Food processor

Abstract

The present invention provides a food processor, comprising: a main body provided with a receiving cavity; a container disposed on the main body, the container being detachably connected to the main body; a refrigeration assembly disposed on the main body, the refrigeration assembly being used for heat exchange with the container; an ultrasonic generating device disposed on the container, at least a part of the ultrasonic generating device extending out of the receiving cavity; a first coupling member disposed on the main body, the first coupling member being used for coupling with the part of the ultrasonic generating device located outside the receiving cavity. The coupling part in the ultrasonic generating device and the first coupling member are both located outside the receiving cavity. Even if condensate is generated inside the container or the main body, the condensate is not likely to come into contact with the coupling part of the ultrasonic generating device and the first coupling member, improving the safety during food processing work.

Description

Technical Field

[0001] The present invention belongs to the technical field of food processing equipment, and more particularly, relates to a food processor. Background Art

[0002] In a cold extraction machine, a refrigeration component is used to cool a container, thereby realizing the cold extraction function of food. During the refrigeration process, condensed water will be generated inside the housing of the cold extraction machine and on the surface of the container. The condensed water may come into contact with the electrical connection parts of the housing and the container, making it difficult to ensure the safety of using the cold extraction machine. Summary of the Invention

[0003] The present invention aims to solve one of the technical problems existing in the prior art or related technologies.

[0004] In view of this, the present invention provides a food processor, including: a main body provided with a receiving cavity; a container disposed on the main body, the container being detachably connected to the main body; a refrigeration component disposed on the main body, the refrigeration component being used for heat exchange with the container; an ultrasonic generating device disposed on the container, at least a part of the ultrasonic generating device extending out of the receiving cavity; a first coupling member disposed on the main body, the first coupling member being used for coupling with the part of the ultrasonic generating device located outside the receiving cavity.

[0005] The food processor provided by the present invention includes: a main body, a container, a refrigeration component, an ultrasonic generating device, and a first coupling member. The housing accommodates the container and the refrigeration component. The container is provided with a cavity, and the food ingredients to be extracted and water can be accommodated in the cavity. When extraction is required, cold water or ice water can be injected into the receiving cavity, and then the food ingredients to be extracted are placed in the receiving cavity and soaked in the cold water or ice water. The refrigeration component can perform heat exchange with the container. The refrigeration component reduces the surface temperature of the container. The container exchanges heat with the cold water or ice water to prevent the temperature of the cold water or ice water from rising. By providing the refrigeration component, the food ingredients to be extracted can be kept in a relatively low-temperature environment for a long time. In other words, during the entire extraction process, as long as the refrigeration component is turned on, the cold water or ice water always remains at a relatively low temperature, which is beneficial to improving the extraction effect.

[0006] The container can be directly placed in the receiving cavity. After the cold extraction of food is completed, the container can be taken out of the receiving cavity, and the user can carry the container with them, which is convenient for the user to drink the extraction liquid at any time and improves the convenience of using the container by the user.

[0007] The ultrasonic generating device can oscillate the food ingredients to be extracted in the container, which can accelerate the dissolution rate of water-soluble substances in the substances to be extracted, that is, accelerate the extraction rate of the substances to be extracted, shorten the extraction time, reduce the waiting time of the user, and enable the user to drink the extracted beverage as soon as possible, which is beneficial to enhancing the competitiveness of the product.

[0008] At least a part of the ultrasonic generating device is located outside the accommodation cavity. The first coupling member is provided on the main body. The first coupling member can be coupled with the part of the ultrasonic generating device located outside the accommodation cavity, so that the first coupling member can supply power to the ultrasonic generating device. The component of the ultrasonic generating device that can be coupled with the first coupling member is also located outside the accommodation cavity, that is, the coupling part of the ultrasonic generating device and the first coupling member are both located outside the accommodation cavity. Even if condensed water is generated inside the container or the main body, the condensed water is not likely to contact the coupling part of the ultrasonic generating device and the first coupling member, improving the safety during food processing work and being beneficial to enhancing the competitiveness of the product.

[0009] In addition, the food processor according to the above technical solution provided by the present invention may further have the following additional technical features:

[0010] In a possible design, the container includes: a cup body provided on the main body, and the cup body is located inside the accommodation cavity; a cover body provided on the cup body, and at least part of the ultrasonic generating device is provided on the cover body, and the first coupling member is coupled with the part of the ultrasonic generating device located on the cover body.

[0011] In this design, the container includes a cup body and a cover body. The cup body is located inside the accommodation cavity, and water and the ingredients to be extracted are placed in the cup body. The cover body is provided on the cup body. The cover body can cover the opening of the cup body. The cover body can be snapped onto the cup body, or the cover body and the cup body are connected through a snap component, or threaded structures are provided on both the cover body and the cup body, so that the cover body can be screwed onto the cup body. At least part of the ultrasonic generating device is provided on the cover body. When the cover body is separated from the cup body, the cover body can drive at least part of the ultrasonic generating device to be separated from the cup body, avoiding affecting the user's drinking of the extraction liquid in the cup body. The cover body can be entirely located outside the accommodation cavity or partially located outside the accommodation cavity. Specifically, the cover body includes a main body portion and a handle portion. The main body portion is adapted to the cup body, and the handle portion is provided on the side of the main body portion, enabling the user to conveniently hold the handle portion and improving the convenience for the user to carry the container. A part of the ultrasonic generating device is provided on the main body portion, so that the ultrasonic generating device can extend into the accommodation cavity, and another part of the ultrasonic generating device is provided on the handle portion and is located on the lower end surface of the handle portion. The first coupling member is located on the upper end surface of the main body. When the container is assembled to the main body, the ultrasonic generating device is coupled with the first coupling member, and the user does not need to adjust the positions of the first coupling member and the ultrasonic generating device, improving the convenience for the user to use the food processor.

[0012] In a possible design, the ultrasonic generating device includes: an ultrasonic oscillator assembly provided on the cover body, and the ultrasonic oscillator assembly is located inside the accommodation cavity; a second coupling member provided on the cover body, the second coupling member is electrically connected to the ultrasonic oscillator assembly, and the first coupling member can be coupled with the second coupling member.

[0013] In this design, the ultrasonic generating device includes an ultrasonic oscillator assembly and a second coupling member. Among them, the ultrasonic oscillator assembly is located in the accommodating cavity. After being powered on, the ultrasonic oscillator assembly can generate ultrasonic waves, which oscillate the food ingredients to be extracted in the container, accelerating the dissolution rate of water-soluble substances in the ingredients to be extracted, that is, accelerating the extraction rate of the ingredients to be extracted, shortening the extraction time, reducing the waiting time of the user, and enabling the user to drink the extracted beverage as soon as possible.

[0014] The second coupling member is arranged on the cover body and is located outside the accommodating cavity. The second coupling member is electrically connected to the ultrasonic oscillator assembly and can be coupled with the first coupling member. When the container is separated from the main body, the first coupler and the second coupler are separated, and the ultrasonic oscillator assembly is powered off. When the container is assembled to the main body, the first coupler and the second coupler are coupled, and the ultrasonic oscillator assembly is powered on and operates. By arranging the first coupling member and the second coupling member outside the accommodating cavity, even if condensed water is generated in the container and the main body, the condensed water is not likely to contact the first coupling member and the second coupling member, avoiding the occurrence of short circuit or electric leakage of the first coupling member and the second coupling member due to contact with condensed water, and improving the safety of the food processor during operation. Arranging the wave oscillator assembly in the accommodating cavity and the second coupling member outside the accommodating cavity not only ensures the oscillation effect on the food ingredients but also ensures the safety of the food processor during operation, which is beneficial to enhancing the competitiveness of the product.

[0015] Both the first coupling member and the second coupling member in this embodiment are couplers.

[0016] In a possible design, the cover body includes: a first body; a second body, provided on the second body, the ultrasonic generating device is provided on the second body, and the first body and the second body enclose a wiring groove; the ultrasonic generating device further includes: a connecting wire, with both ends of the connecting wire respectively connected to the ultrasonic oscillator assembly and the second coupling member, and the connecting wire is located in the wiring groove.

[0017] In this design, the cover body includes a first body and a second body, and a wiring groove is enclosed between the first body and the second body, and wires can be routed in the wiring groove. The ultrasonic generating device further includes a connecting wire, with both ends of the connecting wire located at the ultrasonic oscillator assembly and the second coupling member, so that the ultrasonic oscillator assembly is electrically connected to the second coupling member through the connecting wire, thus eliminating the need to closely arrange the ultrasonic oscillator assembly and the second coupling member, and the positions of the wave oscillator assembly and the second coupling member can be reasonably set according to the structure of the product. The connecting wire is located in the wiring groove, and the cover body accommodates the connecting wire, which can effectively reduce the damage rate of the connecting wire.

[0018] Both the ultrasonic oscillator assembly and the second coupling member are located on the second body.

[0019] In a possible design, the food processor further includes: a seal disposed on the ultrasonic oscillator assembly and / or the second body, and the seal is located between the ultrasonic oscillator assembly and the second body.

[0020] In this design, the seal is located between the ultrasonic generating assembly and the second body. The seal can improve the sealing performance between the ultrasonic oscillator assembly and the second body, preventing the liquid in the cup from entering the wiring groove through the gap between the ultrasonic oscillator assembly and the second body, thereby avoiding contact between the liquid and the connecting wires and enhancing the safety of the food processor during operation.

[0021] The seal can be fixed to the ultrasonic oscillator assembly and / or the second body, or it can have no connection with the ultrasonic oscillator assembly and the second body, and the ultrasonic oscillator assembly and the second body clamp the seal.

[0022] In a possible design, the food processor further includes: a receiving assembly detachably connected to the second body. The receiving assembly is provided with a storage cavity and a leakage hole, and the container is provided with a cavity, and the leakage hole communicates the storage cavity and the cavity.

[0023] In this design, the receiving assembly is provided with a storage cavity and a leakage hole, and the receiving assembly can be accommodated in the cavity. Ingredients to be extracted can be placed in the storage cavity of the receiving assembly. Since the receiving assembly is provided with a leakage hole, cold water or ice water in the cavity can enter the storage cavity through the leakage hole to complete the extraction process of the ingredients to be extracted. After the water-soluble substances in the ingredients to be extracted are precipitated, they can also be discharged from the storage cavity through the leakage hole. The receiving assembly can be detached from the second body, enabling loading of the ingredients to be extracted into the receiving assembly. A snap component can be provided between the second body and the receiving assembly, or threads can be provided on both the receiving component and the second body, enabling the receiving component to be screwed onto the second body.

[0024] The second body is located at the opening of the storage cavity, preventing the ingredients to be extracted in the storage cavity from overflowing the storage cavity and affecting the taste of the user when drinking the extract.

[0025] When the receiving assembly is not needed, it can be detached to improve the convenience of the user in using the container.

[0026] In a possible design, the receiving assembly includes: a first storage member disposed on the second body. The storage cavity includes a first storage cavity and a second storage cavity. The first storage member is provided with the first storage cavity, and at least part of the ultrasonic oscillator assembly is located in the first storage cavity; a second storage member disposed on the first storage member. The second storage member is provided with the second storage cavity, and the first storage cavity communicates with the second storage cavity.

[0027] In this design, the storage component includes a first storage item and a second storage item. The first storage item is provided with a first storage cavity, and at least part of the ultrasonic oscillator component is located in the first storage cavity. The second storage item is provided with a second storage cavity, and the food to be extracted can be placed in the second storage cavity. By placing the ultrasonic oscillator component and the food to be extracted in different storage cavities respectively, it is possible to prevent the food to be extracted from adhering to the surface of the ultrasonic oscillator component, reducing the workload of cleaning the ultrasonic oscillator component. The first storage item is located at the opening of the second storage cavity to prevent the food to be extracted from overflowing from the second storage cavity under the action of buoyancy.

[0028] A snap component can be provided between the first storage item and the second storage item, or threads can be provided on both the first storage item and the second storage item, so that the second storage item can be screwed onto the first storage item.

[0029] In a possible design, the end of the ultrasonic oscillator component is arranged opposite to the second storage item.

[0030] In this design, the relative positions of the ultrasonic oscillator component and the second storage item are specifically defined. The end of the ultrasonic oscillator component is arranged opposite to the second storage item, so the ultrasonic oscillator component and the food to be extracted in the second storage item are arranged opposite to each other. The oscillation effect of the end position of the ultrasonic oscillator component on the food is better. Therefore, arranging the end of the ultrasonic oscillator component opposite to the food to be extracted can improve and accelerate the precipitation speed of water-soluble substances in the food to be extracted, and further accelerate the extraction efficiency of the food, which is beneficial to enhancing the user experience of using the food processor.

[0031] In a possible design, the refrigeration component is located at the bottom of the container.

[0032] In this design, the refrigeration component is located at the bottom of the container. The refrigeration component is not likely to occupy the space in the width direction of the main body, facilitating the user to store the food processor.

[0033] In a possible design, the refrigeration component includes: a heat conduction member provided on the main body, and the heat conduction member is used for heat exchange with the container; a thermoelectric refrigeration member provided on the heat conduction member, and the thermoelectric refrigeration member has a hot end and a cold end, and the cold end is in contact with the heat conduction member.

[0034] In this design, the refrigeration component includes a thermoelectric refrigeration member and a heat conduction member. After the thermoelectric refrigeration member is powered on, one side of the thermoelectric refrigeration member is the hot end and the other side is the cold end. An inner container is arranged in the main body, and the container is located in the inner container and in contact with the inner container. The cold end of the refrigeration component exchanges heat with the inner container through the heat conduction member, thereby reducing the surface temperature of the container. The container exchanges heat with cold water or ice water to prevent the temperature of the cold water or ice water from rising. By providing the refrigeration component, the food to be extracted can be kept in a relatively low-temperature environment for a long time.

[0035] The heat conducting member has good heat conducting performance, so as to accelerate the heat exchange between the semiconductor refrigerating member and the container. Moreover, arranging the heat conducting member between the inner container and the semiconductor refrigerating member also avoids the condensed water on the inner container from contacting the semiconductor refrigerating member, preventing damage to the semiconductor refrigerating member.

[0036] In a possible design, the container includes a metal container.

[0037] In this design, since metal has good heat conductivity, the metal container has good heat conductivity. The metal container can quickly exchange heat with the aqueous solution in the cavity, and the metal container can quickly exchange heat with the refrigeration component, improving the heat exchange speed. Thus, the cold water or ice water in the cavity can be maintained at a relatively low temperature for a long time, improving the extraction effect on the ingredients to be extracted.

[0038] In a possible design, the food processor further includes: a coolant circulation component disposed on the main body, and the coolant circulation component is used for heat exchange with the hot end of the semiconductor refrigerating member.

[0039] In this design, the coolant in the coolant circulation component can exchange heat with the hot end of the refrigeration component, and the coolant is in a circulating state. When the temperature of a part of the coolant in the coolant circulation component rises, the coolant circulates continuously, which can efficiently take away the heat at the hot end of the refrigeration component.

[0040] In a possible design, the coolant circulation component includes: a circulation pipeline in contact with the hot end; a heat dissipating member provided with a heat dissipation cavity, and the heat dissipation cavity is communicated with the circulation pipeline.

[0041] In this design, it is specifically defined that the coolant circulation component includes a circulation pipeline and a heat dissipating member. The coolant can circulate in the circulation pipeline and the heat dissipating member. During the circulation process, the coolant can take away the heat at the hot end of the refrigeration component, thereby reducing the temperature of the hot end of the refrigeration component, improving the heat dissipation speed of the hot end of the refrigeration component, enabling the refrigeration component to refrigerate efficiently, and thus ensuring that the cold water or ice water in the container remains at a low temperature, improving the cold extraction effect. The coolant is in a circulating state. When the temperature of a part of the coolant in the coolant circulation component rises, the coolant circulates continuously, which can efficiently take away the heat at the hot end of the refrigeration component.

[0042] Since a heat dissipating member is provided in the coolant circulation component, when the coolant passes through the hot end of the refrigeration component, the coolant exchanges heat with the hot end of the refrigeration component, resulting in an increase in the temperature of the coolant. When the coolant flows into the heat dissipation cavity of the heat dissipating member, the coolant can dissipate heat in the heat dissipation cavity, reducing the temperature of the coolant, so that the temperature of the coolant that circulates back to the refrigeration component again is relatively low. Thus, the coolant can efficiently exchange heat with the hot end of the refrigeration component, and the temperature of the hot end of the refrigeration component drops rapidly, improving the refrigeration efficiency of the refrigeration component.

[0043] The coolant circulation assembly further includes: fins provided on the heat dissipation member. The fins can increase the surface area of the heat dissipation member, thereby increasing the contact area between the heat dissipation member and the surrounding environment. The heat dissipation area of the heat dissipation member is relatively large, and the heat dissipation member can quickly exchange heat with the surrounding environment, thereby further increasing the heat dissipation speed of the coolant in the cooling cavity. After the heated coolant enters the heat dissipation cavity, the coolant can quickly dissipate heat in the cooling cavity, and the temperature of the coolant decreases, so that the temperature of the coolant recycled to the refrigeration assembly is relatively low, and thus it can efficiently exchange heat with the hot end of the refrigeration assembly. The temperature of the refrigeration assembly at the hot end decreases rapidly, which can improve the refrigeration efficiency of the refrigeration assembly.

[0044] In a possible design, the coolant circulation assembly further includes: a fan connected to the heat dissipation member. The fan is used to dissipate heat from the heat dissipation member.

[0045] In this design, it is specifically defined that the heat dissipation member can also be cooled by the fan. The fan is connected to the heat dissipation member, so that the relative positions of the fan and the heat dissipation member remain unchanged, and thus the fan can stably dissipate heat from the heat dissipation member. Specifically, during the coolant circulation process, when the fan is turned on, the fan can blow air towards the heat dissipation member, which can accelerate the heat exchange between the heat dissipation member and the surrounding environment, so that the surface temperature of the heat dissipation member can rapidly decrease. After the heated coolant enters the heat dissipation cavity, the coolant can quickly dissipate heat in the cooling cavity, and the temperature of the coolant decreases, so that the temperature of the coolant recycled to the refrigeration assembly is relatively low, and thus it can efficiently exchange heat with the hot end of the refrigeration assembly. The temperature of the refrigeration assembly at the hot end decreases rapidly, which can improve the refrigeration efficiency of the refrigeration assembly.

[0046] In a possible design, the circulation pipeline includes: a heat transfer member in contact with the hot end. The heat transfer member is provided with a heat transfer cavity, and the heat transfer cavity communicates with the heat dissipation cavity; a pump body provided with an inlet and an outlet. The inlet communicates with the heat dissipation cavity, and the outlet communicates with the heat transfer cavity.

[0047] In this design, it is specifically defined that the circulation pipeline includes a heat transfer member and a pump body. The pump body can drive the coolant to flow, so that the coolant can flow to the heat transfer member to exchange heat with the hot end of the heat dissipation assembly, and the pump body can also drive the coolant to flow to the heat dissipation member for heat dissipation.

[0048] The heat dissipation member abuts against the hot end of the refrigeration assembly. By providing the heat dissipation member, the circulation pipeline and the hot end of the refrigeration assembly have a relatively large contact area, and thus it can ensure that the hot end of the refrigeration assembly and the heat dissipation member can efficiently dissipate heat. The heat dissipation member can quickly take away the heat of the hot end of the refrigeration assembly, so that the refrigeration assembly can efficiently refrigerate, and thus it can ensure that the cold water or ice water in the container remains at a relatively low temperature, improving the cold extraction effect. The heat transfer member needs to be made of a material with good thermal conductivity, such as metal, so as to quickly conduct away the heat of the hot end of the refrigeration assembly.

[0049] The circulation process of the coolant is as follows: The pump body drives the coolant to flow to the heat dissipation component, where the heat dissipation component exchanges heat with the hot end of the refrigeration component, the coolant exchanges heat with the heat dissipation component, the temperature of the coolant rises, the heated coolant flows to the heat dissipation component for heat dissipation, the temperature of the coolant passing through the heat dissipation component is lower, and the coolant returns to the pump body, and the pump body drives the coolant at a lower temperature to dissipate heat from the hot end of the refrigeration component again.

[0050] The additional aspects and advantages of the present invention will become apparent in the following description section or be learned through the practice of the present invention. Brief Description of the Drawings

[0051] The above and / or additional aspects and advantages of the present invention will become apparent and be readily understood from the description of the embodiments in conjunction with the following drawings, where:

[0052] Figure 1 Figure 1 shows one of the structural schematic diagrams of a food processor according to an embodiment of the present invention;

[0053] Figure 2 shows Figure 1 a cross-sectional view taken along the line A-A in

[0054] Figure 3 Figure 2 shows another structural schematic diagram of a food processor according to an embodiment of the present invention;

[0055] Figure 4 Figure 3 shows yet another structural schematic diagram of a food processor according to an embodiment of the present invention;

[0056] Figure 5 Figure 4 shows the structural schematic diagram of a heat transfer component according to an embodiment of the present invention.

[0057] Wherein, Figures 1 to 5 the corresponding relationship between the reference numerals in the drawings and the component names is as follows:

[0058] 100 main body, 200 container, 210 cup body, 220 cover body, 221 first body, 222 second body, 223 wiring groove, 230 body part, 240 handle part, 300 refrigeration component, 310 semiconductor refrigeration element, 320 heat conducting element, 400 ultrasonic generating device, 410 ultrasonic oscillator assembly, 420 second coupling member, 500 first coupling member, 600 seal, 700 accommodating component, 710 first accommodating object, 711 first accommodating cavity, 720 second accommodating object, 721 second accommodating cavity, 800 coolant circulation component, 810 circulation pipeline, 811 heat transfer component, 8111 cooling channel, 8112 sub-channel, 8113 through hole, 8114 heat exchange housing, 8115 heat exchange part, 8116 connecting member, 8117 partition member, 812 pump body, 820 heat dissipation component, 830 fan. Detailed implementation manners

[0059] In order to more clearly understand the above objects, features and advantages of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific implementation manners. It should be noted that, without conflict, the embodiments of the present application and the features in the embodiments may be combined with each other.

[0060] In the following description, many specific details are set forth in order to fully understand the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited by the specific embodiments disclosed below.

[0061] The following refers to Figures 1 to 5 Describe a food processor provided according to some embodiments of the present invention.

[0062] Combined with Figure 1 and Figure 2 As shown, embodiments of the present invention provide a food processor, including: a main body 100 provided with a receiving cavity; a container 200 disposed on the main body 100, the container 200 being detachably connected to the main body 100; a refrigeration component 300 disposed on the main body 100, the refrigeration component 300 being used for heat exchange with the container 200; an ultrasonic generating device 400, the ultrasonic generating device 400 being disposed on the container 200, and at least part of the ultrasonic generating device 400 extending out of the receiving cavity; a first coupling member 500 disposed on the main body 100, the first coupling member 500 being used for coupling with a part of the ultrasonic generating device 400 located outside the receiving cavity.

[0063] The food processor provided in this embodiment includes: a main body 100, a container 200, a refrigeration component 300, an ultrasonic generating device 400, and a first coupling member 500. The housing accommodates the container 200 and the refrigeration component 300. The container 200 is provided with a cavity, and the ingredients and water to be extracted can be accommodated in the cavity. When extraction is required, cold water or ice water can be injected into the receiving cavity, and then the ingredients to be extracted are placed in the receiving cavity and soaked in the cold water or ice water. The refrigeration component 300 can perform heat exchange with the container 200. The refrigeration component 300 reduces the surface temperature of the container 200, and the container 200 exchanges heat with the cold water or ice water to prevent the temperature of the cold water or ice water from rising. By providing the refrigeration component 300, the ingredients to be extracted can be in a low-temperature environment for a long time. In other words, during the entire extraction process, as long as the refrigeration component 300 is turned on, the cold water or ice water always maintains a low temperature, which is beneficial to improving the extraction effect.

[0064] The container 200 can be directly placed in the accommodation cavity. After the cold extraction of food is completed, the container 200 can be taken out of the accommodation cavity, and the user can carry the container 200 with them, facilitating the user to drink the extraction liquid at any time and improving the convenience of the user's use of the container 200.

[0065] The connection relationship between the container 200 and the main body 100 can be a bearing relationship, that is, the main body 100 bears the container 200, facilitating the separation of the container 200 from the main body 100. A snap component can also be provided between the container 200 and the main body 100 to prevent the container 200 from detaching from the main body 100.

[0066] The ultrasonic generating device 400 can oscillate the food ingredients to be extracted in the container 200, which can accelerate the dissolution rate of water-soluble substances in the substances to be extracted, that is, accelerate the extraction rate of the substances to be extracted, shorten the extraction duration, reduce the waiting time of the user, and enable the user to drink the extracted beverage as soon as possible, which is beneficial to enhancing the competitiveness of the product.

[0067] At least a part of the ultrasonic generating device 400 is located outside the accommodation cavity. The first coupling member 500 is provided on the main body 100. The first coupling member 500 can be coupled with the part of the ultrasonic generating device 400 located outside the accommodation cavity, so that the first coupling member 500 can supply power to the ultrasonic generating device 400. The component of the ultrasonic generating device 400 that can be coupled with the first coupling member 500 is also located outside the accommodation cavity, that is, the coupling part of the ultrasonic generating device 400 and the first coupling member 500 are both located outside the accommodation cavity. Even if condensate is generated inside the container 200 or the main body 100, the condensate is not likely to contact the coupling part of the ultrasonic generating device 400 and the first coupling member 500, improving the safety during food processing work and being beneficial to enhancing the competitiveness of the product.

[0068] Combined Figure 1 、 Figure 2 、 Figure 3 and Figure 4 As shown in [relevant figures], in a possible embodiment, the container 200 includes: a cup body 210, provided on the main body 100, and the cup body 210 is located in the accommodation cavity; a cover body 220, provided on the cup body 210, at least part of the ultrasonic generating device 400 is provided on the cover body 220, and the first coupling member 500 is coupled with the part of the ultrasonic generating device 400 located on the cover body 220.

[0069] In this design, the container 200 includes a cup body 210 and a lid body 220. The cup body 210 is located in the accommodation cavity, and water and ingredients to be extracted are placed in the cup body 210. The lid body 220 is arranged on the cup body 210. The lid body 220 can cover the opening of the cup body 210. The lid body 220 can be snapped onto the cup body 210, or the lid body 220 and the cup body 210 are connected through a snap component, or both the lid body 220 and the cup body 210 are provided with threaded structures so that the lid body 220 can be screwed onto the cup body 210. At least part of the ultrasonic generating device 400 is arranged on the lid body 220. When the lid body 220 is separated from the cup body 210, the lid body 220 can drive at least part of the ultrasonic generating device 400 to be separated from the cup body 210, avoiding affecting the user's drinking of the extracted liquid in the cup body 210. The lid body 220 can be entirely outside the accommodation cavity or partially outside the accommodation cavity. Specifically, the lid body 220 includes a body part 230 and a handle part 240. The body part 230 is adapted to the cup body 210. The handle part 240 is arranged on the side of the body part 230. The user can conveniently hold the handle part 240, improving the convenience for the user to carry the container 200. A part of the ultrasonic generating device 400 is arranged in the main body 100 part so that the ultrasonic generating device 400 can extend into the accommodation cavity, and another part of the ultrasonic generating device 400 is arranged in the handle part 240 and is located on the lower end surface of the handle part 240. The first coupling part 500 is located on the upper end surface of the main body 100. When the container 200 is assembled to the main body 100, the ultrasonic generating device 400 is coupled with the first coupling part 500, and the user does not need to adjust the positions of the first coupling part 500 and the ultrasonic generating device 400, improving the convenience for the user to use the food processor.

[0070] Combined Figure 1 and Figure 2 As shown in the figures, in a possible embodiment, the ultrasonic generating device 400 includes: an ultrasonic oscillator assembly 410, arranged on the lid body 220, and the ultrasonic oscillator assembly 410 is located in the accommodation cavity; a second coupling part 420, arranged on the lid body 220, the second coupling part 420 is electrically connected to the ultrasonic oscillator assembly 410, and the first coupling part 500 can be coupled with the second coupling part 420.

[0071] In this embodiment, the ultrasonic generating device 400 includes an ultrasonic oscillator assembly 410 and a second coupling part 420. Among them, the ultrasonic oscillator assembly 410 is located in the accommodation cavity. After being powered on, the ultrasonic oscillator assembly can generate ultrasonic waves. The ultrasonic waves oscillate the ingredients to be extracted in the container 200, which can accelerate the dissolution rate of water-soluble substances in the ingredients to be extracted, that is, accelerate the extraction rate of the ingredients to be extracted, shorten the extraction duration, reduce the waiting time of the user, and the user can drink the extracted beverage as soon as possible.

[0072] The second coupling member 420 is disposed on the cover 220 and is located outside the accommodation cavity. The second coupling member 420 is electrically connected to the ultrasonic oscillator assembly 410, and the second coupling member 420 can be coupled with the first coupling member 500. When the container 200 is separated from the main body 100, the first coupler and the second coupler are separated, and the ultrasonic oscillator assembly 410 is powered off. When the container 200 is assembled to the main body 100, the first coupler and the second coupler are coupled, and the ultrasonic oscillator assembly 410 is powered on and operates. By disposing the first coupling member 500 and the second coupling member 420 outside the accommodation cavity, even if condensate is generated inside the container 200 and the main body 100, the condensate is not likely to contact the first coupling member 500 and the second coupling member 420, avoiding the occurrence of short circuit or electric leakage of the first coupling member 500 and the second coupling member 420 due to contact with the condensate, and improving the safety of the food processor during operation. By disposing the wave oscillator assembly inside the accommodation cavity and the second coupling member 420 outside the accommodation cavity, both the oscillation effect on the food ingredients is ensured and the safety of the food processor during operation is ensured, which is beneficial to enhancing the competitiveness of the product.

[0073] In this embodiment, both the first coupling member 500 and the second coupling member 420 are couplers.

[0074] Combined with Figure 1 and Figure 2 As shown, in a possible embodiment, the cover 220 includes: a first body 221; a second body 222 disposed on the second body 222, the ultrasonic generating device 400 is disposed on the second body 222, and the first body 221 and the second body 222 enclose a wiring groove 223; the ultrasonic generating device 400 further includes: a connecting wire, and both ends of the connecting wire are respectively connected to the ultrasonic oscillator assembly 410 and the second coupling member 420, and the connecting wire is located in the wiring groove 223.

[0075] In this embodiment, the cover 220 includes a first body 221 and a second body 222, and a wiring groove 223 is enclosed between the first body 221 and the second body 222, and wires can be routed in the wiring groove 223. The ultrasonic generating device 400 further includes a connecting wire, and both ends of the connecting wire are located at the ultrasonic oscillator assembly 410 and the second coupling member 420, so that the ultrasonic oscillator assembly 410 is electrically connected to the second coupling member 420 through the connecting wire, and thus it is not necessary to dispose the ultrasonic oscillator assembly 410 and the second coupling member 420 close to each other, and the positions of the wave oscillator assembly and the second coupling member 420 can be reasonably set according to the structure of the product. The connecting wire is located in the wiring groove 223, and the cover 220 accommodates the connecting wire, which can effectively reduce the damage rate of the connecting wire.

[0076] Both the ultrasonic oscillator assembly 410 and the second coupling member 420 are located on the second body 222.

[0077] Combined with Figure 1 andFigure 2 As shown, in a possible embodiment, the food processor further includes: a seal 600 disposed on the ultrasonic oscillator assembly 410 and / or the second body 222, and the seal 600 is located between the ultrasonic oscillator assembly 410 and the second body 222.

[0078] In this embodiment, the seal 600 is located between the ultrasonic generating assembly and the second body 222. The seal 600 can improve the sealing performance between the ultrasonic oscillator assembly 410 and the second body 222, preventing the liquid in the cup body 210 from entering the wiring groove 223 through the gap between the ultrasonic oscillator assembly 410 and the second body 222, thereby avoiding contact between the liquid and the connecting wires and enhancing the safety of the food processor during operation.

[0079] The seal 600 can be fixed to the ultrasonic oscillator assembly 410 and / or the second body 222, or the seal 600 can have no connection relationship with the ultrasonic oscillator assembly 410 and the second body 222, and the seal 600 is clamped by the ultrasonic oscillator assembly 410 and the second body 222.

[0080] Combined with Figure 1 and Figure 2 As shown, in a possible embodiment, the food processor further includes: a receiving assembly 700 detachably connected to the second body 222. The receiving assembly 700 is provided with a storage cavity and a leakage hole, and the container 200 is provided with a cavity, and the leakage hole communicates the storage cavity and the cavity.

[0081] In this embodiment, the receiving assembly 700 is provided with a storage cavity and a leakage hole, and the receiving assembly 700 can be accommodated in the cavity. Ingredients to be extracted can be placed in the storage cavity of the receiving assembly 700. Since the receiving assembly 700 is provided with a leakage hole, cold water or ice water in the cavity can enter the storage cavity through the leakage hole to complete the extraction process of the ingredients to be extracted. After the water-soluble substances in the ingredients to be extracted are precipitated, they can also be discharged from the storage cavity through the leakage hole. The receiving assembly 700 can be detached from the second body 222, enabling the loading of ingredients to be extracted into the receiving assembly 700. A snap component can be provided between the second body 222 and the receiving assembly 700, or threads can be provided on both the receiving component and the second body 222, enabling the receiving component to be screwed onto the second body 222.

[0082] The second body 222 is located at the opening of the storage cavity, preventing the ingredients to be extracted in the storage cavity from overflowing the storage cavity and affecting the taste of the extracted liquid for the user.

[0083] When the receiving assembly 700 is not needed, the receiving assembly 700 can be detached, improving the convenience of the user in using the container 200.

[0084] Combined with Figure 1 and Figure 2As shown, in a possible embodiment, the accommodating component 700 includes: a first placing member 710 disposed on the second body 222. The placing cavity includes a first placing cavity 711 and a second placing cavity 721. The first placing member 710 is provided with the first placing cavity 711, and at least part of the ultrasonic oscillator assembly 410 is located in the first placing cavity 711; a second placing member 720 disposed on the first placing member 710. The second placing member 720 is provided with the second placing cavity 721, and the first placing cavity 711 communicates with the second placing cavity 721.

[0085] In this embodiment, the placing component includes a first placing member 710 and a second placing member 720. The first placing member 710 is provided with a first placing cavity 711, and at least part of the ultrasonic oscillator assembly 410 is located in the first placing cavity 711. The second placing member 720 is provided with a second placing cavity 721, and the food to be extracted can be placed in the second placing cavity 721. By placing the ultrasonic oscillator assembly 410 and the food to be extracted in different placing cavities respectively, it is possible to prevent the food to be extracted from adhering to the surface of the ultrasonic oscillator assembly 410, reducing the cleaning workload of the ultrasonic oscillator assembly 410. The first placing member 710 is located at the opening of the second placing cavity 721 to prevent the food to be extracted from overflowing the second placing cavity 721 under the action of buoyancy.

[0086] A snap component can be provided between the first placing member 710 and the second placing member 720, or threads can be provided on both the first placing member 710 and the second placing member 720, so that the second placing member 720 can be screwed onto the first placing member 710.

[0087] Combined Figure 1 and Figure 2 As shown in the figures, in a possible embodiment, the end of the ultrasonic oscillator assembly 410 is disposed opposite to the second placing member 720.

[0088] In this embodiment, the relative positions of the ultrasonic oscillator assembly 410 and the second placing member 720 are specifically defined. The end of the ultrasonic oscillator assembly 410 is disposed opposite to the second placing member 720. Therefore, the ultrasonic oscillator assembly 410 and the food to be extracted in the second placing member 720 are disposed opposite to each other. The oscillation effect of the end position of the ultrasonic oscillator assembly 410 on the food is better. Therefore, disposing the end of the ultrasonic oscillator assembly 410 opposite to the food to be extracted can improve and accelerate the precipitation speed of water-soluble substances in the food to be extracted, and further accelerate the extraction efficiency of the food, which is beneficial to improving the user experience of the food processor.

[0089] Combined Figure 1 and Figure 2 As shown in the figures, in a possible embodiment, the refrigeration component 300 is located at the bottom of the container 200.

[0090] In this embodiment, the refrigeration assembly 300 is located at the bottom of the container 200. The refrigeration assembly 300 is not likely to occupy the space in the width direction of the food processor, facilitating the user to store the food processor.

[0091] In other embodiments, the refrigeration assembly 300 can also be arranged on the side of the container 200, and the position of the refrigeration assembly 300 relative to the container 200 can be reasonably set according to the assembly positions of the devices in the food processor.

[0092] In a possible embodiment, the refrigeration assembly 300 includes: a heat conducting member 320 provided on the main body 100, and the heat conducting member 320 is used for heat exchange with the container 200; a thermoelectric cooling element 310 provided on the heat conducting member 320, and the thermoelectric cooling element 310 has a hot end and a cold end, and the cold end is in contact with the heat conducting member 320.

[0093] In this embodiment, the refrigeration assembly 300 includes a thermoelectric cooling element 310 and a heat conducting member 320. After the thermoelectric cooling element 310 is powered on, one side of the thermoelectric cooling element 310 is the hot end and the other side is the cold end. An inner container is arranged in the main body 100, and the container 200 is located in the inner container and in contact with the inner container. The cold end of the refrigeration assembly 300 exchanges heat with the inner container through the heat conducting member 320, thereby reducing the surface temperature of the container 200. The container 200 exchanges heat with cold water or ice water, preventing the temperature of the cold water or ice water from rising. By providing the refrigeration assembly 300, the ingredients to be extracted can be kept in a relatively low-temperature environment for a long time.

[0094] The heat conducting member 320 has good heat conducting performance, which can accelerate the heat exchange between the thermoelectric cooling element 310 and the container 200. Moreover, arranging the heat conducting member 320 between the inner container and the thermoelectric cooling element 310 also prevents the condensed water on the inner container from contacting the thermoelectric cooling element 310 and avoids damage to the thermoelectric cooling element 310.

[0095] In a possible embodiment, the container 200 includes a metal container 200.

[0096] In this embodiment, since metal has good heat conductivity, the metal container 200 has good heat conductivity. The metal container 200 can quickly exchange heat with the aqueous solution in the cavity, and the metal container 200 can quickly exchange heat with the refrigeration assembly 300, improving the heat exchange speed. Thus, the cold water or ice water in the cavity can be kept at a relatively low temperature for a long time, improving the extraction effect on the ingredients to be extracted.

[0097] The inner container is made of a heat conducting material, such as metal.

[0098] There is a heat insulation layer on the outer side of the inner container. The heat insulation layer has the function of heat insulation, reducing the heat exchange between the container 200 and the external environment, avoiding heating the container 200 due to the relatively high temperature in the external environment, enabling the container 200 to maintain a relatively low temperature, and thus reducing the energy consumption of the refrigeration component 300.

[0099] Combined with Figure 2 and Figure 5 As shown, in a possible embodiment, the food processor further includes: a coolant circulation component 800, disposed in the main body 100, and the coolant circulation component 800 is used for heat exchange with the hot end of the semiconductor refrigeration element 310.

[0100] In this embodiment, the coolant in the coolant circulation component 800 can perform heat exchange with the hot end of the refrigeration component 300, and the coolant is in a circulating state. When the temperature of a part of the coolant in the coolant circulation component 800 rises, the coolant keeps circulating, and can efficiently take away the heat at the hot end of the refrigeration component 300.

[0101] Combined with Figure 2 and Figure 5 As shown, in a possible embodiment, the coolant circulation component 800 includes: a circulation pipeline 810, which is in contact with the hot end; a heat dissipation member 820, provided with a heat dissipation cavity, and the heat dissipation cavity is communicated with the circulation pipeline 810.

[0102] In this embodiment, it is specifically defined that the coolant circulation component 800 includes a circulation pipeline 810 and a heat dissipation member 820. The coolant can circulate in the circulation pipeline 810 and the heat dissipation member 820. During the circulation process of the coolant, it can take away the heat at the hot end of the refrigeration component 300, thereby reducing the temperature of the hot end of the refrigeration component 300, increasing the heat dissipation speed of the hot end of the refrigeration component 300, enabling the refrigeration component 300 to refrigerate efficiently, and thus ensuring that the cold water or ice water in the container 200 maintains a relatively low temperature and improving the cold extraction effect. The coolant is in a circulating state. When the temperature of a part of the coolant in the coolant circulation component 800 rises, the coolant keeps circulating, and can efficiently take away the heat at the hot end of the refrigeration component 300.

[0103] Since the heat dissipation member 820 is provided in the coolant circulation component 800, when the coolant passes through the hot end of the refrigeration component 300, the coolant exchanges heat with the hot end of the refrigeration component 300, resulting in an increase in the temperature of the coolant. When the coolant flows into the heat dissipation cavity of the heat dissipation member 820, the coolant can dissipate heat in the heat dissipation cavity, reducing the temperature of the coolant, so that the temperature of the coolant circulating back to the refrigeration component 300 is relatively low, and thus can efficiently perform heat exchange with the hot end of the refrigeration component 300, and the temperature at the hot end of the refrigeration component 300 drops rapidly, which can improve the refrigeration efficiency of the refrigeration component 300.

[0104] The coolant circulation assembly 800 further includes: fins provided on the heat dissipating member 820. The fins can increase the surface area of the heat dissipating member 820, thereby increasing the contact area between the heat dissipating member 820 and the surrounding environment. The heat dissipating area of the heat dissipating member 820 is relatively large, and the heat dissipating member 820 can quickly exchange heat with the surrounding environment, thereby further increasing the heat dissipation speed of the coolant in the cooling cavity. After the heated coolant enters the heat dissipation cavity, the coolant can quickly dissipate heat in the cooling cavity, and the temperature of the coolant decreases, so that the temperature of the coolant recycled to the refrigeration assembly 300 is relatively low, and thus it can efficiently exchange heat with the hot end of the refrigeration assembly 300, and the temperature of the hot end of the refrigeration assembly 300 decreases rapidly, which can improve the refrigeration efficiency of the refrigeration assembly 300.

[0105] Combined with Figure 2 and Figure 5 As shown in the figure, in a possible embodiment, the coolant circulation assembly 800 further includes: a fan 830 connected to the heat dissipating member 820, and the fan 830 is used to dissipate heat from the heat dissipating member 820.

[0106] In this embodiment, it is specifically defined that the heat dissipating member 820 can also be dissipated by the fan 830. The fan 830 is connected to the heat dissipating member 820, so that the relative positions of the fan 830 and the heat dissipating member 820 remain unchanged, so that the fan 830 can stably dissipate heat from the heat dissipating member 820. Specifically, during the coolant circulation process, the fan 830 is turned on, and the fan 830 can blow air towards the heat dissipating member 820, which can accelerate the heat exchange between the heat dissipating member 820 and the surrounding environment, so that the surface temperature of the heat dissipating member 820 can be quickly reduced. After the heated coolant enters the heat dissipation cavity, the coolant can quickly dissipate heat in the cooling cavity, and the temperature of the coolant decreases, so that the temperature of the coolant recycled to the refrigeration assembly 300 is relatively low, and thus it can efficiently exchange heat with the hot end of the refrigeration assembly 300, and the temperature of the hot end of the refrigeration assembly 300 decreases rapidly, which can improve the refrigeration efficiency of the refrigeration assembly 300.

[0107] Combined with Figure 2 and Figure 5 As shown in the figure, in a possible embodiment, the circulation pipeline 810 includes: a heat transfer member 811 in contact with the hot end. The heat transfer member 811 is provided with a heat transfer cavity, and the heat transfer cavity communicates with the heat dissipation cavity; a pump body 812 is provided with a water inlet and a water outlet. The water inlet communicates with the heat dissipation cavity, and the water outlet communicates with the heat transfer cavity.

[0108] In this embodiment, it is specifically defined that the circulation pipeline 810 includes the heat transfer member 811 and the pump body 812. The pump body 812 can drive the coolant to flow, so that the coolant can flow to the heat transfer member 8I1 to exchange heat with the hot end of the heat dissipation assembly, and the pump body 812 can drive the coolant to flow to the heat dissipating member 820 for heat dissipation.

[0109] The heat transfer member 811 abuts against the hot end of the refrigeration assembly 300. By providing the heat transfer member 811, the circulating pipeline 810 and the hot end of the refrigeration assembly 300 have a relatively large contact area, so that the hot end of the refrigeration assembly 300 and the heat transfer member 811 can dissipate heat efficiently. The heat transfer member 811 can quickly take away the heat of the hot end of the refrigeration assembly 300, enabling the refrigeration assembly 300 to refrigerate efficiently, thereby ensuring that the cold water or ice water in the container 200 remains at a relatively low temperature and improving the cold extraction effect. The heat transfer member 811 needs to be made of a material with good thermal conductivity, such as metal, so as to quickly conduct away the heat of the hot end of the refrigeration assembly 300.

[0110] The circulation process of the coolant is as follows: The pump body 812 drives the coolant to flow to the heat transfer member 811. The heat transfer member 811 exchanges heat with the hot end of the refrigeration assembly 300, and the coolant exchanges heat with the heat transfer member 811. The temperature of the coolant rises. The heated coolant flows to the heat dissipation member 820 for heat dissipation. The temperature of the coolant passing through the heat dissipation member 820 is relatively low, and the coolant flows back to the pump body 812. The pump body 812 drives the coolant at a relatively low temperature to dissipate heat from the hot end of the refrigeration assembly 300 again.

[0111] A cooling channel 8111 is provided inside the heat transfer member, and coolant can be introduced into the cooling channel 8111. Specifically, the coolant is introduced into the cooling channel 8111 from the liquid inlet, and the coolant in the cooling channel 8111 can be discharged through the liquid outlet. The heat transfer member is in contact with the refrigeration assembly. Since the temperature of the coolant in the heat transfer member is relatively low, the heat transfer member can exchange heat with the refrigeration assembly, take away the heat on the surface of the refrigeration assembly, thereby reducing the temperature of the heating part of the refrigeration assembly, increasing the heat dissipation speed of the heating part of the refrigeration assembly, enabling the refrigeration assembly to refrigerate efficiently, and ensuring that the cold water or ice water in the container remains at a relatively low temperature and improving the cold extraction effect.

[0112] The coolant can flow into and out of the cooling channel 8111, and the coolant is in a circulating flow state, which can efficiently take away the heat of the refrigeration assembly at the hot end.

[0113] At least part of the cooling channel 8111 is bent. In order to prevent the coolant entering the cooling channel 8111 through the liquid inlet from flowing directly in a straight line to the liquid outlet, that is, to prevent the cooling oil from quickly discharging from the cooling channel 8111, at least part of the cooling channel 8111 is bent, so as to be able to extend the flow path of the coolant in the cooling channel 8111. Specifically, the flow length of the cooling channel 8111 is greater than the maximum distance between the liquid inlet and the liquid outlet. The coolant can flow a relatively long distance, so that the coolant can fully exchange heat with the heat transfer member. The surface of the heat transfer member is relatively low, enabling the heat transfer member to exchange heat efficiently with the refrigeration assembly and improving the heat exchange effect between the heat transfer member and the refrigeration assembly.

[0114] Combined with Figure 2 and Figure 5 As shown, in a possible embodiment, the heat transfer member includes: a heat exchange housing 8114 provided with a cavity; a partition member 8117 disposed in the cavity, the partition member 8117 being located between the liquid inlet and the liquid outlet, and the heat exchange housing 8114 and the partition member 8117 enclose a cooling channel 8111.

[0115] In this embodiment, it is specifically defined that the heat transfer member includes a heat exchange housing 8114 and a partition member 8117. The heat exchange housing 8114 is provided with a cavity, and the partition member 8117 is disposed in the cavity. Moreover, the partition member 8117 is located between the liquid inlet and the liquid outlet. The coolant flowing into the cavity through the liquid inlet cannot directly flow straight to the liquid outlet under the blocking action of the partition member 8117, but needs to bypass the partition member 8117 or flow through the channel on the partition member 8117 and then flow to the liquid outlet. Therefore, a cooling channel 8111 with a bent section is enclosed between the heat exchange housing 8114 and the partition member 8117, and the coolant can flow a longer distance, so that the coolant can fully exchange heat with the heat transfer member. The surface of the heat transfer member is lower, enabling the heat transfer member to efficiently exchange heat with the refrigeration component and improving the heat exchange effect between the heat transfer member and the refrigeration component.

[0116] Combined with Figure 2 and Figure 5 As shown, in a possible embodiment, the cooling channel 8111 includes: at least two sub-channels, and the partition member 8117 divides the cavity into at least two sub-channels; through holes 8113 are disposed on the partition member 8117, and the through holes 8113 communicate with adjacent two of the at least two sub-channels.

[0117] In this embodiment, the cooling channel 8111 includes at least two sub-channels 8112 and through holes 8113. The partition member 8117 divides the cavity into at least two sub-channels 8112. The coolant passing through the liquid inlet first enters one of the sub-channels 8112. The partition member 8117 blocks the coolant to prevent it from flowing straight to the liquid outlet. When the coolant flows to the through holes 8113 in the sub-channel 8112, the coolant passes through the through holes 8113 and can thus enter another sub-channel 8112. The coolant is discharged through the liquid outlet after passing through at least two sub-channels 8112. Among them, the position of the through holes 8113 is the bent section of the cooling channel 8111, and the coolant changes its flow direction at the through holes 8113. The coolant can flow a longer distance, so that the coolant can fully exchange heat with the heat transfer member. The surface of the heat transfer member is lower, enabling the heat transfer member to efficiently exchange heat with the refrigeration component and improving the heat exchange effect between the heat transfer member and the refrigeration component.

[0118] Combined with Figure 2 and Figure 5As shown, in a possible embodiment, there are at least two baffles 8117, and the through holes 8113 on adjacent baffles 8117 among the at least two baffles 8117 are arranged staggeredly.

[0119] In this embodiment, it is specifically defined that there are at least two baffles 8117, and the at least two baffles 8117 are arranged at intervals. The coolant passing through the liquid inlet first enters one of the sub-channels 8112. The baffle 8117 blocks the coolant to prevent the coolant from flowing directly along a straight line to the liquid outlet. The coolant passes through one baffle 8117 at the through hole 8113, and then the coolant enters the sub-channel 8112 between two adjacent baffles 8117 and continues to pass through the baffle 8117 at the through hole 8113 of another baffle 8117. Through holes 8113 are provided on each baffle 8117, and the through holes 8113 on two adjacent baffles 8117 are arranged staggeredly. After passing through the through hole 8113 on one baffle 8117, the coolant will not directly pass through the through hole 8113 on the adjacent baffle 8117. The coolant needs to flow a certain distance in another sub-channel 8112 before it can pass through the through hole 8113 on the adjacent baffle 8117. By arranging the through holes 8113 of adjacent baffles 8117 staggeredly, the cooling channel 8111 has multiple bent sections, and the coolant can change the flow direction multiple times, further extending the flow length of the coolant in the cooling joint. The coolant can quickly take away the heat of the heat-generating part of the refrigeration component, enabling the cooling joint to efficiently exchange heat with the refrigeration component.

[0120] Combined with Figure 2 and Figure 5 As shown, in a possible embodiment, the heat exchange housing 8114 includes: a heat exchange part 8115 provided with at least two sub-channels, and the sub-channels are provided with openings; and a connecting member 8116 installed at the openings.

[0121] In this embodiment, the heat transfer member includes a heat exchange portion 8115 and a connecting member 8116. A partition member 8117 is disposed within the heat exchange portion 8115. The partition member 8117 and the heat exchange portion 8115 enclose a sub-channel 8112. The heat exchange portion 8115 is capable of performing heat exchange with the refrigeration assembly. The sub-channel 8112 is provided with an opening. The connecting member 8116 is installed at the opening. The connecting member 8116 can block the opening, enabling the coolant to flow within at least two sub-channels 8112 without easy leakage. When the connecting member 8116 is not installed at the opening, it is convenient to process the through-hole 8113 within the heat exchange portion 8115. Specifically, a part of the drilling tool can be inserted into the sub-channel 8112 and the through-hole 8113 can be formed on the partition member 8117. By setting the heat transfer member as two parts, namely the heat exchange portion 8115 and the connecting member 8116, the processing convenience of the through-hole 8113 can be improved. Compared with the structure where the heat transfer member is integrally formed, the processing method of the through-hole 8113 in this embodiment is more convenient, reducing the processing difficulty of the heat transfer member.

[0122] In a possible embodiment, it further includes: a heat exchange end face, disposed on the heat transfer member, for contacting the refrigeration assembly, and the heat exchange end face is a flat surface.

[0123] In this embodiment, at least one end face of the heat transfer member is a heat exchange end face, and the heat exchange end face is a flat surface, that is, the heat exchange end face is relatively flat. Therefore, the heat transfer member and the heat generating portion of the refrigeration assembly are in surface contact. The heat exchange end face of the heat transfer member can have a large fitting area with the heat generating portion of the refrigeration assembly, improving the heat exchange efficiency between the heat transfer member and the refrigeration assembly. The temperature of the heat generating portion of the refrigeration assembly can be rapidly reduced, thereby improving the refrigeration efficiency of the refrigeration assembly.

[0124] In a possible embodiment, it further includes: a mounting surface, disposed on the heat transfer member, and an inlet and an outlet are disposed on the mounting surface, and the area of the heat exchange end face is larger than the area of the mounting surface.

[0125] In this embodiment, a section of the end face of the heat transfer member serves as the mounting surface, the inlet and the outlet are disposed on the mounting surface, and the area of the heat exchange end face is larger than the area of the mounting surface, that is, the heat exchange end face is the larger end face among the outer surfaces of the heat transfer member, enabling the heat transfer member and the refrigeration assembly to have a large contact area and ensuring efficient heat exchange between the heat transfer member and the refrigeration assembly.

[0126] In the present invention, the term "a plurality of" refers to two or more, unless otherwise clearly defined. Terms such as "mounting", "connecting", "coupling", "fixing", etc. should be understood in a broad sense. For example, "connecting" can be a fixed connection, a detachable connection, or an integral connection; "coupling" can be a direct connection or an indirect connection through an intermediate medium. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0127] In the description of this specification, the descriptions of terms such as "one embodiment", "some embodiments", "specific embodiments", etc. mean that the specific features, structures, materials, or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or instance. Moreover, the specific features, structures, materials, or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0128] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. For those skilled in the art, the present invention can have various changes and modifications. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A food processor, characterized in that, Comprising: A main body provided with a receiving cavity; A container disposed on the main body, the container being detachably connected to the main body; A refrigeration component disposed on the main body, the refrigeration component being used for heat exchange with the container; An ultrasonic generating device disposed on the container, at least a part of the ultrasonic generating device extending out of the receiving cavity; A first coupling member disposed on the main body, the first coupling member being used for coupling with a part of the ultrasonic generating device located outside the receiving cavity, and the first coupling member supplying power to the ultrasonic generating device; The container includes: A cup body disposed on the main body, the cup body being located within the receiving cavity; A cover body disposed on the cup body, at least a part of the ultrasonic generating device being disposed on the cover body, and the first coupling member being coupled with a part of the ultrasonic generating device located on the cover body; The cover body includes a main body portion and a handle portion, the main body portion being adapted to the cup body, the handle portion being disposed on the side of the main body portion, a part of the ultrasonic generating device being disposed on the main body portion so that the ultrasonic generating device can extend into the receiving cavity, and another part of the ultrasonic generating device being disposed on the handle portion and located on the lower end surface of the handle portion.

2. The food processor according to claim 1, wherein The ultrasonic generating device includes: An ultrasonic oscillator assembly disposed on the cover body, the ultrasonic oscillator assembly being located within the receiving cavity; A second coupling member disposed on the cover body, the second coupling member being electrically connected to the ultrasonic oscillator assembly, and the first coupling member being capable of coupling with the second coupling member.

3. The food processor according to claim 2, wherein The cover body includes: A first main body; A second main body disposed on the second main body, the ultrasonic generating device being disposed on the second main body, and the first main body and the second main body enclosing a wiring groove; The ultrasonic generating device further includes: A connecting wire, the two ends of the connecting wire being respectively connected to the ultrasonic oscillator assembly and the second coupling member, and the connecting wire being located within the wiring groove.

4. The food processor according to claim 3, characterized in that, Further comprising: A sealing member disposed on the ultrasonic oscillator assembly and / or the second main body, the sealing member being located between the ultrasonic oscillator assembly and the second main body.

5. The food processor according to claim 3, characterized in that, Further comprising: A receiving assembly detachably connected to the second main body, the receiving assembly being provided with a storage cavity and a leakage hole, the container being provided with a cavity, and the leakage hole communicating the storage cavity and the cavity.

6. The food processor according to claim 5, characterized in that, The receiving assembly includes: A first storage member disposed on the second main body, the storage cavity including a first storage cavity and a second storage cavity, the first storage member being provided with the first storage cavity, and at least a part of the ultrasonic oscillator assembly being located within the first storage cavity; A second storage member disposed on the first storage member, the second storage member being provided with the second storage cavity, and the first storage cavity communicating with the second storage cavity.

7. The food processor according to claim 6, wherein The end of the ultrasonic oscillator assembly is disposed opposite to the second storage member.

8. The food processor according to any one of claims 1 to 7, wherein The refrigeration component is located at the bottom of the container.

9. The food processor according to any one of claims 1 to 7, characterized in that, The refrigeration component includes: A heat conducting member disposed on the main body, the heat conducting member being used for heat exchange with the container; A semiconductor refrigeration component is provided on the heat conducting component. The semiconductor refrigeration component has a hot end and a cold end, and the cold end is in contact with the heat conducting component.

10. The food processor according to any one of claims 1 to 7, wherein the container includes a metal container.

11. The food processor according to claim 9, characterized in that, It further includes: A coolant circulation assembly is provided on the main body, and the coolant circulation assembly is used for heat exchange with the hot end of the semiconductor refrigeration component.

12. The food processor according to claim 11, characterized in that, The coolant circulation assembly includes: A circulation pipeline is in contact with the hot end; A heat dissipation component is provided with a heat dissipation cavity, and the heat dissipation cavity is communicated with the circulation pipeline.

13. The food processor according to claim 12, characterized in that, The coolant circulation assembly further includes: A fan is connected to the heat dissipation component, and the fan is used for dissipating heat from the heat dissipation component.

14. The food processor according to claim 13, wherein, The circulation pipeline includes: A heat transfer component is in contact with the hot end, and the heat transfer component is provided with a heat transfer cavity, and the heat transfer cavity is communicated with the heat dissipation cavity; A pump body is provided with a water inlet and a water outlet, the water inlet is communicated with the heat dissipation cavity, and the water outlet is communicated with the heat transfer cavity.

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