Filter device, food processor, and control method, device, and readable storage medium thereof

Abstract

The present invention provides a filtering device, a food processor, and their control methods, devices, and readable storage media. The filtering device includes: a filtering component including a first liquid discharge port; a main body, the filtering component is detachably disposed on the main body; a first through hole disposed on the main body, and the first liquid discharge port communicates with the outside through the first through hole; a driving component disposed on the main body, the driving component is connected to the filtering component, and the driving component can drive the filtering component to rotate relative to the main body. By providing a driving component in the filtering device, the driving component drives the filtering component to rotate relative to the main body, so that the rapidly rotating filtering component generates a centrifugal force, which on the one hand speeds up the filtering speed of the liquid, and on the other hand causes the liquid to be discharged from the filtering element under the action of the centrifugal force, reducing the residual amount of liquid in the filtering element, improving the working efficiency of the filtering device, and improving the filtering effect.

Description

Technical Field

[0001] The present invention belongs to the technical field of food processing equipment, and specifically relates to a filtering device, a food processor, and a control method, device, and readable storage medium thereof. Background Art

[0002] The filtering devices in the prior art are often static filtering, which has problems such as slow filtering speed and a large amount of liquid remaining in the filtering device after filtering, resulting in a low juice yield of the filtered beverage and unable to meet the user's usage requirements. 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 the first aspect of the present invention, a filtering device is proposed.

[0005] In the second aspect of the present invention, a food processor is proposed.

[0006] In the third aspect of the present invention, a control method for a food processor is proposed.

[0007] In the fourth aspect of the present invention, a control device for a food processor is proposed.

[0008] In the fifth aspect of the present invention, a food processor is proposed.

[0009] In the sixth aspect of the present invention, a readable storage medium is proposed.

[0010] In view of this, in the first aspect of the present invention, a filtering device is proposed, including: a filtering component, including a first liquid discharge port; a main body, the filtering component is detachably arranged on the main body; a first through hole, arranged on the main body, and the first liquid discharge port is communicated with the outside through the first through hole; a driving component, arranged on the main body, the driving component is connected with the filtering component, and the driving component can drive the filtering component to rotate relative to the main body.

[0011] The filtering device provided by the present invention includes a main body and a filtering component. A cavity is provided in the main body, and the filtering component is detachably arranged in the cavity of the main body.

[0012] The filtering device is further provided with a first through hole, and the first through hole is arranged on the main body. Specifically, the first through hole is communicated with the cavity of the main body. Among them, the filtering component is further provided with a first liquid discharge port, and the first liquid discharge port is used to discharge the liquid filtered by the filtering component. When the filtering component is placed in the cavity of the main body, the first liquid discharge port of the filtering component is communicated with the first through hole, and further the first liquid discharge port is communicated with the outside through the first through hole, so as to discharge the filtered liquid from the filtering device.

[0013] Further, a driving component is also provided in the filtering device, and the driving component is arranged on the main body. The driving component is connected to the filtering component to drive the filtering component to rotate relative to the main body. Specifically, the filtering component is placed in the cavity of the main body, and the filtering component and the main body can rotate relative to each other. Under the action of the driving component, the filtering component rotates around its own center axis relative to the main body.

[0014] It can be understood that in the static state, the liquid in the filtering component is discharged from the filter element by its own hydraulic pressure to achieve the separation of the liquid and impurities. However, simply through the hydraulic action, on the one hand, the liquid discharge speed is relatively slow, and on the other hand, when the remaining liquid is less, the hydraulic pressure is small, and it is difficult to discharge the liquid, resulting in some liquid being unable to be discharged. When the driving component acts on the filtering component, the driving component rotates relative to the main body, and a centrifugal force is generated when the filtering component rotates. Under the action of the centrifugal force, the liquid in the filtering component is quickly thrown out of the filter element, thereby accelerating the discharge of the filtering component and speeding up the separation speed of the liquid and impurities, and reducing the residual amount of the liquid in the filter element.

[0015] The filtering device further includes a support bottom cover. A first opening is provided at the bottom of the main body. The support bottom cover is connected to the main body at the first opening for covering the first opening. A second through hole corresponding to the first through hole is provided on the support bottom cover. The filtering device includes a plurality of first connecting members for connecting the support bottom cover to the main body. The first connecting member can be a screw.

[0016] The filtering process of the filtering device is specifically as follows: The liquid containing impurities flows into the filtering component and first enters the filter element. The filtering component rotates relative to the main body under the action of the driving component, and the filter element also rotates accordingly. The liquid in the filter element is quickly thrown out of the filter element under the action of the centrifugal force, and the impurities in the liquid remain in the filter element, realizing the solid-liquid separation. The filtered liquid is discharged from the filtering device through the first liquid discharge port of the filtering component.

[0017] By arranging a driving component in the filtering device, the driving component drives the filtering component to rotate relative to the main body, so that the rapidly rotating filtering component generates a centrifugal force, which on the one hand speeds up the liquid filtering speed, and on the other hand causes the liquid to be discharged from the filter element under the action of the centrifugal force, reducing the residual amount of the liquid in the filter element, improving the working efficiency of the filtering device, and improving the filtering effect.

[0018] In addition, according to the filtering device provided by the above technical solution of the present invention, the following additional technical features may also be provided:

[0019] In the above technical solution, further, the rotational speed at which the driving component drives the filtering component to rotate is greater than or equal to 50 rpm and less than or equal to 5000 rpm.

[0020] In this technical solution, the driving motor drives the filtering component to rotate at a certain speed. It can be understood that the filtering component will generate a certain amount of noise during rotation. The faster the rotation speed, the greater the noise. Moreover, the centrifugal force of the filtering component is also related to the rotation speed. The faster the rotation speed, the greater the centrifugal force and the higher the filtering effect. To balance the relationship between the filtering effect and the noise of the filtering component, the rotation speed of the filtering component is thus limited within the range of 50 rpm to 5000 rpm.

[0021] By limiting the rotation speed of the filtering component within the range of 50 rpm to 5000 rpm, it can not only ensure that the filtering component rotates at a certain speed, thereby ensuring that the centrifugal force of the filtering component meets the filtering requirements, but also ensure that the noise of the filtering device is within a reasonable range and will not affect the user.

[0022] In the above technical solution, further, the driving component includes: a driving motor disposed on the main body; a first transmission member connected to the output shaft of the driving motor; the filtering device further includes: a second transmission member disposed on the filtering component, the second transmission member is adapted to the first transmission member, and the first transmission member drives the second transmission member to rotate under the drive of the driving motor, so that the filtering component rotates relative to the main body.

[0023] In this technical solution, the driving component includes a driving motor and a first transmission member. The filtering component is provided with a second transmission member, and the second transmission member is adapted to the first transmission member. The driving component drives the first transmission member to rotate, and the first transmission member cooperates with the second transmission member to drive the second transmission member to rotate through the first transmission member, so as to realize the driving of the filtering component by the driving component, and the filtering component rotates relative to the main body.

[0024] Specifically, the driving motor is disposed on the main body. The output end of the driving motor is provided with an output shaft, and a limiting platform is provided on one side of the output shaft close to the driving motor. The driving component further includes a snap ring disposed on the side of the limiting platform away from the driving motor. The first transmission member is disposed on the output shaft, one end abuts against the limiting platform, and the other end limits the first transmission member through the snap ring to prevent the first transmission member from falling off the output shaft, thereby realizing the connection between the first transmission member and the driving motor.

[0025] The second transmission member is disposed on the filtering component, and the filtering component is disposed in the cavity of the main body, that is, the second transmission member is located in the cavity of the main body. In order to make the first transmission member cooperate with the second transmission member, at least part of the first transmission member is thus extended into the second cavity so that the first transmission member can contact and cooperate with the second transmission member.

[0026] The driving process of the driving component on the filtering component is as follows: The driving motor operates and drives the output shaft to rotate. The first transmission member is connected to the output shaft. The driving motor transmits the driving torque to the first transmission member through the output shaft. The first transmission member is adapted to the second transmission member, and then transmits the driving torque to the second transmission member. The second transmission member rotates accordingly, and then drives the filtering component to rotate, realizing the driving of the filtering component by the driving component.

[0027] Furthermore, the driving motor can be set to different rotational speeds. It can be understood that different solid-liquid mixtures have different filtering difficulties and require different centrifugal force magnitudes. Therefore, corresponding to different liquids to be filtered, the driving motor can be set to different rotational speeds to improve the filtering effect.

[0028] By setting the first transmission member in the driving component and making the first transmission member cooperate with the second transmission member of the filtering component, the driving effect of the driving component on the filtering component is realized. This driving method is simple and reliable, occupies a small space, and has high working efficiency.

[0029] In any of the above technical solutions, further, the first transmission member is a first transmission gear, the second transmission member is a second transmission gear, and the transmission ratio of the first transmission gear to the second transmission gear is greater than or equal to 1 / 10 and less than or equal to 1.

[0030] In this technical solution, both the first transmission member and the second transmission member are gears. Specifically, the first transmission member is a first transmission gear, and the second transmission member is a second transmission gear. Through the meshing of the first transmission gear and the second transmission gear, the transmission of the driving torque is realized. It can be understood that by adjusting the number of teeth of the meshing gears, the transmission ratio of the gears can be adjusted. In the present invention, the transmission ratio of the first transmission gear to the second transmission gear is greater than or equal to 1 / 10 and less than or equal to 1, that is, through the cooperation of the first transmission gear and the second transmission gear, the rotational speed transmitted to the filtering component is increased relative to the rotational speed of the driving motor itself. The magnitude of the centrifugal force is related to the rotational speed. The greater the rotational speed, the greater the centrifugal force.

[0031] The preferred transmission ratio of the first transmission gear to the second transmission gear is 1 / 2.

[0032] By setting the first transmission member and the second transmission member as the first transmission gear and the second transmission gear, and controlling the transmission ratio of the first transmission gear to the second transmission gear to be greater than or equal to 1 / 10 and less than or equal to 1, the filtering component can obtain a relatively large rotational speed even when the rotational speed of the driving motor is small, reducing the performance requirements for the driving motor. Moreover, when the filtering component operates at a relatively large rotational speed, the centrifugal force increases and the filtering effect is improved.

[0033] In any of the above technical solutions, further, the first transmission member is a transmission belt, at least part of the first transmission member is wound around the output shaft, the second transmission member is a transmission wheel, and at least part of the first transmission member is wound around the second transmission member.

[0034] In this technical solution, the first transmission member is a transmission belt, and the second transmission member is a transmission wheel. The transmission belt is respectively connected to the output shaft and the transmission wheel. Specifically, at least part of the transmission belt is wound around the output shaft and at least part of it is wound around the transmission wheel. It can be understood that the transmission belt is a closed-loop belt. Among them, one end of the transmission belt is wound around the transmission wheel, and the other end is wound around the output shaft. The rotation of the output shaft drives the transmission belt to rotate, thereby achieving transmission.

[0035] By setting the first transmission member as a transmission belt and the second transmission member as a transmission wheel, the power output of the driving motor is realized, and the transmission belt has a simple and reliable structure and low cost.

[0036] In any of the above technical solutions, further, the main body includes: a first cavity for accommodating the filter assembly, and a first through hole communicating with the first cavity.

[0037] In this technical solution, the main body includes a first cavity, and the filter assembly is arranged in the first cavity. Among them, the first through hole is connected to the first cavity. When the filter assembly is placed in the first cavity, the first liquid discharge port of the filter assembly is arranged opposite to the first through hole, so that the first liquid discharge port is connected to the external space of the filter device to discharge the filtered liquid from the filter device.

[0038] By providing a first cavity in the main body, the filter assembly can be accommodated in the first cavity. When the filter assembly is in a rotating state, the wall of the first cavity plays a certain protective role for the filter assembly. By making the first through hole communicate with the first cavity, the first liquid discharge port of the filter assembly can communicate with the first through hole through the first cavity, and then the first liquid discharge port is connected to the external space of the filter device through the first through hole.

[0039] In any of the above technical solutions, further, the filter assembly further includes: a plurality of positioning members located between the filter assembly and a part of the main body forming the first cavity, and the plurality of positioning members are arranged on the filter assembly or the main body.

[0040] In this technical solution, the filter assembly further includes a plurality of positioning members, and the plurality of positioning members are located between the filter assembly and a part of the main body forming the first cavity. It can be understood that the filter assembly is placed in the first cavity, and there is a certain gap between the filter assembly and the main body constituting the first cavity. To prevent a large relative displacement between the filter assembly and the main body, a plurality of positioning members are provided between the filter assembly and a part of the main body forming the first cavity to reduce the gap between the filter assembly and the main body, thereby reducing the relative displacement that can occur between the filter assembly and the main body and playing a positioning role for the filter assembly.

[0041] Further, multiple positioning members can be provided on the filter assembly or on the main body. Specifically, when multiple positioning members are provided on the filter assembly, the multiple positioning members can be circumferentially provided on the outer sidewall of the filter assembly. When multiple positioning members are provided on the main body, the multiple positioning members can be circumferentially provided on the inner wall surface of the first cavity that is opposite to the filter assembly.

[0042] By providing multiple positioning members between the filter assembly and the part of the main body that forms the first cavity, the gap between the filter assembly and the main body can be reduced, thereby reducing the relative displacement that can occur between the filter assembly and the main body, playing a positioning role for the filter assembly, so that the filter assembly is stably placed in the filtering device to ensure the normal operation of the filtering device.

[0043] In any of the above technical solutions, further, the main body further includes: a second cavity, a driving motor member is disposed in the second cavity, an output shaft extends out of the second cavity, and a first transmission member is located outside the second cavity; an avoidance notch, corresponding to the first transmission member, communicating with the first cavity, and at least part of the first transmission member extends into the first cavity through the avoidance notch.

[0044] In this technical solution, the main body includes a second cavity, and the driving motor is disposed in the second cavity. An opening is provided at the bottom of the second cavity, and the main body includes a motor cavity bottom cover, which is connected to the main body at the opening at the bottom of the second cavity for covering the second cavity. The main body is also provided with a plurality of second connecting members for connecting the main body and the motor cavity bottom cover. The second connecting members can be screws.

[0045] Specifically, a third through hole is provided on the motor cavity bottom cover, and the output shaft of the motor extends out of the second cavity through the third through hole and is connected to the first transmission member, and the first transmission member is disposed outside the second cavity. Specifically, the first transmission member is disposed between the bracket bottom cover and the bottom wall of the second cavity.

[0046] The main body is also provided with an avoidance notch, the avoidance notch communicates with the second cavity, and the first transmission member extends into the second cavity through the avoidance notch and cooperates with the second transmission member.

[0047] The main body further includes a second cover body, and the second cover body is disposed at the open end of the second cavity away from the driving motor for closing the opening of the second cavity. Specifically, a positioning boss is provided in the second cavity, and one end of the second cover body abuts against the positioning boss to limit the second cover body. A positioning protrusion is provided on the side wall of the second cover body, and a positioning groove cooperating with the positioning protrusion is further provided on the inner wall of the second cavity. When the second cover body is placed in the second cavity, the positioning protrusion on the second cover body is inserted into the positioning groove in the second cavity to prevent the second cover body from rotating and limit the second cover body.

[0048] By setting a second cavity in the main body and placing the drive motor in the second cavity, it provides a certain degree of protection for the drive motor and reduces the impact of the external environment on the motor. And by setting a second cover to seal the opening of the second cavity, it prevents external impurities from entering the second cavity and damaging the drive motor, thus enhancing the protection effect on the drive motor.

[0049] In any of the above technical solutions, further, the filtering device includes: a rolling member rotatably disposed on the filtering assembly, and the rolling member is located between the filtering assembly and the main body.

[0050] In this technical solution, the filtering device includes a rolling member rotatably disposed on the filtering assembly and located between the filtering assembly and the main body. Specifically, the rolling member is disposed on the bottom wall of the filtering assembly, and the filtering assembly abuts against the main body through the rolling member. The rolling member is rotatably disposed on the filtering assembly. When the filtering assembly rotates driven by the drive motor, the filtering assembly rolls along the main body under the support of the rolling member, reducing the friction between the filtering assembly and the main body.

[0051] By setting a rolling member between the filtering assembly and the main body, on the one hand, it provides a supporting effect on the filtering assembly, and on the other hand, when the filtering assembly is rotating, since the rolling friction between the rolling member and the main body is extremely small, the force on the filtering assembly is reduced, the frictional loss is lowered, and the working efficiency of the filtering device is improved. And because the friction between the filtering assembly and the main body is reduced, the noise generated during the rotation of the filtering assembly is also reduced, playing a noise reduction role.

[0052] In any of the above technical solutions, further, the filtering assembly includes: a housing, the housing includes a third cavity, and the housing includes a first liquid discharge port; a filtering element disposed in the third cavity, the filtering element is configured as a cavity structure with an opening, and a plurality of filtering holes are provided on the filtering element; a connecting component capable of detachably connecting the filtering element to the first housing; wherein, a liquid discharge channel is formed between the filtering element and the housing, and the liquid discharge channel is communicated with the first liquid discharge port.

[0053] In this technical solution, the filtering assembly includes a housing, and a third cavity and a first liquid discharge port are further provided in the housing. Among them, the first liquid discharge port is communicated with the third cavity and is disposed on the bottom wall of the housing, that is, the liquid in the third cavity can flow out of the housing through the first liquid discharge port.

[0054] Further, the filtering component further includes a filter element, which is a cavity structure with an opening, that is, the filter element includes a plurality of wall surfaces, and the plurality of wall surfaces enclose a receiving cavity, and an opening is provided on one side of the filter element, and the opening communicates with the receiving cavity. A plurality of filter holes are also provided on the filter element. Specifically, the filter holes are provided on the wall surface of the filter element. It can be understood that when the liquid mixed with impurities flows into the filter element, the liquid can flow out of the filter element through the filter holes on the wall surface, while the impurities are blocked by the filter holes and remain in the receiving cavity of the filter element, thus playing a filtering role. The filtering effect of the filter element is related to the density of the filter holes. The higher the density of the filter holes, the higher the filtering effect. However, too high a density of filter holes will cause difficulty in liquid discharge. To balance the filtering effect and the liquid discharge speed of the filter element, the density of the filter holes can be set in the range of 50 mesh to 120 mesh, preferably 80 mesh. The filter element is arranged in the third cavity, and the liquid filtered by the filter element flows into the third cavity and is discharged from the third cavity through the first liquid discharge port.

[0055] Further, a connecting component is also provided in the filtering component for connecting the filter element and the housing. Specifically, the filter element can be detachably connected to the housing through the connecting component. Among them, the connecting component can be a separate component independent of the filter element and the housing, or a component provided on the filter element and / or the housing.

[0056] Specifically, the connecting component can be a threaded connection structure, that is, a threaded connection structure is provided on the side walls of the housing and the filter element as the connecting component, and the housing and the filter element are connected or separated by the screwing of the threads. The connecting component can also be a snap connection structure. That is, a clamping groove is provided on one of the housing and the filter element, and a snap protrusion is provided on the other. The snap protrusion can be snapped into the clamping groove to connect the housing and the filter element, and the snap protrusion can also slide out of the clamping groove to separate the two. The connecting component can also be a separate component independent of the housing and the filter element. By connecting or separating the connecting component to and from the housing and the filter element respectively, the connection or separation of the housing and the filter element can be achieved. Further, a gap is left between the filter element located in the third cavity and the housing, so as to form a liquid discharge channel between the filter element and the housing. The liquid discharge channel is located in the third cavity and communicates with the first liquid discharge port. The filtered liquid flows into the liquid discharge channel through the filter holes and then is discharged from the first liquid discharge port, thus realizing the filtering and liquid discharge functions of the liquid.

[0057] The filtration process of the filtration component is as follows: The liquid containing impurities flows into the accommodation cavity of the filter element from the first liquid inlet. The filter holes on the filter element block the impurities in the liquid within the filter element, while the liquid passes through the filter holes and exits the filter element. The filtered liquid then flows into the drainage channel and is discharged from the filtration component through the first drainage port, completing the filtration of the liquid by the filtration component. When the filtration component is installed in the filtration device, it can rotate under the drive of the drive component. The rotating filtration component generates centrifugal force, under the action of which the liquid in the filter element quickly discharges from the filter holes to the drainage channel, accelerating the filtration process and improving the filtration effect. By providing a connection component in the filtration component, the housing and the filter element are detachably connected through the connection component, forming an integral whole, which facilitates the removal, placement, and cleaning of the entire filtration component and improves the convenience of use.

[0058] By providing a filter element in the filtration component, the impurities in the liquid can be separated from the liquid, thereby realizing the filtration function of the liquid. And by setting the filter element as a cavity structure with an opening, the liquid can flow into the filter element through the opening on the filter element, thus realizing the filtration of the liquid. By forming a drainage channel between the filter element and the housing, it plays a guiding role for the liquid flowing out of the filter element, guiding the flow direction of the liquid and concentrating it to be discharged at the first drainage port, facilitating the collection of the liquid and enhancing the convenience of use of the filtration component.

[0059] In any of the above technical solutions, further, the filtration component further includes: a connecting pipe, which is arranged circumferentially along the first drainage port on the first housing. The connecting pipe is inserted into the first through-hole and extends out of the main body.

[0060] In this technical solution, a connecting pipe is provided in the filtration device. The connecting pipe is arranged circumferentially along the first drainage port on the first housing, that is, the connecting pipe is communicated with the first drainage port. One end of the connecting pipe away from the first housing is inserted into the first through-hole and extends out of the main body, that is, one end of the connecting pipe is communicated with the first drainage port and the other end is communicated with the external space of the main body. Through the connecting pipe, the filtered liquid can be discharged from the filtration component to the outside of the filtration device.

[0061] By providing a connecting pipe in the filtration device, it plays a guiding role for the filtered liquid and discharges the filtered liquid from the filtration component to the outside of the filtration device.

[0062] In any of the above technical solutions, further, the connection component includes: a face cover, located at the opening of the filter element, and a first liquid inlet communicating with the filtration cavity of the filter element is provided on the face cover; a first installation side cover, which can be connected to both the housing and the filter element; wherein, the face cover is provided on the filter element or the face cover is provided on the first installation side cover.

[0063] In this technical solution, the connection component includes a face cover which is arranged at the opening of the filter element. A first liquid inlet communicating with the filter cavity of the filter element is further provided on the face cover. The first liquid inlet is communicated with the accommodation cavity of the filter element. The liquid outside the filter assembly can flow into the filter element through the first liquid inlet to achieve the filtration of the liquid.

[0064] Understandably, when the filter assembly is filtering, the liquid flows into the liquid discharge channel between the filter element and the housing. If the space between the filter element and the housing is open on the side close to the opening of the filter element, the liquid in the liquid discharge channel is likely to splash out of the filter assembly. Therefore, a face cover is arranged in the connection component and the face cover is arranged at the opening of the filter element, so as to block the liquid in the liquid discharge channel and prevent the liquid from splashing out of the filter assembly.

[0065] Furthermore, the connection component further includes a first installation side cover which is respectively connected to the housing and the filter element, so that the housing and the filter element are connected together through the first installation side cover.

[0066] Among them, the face cover can be arranged on the first installation side cover or on the filter element. Specifically, the face cover can be integrally connected with the first installation side cover or integrally connected with the filter element.

[0067] By arranging a face cover at the opening of the filter element, the liquid in the liquid discharge channel can be blocked to prevent the liquid from splashing out of the filter assembly. And by arranging a first installation side cover in the connection component and connecting the first installation side cover to the housing and the filter element respectively, the housing and the filter element are connected as a whole through the first installation side cover, so as to realize the taking, placing and cleaning of the whole filter element and the housing, which is convenient for users.

[0068] In any of the above technical solutions, further, the connection component further includes: a first installation part arranged on the first surface of the first installation side cover, and the first installation part can be connected to the housing; a second installation part arranged on the second surface of the first installation side cover, and the second installation part can be connected to the filter element.

[0069] In this technical solution, the first installation side cover includes a first surface and a second surface. The housing and the filter element can be respectively connected to different surfaces of the first installation side cover to realize connecting the filter element and the housing as a whole through the first installation side cover.

[0070] Among them, the connection component includes a first installation part and a second installation part. The first installation part is arranged on the first surface of the first installation side cover, and the first installation part can be connected to the housing, thereby connecting the housing to the first surface of the first installation side cover. The second installation part is arranged on the second surface of the first installation side cover, and the second installation part can be connected to the filter element, thereby connecting the filter element to the second surface of the first installation side cover.

[0071] The first surface and the second surface can face the same side or different sides.

[0072] When the first surface and the second surface face the same side, both the first surface and the second surface face the outside of the first mounting side cover. The first surface and the second surface are distributed in a stepped manner, and the second surface is closer to the center of the first mounting side cover than the first surface.

[0073] When the first surface and the second surface face different sides, the first surface faces the outside of the first mounting side cover, and the second surface faces the inside of the first mounting side cover, so that the filter element connected to the first mounting side cover is located inside the housing.

[0074] Regardless of whether the first surface and the second surface face the same side or not, after the first mounting side cover is connected to the housing in place, there is a certain distance between the housing and the second surface. The space between the second surface and the housing can accommodate the filter element. After the filter element is connected to the first through the second mounting member, there is still a gap between the side wall of the filter element and the side wall of the housing, so as to facilitate the liquid to flow from the filter element into the first cavity. The gap between the side wall of the filter element and the side wall of the housing and the gap between the bottom wall of the filter element and the bottom wall of the housing together form a drainage channel.

[0075] Specifically, the connection process between the housing, the filter element and the housing is as follows: First, the first mounting side cover is connected to the filter element through the second mounting member, and then the first mounting side cover drives the filter element to be inserted into the housing. The first mounting side cover is connected to the housing through the first mounting member, thus completing the connection process of the first mounting side cover with the filter element and the housing.

[0076] By respectively arranging the first mounting member and the second mounting member on the first surface and the second surface of the first mounting side cover, the first mounting side cover can be respectively connected to the filter element and the housing. Thus, the filter element and the housing are connected as a whole, which is convenient for taking, placing and cleaning, and improves the user experience. And because the first mounting member and the second mounting member are respectively arranged on different surfaces of the first mounting side cover, it can prevent the housing and the filter element from interfering during the connection process of the first mounting side cover with the housing and the filter element, and can ensure the smooth connection of the housing and the filter element.

[0077] In any of the above technical solutions, further, the filter assembly further includes: a third mounting member, arranged on the housing, and the third mounting member can be detachably connected to the first mounting member; a fourth mounting member, arranged on the filter element, and the fourth mounting member can be detachably connected to the second mounting member.

[0078] In this technical solution, a third mounting member and a fourth mounting member are provided in the filter assembly. The third mounting member is arranged on the housing, and the third mounting member is detachably connected to the first mounting member, thereby realizing the connection and separation of the housing and the first mounting side cover.

[0079] The fourth mounting member is disposed on the filter element, and the fourth mounting member is detachably connected to the second mounting member, so as to realize the connection and separation between the filter element and the first mounting side cover.

[0080] By providing the third mounting member on the housing, the connection and separation between the first mounting side cover and the housing are realized. By providing the fourth mounting member on the filter element, the connection and separation between the first mounting side cover and the filter element are realized.

[0081] In any of the above technical solutions, further, the filter assembly further includes: a plurality of support members located between the housing and the filter element, disposed on the housing or the filter element, and the plurality of support members are spaced apart from each other.

[0082] In this technical solution, a plurality of support members are provided in the filter assembly, and the support members are located between the housing and the filter element. It can be understood that a liquid discharge channel is provided between the filter element and the housing. When the filter element is normally connected to the housing, there is a gap between the housing and the filter element to form a liquid discharge channel. However, if the connection between the filter element and the housing fails, it is easy to cause the filter element to fall off the housing, so that the filter element directly contacts the housing, and the gap between the two disappears, resulting in the blockage of the liquid discharge channel and difficult liquid discharge. Therefore, in order to avoid the problem of blockage of the liquid discharge channel when the connection between the filter element and the housing fails, a plurality of support members are provided between the housing and the filter element to support the filter element when the connection between the housing and the filter element fails, so that there is still a gap between the filter element and the housing to ensure the smoothness of the liquid discharge channel and normal liquid discharge.

[0083] Among them, the plurality of support members are spaced apart from each other so that the liquid can flow out of the filter element evenly, preventing the support members from being concentratedly arranged and resulting in unsmooth liquid discharge.

[0084] The plurality of support members can be disposed on the housing or on the filter element.

[0085] By providing a plurality of support members between the housing and the filter element, the filter element can be supported when the connection between the housing and the filter element fails, so that there is still a gap between the filter element and the housing to ensure the smoothness of the liquid discharge channel and normal liquid discharge.

[0086] In any of the above technical solutions, further, the filter element includes a first filter hole setting area and a second filter hole setting area, and a plurality of filter holes are distributed on the first filter hole setting area and the second filter hole setting area; wherein, the first filter hole setting area is disposed on the side wall of the filter element, and the second filter hole setting area is located on the bottom wall of the filter element.

[0087] In this technical solution, the filter holes in the filter element are distributed in different areas. Specifically, the filter element includes a first filter hole setting area and a second filter hole setting area, and a plurality of filter holes are distributed on both the first filter hole setting area and the second filter hole setting area.

[0088] Among them, the first filter hole setting area is located on the side wall of the filter element, and the second filter hole setting area is located on the bottom wall of the filter element. When there is a large amount of liquid in the filter element, the liquid is discharged simultaneously through the filter holes in the first filter hole setting area and the second filter hole setting area, accelerating the liquid discharge speed. When the remaining liquid to be discharged is less, it is more difficult to discharge the liquid from the first filter hole setting area on the side wall of the filter element, and the liquid is mainly discharged through the filter holes in the second filter hole setting area on the bottom wall of the filter element, so that the liquid in the filter element can be completely discharged, reducing the residual liquid in the filter element.

[0089] By respectively arranging the first filter hole setting area and the second filter hole setting area on the side wall and the bottom wall of the filter element, it is possible to realize simultaneous liquid discharge from the side wall and the bottom wall of the filter element, accelerate the liquid discharge speed, and improve work efficiency. Moreover, even when there is less liquid in the filter element, the liquid can be discharged through the second filter hole setting area on the bottom wall of the filter element, reducing the residual liquid in the filter element.

[0090] In any of the above technical solutions, further, the filter assembly further includes: a lifting member disposed on the housing, the filter element or the connection assembly.

[0091] In this technical solution, in order to facilitate the movement of the filter assembly, a lifting member is provided in the filter assembly. Among them, the lifting member can be disposed on the housing, the filter element or the connection assembly.

[0092] By providing a lifting member on the filter assembly, it is convenient to move the filter assembly.

[0093] According to the second aspect of the present invention, there is also provided a food processor, including: a filtering device as in any of the above technical solutions.

[0094] The food processor provided by the second aspect of the present invention includes the filtering device proposed in any of the above technical solutions, and thus has all the beneficial effects of the filtering device.

[0095] Specifically, the above food processor includes a machine body, a crushing device, a driving assembly and a heating device. The driving assembly can drive the filter assembly to rotate. The crushing device is disposed in the machine body and is used to crush the food materials so that the food materials become tiny granular solids. The crushing device has a crushing cavity and a second liquid discharge port communicating with the crushing cavity. After the food materials are put into the crushing cavity, the crushing device processes the food materials in the crushing cavity to crush them and flows into the first liquid inlet of the filter assembly through the second liquid discharge port.

[0096] Further, the above-mentioned crushing device includes: a crushing cup, which includes a crushing chamber; a diversion pipe, which is arranged on the crushing cup, has a second liquid discharge port and is communicated with the crushing chamber, and extends in the direction of the first liquid inlet of the filtering component; a valve component, which is arranged on the diversion pipe or the crushing cup, and the valve component can block or conduct the crushing chamber and the first liquid inlet.

[0097] In this technical solution, the crushing device includes a crushing cup, and the crushing chamber is arranged inside the crushing cup. The crushing cup is used to hold the food ingredients to be processed and the liquid injected into the crushing chamber. The crushing cup is also provided with a diversion pipe communicated with the crushing chamber, and the diversion pipe extends in the direction of the first liquid inlet of the filtering component. The solid-liquid mixture processed in the crushing chamber flows out of the crushing chamber through the diversion pipe and flows into the filtering component through the first liquid inlet.

[0098] Further, the crushing device is provided with a valve component, which can be arranged on the diversion pipe or the crushing cup and is used to conduct or block the crushing cup and the first liquid inlet. Specifically, when the food processor processes the food ingredients in the crushing cup, the valve component blocks the crushing cup and the first liquid inlet to prevent the unprocessed food ingredients from flowing out of the crushing cup. After the food ingredients in the crushing cup are crushed and mixed with the liquid, the valve component conducts the crushing cup and the first liquid inlet so that the processed food ingredients flow from the crushing cup through the first liquid inlet into the filtering component for filtering.

[0099] Further, the liquid processing component is arranged inside the machine body and is used to inject liquid into the crushing chamber. Specifically, the liquid processing component is provided with a liquid injection port, and the liquid flows into the liquid processing component through the liquid injection port. A liquid storage chamber is arranged inside the liquid processing component and is used to store the liquid. When the food processor works, the liquid processing component can inject the liquid in the liquid storage chamber into the crushing chamber so that the liquid is mixed with the food ingredients crushed into granular form to form a solid-liquid mixture.

[0100] Further, the liquid processing component includes: a liquid storage tank; a pipeline component, which is respectively communicated with the liquid storage tank and the crushing chamber; a pump body, which is communicated with the pipeline component and is used to transport the liquid in the liquid storage tank to the crushing chamber.

[0101] Further, the crushing device is provided with a valve component, which can be arranged on the diversion pipe or the crushing cup and is used to conduct or block the crushing cup and the first liquid inlet. Specifically, when the food processor processes the food ingredients in the crushing cup, the valve component blocks the crushing cup and the first liquid inlet to prevent the unprocessed food ingredients from flowing out of the crushing cup. After the food ingredients in the crushing cup are crushed and mixed with the liquid, the valve component conducts the crushing cup and the first liquid inlet so that the processed food ingredients flow from the crushing cup through the first liquid inlet into the filtering component for filtering.

[0102] A control method for a food processor is proposed in the third aspect of the present invention. The food processor includes a crushing device, a filtering component, and a driving component for driving the filtering component to rotate. The filtering component can receive the food materials discharged from the crushing device. The control method includes: receiving a user's selection operation for the type of beverage, where the selection operation is used to determine a target production program from multiple production programs. The multiple production programs at least include a first production program and a second production program. The first production program includes: a heating stage and a filtering and discharging stage; the second production program includes: a crushing stage and a filtering and discharging stage; running the target production program; where the heating stage includes: controlling a heating device to heat the crushing device to a set temperature; the crushing stage includes: controlling the crushing device to perform a crushing operation; the filtering and discharging stage includes: discharging the food materials in the crushing device to the filtering component and then discharging them from the filtering component to a slurry receiving cup.

[0103] The control method for the food processor provided by the present invention is applicable to a food processor that stores and can run multiple production programs. In the control method proposed by the present invention, first, a user's selection operation for the type of beverage is received to determine the corresponding target production program from multiple production programs, and then the above target production program is run to obtain the target beverage. Among them, the types of beverages include plant milk beverages, coffee beverages, fruit juice beverages, soybean milk beverages, etc. The user can select according to their own needs and no specific limitation is made here.

[0104] It can be understood that different production programs correspond to different types of beverages. The selection operation can be used to determine the target production program corresponding to the type of beverage selected by the user from multiple production programs. Among them, the multiple production programs at least include a first production program and a second production program. Further, the first production program may include a heating stage and a filtering and discharging stage, and the second production program includes a crushing stage and a filtering and discharging stage, and may also include a heating stage. The user enables the food processor to implement different production programs through different selection operations, thereby performing different treatments on the food materials to produce various types of beverages. That is, through the control method for the food processor proposed by the present invention, a food processor can complete the production of multiple beverages, realizing the multi-beverage production function of the food processor, increasing the usage range of the food processor, and improving the overall performance of the food processor.

[0105] Furthermore, the first production program includes a heating stage and a filtering and discharging stage. Among them, the heating stage is to control the heating device to heat the crushing device until the crushing device reaches the set temperature. The filtering and discharging stage is to discharge the food in the crushing device from the crushing device into the filtering component, and then discharge the food from the filtering component into the slurry receiving cup. That is to say, when the food processor runs the first production program to make beverages, the food in the food processor will be heated to the set temperature, filtered and discharged in sequence. At this time, the food ingredients for making the beverage can be placed in the filtering component, and the food ingredients can be water-soluble food ingredients, such as coffee powder, soy milk powder, milk powder and other powdered food ingredients.

[0106] Furthermore, the second production program includes a crushing stage and a filtering and discharging stage. The crushing stage is to control the crushing device to crush the food placed therein. At this time, the food ingredients for making drinks can be solid food ingredients such as fruits and vegetables that need to be crushed. Specifically, the second production program can also include a heating stage. That is to say, when the food processor runs the second production program to make drinks, the food can be heated to a set temperature, crushed, filtered and discharged by the heating device, and the drink produced can be a drink that needs to be heated and crushed, such as soy milk.

[0107] It is worth noting that when the food is discharged from the crushing device to the filtering component, the filtering component will automatically filter or dissolve the food. In this way, the beverage produced is more delicate and uniform, ensuring the user's eating taste. At the same time, the automatic filtering of the food by the filtering component avoids the user from manually filtering the beverage through other tools, reduces the user's operation steps, improves the efficiency of beverage production, and improves the universal applicability of the food processor.

[0108] Therefore, through the control method of the food processor proposed in the present invention, by controlling the filtration accuracy of the filtration and pulping stage, and combining it with the heating stage and / or the crushing stage, one food processor can realize the function of making multiple drinks, thereby improving the applicability of the food processor, and can realize automatic filtration of drinks, reducing the user's operating steps, and improving the drink making efficiency, thereby improving the overall performance of the food processor.

[0109] In addition, the control method of the food processor in the above technical solution provided by the present invention may also have the following additional technical features:

[0110] In the above technical solution, further, the filtering and pulping stage includes: controlling the driving component to standby to perform a first precision filtration on the food in the filtering component.

[0111] In this technical solution, the filtration and slurry discharge stage specifically includes controlling the drive component to standby, that is, the drive component does not drive the filtration component to rotate. In this way, after the food ingredients enter the filtration component, only the filter screen placed in the filtration component is used to perform a first-precision filtration on the impurities or fibers in the food ingredients. The first-precision filtration is a preliminary filtration, and there are still some impurities or fibers in the filtered food ingredients. That is, the beverage produced at this time is a high-fiber beverage. For users who like this type of beverage, they can choose to make it by controlling the drive component to standby, meeting the different needs of users.

[0112] In any of the above technical solutions, further, the filtration and slurry discharge stage includes: controlling the drive component to operate to drive the filtration component to rotate, so as to perform a second-precision filtration on the food ingredients in the filtration component.

[0113] In this technical solution, the filtration and slurry discharge stage may also include controlling the drive component to operate to drive the filtration component to rotate, so as to perform a second-precision filtration on the food ingredients in the filtration component. The second-precision filtration is a deep filtration. Compared with the first-precision filtration, the beverage produced by the second-precision filtration is more uniform and delicate. Specifically, after the food ingredients enter the filtration component, not only can the filter screen in the filtration component be used to perform a preliminary filtration on the food ingredients, but also the drive component can drive the filtration component to rotate to perform a deep filtration on the food ingredients. Specifically, when the drive component operates, the drive component can drive the filtration component to rotate slowly. When the filtration component rotates, a certain centrifugal force will be generated. Through the action of the centrifugal force, automatic centrifugal filtration of the beverage can be achieved, so as to achieve deep filtration of the beverage on the basis of the preliminary filtration by the filter screen. In this way, users can obtain a beverage with high uniformity and high fineness without performing additional manual filtration operations, ensuring the user's eating taste while reducing the user's operation steps, improving the efficiency of beverage production, meeting the user's needs, and improving the overall performance of the food processor.

[0114] In any of the above technical solutions, further, based on the target production program being the first production program, running the target production program includes: controlling the heating device to heat for a first preset duration, and then controlling the crushing device to discharge slurry into the filtration component; controlling the drive component to operate at a first preset moment to drive the filtration component to rotate; where the first preset moment is within the first preset duration or after the first preset duration.

[0115] In this technical solution, when the target production program is the first production program, the target production program specifically includes: after controlling the heating device to heat for a first preset duration, controlling the crushing device to discharge slurry into the filtering component. At this time, the food processor can, according to the selection operation made based on the type and taste of the drink selected by the user, only heat the ingredients in the crushing device without crushing them, that is, the hot water discharged into the filtering component at this time. At this time, an appropriate amount of powdered ingredients such as coffee powder, milk powder, and soy milk powder can be placed in the filtering component. When the driving component drives the filtering component to rotate, when the filtering component rotates slowly, the above-mentioned powdered ingredients can be more fully brewed.

[0116] It can be understood that compared with the drink directly brewed with hot water, in the embodiment of the present invention, the powdered ingredients in the filtering component can be rotated and filtered simultaneously, and the powdered ingredients remaining in the filtering component gradually decrease with the rotation of the filtering component and the injection of hot water until they are completely brewed. In this way, the above-mentioned powdered ingredients can be more fully brewed, so that a richer and more delicious taste can be obtained.

[0117] In this technical solution, further, when the target production program is the first production program, the target production program further includes: controlling the driving component to operate at a first preset moment, so as to drive the filtering component to rotate. Among them, the first preset moment can be within the first preset duration, that is, before the crushing device discharges slurry, when the ingredients are still being heated, the driving component is operated to make it in a rotating state, and then the rotation of the filtering component is driven. In this way, when the hot water in the crushing device is discharged into the filtering component, it can be ensured that it is fully mixed with the powdered ingredients in the filtering component, ensuring the uniformity and fineness of the drink and improving the edible taste of the drink.

[0118] Further, in this technical solution, the first preset moment can also be after a third preset duration, that is, the driving component is operated to drive the filtering component to rotate after the heating is completed. In this way, when there is no hot water entering the filtering component, the filtering component will not rotate, avoiding the waste of electric power resources and reducing the energy consumption of the food processor.

[0119] In any of the above technical solutions, further, before controlling the driving component to operate at a first preset moment to drive the filtering component to rotate, the control method further includes: determining that the mass of the filtering component is greater than a preset threshold.

[0120] In this technical solution, before controlling the driving component to operate at the first preset moment to drive the filtering component to rotate, the control method further includes: determining that the mass of the filtering component is greater than a preset threshold. The preset threshold may be equal to the mass of the filtering component when it is idle, or the preset threshold may be slightly greater than the mass of the filtering component when it is idle. In this way, when the mass of the filtering component is greater than the preset threshold, it indicates that the filtering component contains contents (such as the above-mentioned powdery food ingredients). At this time, the driving component is controlled to operate to drive the filtering component to rotate; when the mass of the filtering component is not greater than the preset threshold, it indicates that the filtering component does not contain contents, and at this time, there is no need to control the driving component to operate. At this time, the user may only need to drink hot water without contents. In this way, the waste of electric power resources is avoided, the energy consumption of the food processor is reduced, and the performance of the food processor is improved.

[0121] In any of the above technical solutions, further, based on the target production program being the second production program, the second production program further includes a heating stage. Running the target production program includes: controlling the heating device to heat for a second preset duration; controlling the crushing device to perform a crushing operation, and after a third preset duration, controlling the crushing device to discharge the slurry into the filtering component; controlling the driving component to operate at the first preset moment to drive the filtering component to rotate; where the first preset moment is within the third preset duration or after the third preset duration.

[0122] In this technical solution, when the target production program is the first production program, the target production program specifically includes: controlling the heating device to heat for a second preset duration, and controlling the crushing device to crush the food ingredients therein, and after a third preset duration, controlling the crushing device to discharge the slurry into the filtering component.

[0123] It can be understood that the second preset duration and the third preset duration may have an overlapping relationship on the time axis. Specifically, the crushing device and the heating device can be controlled to heat and crush the food ingredients in the crushing device simultaneously. More specifically, after the heating device heats the food ingredients for a period of time, the crushing device can be used to crush the food ingredients. The preheated food ingredients are easier to crush, improving the production efficiency of the beverage.

[0124] Further, in this technical solution, the first preset moment may be within the third preset duration, that is, before the crushing device discharges the slurry, when the food ingredients are still being crushed, the driving component is operated to make it in a rotating state, thereby driving the rotation of the filtering component. In this way, when the produced beverage is discharged from the crushing device to the filtering component, an automatic centrifugal filtering operation can be performed in a timely manner, ensuring that all the beverages entering the filtering component can be filtered in a timely manner, ensuring the uniformity and fineness of the beverage, and improving the edible taste of the beverage.

[0125] Further, in this technical solution, the first preset moment can be after the third preset duration, that is, after the crushing is completed, the driving component is operated to drive the filtering component to rotate. In this way, when there is no drink entering the filtering component, the filtering component will not perform the filtering operation, avoiding the waste of electric power resources and reducing the energy consumption of the food processor.

[0126] In any of the above technical solutions, further, the food processor includes a detection device for detecting whether the filtering component is in the working position, and the control method further includes: based on the detection result of the detection device that the filtering component is not in the working position, giving up responding to execute the target production program.

[0127] In this technical solution, the control method of the food processor further includes: based on the detection result of the detection device that the filtering component is not in the working position, controlling the food processor to give up responding to execute the target production program. Normally, the filtering component is located below the crushing device to receive the liquid discharged from the crushing device. When the detection device detects that the filtering component is not in the working position, the food processor is controlled to give up responding to execute the target production program. Since the food processor can store the residue in the drink, when the filtering component is not in the working position, it may cause too much residue in the drink, affecting the taste and resulting in a poor user experience, or it is easy to cause internal pollution of the food processor. Thus, when the filtering component is not placed in the working position, the food processor does not perform the production operation, improving the overall performance of the food processor and the user's usage experience.

[0128] A fourth aspect of the present invention provides a control device for a food processor. The food processor includes a crushing device, a heating device, a filtering component, and a driving component for driving the filtering component to rotate. The filtering component can receive the liquid discharged from the crushing device. The control device includes: a receiving unit for receiving the user's selection operation of the drink type, and the selection operation is used to determine the target production program from multiple production programs. The multiple production programs at least include a first production program and a second production program. The first production program includes: a heating stage and a filtering and discharging stage. The second production program includes: a crushing stage and a filtering and discharging stage; a processing unit for running the target production program; wherein, the heating stage includes: controlling the heating device to heat the crushing device to a set temperature; the crushing stage includes: controlling the crushing device to perform a crushing operation; the filtering and discharging stage includes: discharging the ingredients in the crushing device from the crushing device to the filtering component and then discharging them from the filtering component to the juice cup.

[0129] A fifth aspect of the present invention provides a food processor, including a memory and a controller. The memory is configured to store programs or instructions; the controller is configured to execute the stored programs or instructions to implement the steps of the control method of the food processor in any of the technical solutions of the third aspect as described above, and thus has all the beneficial effects of the control method of the food processor, which will not be elaborated here.

[0130] A sixth aspect of the present invention provides a readable storage medium, on which a program or instruction is stored. When the program or instruction is executed by a processor, the steps of the control method of the food processor according to any of the technical solutions in the above third aspect are implemented, and thus all the beneficial effects of the control method of the food processor are achieved, which will not be elaborated here.

[0131] 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

[0132] 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, in which:

[0133] Figure 1 FIG. 1 shows one of the schematic structural diagrams of the filter assembly in the embodiment of the present invention;

[0134] Figure 2 FIG. 2 shows one of the schematic structural diagrams of the connection component connected to the filter element in the embodiment of the present invention;

[0135] Figure 3 FIG. 3 shows one of the schematic structural diagrams of the connection component in the embodiment of the present invention;

[0136] Figure 4 FIG. 4 shows a second schematic structural diagram of the connection component in the embodiment of the present invention;

[0137] Figure 5 FIG. 5 shows one of the schematic structural diagrams of the filter element in the embodiment of the present invention;

[0138] Figure 6 FIG. 6 shows a second schematic structural diagram of the filter element in the embodiment of the present invention;

[0139] Figure 7 FIG. 7 shows one of the schematic structural diagrams of the first housing in the embodiment of the present invention;

[0140] Figure 8 FIG. 8 shows a second schematic structural diagram of the first housing in the embodiment of the present invention;

[0141] Figure 9 FIG. 9 shows one of the schematic structural diagrams of the filter device in the embodiment of the present invention;

[0142] Figure 10 FIG. 10 shows Figure 9 a cross-sectional view of the filter device along the A-A section in the embodiment of the present invention shown;

[0143] Figure 11 FIG. 11 shows Figure 10Cross-sectional view of the filtering device along the B-B section in the embodiment of the present invention shown;

[0144] Figure 12 Shows Figure 11 Cross-sectional view of the filtering device along the C-C section in the embodiment of the present invention shown;

[0145] Figure 13 One of the structural schematic diagrams of the filtering device without the filtering component installed in the embodiment of the present invention;

[0146] Figure 14 Another structural schematic diagram of the filtering device without the filtering component installed in the embodiment of the present invention;

[0147] Figure 15 Structural schematic diagram of the bracket assembly in the embodiment of the present invention;

[0148] Figure 16 Structural schematic diagram of the second cover in the embodiment of the present invention;

[0149] Figure 17 Structural schematic diagram of the rolling element in the embodiment of the present invention;

[0150] Figure 18 Structural schematic diagram of the drive motor in the embodiment of the present invention;

[0151] Figure 19 Structural schematic diagram of the first transmission member in the embodiment of the present invention;

[0152] Figure 20 Structural schematic diagram of the snap ring in the embodiment of the present invention;

[0153] Figure 21 Structural schematic diagram of the first connecting member in the embodiment of the present invention;

[0154] Figure 22 Structural schematic diagram of the bottom cover of the bracket in the embodiment of the present invention;

[0155] Figure 23 Structural schematic diagram of the second connecting member in the embodiment of the present invention;

[0156] Figure 24 Structural schematic diagram of the food processor in the embodiment of the present invention;

[0157] Figure 25 Flowchart of the control method of the food processor in the embodiment of the present invention;

[0158] Figure 26 Structural schematic diagram of the control device of the food processor in the embodiment of the present invention.

[0159] Among them, Figures 1 to 24 the corresponding relationship between the reference numerals in the drawings and the component names is as follows:

[0160] 100 Filter assembly, 110 Housing, 111 Third cavity, 112 First drain port, 115 Support member, 120 Filter element, 121 Fourth mounting member, 122 First filter hole setting area, 123 Second filter hole setting area, 130 Connection assembly, 131 First liquid inlet, 132 Face cover, 133 First mounting side cover, 136 First surface, 137 First mounting member, 138 Second surface, 139 Second mounting member, 141 Third mounting member, 143 Lifting member, 200 Filter device, 210 Main body, 211 First cavity, 212 First through hole, 213 Second cavity, 218 Positioning groove, 214 Avoidance notch, 215 Bracket bottom cover, 216 Second through hole, 217 Motor cavity bottom cover, 219 Second cover body, 225 Positioning protrusion, 220 Driving assembly, 221 Driving motor, 222 First transmission member, 223 Second transmission member, 224 Snap ring, 230 Rolling member, 240 Connecting pipe, 250 Positioning member, 260 First connecting member, 270 Second connecting member, 300 Food processor, 320 Crushing device, 321 Crushing cup, 326 Crushing cavity, 322 Diversion pipe, 323 Valve assembly, 330 Liquid treatment assembly, 340 Pulp receiving cup, 310 Machine body. Detailed implementation manners

[0161] 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 drawings and specific implementation manners. It should be noted that, without conflict, the embodiments of the present application and the features in the embodiments can be combined with each other.

[0162] In the following description, many specific details are set forth in order to fully understand the present invention. However, the present invention can 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.

[0163] Next, refer to Figures 1 to 26 Describe a control method and device for a food processor 300 and a filter device 200 according to some embodiments of the present invention.

[0164] Embodiment 1:

[0165] As Figure 9 , Figure 10 , Figure 11 and Figure 12As shown in the figure, a first aspect of the present invention provides a filtering device 200, comprising: a filtering component 100 including a first liquid discharge port 112; a main body 210, the filtering component 100 is detachably disposed on the main body 210; a first through hole 212 is disposed on the main body 210, and the first liquid discharge port 112 communicates with the outside through the first through hole 212; a driving component 220 is disposed on the main body 210, the driving component 220 is connected to the filtering component 100, and the driving component 220 can drive the filtering component 100 to rotate relative to the main body 210.

[0166] The filtering device 200 provided by the present invention includes a main body 210 and a filtering component 100. A cavity is provided in the main body 210, and the filtering component 100 is detachably disposed in the cavity of the main body 210.

[0167] The filtering device 200 is further provided with a first through hole 212, and the first through hole 212 is disposed on the main body 210. Specifically, the first through hole 212 communicates with the cavity of the main body 210. Among them, the filtering component 100 is further provided with a first liquid discharge port 112, and the first liquid discharge port 112 is used for discharging the liquid filtered by the filtering component 100. When the filtering component 100 is placed in the cavity of the main body 210, the first liquid discharge port 112 of the filtering component 100 communicates with the first through hole 212, and further through the first through hole 212, the first liquid discharge port 112 communicates with the outside, thereby discharging the filtered liquid out of the filtering device 200.

[0168] Furthermore, a driving component 220 is also provided in the filtering device 200, and the driving component 220 is disposed on the main body 210. The driving component 220 is connected to the filtering component 100 to drive the filtering component 100 to rotate relative to the main body 210. Specifically, the filtering component 100 is placed in the cavity of the main body 210, and the filtering component 100 and the main body 210 can rotate relative to each other. Under the action of the driving component 220, the filtering component 100 rotates with its own center as the rotation axis relative to the main body 210.

[0169] It can be understood that in the static state, the liquid in the filtering component 100 is discharged from the filter element 120 by its own hydraulic pressure to realize the separation of the liquid and impurities. However, simply through the hydraulic action, on the one hand, the liquid discharge speed is relatively slow, and on the other hand, when the remaining liquid is less, the hydraulic pressure is small, and it is difficult to discharge the liquid, resulting in part of the liquid being unable to be discharged. When the driving component 220 acts on the filtering component 100, the driving component 220 rotates relative to the main body 210, and a centrifugal force is generated when the filtering component 100 rotates. Under the action of the centrifugal force, the liquid in the filtering component 100 is quickly thrown out of the filter element 120, and then the discharge of the filtering component 100 is accelerated, the speed of liquid and impurity separation is increased, and the residual amount of liquid in the filter element 120 is reduced.

[0170] Such as Figure 21As shown in the figure, the filtering device 200 further includes a support bottom cover 215. A first opening is provided at the bottom of the main body 210. The support bottom cover 215 is connected to the main body 210 at the first opening for covering the first opening. A second through hole 216 corresponding to the first through hole 212 is provided on the support bottom cover 215. The filtering device 200 includes a plurality of first connectors 260 for connecting the support bottom cover 215 to the main body 210. The first connector 260 can be a screw.

[0171] The filtering process of the filtering device 200 is as follows: The liquid containing impurities flows into the filtering assembly 100 and first enters the filter element 120. The filtering assembly 100 rotates relative to the main body 210 under the action of the driving assembly 220, and the filter element 120 also rotates accordingly. The liquid in the filter element 120 is quickly thrown out of the filter element 120 under the action of centrifugal force, and the impurities in the liquid remain in the filter element 120, realizing solid-liquid separation. The filtered liquid is discharged from the filtering device 200 through the first liquid discharge port 112 of the filtering assembly 100.

[0172] By providing the driving assembly 220 in the filtering device 200, the driving assembly 220 drives the filtering assembly 100 to rotate relative to the main body 210, so that the rapidly rotating filtering assembly 100 generates centrifugal force. On the one hand, it speeds up the filtering speed of the liquid, and on the other hand, it causes the liquid to be discharged from the filter element 120 under the action of centrifugal force, reducing the residual amount of liquid in the filter element 120, improving the working efficiency of the filtering device 200, and improving the filtering effect.

[0173] Embodiment 2:

[0174] On the basis of Embodiment 1, Embodiment 2 provides a filtering device 200, and the rotation speed at which the driving assembly 220 drives the filtering assembly 100 to rotate is greater than or equal to 50 rpm and less than or equal to 5000 rpm.

[0175] In this technical solution, the driving motor 221 drives the filtering assembly 100 to rotate at a certain speed. It can be understood that the filtering assembly 100 will generate certain noise during rotation, and the faster the rotation speed, the greater the noise. The centrifugal force of the filtering assembly 100 is also related to the rotation speed. The faster the rotation speed, the greater the centrifugal force and the higher the filtering effect. To balance the relationship between the filtering effect and the noise of the filtering assembly 100, the rotation speed of the filtering assembly 100 is therefore limited within the range of 50 rpm to 5000 rpm.

[0176] By limiting the rotation speed of the filtering assembly 100 within the range of 50 rpm to 5000 rpm, it can not only ensure that the filtering assembly 100 rotates at a certain speed, so as to ensure that the centrifugal force of the filtering assembly 100 meets the filtering requirements, but also ensure that the noise of the filtering device 200 is within a reasonable range and will not affect the user.

[0177] As Figure 11 , Figure 13 , Figure 14 , Figure 18 and Figure 19 shown, further, the driving assembly 220 includes: a driving motor 221 disposed on the main body 210; a first transmission member 222 connected to the output shaft of the driving motor 221; the filtering device 200 further includes: a second transmission member 223 disposed on the filtering assembly 100, the second transmission member 223 is adapted to the first transmission member 222, and the first transmission member 222 drives the second transmission member 223 to rotate under the drive of the driving motor 221, so that the filtering assembly 100 rotates relative to the main body 210.

[0178] In this technical solution, the driving assembly 220 includes the driving motor 221 and the first transmission member 222. The second transmission member 223 is provided on the filtering assembly 100. The second transmission member 223 is adapted to the first transmission member 222. The driving assembly 220 drives the first transmission member 222 to rotate. The first transmission member 222 cooperates with the second transmission member 223, and then drives the second transmission member 223 to rotate through the first transmission member 222, so as to realize the driving of the filtering assembly 100 by the driving assembly 220, and the filtering assembly 100 rotates relative to the main body 210.

[0179] As Figure 20 shown, specifically, the driving motor 221 is disposed on the main body 210. An output shaft is provided at the output end of the driving motor 221. A limiting platform is provided on one side of the output shaft close to the driving motor 221. The driving assembly 220 further includes a snap spring 224, and the snap spring 224 is disposed on the side of the limiting platform away from the driving motor 221. The first transmission member 222 is disposed on the output shaft, one end abuts against the limiting platform, and the other end is limited by the snap spring 224 to prevent the first transmission member 222 from falling off the output shaft, thereby realizing the connection between the first transmission member 222 and the driving motor 221.

[0180] The second transmission member 223 is disposed on the filtering assembly 100. The filtering assembly 100 is disposed in the cavity of the main body 210, that is, the second transmission member 223 is located in the cavity of the main body 210. In order to make the first transmission member 222 cooperate with the second transmission member 223, at least part of the first transmission member 222 is extended into the second cavity 213, so that the first transmission member 222 can contact and cooperate with the second transmission member 223.

[0181] The driving process of the driving component 220 for the filtering component 100 is as follows: The driving motor 221 operates and drives the output shaft to rotate. The first transmission member 222 is connected to the output shaft. The driving motor 221 transmits the driving torque to the first transmission member 222 through the output shaft. The first transmission member 222 is adapted to the second transmission member 223, and then transmits the driving torque to the second transmission member 223. The second transmission member 223 rotates accordingly, and then drives the filtering component 100 to rotate, realizing the driving of the filtering component 100 by the driving component 220.

[0182] Furthermore, the driving motor 221 can be set to different speeds. It can be understood that for different solid-liquid mixtures, the filtering difficulty is different, and the required centrifugal force is also different. Therefore, corresponding to different liquids to be filtered, the driving motor 221 can be set to different speeds to improve the filtering effect.

[0183] By providing the first transmission member 222 in the driving component 220 and making the first transmission member 222 cooperate with the second transmission member 223 of the filtering component 100, the driving effect of the driving component 220 on the filtering component 100 is realized. This driving method is simple and reliable, occupies little space, and has high working efficiency.

[0184] Embodiment 3:

[0185] As Figure 11 shown, on the basis of any of the above embodiments, Embodiment 3 provides a filtering device 200. The first transmission member 222 is a first transmission gear, the second transmission member 223 is a second transmission gear, and the transmission ratio of the first transmission gear to the second transmission gear is greater than or equal to 1 / 10 and less than or equal to 1.

[0186] In this technical solution, both the first transmission member 222 and the second transmission member 223 are gears. Specifically, the first transmission member 222 is a first transmission gear, and the second transmission member 223 is a second transmission gear. Through the meshing of the first transmission gear and the second transmission gear, the transmission of the driving torque is realized. It can be understood that by adjusting the number of teeth of the meshing gears, the transmission ratio of the gears can be adjusted. In the present invention, the transmission ratio of the first transmission gear to the second transmission gear is greater than or equal to 1 / 10 and less than or equal to 1, that is, through the cooperation of the first transmission gear and the second transmission gear, the rotational speed transmitted to the filtering component 100 is increased relative to the rotational speed of the driving motor 221 itself. The magnitude of the centrifugal force is related to the rotational speed. The greater the rotational speed, the greater the centrifugal force.

[0187] The transmission ratio of the first transmission gear to the second transmission gear is preferably 1 / 2.

[0188] By setting the first transmission member 222 and the second transmission member 223 as the first transmission gear and the second transmission gear, and controlling the transmission ratio of the first transmission gear to the second transmission gear to be greater than or equal to 1 / 10 and less than or equal to 1, the filtering assembly 100 can obtain a relatively large rotational speed even when the rotational speed of the driving motor 221 is relatively small, reducing the performance requirements for the driving motor 221. Moreover, when the filtering assembly 100 operates at a relatively large rotational speed, the centrifugal force increases, improving the filtering effect.

[0189] Embodiment 4:

[0190] Based on Embodiment 1 or 2, Embodiment 4 provides a filtering device 200. The first transmission member 222 is a transmission belt, at least part of the first transmission member 222 is wound around the output shaft, the second transmission member 223 is a transmission wheel, and at least part of the first transmission member 222 is wound around the second transmission member 223.

[0191] In this technical solution, the first transmission member 222 is a transmission belt and the second transmission member 223 is a transmission wheel. The transmission belt is connected to the output shaft and the transmission wheel respectively. Specifically, at least part of the transmission belt is wound around the output shaft and at least part of it is wound around the transmission wheel. It can be understood that the transmission belt is a closed-loop belt. Among them, one end of the transmission belt is wound around the transmission wheel and the other end is wound around the output shaft. The rotation of the output shaft drives the transmission belt to rotate, thereby achieving transmission.

[0192] By setting the first transmission member 222 as a transmission belt and the second transmission member 223 as a transmission wheel, the power output of the driving motor 221 is realized. Moreover, the transmission belt has a simple and reliable structure and low cost.

[0193] Embodiment 5:

[0194] As Figure 10 、 Figure 12 、 Figure 13 and Figure 15 shown, based on any of the above embodiments, Embodiment 5 provides a filtering device 200. The main body 210 includes: a first cavity 211 for accommodating the filtering assembly 100, and a first through hole 212 communicating with the first cavity 211.

[0195] In this technical solution, the main body 210 includes a first cavity 211, and the filtering assembly 100 is disposed in the first cavity 211. Among them, the first through hole 212 is connected to the first cavity 211. When the filtering assembly 100 is placed in the first cavity 211, the first liquid discharge port 112 of the filtering assembly 100 is disposed opposite to the first through hole 212, so that the first liquid discharge port 112 is communicated with the external space of the filtering device 200, and the filtered liquid is discharged from the filtering device 200.

[0196] By providing a first cavity 211 in the main body 210, the filter assembly 100 can be received in the first cavity 211. When the filter assembly 100 is in a rotating state, the wall of the first cavity 211 provides a certain degree of protection for the filter assembly 100. By connecting the first through hole 212 to the first cavity 211, the first liquid discharge port 112 of the filter assembly 100 can communicate with the first through hole 212 through the first cavity 211, and then the first liquid discharge port 112 is connected to the external space of the filtering device 200 through the first through hole 212.

[0197] Embodiment 6:

[0198] As Figure 8 shown, based on any of the above embodiments, Embodiment 6 provides a filtering device 200. The filter assembly 100 further includes: a plurality of positioning members 250 located between the filter assembly 100 and a part of the main body 210 that forms the first cavity 211, and the plurality of positioning members 250 are provided on the filter assembly 100 or the main body 210.

[0199] In this technical solution, the filter assembly 100 further includes a plurality of positioning members 250, and the plurality of positioning members 250 are located between the filter assembly 100 and a part of the main body 210 that forms the first cavity 211. It can be understood that when the filter assembly 100 is placed in the first cavity 211, there is a certain gap between the filter assembly 100 and the main body 210 that constitutes the first cavity 211. To prevent a large relative displacement between the filter assembly 100 and the main body 210, a plurality of positioning members 250 are provided between the filter assembly 100 and a part of the main body 210 that forms the first cavity 211 to reduce the gap between the filter assembly 100 and the main body 210, thereby reducing the relative displacement that can occur between the filter assembly 100 and the main body 210 and playing a positioning role for the filter assembly 100.

[0200] Furthermore, the plurality of positioning members 250 can be provided on the filter assembly 100 or on the main body 210. Specifically, when the plurality of positioning members 250 are provided on the filter assembly 100, the plurality of positioning members 250 can be circumferentially provided on the outer sidewall of the filter assembly 100. When the plurality of positioning members 250 are provided on the main body 210, the plurality of positioning members 250 can be circumferentially provided on the inner wall surface of the main body 210 that forms the first cavity 211 and is opposite to the filter assembly 100.

[0201] By providing a plurality of positioning members 250 between the filter assembly 100 and a part of the main body 210 that forms the first cavity 211, the gap between the filter assembly 100 and the main body 210 can be reduced, thereby reducing the relative displacement that can occur between the filter assembly 100 and the main body 210 and playing a positioning role for the filter assembly 100, so that the filter assembly 100 is stably placed in the filtering device 200 to ensure the normal operation of the filtering device 200.

[0202] Example 7:

[0203] As Figure 9 , Figure 10 , Figure 13 , Figure 15 , Figure 16 , Figure 18 shown, on the basis of any of the above embodiments, Example 7 provides a filtering device 200, and the main body 210 further includes: a second cavity 213, a driving motor 221 is disposed in the second cavity 213, and an output shaft extends out of the second cavity 213, and a first transmission member 222 is located outside the second cavity 213; an avoidance notch 214, corresponding to the first transmission member 222, communicating with the first cavity 211, and at least a part of the first transmission member 222 extends into the first cavity 211 through the avoidance notch 214.

[0204] As Figure 23 shown, in this technical solution, the main body 210 includes a second cavity 213, and the driving motor 221 is disposed in the second cavity 213. An opening is provided at the bottom of the second cavity 213, and the main body 210 includes a motor cavity bottom cover 217, which is connected to the main body 210 at the opening at the bottom of the second cavity 213 for covering the second cavity 213. The main body 210 is further provided with a plurality of second connectors 270 for connecting the main body 210 and the motor cavity bottom cover 217. The second connectors 270 may be screws.

[0205] As Figure 22 shown, specifically, a third through hole is provided on the motor cavity bottom cover 217, and the output shaft of the motor extends out of the second cavity 213 through the third through hole and is connected to the first transmission member 222, and the first transmission member 222 is disposed outside the second cavity 213. Specifically, the first transmission member 222 is disposed between the bracket bottom cover 215 and the bottom wall of the second cavity 213.

[0206] The main body 210 is further provided with an avoidance notch 214, the avoidance notch 214 communicates with the second cavity 213, and the first transmission member 222 extends into the second cavity 213 through the avoidance notch 214 and cooperates with the second transmission member 223.

[0207] The main body 210 further includes a second cover 219. The second cover 219 is disposed at the open end of the second cavity 213 on the side away from the drive motor 221 for closing the opening of the second cavity 213. Specifically, a positioning boss is provided in the second cavity 213, and one end of the second cover 219 abuts against the positioning boss to limit the second cover 219. A positioning protrusion 225 is provided on the side wall of the second cover 219, and a positioning groove 218 cooperating with the positioning protrusion 225 is further provided on the inner wall of the second cavity 213. When the second cover 219 is placed in the second cavity 213, the positioning protrusion 225 on the second cover 219 is inserted into the positioning groove 218 of the second cavity 213 to prevent the second cover 219 from rotating and limit the second cover 219.

[0208] By providing the second cavity 213 in the main body 210 and disposing the drive motor 221 in the second cavity 213, a certain protective effect is achieved on the drive motor 221, reducing the influence of the external environment on the motor. And by providing the second cover 219 to close the opening of the second cavity 213, it prevents external impurities from entering the second cavity 213 and damaging the drive motor 221, improving the protective effect on the drive motor 221.

[0209] Embodiment 8:

[0210] As Figure 7 、 Figure 10 、 Figure 12 and Figure 17 shown, on the basis of any of the above embodiments, Embodiment 8 provides a filtering device 200, including: a rolling member 230 rotatably disposed on the filtering assembly 100, and the rolling member 230 is located between the filtering assembly 100 and the main body 210.

[0211] In this technical solution, the filtering device 200 includes a rolling member 230 rotatably disposed on the filtering assembly 100 and located between the filtering assembly 100 and the main body 210. Specifically, the rolling member 230 is disposed on the bottom wall of the filtering assembly 100, and the filtering assembly 100 abuts against the main body 210 through the rolling member 230. The rolling member 230 is rotatably disposed on the filtering assembly 100. When the filtering assembly 100 rotates under the drive of the drive motor 221, the filtering assembly 100 rolls along the main body 210 under the support of the rolling member 230, reducing the friction between the filtering assembly 100 and the main body 210.

[0212] By arranging a rolling member 230 between the filtering component 100 and the main body 210, on the one hand, it plays a supporting role for the filtering component 100. On the other hand, when the filtering component 100 is in a rotating state, since the rolling friction exists between the rolling member 230 and the main body 210, the frictional force is extremely small, thereby reducing the force on the filtering component 100, reducing the frictional loss, and improving the working efficiency of the filtering device 200. And because the frictional force between the filtering component 100 and the main body 210 is reduced, the noise generated during the rotation of the filtering component 100 is also reduced, playing a role in noise reduction.

[0213] Embodiment 9:

[0214] As Figure 1 and Figure 2 shown, on the basis of any of the above embodiments, Embodiment 9 provides a filtering device 200. The filtering component 100 includes: a housing 110, the housing 110 includes a third cavity 111, and the housing 110 includes a first liquid discharge port 112; a filtering member 120, arranged in the third cavity 111, the filtering member 120 is configured as a cavity structure with an opening, and a plurality of filtering holes are arranged on the filtering member 120; a connecting component 130, capable of detachably connecting the filtering member 120 to the first housing 110; wherein, a liquid discharge channel is formed between the filtering member 120 and the first housing 110, and the liquid discharge channel is communicated with the first liquid discharge port 112.

[0215] In this technical solution, the filtering component 100 includes a housing 110, and a third cavity 111 and a first liquid discharge port 112 are further arranged in the housing 110. Among them, the first liquid discharge port 112 is communicated with the third cavity 111 and is arranged on the bottom wall of the housing 110, that is, the liquid in the third cavity 111 can flow out of the housing 110 through the first liquid discharge port 112.

[0216] Further, the filtering component 100 further includes a filter element 120. The filter element 120 is a cavity-type structure with an opening, that is, the filter element 120 includes a plurality of wall surfaces, and the plurality of wall surfaces enclose a receiving cavity, and an opening is provided on one side of the filter element 120, and the opening is communicated with the receiving cavity. A plurality of filter holes are also provided on the filter element 120. Specifically, the filter holes are provided on the wall surface of the filter element 120. It can be understood that when the liquid mixed with impurities flows into the filter element 120, the liquid can flow out of the filter element 120 through the filter holes on the wall surface, while the impurities are blocked by the filter holes and remain in the receiving cavity of the filter element 120, thereby playing a filtering role. The filtering effect of the filter element 120 is related to the density of the filter holes. The higher the density of the filter holes, the higher the filtering effect. However, a too-high density of filter holes will cause difficulty in liquid discharge. To balance the filtering effect and the liquid discharge speed of the filter element 120, the density of the filter holes can be set within the range of 50 mesh to 120 mesh, preferably 80 mesh. The filter element 120 is arranged in the third cavity 111. The liquid filtered by the filter element 120 flows into the third cavity 111 and is discharged from the third cavity 111 through the first liquid discharge port 112.

[0217] Further, a connecting component 130 is also provided in the filtering component 100 for connecting the filter element 120 and the housing 110. Specifically, the filter element 120 can be detachably connected to the housing 110 through the connecting component 130. Among them, the connecting component 130 can be a separate component independent of the filter element 120 and the housing 110, or can be a component provided on the filter element 120 and / or the housing 110.

[0218] Specifically, the connecting component 130 can be a threaded connection structure, that is, a threaded connection structure is provided on the side walls of the housing 110 and the filter element 120 as the connecting component 130, and the housing 110 and the filter element 120 are connected or separated by the screwing of the threads. The connecting component 130 can also be a snap connection structure. That is, a card slot is provided on one of the housing 110 and the filter element 120, and a snap protrusion is provided on the other. The snap protrusion can be snapped into the card slot to connect the housing 110 and the filter element 120, and the snap protrusion can also slide out of the card slot to separate the two. The connecting component 130 can also be a separate component independent of the housing 110 and the filter element 120. By connecting or separating the connecting component 130 to and from the housing 110 and the filter element 120 respectively, the connection or separation of the housing 110 and the filter element 120 is realized. Further, a gap is left between the filter element 120 located in the third cavity 111 and the housing 110, so as to form a liquid discharge channel between the filter element 120 and the housing 110. The liquid discharge channel is located in the third cavity 111 and is communicated with the first liquid discharge port 112. The filtered liquid flows into the liquid discharge channel through the filter holes, and then is discharged from the first liquid discharge port 112, thereby realizing the filtering and liquid discharge functions of the liquid.

[0219] The filtering process of the filter assembly 100 is as follows: the liquid containing impurities flows into the accommodating cavity of the filter element 120 from the first liquid inlet 131, the filter holes on the filter element 120 block the impurities in the liquid in the filter element 120, and the liquid is discharged from the filter element 120 through the filter holes, and the filtered liquid flows into the drainage channel, and then is discharged from the filter assembly 100 through the first drainage port 112, and the filter assembly 100 completes the filtration of the liquid. When the filter assembly 100 is arranged in the filter device 200, the filter assembly 100 can be rotated under the drive of the driving assembly. The rotating filter assembly 100 generates centrifugal force. Under the action of the centrifugal force, the liquid in the filter element 120 is quickly discharged from the filter holes to the drainage channel, which accelerates the filtering process and improves the filtering effect. By setting a connecting component 130 in the filter assembly 100, the shell 110 and the filter element 120 are detachably connected through the connecting component 130 so that the shell 110 and the filter element 120 form a whole, which is convenient for taking and cleaning the filter assembly 100 as a whole, thereby improving the convenience of use.

[0220] By providing the filter element 120 in the filter assembly 100, impurities in the liquid can be separated from the liquid, thereby achieving the filtering function of the liquid. And by providing the filter element 120 as a cavity structure with an opening, the liquid can flow into the filter element 120 through the opening on the filter element 120, thereby achieving the filtering of the liquid. By forming a drainage channel between the filter element 120 and the housing 110, the liquid flowing out of the filter element 120 is guided, the flow direction of the liquid is guided, and the liquid is discharged at the first drainage port 112, which is convenient for collecting the liquid, thereby improving the convenience of using the filter assembly 100.

[0221] Embodiment 10:

[0222] like Figure 10 and Figure 12 As shown, based on any of the above embodiments, embodiment 10 provides a filter device 200, and the filter assembly 100 also includes: a connecting pipe 240, which is arranged on the first shell 110 along the circumference of the first liquid discharge port 112, and the connecting pipe 240 is inserted into the first through hole 212 and extends out of the main body 210.

[0223] In this technical solution, a connecting pipe 240 is provided in the filter device 200. The connecting pipe 240 is arranged on the first housing 110 along the circumference of the first liquid discharge port 112, that is, the connecting pipe 240 is connected to the first liquid discharge port 112. One end of the connecting pipe 240 away from the first housing 110 is inserted into the first through hole 212 and extends out of the main body 210, that is, one end of the connecting pipe 240 is connected to the first liquid discharge port 112, and the other end is connected to the external space of the main body 210. Through the connecting pipe 240, the filtered liquid can be discharged from the filter assembly 100 to the outside of the filter device 200.

[0224] By providing a connecting pipe 240 in the filtering device 200, it guides the filtered liquid and discharges the filtered liquid from the filtering assembly 100 to the outside of the filtering device 200.

[0225] Example 11:

[0226] As Figure 2 、 Figure 3 and Figure 4 shown, based on any of the above embodiments, Example 11 provides a filtering device 200. The connecting assembly 130 includes: a face cover 132 located at the opening of the filtering element 120, and a first liquid inlet 131 communicating with the filtering cavity of the filtering element 120 is provided on the face cover 132; a first mounting side cover 133, and the first mounting side cover 133 can be connected to the first housing 110 and the filtering element 120; wherein, the face cover 132 is provided on the filtering element 120 or the face cover 132 is provided on the first mounting side cover 133.

[0227] In this technical solution, the connecting assembly 130 includes a face cover 132. The face cover 132 is located at the opening of the filtering element 120, and a first liquid inlet 131 communicating with the filtering cavity of the filtering element 120 is further provided on the face cover 132. The first liquid inlet 131 communicates with the accommodation cavity of the filtering element 120, and the liquid outside the filtering assembly 100 can flow into the filtering element 120 through the first liquid inlet 131 to realize the filtering of the liquid.

[0228] It can be understood that when the filtering assembly 100 is filtering, the liquid flows into the drainage channel between the filtering element 120 and the housing 110. If the space between the filtering element 120 and the housing 110 is open on the side close to the opening of the filtering element 120, the liquid in the drainage channel is likely to splash out of the filtering assembly 100. Therefore, a face cover 132 is provided in the connecting assembly 130 and the face cover 132 is arranged at the opening of the filtering element 120, so as to block the liquid in the drainage channel and prevent the liquid from splashing out of the filtering assembly 100.

[0229] Furthermore, the connecting assembly 130 further includes a first mounting side cover 133. The first mounting side cover 133 is respectively connected to the housing 110 and the filtering element 120, so that the housing 110 and the filtering element 120 are connected together through the first mounting side cover 133.

[0230] Wherein, the face cover 132 can be provided on the first mounting side cover 133 or on the filtering element 120. Specifically, the face cover 132 can be integrally connected with the first mounting side cover 133 or integrally connected with the filtering element 120.

[0231] By providing a face cover 132 at the opening of the filter element 120, it is possible to block the liquid in the liquid discharge channel and prevent the liquid from splashing out of the filter assembly 100. A first mounting side cover 133 is provided in the connection assembly 130, and the first mounting side cover 133 is respectively connected to the housing 110 and the filter element 120, so that the housing 110 and the filter element 120 are connected as a whole through the first mounting side cover 133, to realize the taking, placing and cleaning of the whole filter element 120 and the housing 110, which is convenient for users to use.

[0232] As Figure 3 shown, further, the connection assembly 130 further includes: a first mounting member 137, disposed on the first surface 136 of the first mounting side cover 133, and the first mounting member 137 can be connected to the housing 110; a second mounting member 139, disposed on the second surface 138 of the first mounting side cover 133, and the second mounting member 139 can be connected to the filter element 120.

[0233] In this embodiment, the first mounting side cover 133 includes a first surface 136 and a second surface 138, and the housing 110 and the filter element 120 can be respectively connected to different surfaces of the first mounting side cover 133, so as to connect the filter element 120 and the housing 110 as a whole through the first mounting side cover 133.

[0234] Among them, the connection assembly 130 includes a first mounting member 137 and a second mounting member 139. The first mounting member 137 is disposed on the first surface 136 of the first mounting side cover 133, and the first mounting member 137 can be connected to the housing 110, thereby connecting the housing 110 to the first surface 136 of the first mounting side cover 133. The second mounting member 139 is disposed on the second surface 138 of the first mounting side cover 133, and the second mounting member 139 can be connected to the filter element 120, thereby connecting the filter element 120 to the second surface 138 of the first mounting side cover 133.

[0235] The first surface 136 and the second surface 138 can face the same side or different sides.

[0236] When the first surface 136 and the second surface 138 face the same side, both the first surface 136 and the second surface 138 face the outside of the first mounting side cover 133, and the first surface 136 and the second surface 138 are distributed in a stepped shape, and the second surface 138 is closer to the center of the first mounting side cover 133 than the first surface 136.

[0237] When the first surface 136 and the second surface 138 face different sides, the first surface 136 faces the outside of the first mounting side cover 133, and the second surface 138 faces the inside of the first mounting side cover 133, so that the filter element 120 after being connected to the first mounting side cover 133 is located inside the housing 110.

[0238] Regardless of whether the first surface 136 and the second surface 138 face the same side, after the first mounting side cover 133 is connected to the housing 110 in place, there is a certain distance between the housing 110 and the second surface 138. The space between the second surface 138 and the housing 110 can accommodate the filter element 120. After the filter element 120 is connected to the first through the second mounting member 139, there is still a gap between the side wall of the filter element 120 and the side wall of the housing 110, so as to facilitate the liquid to flow from the filter element 120 into the first cavity 211. The gap between the side wall of the filter element 120 and the side wall of the housing 110 and the gap between the bottom wall of the filter element 120 and the bottom wall of the housing 110 together form a liquid discharge channel.

[0239] Specifically, the connection process between the housing 110, the filter element 120 and the housing 110 is as follows: First, after the first mounting side cover 133 is connected to the filter element 120 through the second mounting member 139, the first mounting side cover 133 drives the filter element 120 to be inserted into the housing 110, and the first mounting side cover 133 is connected to the housing 110 through the first mounting member 137, thereby completing the connection process of the first mounting side cover 133 with the filter element 120 and the housing 110.

[0240] By respectively arranging the first mounting member 137 and the second mounting member 139 on the first surface 136 and the second surface 138 of the first mounting side cover 133, the first mounting side cover 133 can be respectively connected to the filter element 120 and the housing 110. Thus, the filter element 120 and the housing 110 are connected into a whole, which is convenient for taking, placing and cleaning, and improves the user experience. And because the first mounting member 137 and the second mounting member 139 are respectively arranged on different surfaces of the first mounting side cover 133, it can prevent the problem of interference between the housing 110 and the filter element 120 during the connection process of the first mounting side cover 133 with the housing 110 and the filter element 120, and can ensure the smooth connection of the housing 110 and the filter element 120.

[0241] Embodiment 12:

[0242] As Figure 8 shown, on the basis of any of the above embodiments, Embodiment 12 provides a filtering device 200. The filtering assembly 100 further includes: a third mounting member 141, arranged on the housing 110, and the third mounting member 141 can be detachably connected to the first mounting member 137; a fourth mounting member 121, arranged on the filter element 120, and the fourth mounting member 121 can be detachably connected to the second mounting member 139.

[0243] In this technical solution, a third mounting member 141 and a fourth mounting member 121 are provided in the filtering assembly 100. The third mounting member 141 is disposed on the housing 110, and the third mounting member 141 is detachably connected to the first mounting member 137, thereby realizing the connection and separation between the housing 110 and the first mounting side cover 133.

[0244] The fourth mounting member 121 is disposed on the filter element 120, and the fourth mounting member 121 is detachably connected to the second mounting member 139, thereby realizing the connection and separation between the filter element 120 and the first mounting side cover 133.

[0245] By providing the third mounting member 141 on the housing 110, the connection and separation between the first mounting side cover 133 and the housing 110 are realized. By providing the fourth mounting member 121 on the filter element 120, the connection and separation between the first mounting side cover 133 and the filter element 120 are realized.

[0246] Embodiment 13:

[0247] As Figure 8 shown, on the basis of any of the above embodiments, Embodiment 13 provides a filtering device 200. The filtering assembly 100 further includes: a plurality of support members 115 located between the housing 110 and the filter element 120, disposed on the housing 110 or the filter element 120, and the plurality of support members 115 are spaced apart from each other.

[0248] In this technical solution, a plurality of support members 115 are provided in the filtering assembly 100, and the support members 115 are located between the housing 110 and the filter element 120. It can be understood that a liquid discharge channel is provided between the filter element 120 and the housing 110. In the normal connection state of the filter element 120 and the housing 110, a gap is left between the housing 110 and the filter element 120 to form a liquid discharge channel. However, if the connection between the filter element 120 and the housing 110 fails, it is easy to cause the filter element 120 to fall off the housing 110, so that the filter element 120 directly contacts the housing 110, and the gap between the two disappears, resulting in the blockage of the liquid discharge channel and difficult liquid discharge. Therefore, in order to avoid the problem of blockage of the liquid discharge channel when the connection between the filter element 120 and the housing 110 fails, a plurality of support members 115 are provided between the housing 110 and the filter element 120 to support the filter element 120 when the connection between the housing 110 and the filter element 120 fails, so that a gap is still left between the filter element 120 and the housing 110 to ensure the smooth liquid discharge channel and normal liquid discharge.

[0249] Among them, the plurality of support members 115 are spaced apart from each other so that the liquid can flow out of the filter element 120 evenly, preventing the support members 115 from being concentratedly arranged and causing poor liquid discharge.

[0250] A plurality of support members 115 can be provided on the housing 110 or on the filter element 120.

[0251] By providing a plurality of support members 115 between the housing 110 and the filter element 120, the filter element 120 can be supported in the case where the connection between the housing 110 and the filter element 120 fails, so that a gap is still left between the filter element 120 and the housing 110 to ensure that the liquid discharge channel is unobstructed and the liquid can be discharged normally.

[0252] Embodiment 14:

[0253] As Figure 5 and Figure 6 shown, on the basis of any of the above embodiments, Embodiment 14 provides a filtering device 200. The filter element 120 includes a first filter hole setting area 122 and a second filter hole setting area 123, and a plurality of filter holes are distributed on the first filter hole setting area 122 and the second filter hole setting area 123; wherein, the first filter hole setting area 122 is arranged on the side wall of the filter element 120, and the second filter hole setting area 123 is located on the bottom wall of the filter element 120.

[0254] In this technical solution, the filter holes in the filter element 120 are distributed in different areas. Specifically, the filter element 120 includes a first filter hole setting area 122 and a second filter hole setting area 123, and a plurality of filter holes are distributed on both the first filter hole setting area 122 and the second filter hole setting area 123.

[0255] Among them, the first filter hole setting area 122 is located on the side wall of the filter element 120, and the second filter hole setting area 123 is located on the bottom wall of the filter element 120. When there is more liquid in the filter element 120, the liquid is discharged simultaneously through the filter holes in the first filter hole setting area 122 and the second filter hole setting area 123, accelerating the liquid discharge speed. When the remaining liquid to be discharged is less, the liquid discharge through the first filter hole setting area 122 on the side wall of the filter element 120 is more difficult, and the liquid is mainly discharged through the filter holes in the second filter hole setting area 123 on the bottom wall of the filter element 120, so that the liquid in the filter element 120 can be completely discharged, reducing the residual liquid in the filter element 120.

[0256] By respectively arranging the first filter hole setting area 122 and the second filter hole setting area 123 on the side wall and the bottom wall of the filter element 120, it is possible to achieve simultaneous liquid discharge from the side wall and the bottom wall of the filter element 120, accelerate the liquid discharge speed, and improve work efficiency. Moreover, when there is less liquid in the filter element 120, the liquid can also be discharged through the second filter hole setting area 123 on the bottom wall of the filter element 120, reducing the residual liquid in the filter element 120.

[0257] Embodiment 15:

[0258] As Figure 1 、Figure 2 and Figure 3 As shown in Figure 3 , based on any of the above embodiments, Embodiment 15 provides a filtering device 200. The filtering assembly 100 further includes: a lifting member 143, which is disposed on the housing 110, the filtering member 120 or the connecting assembly 130.

[0259] In this technical solution, in order to facilitate the movement of the filtering assembly 100, a lifting member 143 is provided in the filtering assembly 100. Among them, the lifting member 143 can be disposed on the housing 110, the filtering member 120 or the connecting assembly 130.

[0260] By providing a handle on the filtering assembly 100, it is convenient to move the filtering assembly 100.

[0261] Embodiment 16:

[0262] According to the second aspect of the present invention, a food processor 300 is further proposed, including: the filtering device 200 in any of the above technical solutions.

[0263] The food processor provided by the second aspect of the present invention includes the filtering device 200 proposed in any of the above technical solutions, and thus has all the beneficial effects of the filtering device 200.

[0264] As Figure 24 shown, in this technical solution, the food processor 300 includes a body 310, a crushing device 320, a filtering assembly 100 and a heating device. Among them, the crushing device 320 is disposed in the body 310 and is used to crush food ingredients to make them into tiny granular solids. The crushing device 320 has a crushing chamber 326. After the food ingredients are put into the crushing chamber 326, the crushing device 320 processes the food ingredients in the crushing chamber 326 to crush them.

[0265] Furthermore, a liquid processing component 330 is disposed in the body 310 and is used to inject liquid into the crushing chamber 326. Specifically, the liquid processing component 330 is provided with a liquid injection port, and the liquid flows into the liquid processing component 330 through the liquid injection port. A liquid storage chamber is provided in the liquid processing component 330 for storing liquid. When the food processor 300 works, the liquid processing component 330 can inject the liquid in the liquid storage chamber into the crushing chamber 326 so that the liquid is mixed with the crushed food ingredients to form a solid-liquid mixture.

[0266] Further, the filtering component 100 is disposed within the body 310 and is configured to filter the solid-liquid mixture within the crushing chamber 326. The crushing chamber 326 is in communication with the first liquid inlet 131 of the filtering component 100. Specifically, the crushing chamber 326 is provided with a second liquid outlet for discharging the solid-liquid mixture within the crushing chamber 326, and the second liquid outlet of the crushing chamber 326 is in communication with the first liquid inlet 131 of the filtering component 100, so that the solid-liquid mixture that has completed the crushing process within the crushing chamber 326 flows into the filtering component 100, and the filtering component 100 filters it.

[0267] By providing the crushing device 320, the liquid processing component 330, and the filtering component 100 in the food processor 300, one-stop processing of crushing, liquid mixing, and filtering of food ingredients is achieved. Without the need to separately filter the processed liquid containing impurities again, a liquid without impurities or with a very low impurity content can be obtained. The operation is simple and convenient to use, enhancing the user experience.

[0268] Among them, the crushing device 320 includes: a crushing cup 321, the crushing cup 321 includes a crushing chamber 326; a diversion pipe 322 disposed within the crushing cup 321, the diversion pipe 322 is in communication with the crushing chamber 326 and extends in the direction of the first liquid inlet 131 of the filtering component 100; a valve assembly 323 disposed on the diversion pipe 322 or the crushing cup 321, and the valve assembly 323 can block or conduct the crushing chamber 326 and the first liquid inlet 131.

[0269] In this embodiment, the crushing device 320 includes a crushing cup 321, the crushing chamber 326 is disposed within the crushing cup 321, and the crushing cup 321 is used to hold the food ingredients to be processed and the liquid injected into the crushing chamber 326. The crushing cup 321 is further provided with a diversion pipe 322 in communication with the crushing chamber 326, and the diversion pipe 322 extends in the direction of the first liquid inlet 131 of the filtering component 100. The solid-liquid mixture that has completed the processing within the crushing chamber 326 flows out of the crushing chamber 326 through the diversion pipe 322 and flows into the filtering component 100 through the first liquid inlet 131. The diversion pipe 322 is disposed at the bottom of the crushing cup 321 to facilitate the outflow of the solid-liquid mixture within the crushing chamber 326.

[0270] Further, the crushing device 320 is provided with a valve assembly 323, which can be arranged in the diversion pipe 322 or the crushing cup 321, and is used to connect or block the crushing cup 321 with the first liquid inlet 131. Specifically, when the food processor 300 processes the food materials in the crushing cup 321, the valve assembly 323 blocks the crushing cup 321 from the first liquid inlet 131 to prevent the unprocessed food materials from flowing out of the crushing cup 321. After the food materials in the crushing cup 321 are crushed and mixed with liquid, the valve assembly 323 connects the crushing cup 321 with the first liquid inlet 131, so that the processed food materials flow into the filtering assembly 100 through the first liquid inlet 131 for filtering.

[0271] In this embodiment, the heating device can be arranged in the liquid processing assembly 330 or the crushing device 320.

[0272] Further, the food processing device further includes: a pulp receiving cup 340, which is detachably arranged on the machine body 310 and is located below the first drain port 112.

[0273] Embodiment 17:

[0274] The third aspect of the embodiment of the present invention provides a control method for a food processor, which can be implemented by a control device in the transaction processing device. This control method can be applied to the food processor provided in Embodiment 17 as described above.

[0275] As Figure 25 shown, Embodiment 13 of the present application provides a control method for a food processor, and this control method includes:

[0276] Step S102, receiving the user's selection operation of the drink type;

[0277] Step S104, running the target production program.

[0278] In this embodiment, the control method of the food processor is applicable to storing and running multiple production programs. The above-mentioned multiple production programs can be respectively used to make different types of drinks, such as: plant milk drinks, coffee drinks, fruit juice drinks, soy milk drinks, hot water, etc. The user can select according to their own needs, and no specific limitation is made here.

[0279] In this embodiment, the above selection operation is used to determine the target production program from the above multiple production programs. The above multiple production programs at least include a first production program and a second production program. It can be understood that different drink types correspond to different production programs, and the selection operation can be used to determine the target production program corresponding to the drink type selected by the user from the multiple production programs.

[0280] Among them, at least the first production process and the second production process are included in the multiple production processes. Further, the first production process may include a heating stage and a filtering and discharging stage, and the second production process includes a crushing stage and a filtering and discharging stage, and may further include a heating stage. By performing different selection operations, the user enables the food processor to implement different production processes, thereby performing different treatments on the ingredients to produce various types of beverages. That is, through the control method of the food processor proposed in this embodiment, a food processor can complete the production of multiple beverages, realizing the multi-beverage production function of the food processor, increasing the usage range of the food processor, improving the overall performance of the food processor, and being conducive to the promotion and publicity of the food processor.

[0281] Further, in this embodiment, the first production process includes a heating stage and a filtering and discharging stage. Among them, the heating stage is to control the heating device to heat the crushing device until the crushing device reaches the set temperature. The filtering and discharging stage is to discharge the ingredients in the crushing device into the filtering component, and then discharge the ingredients from the filtering component into the juice receiving cup. That is to say, when the food processor runs the first production process to make a beverage, the ingredients in the food processor will be heated to the set temperature, filtered, and discharged in sequence. At this time, the ingredients for making the beverage can be ingredients soluble in water arranged in the filtering component, such as powdered ingredients like coffee powder, soy milk powder, and milk powder.

[0282] Further, the above-mentioned second production process includes a crushing stage and a filtering and discharging stage. Among them, the crushing stage is to control the crushing device to perform a crushing operation on the ingredients placed therein. At this time, the ingredients for making the beverage can be solid ingredients such as fruits and vegetables that need to be crushed. At this time, the ingredients for making the beverage can be solid ingredients such as fruits and vegetables that need to be crushed. Specifically, the above-mentioned second production process may further include a heating stage. That is to say, when the food processor runs the second production process to make a beverage, the food can be heated to the set temperature, crushed, filtered, and discharged through the heating device, and the beverage produced can be a beverage such as soy milk that needs to be heated and crushed.

[0283] It should be noted that when the ingredients are discharged from the crushing device to the filtering component, the filtering component will automatically filter or dissolve the ingredients. In this way, the produced beverage is more delicate and uniform, ensuring the user's taste. At the same time, through the automatic filtering of the ingredients by the filtering component, it avoids the user manually filtering the beverage with other tools, reduces the user's operation steps, improves the efficiency of beverage production, and improves the general applicability of the food processor, which is conducive to the promotion and publicity of the food processor.

[0284] Therefore, through the control method of the food processor proposed by the present invention, by controlling the filtration accuracy in the filtration and slurry discharge stage and its combination with the heating stage and / or the crushing stage, the function of making multiple beverages can be achieved by one food processor, which improves the applicability of the food processor. Moreover, automatic filtration of beverages can be realized, reducing the operation steps of users and improving the production efficiency of beverages, thereby enhancing the overall performance of the food processor.

[0285] Example 18:

[0286] In this embodiment, on the basis of Example 17, further, the above-mentioned filtration and slurry discharge stage may specifically include:

[0287] Controlling the drive assembly to standby to perform first-precision filtration on the ingredients in the filtration assembly.

[0288] In this embodiment, the filtration and slurry discharge stage specifically includes controlling the drive assembly to standby, that is, the drive assembly does not drive the filtration assembly to rotate. In this way, after the ingredients enter the filtration assembly, only the filter screen placed in the filtration assembly performs first-precision filtration on the impurities or fibers in the ingredients. The first-precision filtration is a preliminary filtration, and there are still some impurities or fibers in the filtered ingredients. That is, the beverage produced at this time is a high-fiber beverage. For users who like this type of beverage, they can choose to make it by having the drive assembly standby, meeting the different needs of users.

[0289] Specifically, based on the drive assembly standby in the filtration and slurry discharge stage of the first production program, it shows that the filtration assembly neither needs to perform filtration nor contains ingredients to be dissolved. The above first production program can be used to make hot water.

[0290] Specifically, based on the drive assembly standby in the filtration and slurry discharge stage of the second production program, it shows that the filtration assembly needs to perform first-precision filtration, that is, primary filtration. The above second production program can be used to make beverages with more fibers that require crushing, heating, and primary filtration, such as ordinary soy milk.

[0291] Example 19:

[0292] In this embodiment, on the basis of Example 17, further, the above-mentioned filtration and slurry discharge stage may specifically further include: controlling the drive assembly to operate to drive the filtration assembly to rotate to perform second-precision filtration on the ingredients in the filtration assembly.

[0293] In this embodiment, the filtering and pulping stage may also include controlling the operation of the driving component to drive the filter component to rotate, so as to perform a second precision filtration on the food in the filter component. The second precision filtration is a depth filtration, and compared with the first precision filtration, the beverage produced by the second precision filtration is more uniform and delicate. Specifically, after the food enters the filter component, it can not only be initially filtered by the filter screen in the filter component, but also be driven by the driving component to rotate the filter component to perform a depth filtration on the food.

[0294] Specifically, in this embodiment, when the driving component is running, the driving component can drive the filter component to rotate slowly. When the filter component rotates, a certain centrifugal force is generated. The automatic centrifugal filtration of the beverage can be realized through the action of the centrifugal force, thereby realizing the deep filtration of the beverage on the basis of the preliminary filtration of the filter. In this way, the user can obtain a beverage with high uniformity and fineness without performing additional manual filtration operations. While ensuring the user's edible taste, the user's operation steps can also be reduced, thereby improving the efficiency of beverage production, meeting the user's needs, and improving the overall performance of the food processor.

[0295] Specifically, based on the driving component in the filtering and pulping stage of the first production program driving the filtering component to rotate, it indicates that food materials that need to be dissolved are stored in the filtering component. The above-mentioned first production program can be used to prepare brewed beverages such as brewed coffee powder, soy milk powder, and milk powder.

[0296] Specifically, based on the standby driving of the filter component in the filtering and pulping stage in the second production program, it indicates that the filter component needs to perform second-precision filtration, that is, depth filtration. The above-mentioned second production program can be used to make delicate-tasting beverages that require crushing, heating and deep filtration, such as: plant milk, delicate-tasting soy milk, etc.

[0297] Embodiment 20:

[0298] In this embodiment, based on Embodiment 19, further, based on the target production program being the first production program, the above step S104 may specifically include the following steps S104a and S104b.

[0299] Step S104a, after controlling the heating device to heat for a first preset time, controlling the crushing device to discharge slurry into the filter assembly;

[0300] Step S104b: controlling the driving component to operate at a first preset time to drive the filter component to rotate.

[0301] Specifically, in this embodiment, the first preset moment may be within the first preset duration, that is, before the slurry is discharged from the pulverizing device, when the food ingredients in the pulverizing device are still being heated, the driving assembly is operated to make it in a rotating state, thereby driving the rotation of the filtering assembly.

[0302] Specifically, in this embodiment, the first preset moment may also be after the first preset duration, that is, the driving assembly is operated to drive the rotation of the filtering assembly after the heating is completed. In this way, when no hot water enters the filtering assembly, the filtering assembly will not rotate, avoiding the waste of electric power resources and reducing the energy consumption of the food processor.

[0303] It should be noted that, in this embodiment, the control device can, according to the selection operation made according to the type and taste of the beverage selected by the user, only heat the food ingredients in the pulverizing device without pulverizing them, that is, the liquid discharged into the filtering assembly at this time is hot water. At this time, an appropriate amount of powdered food ingredients such as coffee powder, milk powder, and soybean milk powder can be placed in the filtering assembly. When the driving assembly drives the filtering assembly to rotate, when the filtering assembly rotates slowly, the above-mentioned powdered food ingredients can be more fully brewed.

[0304] It can be understood that, compared with the beverage brewed directly with hot water, in the embodiment of the present invention, the powdered food ingredients in the filtering assembly can be rotated and filtered simultaneously. The powdered food ingredients remaining in the filtering assembly gradually decrease with the rotation of the filtering assembly and the injection of hot water until they are completely brewed. In this way, the above-mentioned powdered food ingredients are more fully brewed, so that a richer and more delicious taste can be obtained.

[0305] Exemplarily, when the beverage type is a coffee beverage, the user puts coffee powder into the filtering assembly according to the recipe, and then selects the coffee function item on the IMD panel. The display board transmits the received signal through the line to the control device MCU installed on the body of the food processor. The control device determines the target production program corresponding to the coffee and starts to execute the target production program, controls the pump body to work to pump water from the liquid storage tank and the pipeline assembly into the pulverizing chamber, and the heating device performs the heating work. When the heating device heats for a period of time (the first preset duration) until the water temperature reaches the set temperature, before discharging the beverage into the filtering assembly, the driving assembly starts to operate and drives the filtering assembly to rotate; subsequently, the pulverizing device discharges the beverage into the filtering assembly, and the filtering assembly rotates to perform low-speed centrifugal brewing on the discharged beverage; finally, the filtered beverage is discharged from the filtering assembly, thereby obtaining a uniform and delicate coffee beverage.

[0306] It should be noted that there is no specific sequential relationship between the control device executing the above S104a and S104b. It can execute S104a first and then S104b, or vice versa.

[0307] Further, in this embodiment, before the above S104b, the control method of the food processor provided in this embodiment may further include the following step S106.

[0308] Step S106: Determine that the mass of the filtering component is greater than a preset threshold.

[0309] Specifically, in this embodiment, the preset threshold may be equal to the mass of the filtering component when it is idle, or the preset threshold may be slightly greater than the mass of the filtering component when it is idle.

[0310] In this embodiment, when the mass of the filtering component is greater than the preset threshold, it means that the filtering component contains contents (such as the above-mentioned powdery food ingredients). At this time, the control device controls the driving component to operate to drive the filtering component to rotate; when the mass of the filtering component is not greater than the preset threshold, it means that the filtering component does not contain contents, and at this time, the control device does not need to control the driving component to operate. In this way, the waste of electric power resources is avoided, the energy consumption of the food processor is reduced, and the performance of the food processor is improved.

[0311] Embodiment 21:

[0312] In this embodiment, on the basis of Embodiment 19, further, based on the target production program being the second production program, and the second production program further includes a heating stage, the above step S104 may specifically include the following steps S104c, S104d, and S104e.

[0313] Step S104c: Control the heating device to heat for a second preset duration.

[0314] Step S104d: Control the crushing device to perform a crushing operation, and after a third preset duration, control the crushing device to discharge the slurry into the filtering component.

[0315] Specifically, in this embodiment, the second preset duration and the third preset duration may have an overlapping relationship on the time axis. Specifically, the control device may control the crushing device and the heating device to simultaneously heat and crush the food ingredients in the crushing device. Further specifically, the control device may also perform a crushing process on the food ingredients through the crushing device after the heating device has heated the food for a period of time. The preheated food ingredients are easier to crush, improving the production efficiency of the beverage.

[0316] Step S104e: Control the driving component to operate at a first preset moment to drive the filtering component to rotate.

[0317] In this embodiment, when the driving component operates, the driving component can drive the filtering component to rotate slowly, and thus the automatic centrifugal filtration process of the beverage can be realized through the centrifugal force generated by the rotation, so that on the basis of the filtration of the filter screen, the deep filtration of the beverage is realized. In this way, the automatic filtration of the beverage is realized, the edible taste of the beverage is improved, the operation steps of the user are reduced, the filtration efficiency is improved, and the needs of the user are met.

[0318] It can be understood that the first preset moment can be the moment when the driving component needs to start working. Specifically, the first preset moment can be the initial moment when the driving component executes the target production program.

[0319] Specifically, the first preset moment can be within the third preset duration, that is, before the slurry is discharged from the crushing device, when the ingredients in the crushing device are still being crushed, the driving component is operated to make it in a rotating state, and then the rotation of the filtering component is driven. In this way, when the produced beverage is discharged from the crushing device to the filtering component, the automatic centrifugal filtration operation can be carried out in time, ensuring that all the beverages entering the filtering component can be filtered in time, ensuring the uniformity and fineness of the beverage, and improving the edible taste of the beverage.

[0320] Specifically, in this embodiment, the first preset moment can be after the third preset duration, that is, the driving component is operated to drive the filtering component to rotate after the crushing is completed. In this way, when there is no beverage entering the filtering component, the filtering component will not perform the filtering operation, avoiding the waste of electric power resources and reducing the energy consumption of the food processor.

[0321] Exemplarily, when the type of the beverage is a plant milk beverage, the user puts the ingredients into the crushing device according to the recipe and selects the plant milk beverage through an input operation (the user selects the plant milk function on the IMD panel). The control device determines the corresponding target production program according to the plant milk beverage (the display board transmits the received signal to the control device MCU installed on the body of the food processor through the line to determine the function program of the plant milk). In this way, the food processor starts to operate according to the target production program. Specifically, the control device controls the water pump to work and pumps water from the liquid storage tank and the pipeline component into the crushing device, and the heating device heats the crushing device; after heating for a period of time, the crushing device starts to crush and cut the food inside; then, before discharging the beverage after the crushing is completed, the driving component starts to operate and drives the filtering component to rotate; subsequently, the crushing device discharges the beverage into the filtering component, and the filtering component performs low-speed centrifugal filtration on the discharged beverage through rotation; finally, the filtered beverage is discharged from the filtering component, and thus a uniform and fine plant milk beverage is obtained.

[0322] It should be noted that there is no specific sequence relationship between the control device's execution of the above S104c and S104d. It can execute S104c first and then S104d, or vice versa. The control device executes S104e prior to S104d. The control device can execute S104d after completing S104e, or start executing S104d during the execution of S104e.

[0323] Embodiment 22:

[0324] In this embodiment, based on Embodiment 19, further, since the target production program is the second production program, the above second program further includes a heating stage. The above step S104 may specifically include the following steps S104f, step S104g, and step S104h.

[0325] In this embodiment, the drive assembly remains in a standby state. At this time, the filtering assembly does not rotate. For the drink entering the filtering assembly, the filtering assembly can only perform a preliminary filtration on it through the filter screen. That is, the drink produced at this time is a high-fiber drink.

[0326] Step S104f: Control the heating device to heat for a fourth preset duration.

[0327] Step S104g: Control the crushing device to perform a crushing operation. After a fifth preset duration, control the crushing device to discharge the slurry into the filtering assembly.

[0328] Step S104h: Control the drive assembly to remain in a standby state.

[0329] Specifically, in this embodiment, the fourth preset duration and the fifth preset duration can have the same initial moment. At this time, heating and crushing operations are performed on the food in the crushing device simultaneously, which can improve the efficiency of drink production.

[0330] Specifically, in this embodiment, the fourth preset duration and the fifth preset duration can also have an overlapping relationship on the time axis. After heating the food for a period of time, the food is then crushed. The preheated food is easier to crush, which improves the efficiency of drink production.

[0331] Exemplarily, when the type of the beverage is a high-fiber beverage, the user puts the ingredients into the crushing device according to the recipe, selects the function item on the IMD panel, and the display panel transmits the received signal through the line to the control device installed on the body of the food processor. The control device determines the target production procedure corresponding to the high-fiber beverage, controls the pump body to work, and makes the water flow from the liquid storage tank and the pipeline assembly into the crushing cavity through the pipeline. The heating device heats the crushing device for a fourth preset duration; meanwhile or after that, the crushing device starts to crush and cut the food inside it for a fifth preset duration; finally, the crushed beverage is discharged from the crushing device and is preliminarily filtered through the filtering assembly to obtain the high-fiber beverage.

[0332] Embodiment 23:

[0333] In this embodiment, on the basis of Embodiments 17 to 19, further, the food processor further includes a detection device for detecting whether the filtering assembly is in the working position. On this basis, the control method further includes the following step S108.

[0334] Step S108: Based on the detection result of the detection device that the filtering assembly is not in the working position, give up responding to and executing the target production procedure.

[0335] In this embodiment, under normal circumstances, the filtering assembly is located below the crushing device to receive the liquid discharged from the crushing device. When the control device detects through the detection device that the filtering assembly is not in the working position, the control device gives up responding to and executing the target operation mode. Since the food processor can store the residue in the beverage, when the filtering assembly is not in the working position, it may cause too much residue in the beverage, affecting the taste and resulting in a poor user experience, or it is likely to cause internal pollution of the food processor. Thus, when the filtering assembly is not placed in the working position, the food processor does not perform the production operation, improving the overall performance of the food processor and the user's usage experience.

[0336] It should be noted that the above S108 can be performed after receiving the user's selection operation of the beverage type, that is, it is executed after S102. When the control device determines that the filtering assembly is not in the working position, the control device gives up executing the target operation mode.

[0337] Embodiment 24:

[0338] The fourth aspect of the present invention provides a control device for a food processor, as Figure 26 shown. In this embodiment, the control device 400 of the food processor includes a receiving unit 402 and a processing unit 404.

[0339] The receiving unit 402 is configured to receive the user's selection operation of the beverage type.

[0340] In this embodiment, the control device is applicable to a food processor that stores and can run multiple production programs. The selection operation is used to determine a target production program from multiple production programs, and the multiple production programs at least include a first production program and a second production program. Among them, the first production program includes a heating stage and a filtering and discharging stage, and the second production program includes a heating stage, a crushing stage, and a filtering and discharging stage.

[0341] The processing unit 404 is used to run the target production program.

[0342] Among them, the heating stage includes: controlling the heating device to heat the crushing device to a set temperature; the crushing stage includes: controlling the crushing device to perform a crushing operation; the filtering and discharging stage includes: discharging the food materials in the crushing device from the crushing device to the filtering component and then discharging them from the filtering component to the slurry receiving cup.

[0343] The control device of the food processor proposed in this embodiment realizes the multi-drink making function of the food processor, improves the applicability of the food processor, and can realize the automatic filtering of drinks, reducing the operation steps of users and improving the production efficiency of drinks, thereby improving the overall performance of the food processor and being conducive to the publicity and promotion of the food processor.

[0344] Specifically, in this embodiment, the processing unit 404 is further used to control the driving component to standby to perform a first-precision filtration on the food materials in the filtering component.

[0345] Specifically, in this embodiment, the processing unit 404 can also be used to control the driving component to run to drive the filtering component to rotate to perform a second-precision filtration on the food materials in the filtering component.

[0346] Specifically, in this embodiment, the processing unit 404 can specifically be used to: after controlling the heating device to heat for a first preset duration, control the crushing device to discharge slurry into the filtering component; control the driving component to run at a first preset moment to drive the filtering component to rotate; where the first preset moment is within the first preset duration or after the first preset duration.

[0347] Specifically, in this embodiment, the processing unit 404 is further used to determine that the mass of the filtering component is greater than a preset threshold.

[0348] Specifically, in this embodiment, the processing unit 404 is specifically further used to: control the heating device to heat for a second preset duration; control the crushing device to perform a crushing operation, and after a third preset duration, control the crushing device to discharge slurry into the filtering component; control the driving component to run at a first preset moment to drive the filtering component to rotate; where the first preset moment is within the third preset duration or after the third preset duration.

[0349] Specifically, in this embodiment, the processing unit 404 is further specifically configured to: control the heating device to heat for a fourth preset duration; control the crushing device to perform a crushing operation, and after a fifth preset duration, control the crushing device to discharge slurry into the filtering device; control the driving component to remain in a standby state.

[0350] Specifically, in this embodiment, the processing unit 404 is further configured to, based on the detection result of the detection device indicating that the filtering component is not in the working position, control the food processor to abandon responding to the execution of the target production program.

[0351] Embodiment 25:

[0352] This embodiment provides a food processor, including: the control device 400 of the food processor according to any technical solution of the fourth aspect above, and thus has all the beneficial effects of the control device 400 of the food processor, which will not be elaborated here.

[0353] Embodiment 26:

[0354] This embodiment provides a food processor, including a memory and a controller. The memory is configured to store programs or instructions; the controller is configured to execute the stored programs or instructions to implement the steps of the control method of the food processor provided in the third aspect above, and thus has all the beneficial effects of the control method of the food processor, which will not be elaborated here.

[0355] Embodiment 27:

[0356] This embodiment provides a readable storage medium, on which programs or instructions are stored. When the programs or instructions are executed by a processor, the steps of the control method provided in the third aspect above are implemented, and thus all the beneficial effects of the control method of the food processor are achieved, which will not be elaborated here.

[0357] Specific embodiments:

[0358] The food processor is composed of a crushing device, an upper cover assembly, a liquid processing assembly, a bottom cover assembly, a filtering device 200, a slurry receiving cup, an electric control system, etc. A filtering device 200 is provided between the diversion pipe and the slurry receiving cup.

[0359] The filtering device 200 includes a main body 210 and a filtering component 100. The filtering device 200 further includes a driving component 220. The driving component 220 includes a driving motor 221, a first transmission member 222, a snap ring 224, a rotating shaft, etc.; the main body 210 includes a bracket bottom cover 215 and a rolling member 230; the filtering component 100 includes a connecting component 130, a filtering member 120, a first housing 110, etc. A fourth mounting member 121 is provided on the filtering member 120; a third groove and a fourth groove are provided on the connecting component 130, and the fourth mounting member 121 on the filtering member 120 is in screw-in fit with the third groove and the fourth groove on the connecting component 130; the filtering component 100 is placed in the housing 110, and the first mounting member 137 on the connecting component 130 is in screw-in fit with the first groove and the second groove on the housing 110; the filtering component 100 is placed in the main body 210, the connecting pipe 240 below the housing 110 is inserted into the first through hole 212 on the main body 210, the rolling member 230 contacts the bottom surface of the main body 210, the positioning member 250 on the housing 110 is in limit contact with the wall surface of the main body 210 forming the second cavity 211, the second transmission member 223 connected to the housing 110 meshes with the first transmission member 222, and the driving motor 221 is electrically connected to the main control board.

[0360] Conventional functional operation: Put the filtering component 100 into the main body 210. The user adds ingredients according to the recipe, selects a function item on the IMD panel. The display board transmits the received signal through the circuit to the main control board electronic control system MCU installed on the main body of the food processor. The electronic control system executes relevant functional programs. The pump body works and water flows from the liquid storage tank and the pipeline component into the crushing cavity. The heating device conducts heating work. At the same time, the crushing knife group driving component drives the crushing knife group to beat the ingredients. The valve component opens and closes under program control to complete the pulping and discharging actions. The prepared drink flows into the receiving cup through the filtering component 100 from the diversion pipe.

[0361] Operation of plant milk beverage: The user puts the ingredients into the crushing cavity according to the recipe, aligns and fastens the slurry hopper cover with the main body of the food processor and tightens it. Select the plant milk function on the IMD panel. The display board transmits the received signal through the circuit to the main control board electronic control system MCU installed on the main body of the food processor. The electronic control system executes the relevant function program. The pump body works and pumps water from the liquid storage tank and pipeline components into the crushing cavity. The heating device works for heating. Under the control of the program, when heated for a certain time, the crushing knife group drive assembly runs at high speed, and the crushing knife group crushes and cuts the ingredients in the crushing cavity. Before discharging the slurry, the drive motor in the main body of the food processor runs first under the control of the program. Since the first transmission component meshes with the second transmission component, and the second transmission component is connected to the filtering component 100, the filtering component 100 is driven to rotate slowly in the filtering device 200. At the same time, the valve assembly is opened under the control of the program for discharging the slurry. The beverage is discharged into the filtering component 100 through the diversion pipe, and the beverage is further centrifugally filtered at a low speed. The filtered slurry flows into the first drain port 112 through the drain channel between the filter element 120 and the housing 110, and is discharged into the slurry receiving cup outside the main body through the first drain port 112, thus completing the slurry discharging work.

[0362] Operation of coffee beverage: The user puts the ground coffee powder into the filtering component 100 according to the recipe, and puts the filtering component 100 into the main body 210. Then select the coffee function item on the IMD panel. The display board transmits the received signal through the circuit to the main control board electronic control system MCU installed on the main body of the food processor. The electronic control system executes the relevant function program. The pump body works and pumps water from the liquid storage tank and pipeline components into the crushing cavity. The heating device works for heating. Under the control of the program, when the water temperature reaches the set temperature after heating for a certain time, before discharging, the drive motor 221 in the main body 210 runs first under the control of the program. Since the first transmission part 222 meshes with the second transmission part 223, and the second transmission part 223 is connected to the filtering component 100, the filtering component 100 is driven to rotate slowly in the main body 210. At the same time, the valve assembly is opened under the control of the program for discharging the slurry. The beverage is discharged into the filtering component 100 through the diversion pipe, and the beverage is further centrifugally filtered at a low speed. The filtered beverage is discharged from the drain channel between the filter element 120 and the housing 110 through the first drain port 112 to the slurry receiving cup outside the main body of the food processor, thus completing the slurry discharging work.

[0363] For the food processor proposed by the present invention, a filtering device 200 is provided between the diversion pipe and the slurry receiving cup. The drive motor 221 drives the filtering component 100 in the filtering device 200 to rotate, so as to realize the process of automatic production and automatic centrifugal filtration of the beverage.

[0364] The food processor solves the following technical problems:

[0365] 1. It realizes the simultaneous completion of crushing and automatic filtration within a single machine, and can produce a drink effect that is as smooth and delicate as plant milk, even without residue.

[0366] 2. It realizes the production of multi-functional drinks such as soymilk, plant milk, and coffee.

[0367] 3. It allows users to have multiple choices for the taste of the drink. For example, if a user wants a smooth-tasting drink, they can place the filtration component 100. If a user wants a high-fiber drink, they can not place the filtration component 100, and freely choose according to their preferences.

[0368] In the present invention, the term "a plurality" refers to two or more, unless otherwise clearly defined. Terms such as "installed", "connected", "joined", "fixed" and the like should be understood in a broad sense. For example, "connected" can be a fixed connection, a detachable connection, or an integral connection; "joined" 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.

[0369] In the description of this specification, the descriptions of terms such as "one embodiment", "some embodiments", "specific embodiments" and the like 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 example. Moreover, the specific features, structures, materials or characteristics described can be combined in a suitable manner in any one or more embodiments or examples.

[0370] The above are only the preferred embodiments of the present invention and are not used 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 filtering device, characterized in that, Comprising: A filtering component including a first liquid discharge port; A main body, wherein the filtering component is detachably disposed on the main body; A first through hole disposed on the main body, and the first liquid discharge port communicates with the outside through the first through hole; A driving component disposed on the main body, the driving component is connected to the filtering component, and the driving component can drive the filtering component to rotate relative to the main body; The filtering component includes: A housing including a third cavity, and the housing includes the first liquid discharge port; A filter element disposed in the third cavity, the filter element is configured as a cavity structure with an opening, and a plurality of filter holes are provided on the filter element; A connecting component capable of detachably connecting the filter element and the housing; Wherein, a liquid discharge channel is formed between the filter element and the housing, and the liquid discharge channel communicates with the first liquid discharge port; The connecting component includes: A face cover located at the opening of the filter element, and a first liquid inlet communicating with the filter cavity of the filter element is provided on the face cover; A first mounting side cover, the first mounting side cover can be connected to the housing and the filter element; Wherein, the face cover is disposed on the filter element or the face cover is disposed on the first mounting side cover.

2. The filtering device according to claim 1, characterized in that The rotation speed at which the driving component drives the filtering component to rotate is greater than or equal to 50 rpm and less than or equal to 5000 rpm.

3. The filtering device according to claim 1, characterized in that, The driving component includes: A driving motor disposed on the main body; A first transmission member connected to the output shaft of the driving motor; The filtering device further includes: A second transmission member disposed on the filtering component, the second transmission member is adapted to the first transmission member, and the first transmission member drives the second transmission member to rotate under the drive of the driving motor, so that the filtering component rotates relative to the main body.

4. The filtering device according to claim 3, characterized in that The first transmission member is a first transmission gear, the second transmission member is a second transmission gear, and the transmission ratio of the first transmission gear to the second transmission gear is greater than or equal to 1 / 10 and less than or equal to 1.

5. The filtering device according to claim 3, characterized in that The first transmission member is a transmission belt, at least part of the first transmission member is wound around the output shaft, the second transmission member is a transmission wheel, and at least part of the first transmission member is wound around the second transmission member.

6. The filtering device according to claim 3, characterized in that, The main body includes: A first cavity for accommodating the filtering component, and the first through hole communicates with the first cavity.

7. The filtering device according to claim 6, characterized in that, The filtering component further includes: A plurality of positioning members located between the filtering component and a part of the main body forming the first cavity, and the plurality of positioning members are disposed on the filtering component or the main body.

8. The filtering device according to claim 6, characterized in that, The main body further includes: A second cavity, the driving motor is disposed in the second cavity, the output shaft extends out of the second cavity, and the first transmission member is located outside the second cavity; An avoidance notch corresponding to the first transmission member communicates with the first cavity, and at least part of the first transmission member extends into the first cavity through the avoidance notch.

9. The filtering device according to claim 1, characterized in that, The filtering device includes: A rolling member is rotatably disposed on the filtering assembly, and the rolling member is located between the filtering assembly and the main body.

10. The filtering device according to any one of claims 1 to 9, characterized in that, The filtering assembly further includes: A connecting pipe is disposed circumferentially of the first drain port on the housing. The connecting pipe is inserted into the first through hole and extends out of the main body.

11. The filtering device according to claim 10, wherein, The connecting assembly further includes: A first mounting member is disposed on the first surface of the first mounting side cover, and the first mounting member can be connected to the housing; A second mounting member is disposed on the second surface of the first mounting side cover, and the second mounting member can be connected to the filtering member.

12. The filtering device according to claim 11, characterized in that, The filtering assembly further includes: A third mounting member is disposed on the housing, and the third mounting member can be detachably connected to the first mounting member; A fourth mounting member is disposed on the filtering member, and the fourth mounting member can be detachably connected to the second mounting member.

13. The filtering device according to any one of claims 1 to 9, characterized in that, The filtering assembly further includes: A plurality of support members are located between the housing and the filtering member, and are disposed on the housing or the filtering member, and the plurality of support members are spaced apart from each other.

14. The filtering device according to any one of claims 1 to 9, wherein The filtering member includes a first filter hole setting area and a second filter hole setting area, and the plurality of filter holes are distributed on the first filter hole setting area and the second filter hole setting area; Wherein, the first filter hole setting area is disposed on the side wall of the filtering member, and the second filter hole setting area is located on the bottom wall of the filtering member.

15. The filtering device according to any one of claims 1 to 9, characterized in that, The filtering assembly further includes: A lifting member is disposed on the housing, the filtering member or the connecting assembly.

16. A food processor, characterized in that, Including: The filtering device according to any one of claims 1 to 15.

17. A control method for a food processor, characterized in that, The control method is used for the food processor according to claim 16 above. The food processor further includes a crushing device for crushing food ingredients and a heating device for heating the crushing device. The filtering assembly can receive the food ingredients discharged from the crushing device. The control method includes: Receiving a user's selection operation for the type of drink. The selection operation is used to determine a target production program from a plurality of production programs. The plurality of production programs at least include a first production program and a second production program. The first production program includes: a heating stage and a filtering and discharging stage; The second production program includes: a crushing stage and a filtering and discharging stage; Running the target production program; Wherein, the heating stage includes: controlling the heating device to heat the crushing device to a set temperature; The crushing stage includes: controlling the crushing device to perform a crushing operation; The filtering and discharging stage includes: discharging the food ingredients in the crushing device from the crushing device to the filtering assembly and then discharging them from the filtering assembly to the slurry receiving cup.

18. The control method of a food processor according to claim 17, wherein The filtering and discharging stage includes: Controlling the driving assembly to standby to perform a first-precision filtration on the food ingredients in the filtering assembly.

19. The control method of the food processor according to claim 17, characterized in that, The filtering and discharging stage includes: Controlling the driving assembly to run to drive the filtering assembly to rotate to perform a second-precision filtration on the food ingredients in the filtering assembly.

20. A control device for a food processor, characterized in that, The control device is used for the food processor described in claim 16 above. The food processor further includes a crushing device for crushing food ingredients and a heating device for heating the crushing device. The filtering assembly can receive the food ingredients discharged from the crushing device. The control device includes: a receiving unit configured to receive a user's selection operation of the beverage type. The selection operation is used to determine a target production program from a plurality of production programs. The plurality of production programs at least include a first production program and a second production program. The first production program includes a heating stage and a filtering and discharging stage. The second production program includes a crushing stage and the filtering and discharging stage; a processing unit configured to run the target production program; wherein, the heating stage includes: controlling the heating device to heat the crushing device to a set temperature; the crushing stage includes: controlling the crushing device to perform a crushing operation; the filtering and discharging stage includes: discharging the food ingredients in the crushing device from the crushing device to the filtering assembly and then discharging them from the filtering assembly to a receiving cup.

21. A food processor, characterized in that, including: a memory storing programs or instructions; a controller, when the controller executes the programs or instructions, implementing the control method of the food processor according to any one of claims 17 to 19.

22. A readable storage medium, characterized in that, Programs or instructions are stored on the readable storage medium. When the programs or instructions are executed by a processor, the steps of the control method of the food processor according to any one of claims 17 to 19 are implemented.

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