlet 312 of the air pipe 31 through the stirring two-way valve 82. The high-temperature gas is controlled to enter the juice receiving cup 50 and/or the stirring cup 40 through the combination of the on-off state of the juice receiving two-way valve 81 and the on-off state of the stirring two-way valve 82. More specifically, the method comprises the following combination: 1) the juice receiving two-way valve 81 is switched on, the stirring two-way valve 82 is switched off, and high-temperature gas flows into the juice receiving cup 50; 2) the juice receiving two-way valve 81 is closed, the stirring two-way valve 82 is switched on, and high-temperature gas flows into the stirring cup 40; 3) the juice receiving two-way valve 81 and the stirring two-way valve 82 are simultaneously turned on, and the high-temperature gas flows into the stirring cup 40 and also flows into the juice receiving cup 50, so that the food (syrup) in the juice receiving cup 50 can be heated and baked in the stirring cup 40. Fig. 13 illustrates the operation of heating the food in the juice receiving cup 50 by the hot gas and then baking the blender cup 40 by the hot gas, which will not be described in detail. So set up, realize the intercommunication of stirring cup 40, gas input subassembly 6 and trachea 31 with simple structure relatively, perhaps, connect juice cup, gas input subassembly and tracheal intercommunication, in addition, through control connect the juice two-way valve with the stirring two-way valve, can also be when receiving the food heating in the juice cup 50, heat to stirring cup 40 and dry by the fire, saved whole flow and accomplished the time, improved user experience more.

Referring to fig. 5, 6, 8, 9, 11 and 12, the food processor includes a water tank assembly 2, the instant heating assembly 3 further includes a water pipe 32, the instant heating assembly 3 (more specifically, via a heating element 30) heats water in the water pipe 32 to generate hot water under the condition that the water pipe 32 is communicated with the water tank assembly 2, the mixing cup 40 is connected to the water pipe 32 via a control valve, and the hot water flows into the mixing cup 40 via the control valve, so that the mixing cup assembly 4 can make the hot water and the food into slurry or juice. The control valve may be a water check valve 42, which is opened by the pressure of water, so that hot water can flow into the mixing cup 40, or may be controlled by a control board, and the flow of hot water into the mixing cup 40 is controlled or prohibited by controlling the on/off state of the valve. With such an arrangement, the time for making the soybean milk can be shortened by making the slurry from the hot water and the crushed food materials, and in addition, for making foods such as soybean milk, the fishy smell of the foods, such as the beany smell, can be removed by making the slurry with the hot water; finally, utilize instant heating subassembly 3 produces hot water, and provides hot water for stirring cup 40, expands instant heating subassembly 3's application, and the cooking machine need not set up the relevant part that adds hot water again, and then makes cooking machine's simple structure, compactness, is favorable to the cooking machine miniaturization.

Referring to fig. 8, 9, 11 and 12 in combination with fig. 5 and 6, in some embodiments, the food processor includes a water three-way valve 91 and a ready-to-drink port 92. The mixing cup 40 and the instant drinking water port 92 are both connected to the water pipe 32 through the water three-way valve 91, and the hot water is controlled to flow into the mixing cup 40 or flow into the instant drinking water port 92 by switching the water three-way valve 91. So set up, the beneficial effect of this kind of embodiment has only the beneficial effect under the hot water condition of providing at least, in addition, the cooking machine can also provide the hot water of drinking promptly, and the function is more complete, uses more extensively, and user experience is better.

Referring to fig. 14, 15, 17 and 18 in conjunction with fig. 20, an embodiment of the instant heating element 3 of the present application will be described in detail as follows. Fig. 14 and 15 show a first embodiment of the instant heating module 3 (instant heating module for food processor), and fig. 17 and 18 show a second embodiment of the instant heating module 3 (instant heating module for food processor). Since the heating unit 3 heats not only water to generate hot water but also gas to generate high temperature gas, it includes a heating member 30, a gas pipe 31, and a water pipe 32. The first heating assembly and the second heating assembly are different in the arrangement of the heating member 30, the air pipe 31 and the water pipe 32, and accordingly, the arrangement of the heating member 30, the air pipe 31 and the water pipe 32 shown in fig. 20 is different from that shown in fig. 14, 15, 17 and 18.

First, the structure of the heating module 3 shown in fig. 14 and 15 will be described below. An instant heating unit 3 for a handler includes an instant heating body 33, an air pipe 31, a water pipe 32, and a heating member 30. The instant heating body 33 is used to assemble the heating member 30, the air pipe 31, the water pipe 32, etc., and the structure is not limited, and in fig. 14, 15, 17, and 18, the air pipe 31 and the water pipe 32 are bent back and forth, for example, in a serpentine shape, so that the instant heating body 33 has a rectangular parallelepiped shape. The air pipe 31 is arranged through the instant heating body 33 and is communicated with the outside of the instant heating body 33. The water pipe 32 penetrates through the instant heating body 33 and is communicated with the outside of the instant heating body, and more specifically, referring to fig. 15 and 16 in combination with fig. 14, after being bent back and forth, the air pipe 31 and the water pipe 32 are located inside the instant heating body 33, and only the air inlet 311, the air outlet 312, the water inlet 321, the water outlet 322 and the terminals (in the present embodiment, including the live wire terminal 301 and the neutral wire terminal 302) of the heating element 30 are located outside the instant heating body 33. The heater 30 is provided between the gas pipe 31 and the water pipe 32, and heats the gas in the gas pipe 31 to generate high-temperature gas when the gas is supplied with current and the gas flows in the gas pipe 31, and heats the water in the water pipe 32 to obtain hot water when the gas is supplied with current and the water is in the water pipe 32. With the arrangement, the instant heating component 3 independently provides high-temperature gas under the condition that the electricity is supplied, the gas flows through the gas pipe 31, and the water does not exist in the water pipe 32; when the power is on, no gas exists in the air pipe 31, but water exists in the water pipe 32, the hot water is separately provided; under the circumstances that the circular telegram has gas and water in the trachea 31 and the water pipe 32, provide high temperature gas and hot water simultaneously, consequently, use in a flexible way, satisfy the demand of different application scenarios, user experience feels good. Moreover, under the condition that high-temperature gas can be generated, the high-temperature gas can be used for heating food in the juice receiving cup, the food can be quickly heated, the food cannot be layered or burnt, a stirring system does not need to be arranged on the juice receiving cup assembly, and the like. Based on the above arrangement, the configurations of the heating member 30, the gas pipe 31 and the water pipe 32 are not limited, and even based on the purpose of supplying the high-temperature gas or the hot water alone or simultaneously, the heating member 30 may further include independent first and second heating members, the first heating member heating the gas in the gas pipe 31 to generate the high-temperature gas in the gas pipe 31 in the case of being energized; the second heating member heats water in the water pipe 32 under energization to generate hot water in the water pipe 32. In the above arrangement, the instant heating assembly can generate both high-temperature gas and hot water, thereby integrating the functions together, resulting in a simple structure, small volume and low cost of the instant heating assembly 3.

Referring to fig. 16 in conjunction with fig. 14 and 15, in one embodiment, the heating element 30 (e.g., a heating tube) is located between the gas tube 31 and the water tube 32. The heating element 30, the gas pipe 31 and the water pipe 32 are all bent back and forth, as shown in the figure, in a serpentine shape. The water pipe 32, the air pipe 31 and the heating member 30 are stacked and spaced apart from each other. While fig. 16 and 15 illustrate the heating element 30, the gas pipe 31 and the water pipe 32 as one layer, those skilled in the art will appreciate that fig. 15 and 16 can be used as a module, and the module can be stacked to form another instant heating assembly. In fig. 16 and 15, the heating element 30 (heating pipe) is located between the gas pipe 31 and the water pipe 32, specifically, the heating element 30 (heating pipe) is located directly below the gas pipe 31 and is located directly above the water pipe 32, and the skilled person can understand that the situation that the heating element 30 is located between the gas pipe 31 and the water pipe 32 also includes the situation that at least one of the gas pipe 31 and the water pipe 32 is staggered with the heating element 30 (heating pipe), that is, the gas pipe 31 and/or the water pipe 32 can be located obliquely above or obliquely below the heating element 30 (heating pipe). This embodiment may be considered as a longitudinal arrangement of the heating member 30, the air pipe 31 and the water pipe 32. As the instant heating component 3 is arranged as above, the water pipe 32, the air pipe 31 and the heating component 30 are bent back and forth and are arranged in a stacked and separated mode, thus being beneficial to reducing the width of the instant heating component 3, and meanwhile, the heating component 30, the air pipe 31 and the water pipe 32 are bent back and forth and can also provide a larger heating part, and the heating effect is good.

Referring to fig. 18 and 19 in conjunction with fig. 17, in another embodiment, the heating element 30 (e.g., a heating pipe) is located between the gas pipe 31 and the water pipe 32, and the heating element 30, the water pipe 32 and the gas pipe 31 are bent back and forth in the same plane, and are bent in a serpentine shape as shown in the figures. This embodiment may be considered as a horizontal arrangement of the heating member 30, the air pipe 31 and the water pipe 32. As the instant heating component 3 arranged as above, because the water pipe 32, the air pipe 31 and the heating element 30 are bent back and forth in the same plane, thus being beneficial to reducing the height of the instant heating component 3, and meanwhile, the heating element 30, the air pipe 31 and the water pipe 32 are bent back and forth to provide a larger heating part, and the heating effect is good.

Referring to fig. 20, in another embodiment, the heating element 30 is located between the air pipe 31 and the water pipe 32, the air pipe 31 is a straight pipe, and the water pipe 32 and the heating element 30 are both spiral around the air pipe 31. Of course, in other embodiments, the air tube 31 may have other shapes, such as a spiral shape. So set up the heating member with the water pipe all winds under the condition of trachea spiral, trachea 31 is closer to heating member 30, and is effectual to the heating of gas. In addition, through with heating member 30 with water pipe 32 sets up to helical structure, not only can provide great heating area, and it is effectual to heat, but also can be with heating element 3 promptly and make cylindricly, is favorable to dwindling the width and the height of heating element 3 promptly, is applicable to the scene that can place the columnar heating element promptly.

Although the heating tube is exemplified as the heating element 30, the skilled person will understand that the heating element 30 may have other configurations, such as a thick film heating tube or a thick film heating device, a heating wire, a quartz nanotube, a carbon fiber tube, a light wave tube, and so on.

The air tube 31 of the above embodiments does not have any auxiliary heating components therein, and in some embodiments, auxiliary heating components, such as a heating wire, a heating film, a superconductor, etc., may be disposed in the air tube 31 for increasing the temperature rise speed in the air tube. The air pipe 31 is preferably free of any auxiliary heating means, which may generate harmful substances during heating of air to affect health in the current process. An embodiment in which an auxiliary heating member is provided in the air pipe 31 will be described below. Referring to fig. 21 in conjunction with fig. 15 and 18, fig. 21 illustrates the structure of an air tube including an air tube 31 and an auxiliary heating element 36 disposed in the air tube 31. Such an auxiliary heating member 36 is a heating wire.

As a variation of the above embodiment, in another embodiment, the heating element 30 is located between the air pipe 31 and the water pipe 32, the water pipe 32 is a straight pipe, and the air pipe 31 and the heating element 30 are spirally arranged around the water pipe 32, which can be considered as a circumferential arrangement. Of course, in other embodiments, the water tube 32 may have other shapes, such as a spiral shape. So set up, because the trachea 31 with heating member 30 all winds water pipe 32 spiral, water pipe 32 is close to heating member 30's center, and the heating of water is effectual. In addition, through with heating member 30 with trachea 31 sets up to helical structure, not only can provide great heating area, and it is effectual to heat, but also can be with heating element 3 promptly and make cylindricly, is favorable to reducing width and height that heating element 3 promptly, is applicable to the scene that can place the columnar heating element promptly.

With continued reference to FIGS. 15-20, for any of the instant heating elements 3 described above (whether longitudinally, horizontally, or circumferentially), the distance between the outer wall of the heating element 30 and the outer wall of the water tube 32 is D2, 1. ltoreq. D2. ltoreq.15 mm, such as, 1mm, 2mm, 3mm, 4mm, 5mm, 6mm, 7mm, 8mm, 9mm, 10mm, 11mm, 12mm, 13mm, 14mm, or 15 mm. So configured, D2 can make the heating effect better in the above range, because too long distance can make the heating element can't make better heat and make the speed of heating water slow, the whole time is long, and too little distance makes the preparation complicated, in some embodiments, also can make water pressure too little be difficult to open water check valve 42 and make hot water be difficult to get into stirring cup 40.

With continued reference to FIGS. 15-20, for any of the instant heating elements 3 described above (whether longitudinally, horizontally, or circumferentially), in another embodiment, the distance between the outer wall of the heating element 30 and the outer wall of the gas tube 31 is D1, 1. ltoreq. D1. ltoreq.15 mm, such as, 1mm, 2mm, 3mm, 4mm, 5mm, 6mm, 7mm, 8mm, 9mm, 10mm, 11mm, 12mm, 13mm, 14mm, or 15 mm. So set up, D1 can make the heating effect better in above-mentioned scope, because the distance is too big can make the heating element can not better heat and make the speed of heating gas slow, and whole heating time is long, and the distance is too little makes heating element 30 and trachea 31 complicated to make, in addition, in some embodiments also can make the atmospheric pressure be too little be difficult to open water check valve 42 and make hot water be difficult to get into stirring cup 40.

With continued reference to FIGS. 15-20, for any of the instant heating elements 3 described above (whether longitudinally, horizontally, or circumferentially), the water tube 32 has an inner diameter R2, 1R 2 10mm, such as 1mm, 2mm, 3mm, 4mm, 5mm, 6mm, 7mm, 8mm, 9mm, 10mm, etc. So configured, the inner diameter R2 of the water pipe 32 is within the above range, which may make the heating element 30 heat the water in the water pipe 32 well, because the inner diameter is too large, the heat of the heating element 30 may not be enough to heat the water, so that the temperature of the heated water is not high enough, and too small may make the manufacturing process of the water pipe complex, and in addition, in some embodiments, the water pipe 32 is too small, which may make the water pressure relatively small, and it is not easy to conduct the control valve (e.g., the check valve) between the stirring cup 40 and the instant heating component 3.

With continued reference to FIGS. 15-20, for any of the instant heating elements 3 described above (whether longitudinally, horizontally, or circumferentially), in another embodiment, the inner diameter of the gas tube 31 is 1R 16 mm, such as 1mm, 1.5mm, 2mm, 2.5mm, 3mm, 4mm, 4.5mm, 5mm, 5.5mm, 6mm, etc. So configured, too large an inner diameter R1 of the air tube 31 will heat slowly, and in some embodiments too large an inner diameter R1 of the air tube 31 will result in a larger cross-sectional area of the air tube 31, such that a smaller air pressure in the air tube 31 will not allow the gas check valve 61 between the juice cup 50 and the instant heating module 3 to be opened; too small an inner diameter of the air tube 31 complicates the manufacturing process and also causes high temperature gas to be flushed out after the juice cup assembly 5 is removed, i.e., the thermal buffer in the heating assembly 3, resulting in scalding.

In some embodiments, the inner diameter of the gas pipe 31 may satisfy 1 ≦ R1 ≦ 6mm, and the inner diameter of the water pipe 32 is R2, 1 ≦ R2 ≦ 10 mm.

Referring to fig. 14, in one embodiment, the terminals (including the live terminal 301 and the neutral terminal 302) of the heating element 30 are located on a first side of the instant heating body 33, the water inlet 321 and the water outlet 322 of the water pipe 32 are located opposite to the first side, and the air inlet 311 and the air outlet 312 of the air pipe 31 are located opposite to the first side. In another embodiment, the water inlet 321 and the water outlet 322 may be located at the side of the first side, and the air inlet 311 and the air outlet 312 are also located at the side of the first side. So set up, no matter water inlet 321 and delivery port 322 are located the side or the opposite of first side, or air inlet 311 and gas outlet 312 are located the side or the opposite of first side, can make air inlet 311 and gas outlet 312, and water inlet 321 and delivery port 322 keep away from the terminal (live wire terminal 301 and zero line terminal 302), avoid leaking water and lead to electric leakage etc.. Although fig. 17 illustrates that the terminals (the live terminal 301 and the neutral terminal 302) are located on the same side as the air inlet 311, the air outlet 312, the water inlet 321 and the water outlet 322, a skilled person will understand that the terminals and the air inlet, the air outlet, the water inlet and the water outlet may be located on different sides or opposite sides in the case of a horizontal arrangement, and the terminals and the air inlet, the air outlet, the water inlet and the water outlet may be located in the same way in the case of a circumferential arrangement.

With continuing reference to fig. 14 and 17, in some embodiments, the water pipe 32 includes a water outlet 322 extending out of the instant heating body 33, the air pipe 31 includes an air outlet 312 extending out of the instant heating body 33, and at least one of the air outlet 312 and the water outlet 322 is provided with a temperature sensor, in this embodiment, the air outlet 312 and the water outlet 322 are respectively provided with a temperature sensor 34 for measuring the temperature of the high-temperature gas and the temperature of the hot water. The control board controls the heating member 30 to heat according to the temperature value of the temperature sensor. For example, the temperature controller 35 may be controlled to be turned off to control the heating element 30 not to be heated any more by the temperature value. So set up, improve high-temperature gas the degree of accuracy of hot water's temperature is in the condition that surpasss preset temperature, can stop heating, improves the security.

With continued reference to fig. 5, 6, 8, 9, 11 and 12, in some embodiments, the control board controls the gas input assembly 6 to input external gas into the juice receiving cup 50 when the instant heating assembly 3 is in an unheated state, so as to cool the heated food in the juice receiving cup 50. Similarly, the gas input module 6 may be controlled by the control board to input the external gas, or the gas input module 6 may include a button through which the external gas is input. The temperature of the external air input from the outside of the food processor is lower than that of the food in the juice receiving cup 50. So set up, pass through the external gas connect the food in the juice cup 50 to reach the purpose of cooling food, the inside back of external gas entering food is discharged from connecing juice mouth 502 that connects juice cup 50, and the cooling food is faster, connects juice cup subassembly 5 also need not set up cooling part or cooking machine and need not set up cooling part, connects the simple structure of juice cup subassembly 5 or cooking machine.

Referring to fig. 5, 6, 8, 9, 11 and 12, in some embodiments, the gas input assembly 6 is connected to the gas inlet 311 of the gas pipe 31, and at least one of a gas check valve 61 is disposed between the gas input assembly 6 and the gas inlet 311 of the gas pipe 31 and between the juice receiving cup 50 and the gas outlet 312 of the gas pipe 31 to prevent the high temperature gas from flowing back. The gas check valve 61 may be a mechanical valve that opens under the pressure of the gas so that the gas can flow only toward the gas inlet pipe 31 or the high temperature gas flows into the juice receiving cup 50. So set up, gaseous check valve 61 between gaseous input subassembly 6 and the instant heating subassembly 3 can prevent the high temperature gas backward flow to, high temperature gas can not damage gaseous input subassembly 6, ensures the life-span of gaseous input subassembly 6. The gas check valve 61 between the juice receiving cup 50 and the instant heating module 3 can prevent the backflow of high temperature gas and the gas leakage of the juice receiving cup module 5, thereby ensuring the heating effect. In other embodiments, a water check valve 42 is disposed between the mixing cup 40 and the water pipe 32 to prevent the hot water from flowing back and ensure that the mixing cup 40 leaks water.

Referring to fig. 1 and 2, the food processor includes a main unit assembly 1, the juice receiving cup assembly 5 is disposed in the main unit assembly 1, the juice receiving cup 50 includes a juice receiving cup bottom 501 and a juice receiving port 502 communicating the inside and the outside of the juice receiving cup 50, and an air intake assembly 51 is disposed between the juice receiving cup bottom 501 and the main unit assembly 1, so that the high-temperature gas enters the juice receiving cup 50 from the juice receiving cup bottom 501 and then is exhausted from the juice receiving port 502.

Referring to fig. 3 and 4, in another embodiment, the juice receiving cup 50 includes a juice receiving cup bottom 501 and a juice receiving opening 502 communicating the inside and the outside of the juice receiving cup 50, and an air inlet assembly 51 is disposed between the side of the juice receiving cup 50 and the main machine assembly 1, so that the high-temperature gas enters the juice receiving cup 50 from the side of the juice receiving cup 50 and is discharged from the juice receiving opening 502.

In the above two air intake methods, the structure of the air intake assembly 51 is not limited, and air intake between the juice receiving cup 50 and the main machine assembly 1 can be realized, for example, the air intake assembly 51 is a one-way valve assembly, and includes a plug 511 and a valve seat 512. The plug 511 extends from the juice-receiving cup bottom 501 into the juice-receiving cup 50. The host assembly 1 includes a host housing 10, the host housing 10 including a placement platform 102. The juice receiving cup assembly 5 is placed on the placement platform 102. The valve seat 512 is disposed on the placement platform 102.

So set up, above-mentioned two kinds of embodiments can reach aforementioned heating fast, not layering, can not make food liquid level rise etc.. Compared with the prior art, the high-temperature gas can be moved along a longer moving path by introducing gas from the bottom 501 of the juice receiving cup, so that the slurry can be moved more easily, and the heating effect is relatively better.

With continued reference to fig. 2 and 4 in conjunction with fig. 1 and 3, in some embodiments, the juice receiving cup assembly 5 includes a temperature measuring element 52, a wireless transmitter module 53, and a cup holder 54. The temperature measuring element 52 is disposed at the bottom 501 of the juice receiving cup, and detects the temperature of the juice receiving cup 50 or the food in the juice receiving cup 50 to obtain a temperature value. The cup seat 54 and the juice receiving cup 50 are assembled in a sealing mode to form a containing cavity 55; the wireless transmission module 53 is located in the accommodating cavity 55 and sends the temperature value outwards. The temperature measuring element 52 is any element capable of measuring temperature, such as an NTC or the like. The cooking machine includes host computer subassembly 1, host computer subassembly 1 includes control panel (not using in the figure except) and wireless receiving module 11, wireless receiving module 11 receives the temperature value, the control panel basis the temperature value control gas input component 6 stop to carry gas with instant heating subassembly 3 (heating member 30) stops to heat gas, from this, no longer produces high-temperature gas. In this embodiment, the control board and the wireless receiving module 11 are not limited to what kind of components are assembled in the food processor. According to the arrangement, the cup seat 54 is hermetically connected with the juice receiving cup 50 to form the accommodating cavity 55, and the juice receiving cup assembly 5 is communicated with the control board through the wireless transmitting module 53 and the wireless receiving module 11 to realize related control, so that the juice receiving cup assembly 5 can be made into an integral waterproof structure, which is convenient for washing a dishwasher and the like, and in addition, after the wireless transmission mode is adopted, compared with a mode that a coupler and the like are adopted between the juice receiving cup assembly 5 and the control board to transmit signals, only an air inlet assembly is communicated between the juice receiving cup assembly 5 and the host machine assembly 1, even if residual serous fluid drips on the grout outlet 12 of the host machine assembly 1, no interface such as the coupler and the like exists below the grout outlet, and phenomena such as electric leakage and the like caused by the serous fluid flowing into the coupler do not occur. Of course, based on the above structure, the receiving cavity 55 can receive not only the wireless transmitting module 53, but also other components of the juice receiving cup assembly 5. The communication mode between the wireless transmitting module 53 and the wireless receiving module 11 is not limited, for example, RFID, bluetooth, etc.

Referring to fig. 2 and 4 in combination with fig. 1 and 3, the main unit assembly 1 includes a main unit housing 10, the main unit housing 10 includes a housing main body 101 and a placement platform 102 disposed at the bottom of the housing main body 101, and the water tank assembly 2, the instant heating assembly 3, the stirring cup assembly 4 and the gas input assembly 6 are assembled to the housing main body 101. The casing main body 101 is further assembled with a motor and the like for driving the stirring blade of the stirring cup assembly 4 to rotate, and the control board may also be assembled to the casing main body 101. The juice receiving cup assembly is detachably assembled to the placement platform 102. Detachable assembly means that the juice cup assembly 5 is assembled to the placement platform 102 in case juice is to be received or food in the juice cup 50 is to be heated, and the juice cup assembly 5 can be removed from the placement platform 102 and detached from the placement platform 102 in case juice is not to be received or the like. The wireless receiving module 11 is disposed in the placing platform 102. With such an arrangement, the wireless receiving module 11 is closer to the wireless transmitting module 53 and is far away from the control board or the coil of the motor, which are easy to interfere with signal transmission, so that signal transmission is more stable, in addition, the wireless receiving module 11 is arranged in the placing platform 102, the surface of the placing platform 102 is either a surface without an interface, as shown in fig. 3 and 4, or only one valve seat 512 is arranged, as shown in fig. 1 and 2, only the plug 511 on the juice receiving cup assembly 5 extends out of the cup seat 54 and is in one-way conduction with the valve seat 512 (only in the case of assembly), so that the structure can not cause phenomena such as electric leakage and the like due to the residual slurry dropping on the placing platform 102, and the safety is high.

The above description is only for the purpose of illustrating the preferred embodiments of the present application and is not to be construed as limiting the present application, and any modifications, equivalents, improvements, etc. made within the spirit and principle of the present application should be included in the scope of the present application.

Claims

1. The utility model provides a cooking machine, its characterized in that includes control panel, gas input subassembly (6), instant heating subassembly (3) and connects juice cup subassembly (5), wherein:

the juice receiving cup component (5) comprises a juice receiving cup (50)

The instant heating assembly (3) heats the gas input through the gas input assembly (6) to generate high-temperature gas, and the control board controls the high-temperature gas to be transmitted to the food in the juice receiving cup (50) according to a cooking program to heat the food.

2. The food processor of claim 1, wherein the food processor comprises a stirring cup assembly (4), the stirring cup assembly (4) comprising a stirring cup (40);

the instant heating assembly (3) comprises an air pipe (31), an air inlet (311) of the air pipe (31) is connected to the air input assembly (6), an air outlet (312) of the air pipe (31) is connected to the stirring cup (40) and the juice receiving cup (50), and the control panel also controls the high-temperature air to be conveyed to the stirring cup (40) according to a cooking program so as to bake the stirring cup (40).

3. The food processor of claim 2, comprising a gas three-way valve (7), wherein the juice receiving cup (50) and the stirring cup (40) are connected to the gas outlet (312) through the gas three-way valve (7), and the high-temperature gas enters the juice receiving cup (50) or the stirring cup (40) by switching the gas three-way valve (7);

or, the cooking machine is including connecing juice two-way valve (81) and stirring two-way valve (82), connect juice cup (50) to pass through connect juice two-way valve (81) to connect in gas outlet (312), stirring cup (40) pass through stirring two-way valve (82) connect in gas outlet (312), through connect the on-off state of juice two-way valve (81) with the combination of the on-off state of stirring two-way valve (82) is with control high temperature gas gets into connect juice cup (50) and/or stirring cup (40).

4. The food processor as claimed in claim 2, wherein the food processor comprises a water tank assembly (2), the instant heating assembly (3) further comprises a water pipe (32), the instant heating assembly (3) heats water in the water pipe (32) to generate hot water under the condition that the water pipe (32) is communicated with the water tank assembly (2), the stirring cup (40) is connected with the water pipe (32) through a control valve, the hot water and food materials in the stirring cup form slurry by controlling the control valve to enable the hot water to flow into the stirring cup (40), and the food flows into the juice receiving cup (50);

or, the food processor comprises a water three-way valve (91) and an instant drinking water port (92), the stirring cup (40) and the instant drinking water port (92) are connected to the water pipe (32) through the water three-way valve (91), the hot water flows into the stirring cup (40) or flows into the instant drinking water port (92) by switching the water three-way valve (91), the hot water flowing into the stirring cup and food materials in the stirring cup form slurry, and the slurry flows into the juice receiving cup (50).

5. The food processor according to claim 4, wherein the instant heating assembly (3) comprises a heating element (30), the heating element (30) is positioned between the air pipe (31) and the water pipe (32), the heating element (30), the air pipe (31) and the water pipe (32) are all bent back and forth, and the water pipe (32), the air pipe (31) and the heating element (30) are stacked and spaced apart;

or the heating element is positioned between the air pipe (31) and the water pipe (32), and the heating element (30), the water pipe (32) and the air pipe (31) are bent back and forth in the same plane;

or, the heating element (30) is positioned between the air pipe (31) and the water pipe (32), and the water pipe (32) and the heating element (30) are both screwed around the air pipe (31);

or, the heating element (30) is located between the air pipe (31) and the water pipe (32), and the air pipe (31) and the heating element (30) are screwed around the water pipe (32).

6. The food processor as claimed in claim 5, wherein the distance between the outer wall of the heating element (30) and the outer wall of the water pipe (32) is D2, 1 ≦ D2 ≦ 15mm, and/or the inner diameter of the water pipe (32) is R2, 1 ≦ R2 ≦ 10 mm.

7. The food processor according to any of the claims 2 to 6, wherein the instant heating assembly (3) comprises a heating element (30), the distance between the outer wall of the air pipe (31) and the outer wall of the heating element (30) is D1, 1 ≦ D1 ≦ 15mm, and/or the inner diameter of the air pipe (31) is R1, 1 ≦ R1 ≦ 6 mm.

8. The machine according to any of the claims 1 to 6, wherein the gas input assembly (6) inputs external gas into the juice receiving cup (50) to cool the food heated in the juice receiving cup (50) when the instant heating assembly (3) is in an unheated state.

9. The food processor of any one of claims 2 to 6, wherein at least one of the gas input assembly (6) and the gas inlet (311) of the gas pipe (31) and the juice receiving cup (50) and the gas outlet (312) of the gas pipe (31) is provided with a gas check valve (61) to prevent the backflow of the high temperature gas.

10. The food processor of any one of claims 1 to 6, wherein the food processor comprises a main machine assembly (1); the juice receiving cup assembly (5) is arranged in the host machine assembly (1), the juice receiving cup (50) comprises a juice receiving cup bottom (501) and a juice receiving port (502) communicated with the inside and the outside of the juice receiving cup (50), and a gas inlet assembly (51) is arranged between the juice receiving cup bottom (501) and the host machine assembly (1) so that the high-temperature gas enters the juice receiving cup (50) from the juice receiving cup bottom (501) and then is discharged from the juice receiving port (502);

or the juice receiving cup (50) comprises a juice receiving cup bottom (501) and a juice receiving port (502) communicated with the inside and the outside of the juice receiving cup (50), and a gas inlet assembly (51) is arranged between the side part of the juice receiving cup (50) and the main machine assembly (1), so that the high-temperature gas enters the juice receiving cup (50) from the side part of the juice receiving cup (50) and then is discharged from the juice receiving port (502).

11. The machine according to any of the claims 1 to 6, wherein the juice receiving cup (50) comprises a juice receiving cup bottom (501), the juice receiving cup assembly (5) comprises a temperature measuring element (52), a wireless transmitting module (53) and a cup seat (54), the temperature measuring element (52) is arranged on the juice receiving cup bottom (501), and the temperature of the juice receiving cup (50) or the food in the juice receiving cup (50) is detected to obtain a temperature value; the cup seat (54) and the juice receiving cup (50) are assembled in a sealing mode to form a containing cavity (55); the wireless transmitting module (53) is positioned in the accommodating cavity (55) and transmits the temperature value outwards;

the cooking machine includes host computer subassembly (1), host computer subassembly (1) include host computer shell (10) and assemble in wireless receiving module (11) of host computer shell (10), wireless receiving module (11) are received the temperature value, the control panel basis the temperature value control gas input subassembly (6) stop transport gas and/or it stops heating gas to heat subassembly (3) promptly.

12. The food processor of claim 11, wherein the food processor comprises a stirring cup assembly (4), the host assembly (1) comprises a host housing (10), the host housing (10) comprises a housing main body (101) and a placing platform (102) located at the bottom of the housing main body (101), the instant heating assembly (3), the stirring cup assembly (4) and the gas input assembly (6) are assembled in the housing main body (101), and the control board and a motor for driving a stirring knife of the stirring cup assembly (4) to rotate are assembled in the housing main body (101); the juice receiving cup assembly (5) is detachably assembled on the placing platform (102), and the wireless receiving module (11) is arranged in the placing platform (102).