Tool apron, stirring mechanism and stirrer

Abstract

The tool apron comprises a tool apron body, a stirring knife mounting structure is arranged on the bottom wall of the tool apron body, a first turbulent flow rib is arranged on the bottom wall of the tool apron body and extends from the stirring knife mounting structure to the edge of the tool apron body, a turbulent flow face is formed on the top face of the turbulent flow rib, and the stirring knife mounting structure is arranged along the first hour hand direction. The first turbulent flow ribs gradually protrude out of the bottom wall of the tool apron body, a first turbulent flow face side and a second turbulent flow face side are formed on the two sides of the turbulent flow face respectively, and the first turbulent flow face side is not higher than the bottom wall of the tool apron body. According to the tool apron, the first turbulent flow ribs are arranged on the bottom wall of the tool apron body, when food materials are whipped, the first turbulent flow ribs not only can play a role in turbulent flow on the food materials, but also can throw up the food materials sinking to the bottom wall of the tool apron body again to be whipped by blades of the stirring knife assembly, and the food whipping effect and efficiency are effectively improved. The utility model also provides a stirring mechanism and a stirrer.

Description

Technical Field

[0001] This utility model relates to the field of mixers, and in particular to a blade holder, a mixing mechanism, and a mixer. Background Technology

[0002] A blender is a machine that uses a motor to drive a blending blade assembly to crush and squeeze food. The motor can reach speeds of over 25,000 rpm, so the blending blade assembly driven by the motor can instantly break down the cell walls of fruits and vegetables, thus effectively extracting phytochemicals. It is a preferred home appliance for modern home health and wellness.

[0003] Currently, the bottom wall of the blade assembly of most blenders on the market is a flat structure. When the blending blade assembly rotates and blends the food, the food will rotate along with it, resulting in some food not being blended or the effect being poor. In addition, there is a certain distance between the blade of the blending blade assembly and the bottom wall of the blade assembly. The food will sink to the bottom wall of the blade assembly due to its own weight. At this time, these foods are not easy to contact the blade of the blending blade assembly, resulting in some foods not being blended or the effect being poor. Utility Model Content

[0004] To overcome the shortcomings of existing technologies, this utility model provides a blade holder with a first baffle rib on the bottom wall of its body. The baffle surface of the first baffle rib gradually bulges along a first clockwise direction. When mixing food, the first baffle rib not only turbulent the food but also throws the food that has sunk to the bottom wall of the base body back up to be mixed by the blades of the mixing blade assembly. This allows the food to impact the blades of the mixing blade assembly at a higher frequency, thereby effectively improving the mixing effect and efficiency. This utility model also provides a mixing mechanism and a mixer.

[0005] To achieve the above objectives, the present invention employs the following technical solution:

[0006] A blade holder includes a blade holder body. The bottom wall of the blade holder body is provided with a stirring blade mounting structure for rotatably mounting a stirring blade assembly. The bottom wall of the blade holder body is provided with a first turbulence rib. The first turbulence rib extends from the stirring blade mounting structure toward the edge of the blade holder body. The top surface of the turbulence rib is formed as a turbulence surface. Along a first clockwise direction, the first turbulence rib gradually protrudes from the bottom wall of the blade holder body. The lower side of the turbulence surface in the first clockwise direction is formed as a first turbulence surface side, and the higher side is formed as a second turbulence surface side. The first turbulence surface side is not higher than the bottom wall of the blade holder body.

[0007] Specifically, the first clockwise direction is either clockwise or counterclockwise.

[0008] With the above technical solution, since the first baffle rib protrudes from the bottom wall of the blade holder body, when the mixing blade assembly rotates to mix the food, the food will be driven by the mixing blade assembly to rotate with the mixing blade assembly. During the process of the food rotating with the mixing blade assembly, it will come into contact with the first baffle rib, which will play a baffle effect on the food, so that the food can hit the blade on the mixing blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0009] When the stirring blade assembly rotates in the first clockwise direction, the food also rotates in the first clockwise direction. When the food enters the first turbulence rib from the bottom wall of the blade holder body, the food will first contact the first turbulence surface side of the first turbulence rib. Since the first turbulence surface side is not higher than the bottom wall of the blade holder body, the food can smoothly pass through the first turbulence surface side of the first turbulence rib to reach the turbulence surface of the first turbulence rib and will not be blocked on the first turbulence surface side of the first turbulence rib.

[0010] Furthermore, since the first baffle rib gradually protrudes from the bottom wall of the blade holder body along the first clockwise direction, when the food rotates along the first clockwise direction with the mixing blade assembly, the food will pass through the first baffle rib. When the food passes through the first baffle rib, the food will move along the baffle surface of the first baffle rib, that is, the food will gradually rise. When the food leaves the first baffle rib, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body to be thrown up again and come into contact with the blades in the mixing blade assembly. The above technical solution further increases the frequency of the food hitting the blades in the mixing blade assembly, and further improves the effect and efficiency of food mixing.

[0011] Furthermore, there is a smooth transition between the first turbulence surface and the bottom wall of the tool holder body.

[0012] By adopting the above technical solution, the setting of the first baffle rib is more reasonable. When the food enters the first baffle rib from the bottom wall of the knife holder body during rotation, it can enter the baffle surface more smoothly, ensuring the baffle effect of the first baffle rib.

[0013] Furthermore, along the direction from the stirring blade mounting structure toward the edge of the blade holder body, the turbulence surface includes a first turbulence surface segment near the stirring blade mounting structure, a second turbulence surface segment near the edge of the blade holder body, and a third turbulence surface segment located between the first turbulence surface segment and the second turbulence surface segment;

[0014] The side of the first turbulence surface segment away from the third turbulence surface segment is higher than the side of the first turbulence surface segment facing the third turbulence surface segment, and the first turbulence surface segment is smooth along the direction from the side of the first turbulence surface segment away from the third turbulence surface segment to the side of the first turbulence surface segment facing the third turbulence surface segment; the side of the second turbulence surface segment away from the third turbulence surface segment is higher than the side of the second turbulence surface segment facing the third turbulence surface segment, and the second turbulence surface segment is smooth along the direction from the side of the second turbulence surface segment away from the third turbulence surface segment to the side of the second turbulence surface segment facing the third turbulence surface segment.

[0015] Specifically, the first turbulence surface segment adopts an inclined surface or an arc-shaped concave surface to achieve a smooth shape, and the second turbulence surface segment adopts an inclined surface or an arc-shaped concave surface to achieve a smooth shape.

[0016] When the food is rotating, it may move toward the stirring blade mounting structure or toward the edge of the blade holder body due to collisions between food items.

[0017] Using the above technical solution, when the food is in the first turbulence rib, if the food moves towards the stirring blade mounting structure side, the food will enter the first turbulence surface section and move along the first turbulence surface section. Since the side of the first turbulence surface section away from the third turbulence surface section is higher than the side of the first turbulence surface section facing the third turbulence surface section, and the first turbulence surface section is smooth, the food will be gradually lifted. When the food leaves the first turbulence surface section, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body to be thrown up again and contact the blades in the stirring blade assembly, thereby increasing the frequency of the food hitting the blades in the stirring blade assembly, improving the food mixing effect and efficiency, and enabling the food to move back towards the third turbulence surface section.

[0018] If the food moves towards the edge of the blade holder body at this time, the food will enter the second turbulence surface section and move along the second turbulence surface section. Since the side of the second turbulence surface section away from the third turbulence surface section is higher than the side of the second turbulence surface section facing the third turbulence surface section, and the second turbulence surface section is smooth, the food will be gradually lifted. When the food leaves the second turbulence surface section, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body to be thrown up again and come into contact with the blades in the mixing blade assembly, thereby increasing the frequency of the food hitting the blades in the mixing blade assembly, improving the effect and efficiency of food mixing, and enabling the food to move back towards the third turbulence surface section.

[0019] Furthermore, along the direction from the stirring blade mounting structure toward the edge of the blade holder body, the upper surface of the bottom wall of the blade holder body includes a first bottom wall segment near the stirring blade mounting structure, a second bottom wall segment near the edge of the blade holder body, and a third bottom wall segment located between the first bottom wall segment and the second bottom wall segment;

[0020] The side of the first bottom wall segment away from the third bottom wall segment is higher than the side of the first bottom wall segment facing the third bottom wall segment, and the first bottom wall segment is smooth along the direction from the side of the first bottom wall segment away from the third bottom wall segment to the side of the first bottom wall segment facing the third bottom wall segment; the side of the second bottom wall segment away from the third bottom wall segment is higher than the side of the second bottom wall segment facing the third bottom wall segment, and the second bottom wall segment is smooth along the direction from the side of the second bottom wall segment away from the third bottom wall segment to the side of the second bottom wall segment facing the third bottom wall segment.

[0021] Specifically, the first bottom wall section adopts a sloping or arc-shaped concave surface to achieve a smooth shape, and the second bottom wall section adopts a sloping or arc-shaped concave surface to achieve a smooth shape.

[0022] When the food is rotating, it may move toward the stirring blade mounting structure or toward the edge of the blade holder body due to collisions between food items.

[0023] Using the above technical solution, when the food is on the bottom wall of the blade holder body, if the food moves towards the stirring blade mounting structure side, the food will enter the first bottom wall section and move along the first bottom wall section. Since the side of the first bottom wall section away from the third bottom wall section is higher than the side of the first bottom wall section facing the third bottom wall section, and the first bottom wall section is smooth, the food will be gradually lifted. When the food leaves the first bottom wall section, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body to be thrown up again and contact the blades in the stirring blade assembly, thereby increasing the frequency of the food hitting the blades in the stirring blade assembly, improving the food mixing effect and efficiency, and enabling the food to move back towards the third bottom wall section.

[0024] If the food moves towards the edge of the blade holder body at this time, the food will enter the second bottom wall section and move along the second bottom wall section. Since the side of the second bottom wall section away from the third bottom wall section is higher than the side of the second bottom wall section facing the third bottom wall section, and the second bottom wall section is smooth, the food will be gradually lifted. When the food leaves the second bottom wall section, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body to be thrown up again and come into contact with the blades in the mixing blade assembly, thereby increasing the frequency of the food hitting the blades in the mixing blade assembly, improving the effect and efficiency of food mixing, and enabling the food to move back towards the third bottom wall section.

[0025] Furthermore, the third turbulence surface segment and the third bottom wall segment are approximately planar; along the direction from the side of the first turbulence surface segment toward the third turbulence surface segment to the side of the first turbulence surface segment away from the third turbulence surface segment, the distance between the portion of the second turbulence surface segment in the first turbulence surface segment and the first bottom wall segment gradually decreases; along the direction from the side of the second turbulence surface segment toward the third turbulence surface segment to the side of the second turbulence surface segment away from the third turbulence surface segment, the distance between the portion of the second turbulence surface segment in the second turbulence surface segment and the second bottom wall segment gradually decreases;

[0026] The distance between the portion of the second turbulence surface on the third turbulence surface section and the third bottom wall end is 2 mm.

[0027] By adopting the above technical solution, the structure of the first bleed rib is made more reasonable.

[0028] Furthermore, there are multiple first flow deflectors, which are spaced apart along the circumference of the tool holder body.

[0029] By adopting the above technical solution, the setting of the first turbulence ribs is more reasonable, and multiple first turbulence ribs can better turbulent the food, so that the food can hit the blades on the mixing blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0030] Specifically, multiple first flow-deflecting ribs are arranged at equal intervals along the circumference of the tool holder body, and there are three first flow-deflecting ribs.

[0031] Furthermore, the first turbulence ribs are distributed in a vortex shape on the bottom wall of the tool holder body;

[0032] Specifically, along the edge of the blade mounting structure towards the blade holder body, the first turbulence ribs bend and tilt towards the second clockwise direction, opposite to the first clockwise direction, to form a vortex-like distribution.

[0033] By adopting the above technical solution, the first baffle rib is made more reasonable, so that the first baffle rib can better act on the food during the rotation process.

[0034] Furthermore, the stirring blade mounting structure is provided with a through hole for the blade shaft, which matches the blade shaft of the stirring blade assembly so that the blade shaft of the stirring blade assembly can pass through.

[0035] By adopting the above technical solution, the installation structure of the stirring blade is made more reasonable. Specifically, the blade shaft of the stirring blade assembly can pass through the blade shaft through hole to realize the rotational installation of the stirring blade assembly, and can be driven to connect with the external drive structure.

[0036] Furthermore, the stirring blade mounting structure is located at the center of the bottom wall of the blade holder body.

[0037] By adopting the above technical solution, the structure of the tool holder becomes more reasonable.

[0038] Furthermore, the tool holder includes a tool holder housing, and the tool holder body is disposed within the tool holder housing;

[0039] Specifically, the tool holder housing includes a housing wall and an inner wall of the housing wall forming a first support portion radially inward, and an outer wall of the tool holder body forming a second support portion radially outward. When the tool holder body is located within the housing wall, the first support portion is supported below the second support portion. The first support portion has a positioning groove on the side facing the second support portion, and the second support portion has a positioning post matching the positioning groove on the side facing the first support portion. The first support portion and the second support portion are fixed together by fasteners. Specifically, the positioning post is inserted into the positioning groove and fixedly connected by fasteners, the fasteners being screws.

[0040] By adopting the above technical solution, the structure of the blade holder is more reasonable. The blade holder shell provides an installation base for the blade holder body, and the blade holder shell can be used to connect with the mixing cup. Moreover, the above structure facilitates actual production and installation.

[0041] Furthermore, the tool holder includes a cup-body mounting trigger and a trigger reset member. The cup-body mounting trigger is disposed on the first support portion and can move along the axis of the tool holder housing. The trigger reset member acts on the cup-body mounting trigger, causing the upper end of the cup-body mounting trigger to tend to move towards the upper surface of the first support portion. When the cup-body mounting trigger moves downward along the axis of the tool holder housing, the lower end of the cup-body mounting trigger can protrude from the lower surface of the first support portion.

[0042] Using the above technical solution, when the stirring cup is installed on the blade holder, the stirring cup will act on the upper end of the cup body mounting trigger, causing the cup body mounting trigger to move downward, thereby causing the lower end of the cup body mounting trigger to protrude from the lower surface of the first support to trigger the trigger switch; when the stirring cup is removed from the blade holder, the cup body mounting trigger will be reset under the action of the trigger reset member;

[0043] Specifically, the cup body is fitted with a trigger close to the inner wall of the outer casing.

[0044] Furthermore, the first support portion includes a first upper support portion and a first lower support portion located below the first upper support portion, with an installation gap formed between the first upper support portion and the first lower support portion. The cup body installation trigger includes a cup body installation trigger body located in the installation gap, a first trigger portion disposed above the cup body installation trigger body, and a second trigger portion disposed below the cup body installation trigger body. Correspondingly, the first upper support portion has a first trigger engagement hole at the position corresponding to the first trigger portion for the first trigger portion to extend out, and the first lower support portion has a second trigger engagement hole at the position corresponding to the second trigger portion for the second trigger portion to extend out. The trigger reset member is a spring, and both ends of the trigger reset member abut against the first lower support portion and the cup body installation trigger body, respectively.

[0045] By adopting the above technical solution, the structure of the first support and the cup body mounting trigger is more reasonable; specifically, the lower part of the first support is detachable to facilitate the installation of the cup body mounting trigger and the trigger reset component.

[0046] A stirring mechanism includes a stirring blade assembly and the aforementioned blade holder, wherein the stirring blade assembly is rotatably mounted on a stirring blade mounting structure on the blade holder body.

[0047] By adopting the above technical solution, the stirring mechanism becomes more reasonable, and the special structure of the blade holder allows the ingredients to strike the blades on the stirring blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0048] A mixer includes a main unit, a mixing cup, and the aforementioned mixing mechanism; the mixing mechanism is disposed on the main unit, the cup is mounted on the mixing mechanism, and the blades of the mixing blade assembly are housed within the mixing cup; the main unit is provided with a drive structure, and the drive structure is used to drive the mixing blade assembly to rotate along a first clockwise direction.

[0049] By adopting the above technical solution, the mixer is made more reasonable. The special structure of the blade holder in the mixing mechanism allows the ingredients to hit the blades on the mixing blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0050] Specifically, the drive structure uses an electric motor.

[0051] Furthermore, a second turbulence rib is provided on the inner wall of the stirring cup, and the second turbulence rib extends along the height direction of the stirring cup.

[0052] By adopting the above technical solution, the second turbulence rib can act on the food to achieve a turbulence effect during the rotation of the food, so that the food can hit the blades on the mixing blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0053] Furthermore, there are multiple second turbulence ribs, and these multiple second turbulence ribs are distributed at intervals along the circumferential direction of the inner wall of the stirring cup.

[0054] By adopting the above technical solution, the setting of the second turbulence ribs is more reasonable. Multiple second turbulence ribs can better turbulent the food, so that the food can hit the blades on the mixing blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0055] Specifically, multiple second turbulence ribs are distributed at equal intervals along the circumference of the inner wall of the stirring cup, and four first turbulence ribs are provided.

[0056] Furthermore, the stirring cup and the stirring mechanism are detachably connected.

[0057] The above technical solution makes the mixer more reasonable and easier to use in practice; specifically, the mixing cup and the mixing mechanism are detachably connected by a threaded connection.

[0058] Compared with the prior art, the present invention has the following beneficial effects:

[0059] (1) The blade holder, stirring mechanism and mixer of this utility model are provided with a first turbulence rib on the bottom wall of the blade holder body, and the turbulence surface of the first turbulence rib gradually protrudes along the first clockwise direction. When the food is stirred, the first turbulence rib can not only turbulent the food, but also throw the food that has sunk to the bottom wall of the base body up again and be stirred by the blade of the stirring blade assembly, so that the food can hit the blade on the stirring blade assembly at a higher frequency, thereby effectively improving the effect and efficiency of food stirring.

[0060] (2) The knife holder, stirring mechanism and mixer of this utility model are reasonably designed. Attached Figure Description

[0061] To more clearly illustrate the technical solutions of the embodiments of this application, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0062] Figure 1 This is a three-dimensional structural diagram of the tool holder of this utility model;

[0063] Figure 2 This is a three-dimensional structural diagram of the tool holder of this utility model from another angle;

[0064] Figure 3 This is a three-dimensional structural diagram of the tool holder body in the tool holder of this utility model;

[0065] Figure 4 This is a three-dimensional structural diagram of the outer shell of the tool holder in this utility model;

[0066] Figure 5 A three-dimensional structural diagram of the stirring mechanism of this utility model;

[0067] Figure 6 This is a three-dimensional structural diagram of the mixer (main unit not shown) of this utility model;

[0068] Figure 7 This is a three-dimensional structural diagram of the mixing cup in the mixer of this utility model;

[0069] The component names corresponding to the various reference numerals in the figure are as follows: 1. Blade holder body; 101. Bottom wall; 101-1. First bottom wall section; 101-2. Second bottom wall section; 101-3. Third bottom wall section; 102. Stirring blade mounting structure; 102-1. Blade shaft through hole; 103. Second support part; 103-1. Positioning post; 2. First turbulence rib; 201. Turbulence surface; 201-1. First turbulence surface side; 201-2. Second turbulence surface side; 201-3. First turbulence surface section; 201-4. Second 201-5, Third spoiler section; 3, Tool holder housing; 301, Housing wall; 302, First support part; 302-1, Positioning groove; 302-2, Upper part of the first support; 302-21, First trigger mating hole; 302-3, Lower part of the first support; 302-31, Second trigger mating hole; 302-4, Installation interval; 4, Cup body mounting trigger; 401, Cup body mounting trigger body; 402, First trigger part; 403, Second trigger part; 5, Trigger reset part;

[0070] 100, blade holder; 200, stirring blade assembly; 300, stirring mechanism; 400, stirring cup; 400-1, second turbulence rib. Detailed Implementation

[0071] The present application will now be described in detail with reference to the accompanying drawings and specific embodiments.

[0072] The following specific examples illustrate the implementation of this application. Those skilled in the art can easily understand other advantages and effects of this application from the content disclosed in this specification. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of them. This application can also be implemented or applied through other different specific embodiments, and the details in this specification can also be modified or changed based on different viewpoints and applications without departing from the spirit of this application. It should be noted that, in the absence of conflict, the following embodiments and features in the embodiments can be combined with each other. Based on the embodiments in this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0073] It should be noted that various aspects of embodiments within the scope of the appended claims are described below. It will be apparent that the aspects described herein can be embodied in a wide variety of forms, and any particular structure and / or function described herein is merely illustrative. Based on this application, those skilled in the art will understand that one aspect described herein can be implemented independently of any other aspect, and two or more of these aspects can be combined in various ways. For example, any number and aspects set forth herein can be used to implement the device and / or practice the method. Additionally, this device and / or method can be implemented using structures and / or functionalities other than one or more of the aspects set forth herein.

[0074] It should also be noted that the illustrations provided in the following embodiments are only schematic representations of the basic concept of this application. The drawings only show the components related to this application and are not drawn according to the actual number, shape and size of the components in the actual implementation. In the actual implementation, the form, quantity and proportion of each component can be arbitrarily changed, and the layout of the components may also be more complex.

[0075] Additionally, specific details are provided in the following description to facilitate a thorough understanding of the examples. However, those skilled in the art will understand that practice can be carried out without these specific details.

[0076] In the description of this utility model, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "joining" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0077] The technical solutions provided by the various embodiments of this application are described below with reference to the accompanying drawings.

[0078] See Figures 1 to 4This utility model provides a blade holder 100, including a blade holder body 1. The bottom wall 101 of the blade holder body 1 is provided with a stirring blade mounting structure 102 for rotatably mounting a stirring blade assembly 200. The bottom wall 101 of the blade holder body 1 is provided with a first turbulence rib 2. The first turbulence rib 2 extends from the stirring blade mounting structure 102 to the edge of the blade holder body 1. The top surface of the turbulence rib is formed as a turbulence surface 201. Along the first clockwise direction, the first turbulence rib 2 gradually protrudes from the bottom wall 101 of the blade holder body 1. The lower side of the turbulence surface 201 in the first clockwise direction is formed as a first turbulence surface side 201-1, and the higher side is formed as a second turbulence surface side 201-2. The first turbulence surface side 201-1 is not higher than the bottom wall 101 of the blade holder body 1.

[0079] Specifically, the first clockwise direction is either clockwise or counterclockwise.

[0080] By adopting the above technical solution, since the first turbulence rib 2 protrudes from the bottom wall 101 of the blade holder body 1, when the stirring blade assembly 200 rotates to stir the food, the food will be driven by the stirring blade assembly 200 to rotate with the stirring blade assembly 200. During the process of the food rotating with the stirring blade assembly 200, it will come into contact with the first turbulence rib 2, which will play a turbulence role on the food, so that the food can hit the blade on the stirring blade assembly 200 at a higher frequency, thereby effectively improving the effect and efficiency of food stirring.

[0081] When the stirring blade assembly 200 rotates in the first clockwise direction, the food also rotates in the first clockwise direction. When the food enters the first turbulence rib 2 from the bottom wall 101 of the blade holder body 1, the food will first contact the first turbulence surface side 201-1 of the first turbulence rib 2. Since the first turbulence surface side 201-1 is not higher than the bottom wall 101 of the blade holder body 1, the food can pass smoothly through the first turbulence surface side 201-1 of the first turbulence rib 2 to reach the turbulence surface 201 of the first turbulence rib 2, and will not be blocked on the first turbulence surface side 201-1 of the first turbulence rib 2.

[0082] Furthermore, since the first baffle 2 gradually protrudes from the bottom wall 101 of the blade holder body 1 along the first clockwise direction, when the food rotates along the first clockwise direction with the stirring blade assembly 200, the food will pass through the first baffle 2. When the food passes through the first baffle 2, the food will move along the baffle surface 201 of the first baffle 2, that is, the food will gradually rise. When the food leaves the first baffle 2, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body 1 to be thrown up again and contact the blades in the stirring blade assembly 200. The above technical solution further increases the frequency of the food hitting the blades in the stirring blade assembly 200, and further improves the effect and efficiency of food mixing.

[0083] Furthermore, there is a smooth transition between the first turbulence surface side 201-1 and the bottom wall 101 of the knife holder body 1.

[0084] By adopting the above technical solution, the setting of the first turbulence rib 2 is more reasonable. When the food enters the first turbulence rib 2 from the bottom wall 101 of the knife holder body 1 during the rotation process, it can enter the turbulence surface 201 more smoothly, thus ensuring the turbulence effect of the first turbulence rib 2.

[0085] Furthermore, along the direction from the stirring blade mounting structure 102 toward the edge of the blade holder body 1, the turbulence surface 201 includes a first turbulence surface segment 201-3 near the stirring blade mounting structure 102, a second turbulence surface segment 201-4 near the edge of the blade holder body 1, and a third turbulence surface segment 201-5 located between the first turbulence surface segment 201-3 and the second turbulence surface segment 201-4;

[0086] The side of the first turbulence surface segment 201-3 away from the third turbulence surface segment 201-5 is higher than the side of the first turbulence surface segment 201-3 facing the third turbulence surface segment 201-5, and the first turbulence surface segment 201-3 is smooth along the direction from the side of the first turbulence surface segment 201-3 away from the third turbulence surface segment 201-5 to the side of the first turbulence surface segment 201-3 facing the third turbulence surface segment 201-5; the side of the second turbulence surface segment 201-4 away from the third turbulence surface segment 201-5 is higher than the side of the second turbulence surface segment 201-4 facing the third turbulence surface segment 201-5, and the second turbulence surface segment 201-4 is smooth along the direction from the side of the second turbulence surface segment 201-4 away from the third turbulence surface segment 201-5 to the side of the second turbulence surface segment 201-4 facing the third turbulence surface segment 201-5.

[0087] Specifically, the first turbulence surface section 201-3 adopts an inclined surface or an arc-shaped concave surface to achieve a smooth shape, and the second turbulence surface section 201-4 adopts an inclined surface or an arc-shaped concave surface to achieve a smooth shape.

[0088] When the food is rotating, it may move toward the stirring blade mounting structure 102 or toward the edge of the blade holder body 1 due to collisions between food items.

[0089] Using the above technical solution, when the food is in the first turbulence rib 2, if the food moves towards the stirring blade mounting structure 102, the food will enter the first turbulence surface section 201-3 and move along the first turbulence surface section 201-3. Since the side of the first turbulence surface section 201-3 away from the third turbulence surface section 201-5 is higher than the side of the first turbulence surface section 201-3 facing the third turbulence surface section 201-5, and the first turbulence surface section 201-3 is smooth, the food will be gradually lifted. When the food leaves the first turbulence surface section 201-3, the food will be thrown up due to its inertia, achieving a stirring effect. This allows the food that has sunk to the bottom of the blade holder body 1 to be thrown up again and contact the blade in the stirring blade assembly 200, thereby increasing the frequency of the food hitting the blade in the stirring blade assembly 200, improving the food stirring effect and efficiency, and enabling the food to move back towards the third turbulence surface section 201-5.

[0090] If the food moves towards the edge of the blade body 1, it will enter the second turbulence surface section 201-4 and move along it. Since the side of the second turbulence surface section 201-4 away from the third turbulence surface section 201-5 is higher than the side of the second turbulence surface section 201-4 facing the third turbulence surface section 201-5, and the second turbulence surface section 201-4 is smooth, the food will be gradually lifted. When the food leaves the second turbulence surface section 201-4, it will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade body 1 to be thrown up again and contact the blades in the mixing blade assembly 200, thereby increasing the frequency of the food hitting the blades in the mixing blade assembly 200, improving the effect and efficiency of food mixing, and enabling the food to move back towards the third turbulence surface section 201-5.

[0091] Furthermore, along the direction from the stirring blade mounting structure 102 toward the edge of the blade holder body 1, the upper surface of the bottom wall 101 of the blade holder body 1 includes a first bottom wall segment 101-1 near the stirring blade mounting structure 102, a second bottom wall segment 101-2 near the edge of the blade holder body 1, and a third bottom wall segment 101-3 located between the first bottom wall segment 101-1 and the second bottom wall segment 101-2;

[0092] The side of the first bottom wall segment 101-1 away from the third bottom wall segment 101-3 is higher than the side of the first bottom wall segment 101-1 facing the third bottom wall segment 101-3, and the first bottom wall segment 101-1 is smooth along the direction from the side of the first bottom wall segment 101-1 away from the third bottom wall segment 101-3 to the side of the first bottom wall segment 101-1 facing the third bottom wall segment 101-3; the side of the second bottom wall segment 101-2 away from the third bottom wall segment 101-3 is higher than the side of the second bottom wall segment 101-2 facing the third bottom wall segment 101-3, and the second bottom wall segment 101-2 is smooth along the direction from the side of the second bottom wall segment 101-2 away from the third bottom wall segment 101-3 to the side of the second bottom wall segment 101-2 facing the third bottom wall segment 101-3.

[0093] Specifically, the first bottom wall section 101-1 adopts a sloping surface or an arc-shaped concave surface to achieve a smooth shape, and the second bottom wall section 101-2 adopts a sloping surface or an arc-shaped concave surface to achieve a smooth shape.

[0094] When the food is rotating, it may move toward the stirring blade mounting structure 102 or toward the edge of the blade holder body 1 due to collisions between food items.

[0095] Using the above technical solution, when the food is on the bottom wall 101 of the blade holder body 1, if the food moves towards the stirring blade mounting structure 102, the food will enter the first bottom wall section 101-1 and move along the first bottom wall section 101-1. Since the side of the first bottom wall section 101-1 away from the third bottom wall section 101-3 is higher than the side of the first bottom wall section 101-1 facing the third bottom wall section 101-3, and the first bottom wall section 101-1 is smooth, the food will be gradually lifted. When the food leaves the first bottom wall section 101-1, the food will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade holder body 1 to be thrown up again and contact the blades in the stirring blade assembly 200, thereby increasing the frequency of the food hitting the blades in the stirring blade assembly 200, improving the food mixing effect and efficiency, and enabling the food to move back towards the third bottom wall section 101-3.

[0096] If the food moves towards the edge of the blade body 1, it will enter the second bottom wall section 101-2 and move along it. Since the side of the second bottom wall section 101-2 away from the third bottom wall section 101-3 is higher than the side of the second bottom wall section 101-2 facing the third bottom wall section 101-3, and the second bottom wall section 101-2 is smooth, the food will be gradually lifted. When the food leaves the second bottom wall section 101-2, it will be thrown up due to its inertia, achieving a tumbling effect. This allows the food that has sunk to the bottom of the blade body 1 to be thrown up again and come into contact with the blades in the mixing blade assembly 200, thereby increasing the frequency of the food hitting the blades in the mixing blade assembly 200, improving the effect and efficiency of food mixing, and enabling the food to move back towards the third bottom wall section 101-3.

[0097] Furthermore, the third turbulence surface segment 201-5 and the third bottom wall segment 101-3 are approximately planar; along the direction from the side of the first turbulence surface segment 201-3 toward the third turbulence surface segment 201-5 to the side of the first turbulence surface segment 201-3 away from the third turbulence surface segment 201-5, the distance between the portion of the second turbulence surface side 201-2 in the first turbulence surface segment 201-3 and the first bottom wall segment 101-1 gradually decreases; along the direction from the side of the second turbulence surface segment 201-4 toward the third turbulence surface segment 201-5 to the side of the second turbulence surface segment 201-4 away from the third turbulence surface segment 201-5, the distance between the portion of the second turbulence surface side 201-2 in the second turbulence surface segment 201-4 and the second bottom wall segment 101-2 gradually decreases;

[0098] The distance between the second turbulence surface side 201-2 and the portion of the third turbulence surface section 201-5 and the end of the third bottom wall 101 is 2 mm.

[0099] By adopting the above technical solution, the structure of the first bleed rib 2 becomes more reasonable.

[0100] Furthermore, there are multiple first flow-deflecting ribs 2, and these multiple first flow-deflecting ribs 2 are arranged at circumferential intervals along the blade holder body 1.

[0101] By adopting the above technical solution, the setting of the first turbulence rib 2 is more reasonable. Multiple first turbulence ribs 2 can better turbulent the food, so that the food can hit the blade on the mixing blade assembly 200 at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0102] Specifically, multiple first flow-deflecting ribs 2 are equally spaced along the circumference of the tool holder body 1, and there are three first flow-deflecting ribs 2.

[0103] Furthermore, the plurality of the first turbulence ribs 2 are distributed in a vortex shape on the bottom wall 101 of the knife holder body 1;

[0104] Specifically, along the edge of the blade mounting structure 102 towards the blade holder body 1, the first turbulence rib 2 bends and tilts in a second clockwise direction opposite to the first clockwise direction to form a vortex-like distribution.

[0105] By adopting the above technical solution, the first deflector 2 is made more reasonable, so that the first deflector 2 can better act on the food during the rotation process.

[0106] Furthermore, the stirring blade mounting structure 102 is provided with a blade shaft through hole 102-1 that penetrates through itself. The blade shaft through hole 102-1 matches the blade shaft of the stirring blade assembly 200 so that the blade shaft of the stirring blade assembly 200 can pass through.

[0107] By adopting the above technical solution, the stirring blade mounting structure 102 is made more reasonable. Specifically, the blade shaft of the stirring blade assembly 200 can pass through the blade shaft through hole 102-1 to realize the rotational mounting of the stirring blade assembly 200, and can be driven to connect with the external driving structure.

[0108] Furthermore, the stirring blade mounting structure 102 is located at the center of the bottom wall 101 of the blade holder body 1.

[0109] By adopting the above technical solution, the structure of the tool holder 100 becomes more reasonable.

[0110] Furthermore, the tool holder 100 includes a tool holder housing 3, and the tool holder body 1 is disposed in the tool holder housing 3;

[0111] Specifically, the tool holder housing 3 includes a housing wall 301, and a first support portion 302 formed radially inward on the inner wall of the housing wall 301. A second support portion 103 is formed radially outward on the outer wall of the tool holder body 1. When the tool holder body 1 is located in the housing wall 301, the first support portion 302 is supported below the second support portion 103. A positioning groove 302-1 is provided on the side of the first support portion 302 facing the second support portion 103. A positioning post 103-1 matching the positioning groove 302-1 is provided on the side of the second support portion 103 facing the first support portion 302. The first support portion 302 and the second support portion 103 are fixed together by fasteners. Specifically, the positioning post 103-1 is inserted into the positioning groove 302-1 and fixedly connected by fasteners, the fasteners being screws.

[0112] By adopting the above technical solution, the structure of the knife holder 100 is more reasonable, the knife holder shell 3 provides an installation base for the knife holder body 1, and the knife holder 100 shell can be used to connect with the stirring cup 400; and the above structure facilitates actual production and installation.

[0113] Furthermore, the blade holder 100 includes a cup-body mounting trigger 4 and a trigger reset member 5. The cup-body mounting trigger 4 is disposed on the first support portion 302, and the cup-body mounting trigger 4 can move along the axis of the blade holder housing 3. The trigger reset member 5 acts on the cup-body mounting trigger 4, causing the upper end of the cup-body mounting trigger 4 to tend to move towards the upper surface of the first support portion 302. When the cup-body mounting trigger 4 moves downward along the axis of the blade holder housing 3, the lower end of the cup-body mounting trigger 4 can protrude from the lower surface of the first support portion 302.

[0114] Using the above technical solution, when the stirring cup 400 is installed on the blade holder 100, the stirring cup 400 will act on the upper end of the cup body mounting trigger 4, causing the cup body mounting trigger 4 to move downward, thereby causing the lower end of the cup body mounting trigger 4 to protrude from the lower surface of the first support 302 to trigger the trigger switch; when the stirring cup 400 is removed from the blade holder 100, the cup body mounting trigger 4 will be reset under the action of the trigger reset member 5;

[0115] Specifically, the cup body mounting trigger 4 is positioned close to the inner wall of the outer casing 301.

[0116] Further, the first support portion 302 includes a first upper support portion 302-2 and a first lower support portion 302-3 located below the first upper support portion 302-2, and an installation interval 302-4 is formed between the first upper support portion 302-2 and the first lower support portion 302-3. The cup body installation trigger 4 includes a cup body installation trigger body 401 located in the installation interval 302-4, a first trigger portion 402 disposed above the cup body installation trigger body 401, and a trigger portion 402 disposed below the cup body installation trigger body 401. The second trigger part 403; correspondingly, the upper part of the first support 302-2 is provided with a first trigger mating hole 302-21 for the first trigger part 402 to extend out at the position corresponding to the first trigger part 402, and the lower part of the first support 302-3 is provided with a second trigger mating hole 302-31 for the second trigger part 403 to extend out at the position corresponding to the second trigger part 403; the trigger reset member 5 is a spring, and the two ends of the trigger reset member 5 abut against the lower part of the first support 302-3 and the cup body mounting trigger body 401, respectively.

[0117] By adopting the above technical solution, the structure of the first support part 302 and the cup body installation trigger 4 is more reasonable; specifically, the lower part 302-3 of the first support is detachable to facilitate the installation of the cup body installation trigger 4 and the trigger reset part 5.

[0118] See Figures 1 to 5 A stirring mechanism 300 includes a stirring blade assembly 200 and the aforementioned blade holder 100, wherein the stirring blade assembly 200 is rotatably mounted on the stirring blade mounting structure 102 of the blade holder body 1.

[0119] By adopting the above technical solution, the stirring mechanism 300 is made more reasonable, and the special structural design of the blade holder 100 allows the ingredients to hit the blades on the stirring blade assembly 200 at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0120] See Figures 1 to 7 A mixer includes a main unit, a mixing cup 400, and the aforementioned mixing mechanism 300; the mixing mechanism 300 is disposed on the main unit, the cup is mounted on the mixing mechanism 300, and the blades of the mixing blade assembly 200 are housed within the mixing cup 400; the main unit is provided with a drive structure, and the drive structure is used to drive the mixing blade assembly 200 to rotate along a first clockwise direction.

[0121] By adopting the above technical solution, the mixer is made more reasonable. The special structure of the blade holder 100 in the mixing mechanism 300 allows the ingredients to hit the blades on the mixing blade assembly 200 at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0122] Specifically, the drive structure uses an electric motor.

[0123] Furthermore, a second turbulence rib 400-1 is provided on the inner wall of the stirring cup 400, and the second turbulence rib 400-1 extends along the height direction of the stirring cup 400.

[0124] By adopting the above technical solution, the second turbulence rib 400-1 can act on the food to achieve a turbulence effect during the rotation of the food, so that the food can hit the blade on the mixing blade assembly 200 at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0125] Furthermore, there are multiple second turbulence ribs 400-1, and the multiple second turbulence ribs 400-1 are distributed at intervals along the circumferential direction of the inner wall of the stirring cup 400.

[0126] By adopting the above technical solution, the setting of the second turbulence rib 400-1 is more reasonable. Multiple second turbulence ribs 400-1 can better turbulent the food, so that the food can hit the blade on the mixing blade assembly 200 at a higher frequency, thereby effectively improving the effect and efficiency of food mixing.

[0127] Specifically, multiple second turbulence ribs 400-1 are distributed at equal intervals along the circumference of the inner wall of the stirring cup 400, and four first turbulence ribs 2 are provided.

[0128] Furthermore, the stirring cup 400 and the stirring mechanism 300 are detachably connected.

[0129] The above technical solution makes the mixer more reasonable and easier to use in practice; specifically, the mixing cup 400 and the mixing mechanism 300 are detachably connected by a threaded connection.

[0130] The same or similar parts between the various embodiments in this specification can be referred to mutually. Each embodiment focuses on describing the differences from other embodiments.

[0131] The above description is merely a specific embodiment of this application, but the scope of protection of this application is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in this application should be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A tool holder (100) characterized by: The tool seat body (1) is provided with a bottom wall (101) provided with a stirring blade mounting structure (102) for rotatingly mounting a stirring blade assembly (200), and a first turbulence rib (2) is arranged on the bottom wall (101) of the tool seat body (1) and extends from the stirring blade mounting structure (102) to the edge of the tool seat body (1), the top surface of the turbulence rib is formed as a turbulence surface (201), the first turbulence rib (2) gradually protrudes from the bottom wall (101) of the tool seat body (1) in a first clockwise direction, and the lower side of the turbulence surface (201) in the first clockwise direction is formed as a first turbulence surface side (201-1) and the higher side is formed as a second turbulence surface side (201-2), and the first turbulence surface side (201-1) is not higher than the bottom wall (101) of the tool seat body (1).

2. The knife block (100) according to claim 1, characterized in that: The first turbulence surface side (201-1) and the bottom wall (101) of the tool seat body (1) are smoothly connected.

3. The knife block (100) of claim 1, characterized in that: Along the direction from the stirring blade mounting structure (102) to the edge of the tool seat body (1), the turbulence surface (201) comprises a first turbulence surface section (201-3) close to the stirring blade mounting structure (102), a second turbulence surface section (201-4) close to the edge of the tool seat body (1), and a third turbulence surface section (201-5) between the first turbulence surface section (201-3) and the second turbulence surface section (201-4); The side of the first turbulence surface section (201-3) away from the third turbulence surface section (201-5) is higher than the side of the first turbulence surface section (201-3) toward the third turbulence surface section (201-5), and the first turbulence surface section (201-3) is smoothly connected along the direction from the side of the first turbulence surface section (201-3) away from the third turbulence surface section (201-5) to the side of the first turbulence surface section (201-3) toward the third turbulence surface section (201-5); the side of the second turbulence surface section (201-4) away from the third turbulence surface section (201-5) is higher than the side of the second turbulence surface section (201-4) toward the third turbulence surface section (201-5), and the second turbulence surface section (201-4) is smoothly connected along the direction from the side of the second turbulence surface section (201-4) away from the third turbulence surface section (201-5) to the side of the second turbulence surface section (201-4) toward the third turbulence surface section (201-5).

4. The knife block (100) according to claim 3, characterized in that: Along the direction from the stirring blade mounting structure (102) to the edge of the tool seat body (1), the upper surface of the bottom wall (101) of the tool seat body (1) comprises a first bottom wall section (101-1) close to the stirring blade mounting structure (102), a second bottom wall section (101-2) close to the edge of the tool seat body (1), and a third bottom wall section (101-3) between the first bottom wall section (101-1) and the second bottom wall section (101-2); The side of the first bottom wall segment (101-1) away from the third bottom wall segment (101-3) is higher than the side of the first bottom wall segment (101-1) toward the third bottom wall segment (101-3), and the first bottom wall segment (101-1) is smooth along the direction from the side of the first bottom wall segment (101-1) away from the third bottom wall segment (101-3) to the side of the first bottom wall segment (101-1) toward the third bottom wall segment (101-3); the side of the second bottom wall segment (101-2) away from the third bottom wall segment (101-3) is higher than the side of the second bottom wall segment (101-2) toward the third bottom wall segment (101-3), and the second bottom wall segment (101-2) is smooth along the direction from the side of the second bottom wall segment (101-2) away from the third bottom wall segment (101-3) to the side of the second bottom wall segment (101-2) toward the third bottom wall segment (101-3).

5. The knife block (100) according to claim 4, characterized in that: The third spoiler surface segment (201-5) is substantially planar with the third bottom wall segment (101-3); along the direction from the side of the first spoiler surface segment (201-3) toward the third spoiler surface segment (201-5) to the side of the first spoiler surface segment (201-3) away from the third spoiler surface segment (201-5), the distance between the second spoiler surface side (201-2) and the first bottom wall segment (101-1) gradually decreases; along the direction from the side of the second spoiler surface segment (201-4) toward the third spoiler surface segment (201-5) to the side of the second spoiler surface segment (201-4) away from the third spoiler surface segment (201-5), the distance between the second spoiler surface side (201-2) and the second bottom wall segment (101-2) gradually decreases; The distance between the second spoiler surface side (201-2) and the third bottom wall (101) at the part of the third spoiler surface segment (201-5) is 2mm.

6. The knife block (100) of claim 1, characterized in that: The number of the first spoiler ribs (2) is multiple, and multiple first spoiler ribs (2) are arranged along the circumference of the tool seat body (1) at intervals; Multiple first spoiler ribs (2) are distributed in a vortex shape on the bottom wall (101) of the tool seat body (1); Along the direction from the stirring knife mounting structure (102) to the edge of the tool seat body (1), the first spoiler rib (2) is curved and inclined to the side of the second time direction opposite to the first time direction.

7. The knife block (100) of claim 1, characterized in that: The stirring knife mounting structure (102) is provided with a knife shaft through hole (102-1) penetrating itself, which matches the knife shaft of the stirring knife assembly (200) so that the knife shaft of the stirring knife assembly (200) can pass through; The stirring knife mounting structure (102) is located at the center position of the bottom wall (101) of the tool seat body (1); The tool holder (100) comprises a tool holder shell (3), and the tool holder body (1) is arranged in the tool holder shell (3); The tool holder shell (3) comprises a shell surrounding wall (301), and a first supporting part (302) is formed radially inwardly on an inner wall of the shell surrounding wall (301); an outer side wall of the tool holder body (1) forms a second supporting part (103) radially outwardly, and when the tool holder body (1) is arranged in the shell surrounding wall (301), the first supporting part (302) is supported below the second supporting part (103); a positioning groove (302-1) is arranged on one side of the first supporting part (302) towards the second supporting part (103), and a positioning column (103-1) matching the positioning groove (302-1) is arranged on one side of the second supporting part (103) towards the first supporting part (302); the first supporting part (302) and the second supporting part (103) are fixed through fasteners; The tool holder (100) comprises a cup body mounting trigger (4) and a trigger reset part (5); the cup body mounting trigger (4) is arranged on the first supporting part (302), and the cup body mounting trigger (4) is movable along an axis of the tool holder shell (3); the trigger reset part (5) acts on the cup body mounting trigger (4) so that an upper end of the cup body mounting trigger (4) has a tendency to move out of a side of an upper surface of the first supporting part (302); when the cup body mounting trigger (4) moves downwardly along the axis of the tool holder shell (3), a lower end of the cup body mounting trigger (4) can protrude out of a lower surface of the first supporting part (302); The first supporting part (302) comprises a first supporting upper part (302-2) and a first supporting lower part (302-3) below the first supporting upper part (302-2), and a mounting interval (302-4) is formed between the first supporting upper part (302-2) and the first supporting lower part (302-3); the cup body mounting trigger (4) comprises a cup body mounting trigger body (401) arranged in the mounting interval (302-4), a first trigger part (402) arranged above the cup body mounting trigger body (401), and a second trigger part (403) arranged below the cup body mounting trigger body (401); correspondingly, the first supporting upper part (302-2) is provided with a first trigger cooperation hole (302-21) at a position corresponding to the first trigger part (402) so that the first trigger part (402) can protrude out of the first trigger cooperation hole (302-21); the first supporting lower part (302-3) is provided with a second trigger cooperation hole (302-31) at a position corresponding to the second trigger part (403) so that the second trigger part (403) can protrude out of the second trigger cooperation hole (302-31); the trigger reset part (5) is a spring, and two ends of the trigger reset part (5) respectively abut against the first supporting lower part (302-3) and the cup body mounting trigger body (401).

8. A stirring mechanism (300) characterized by: The stirring blade assembly (200) is rotatably installed on the stirring blade installation structure (102) of the blade seat body (1).

9. A blender characterized by: The main machine, the stirring cup (400), and the stirring mechanism (300) of claim 8 are provided; the stirring mechanism (300) is arranged on the main machine, the cup body is arranged on the stirring mechanism (300), and the blade in the stirring blade assembly (200) is accommodated in the stirring cup (400); a driving structure is arranged in the main machine, and the driving structure is used to drive the stirring blade assembly (200) to rotate in the first clock direction.

10. The blender of claim 9, wherein: A second turbulence rib (400-1) is arranged on the inner wall of the stirring cup (400) in a protruding manner, and the second turbulence rib (400-1) is arranged in an extending manner along the height direction of the stirring cup (400); The number of the second turbulence ribs (400-1) is multiple, and the multiple second turbulence ribs (400-1) are arranged in a spaced distribution along the circumference of the inner wall of the stirring cup (400); The stirring cup (400) and the stirring mechanism (300) are detachably connected.

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