Evaporator dehumidification structure and smoothie machine

Abstract

The utility model relates to an evaporator dehumidification structure and a smoothie machine, and belongs to the field of household appliances. An evaporator dehumidification structure comprises a shell assembly, a heat exchanger assembly and a heat exchanger assembly, and the shell assembly is provided with a stirring cavity and a mounting cavity; the evaporator is arranged on the shell assembly; the partition piece covers the limiting part of the evaporator; and the stirring assembly is arranged on the evaporator and surrounds the limiting part. The separating piece is arranged on the evaporator and covers the limiting part of the evaporator, so that the effect of preventing condensate water from being generated is achieved. The separator can separate the contact between the limiting part and the outside, thereby reducing the generation of condensed water and preventing the condensed water from damaging other parts in the equipment.

Description

TECHNICAL FIELD

[0001] The utility model relates to the field of household appliances, in particular to evaporimeter dehumidification structure and ice slush machine. BACKGROUND

[0002] In the current catering industry, ice slush has become a popular summer refreshment among consumers in the hot summer due to its refreshing taste. As the core equipment for making ice slush, ice slush machines play an indispensable role in various beverage stores and restaurant kitchens. One of the main functions of ice slush machines is refrigeration, which cools the mixture to an appropriate temperature through a refrigeration system, thereby producing refreshing and delicious ice slush. However, during actual operation, ice slush machines are prone to produce condensate water when refrigerating, which can damage internal components, seriously affecting the performance and service life of the ice slush machine. SUMMARY

[0003] Therefore, it is necessary to provide an evaporimeter dehumidification structure and ice slush machine to address the problem of condensate water being produced when the ice slush machine is refrigerating, which can damage internal components.

[0004] An evaporimeter dehumidification structure, comprising:

[0005] A housing assembly is provided with a stirring cavity and a mounting cavity, and the housing assembly is provided with a mounting opening, and the stirring cavity is in communication with the mounting cavity through the mounting opening;

[0006] An evaporimeter is arranged on the housing assembly, and the mounting position of the evaporimeter and the housing assembly is located at the mounting opening, and the evaporimeter comprises an evaporimeter body and a limiting portion, the limiting portion is arranged on the evaporimeter body and located at one end of the evaporimeter body, the evaporimeter body (21) is arranged in the mounting opening, and the limiting portion is located in the mounting cavity and abuts against the side wall of the mounting opening;

[0007] A partition is arranged on the evaporimeter and located in the mounting cavity, and the partition covers the evaporimeter around the limiting portion;

[0008] A stirring assembly is arranged on the evaporimeter and surrounds the evaporimeter.

[0009] The first aspect of the application discloses an evaporator dehumidification structure which is arranged on an evaporator through a partition and covers a limiting part, and the partition can block the generation of condensed water. The partition can separate the limiting part from the outside environment, reduce the generation of condensed water, prevent the condensed water from damaging other components inside the equipment, such as avoiding the condensed water from contacting electrical elements to cause short circuit and other problems, and also help to keep the materials in the installation cavity dry to ensure that the product quality is not affected by water vapor. The installation position of the evaporator and the shell assembly is located at the installation port, and this design provides a stable installation foundation for the evaporator. The structure of the installation port can effectively support and position the evaporator, so that the evaporator is not easy to displace or shake during the operation of the equipment. The vibration and force generated by the stirring assembly during operation are transmitted to the shell assembly through the close connection with the evaporator, and the components cooperate with each other to bear various forces during the operation of the equipment, thereby reducing the stress burden of a single component and improving the reliability and durability of the entire evaporator dehumidification structure. The shell assembly is provided with a stirring cavity and an installation cavity, and is connected through the installation port, and this space layout reasonably utilizes the internal space of the equipment. The arrangement of the evaporator, the partition and the stirring assembly in the installation cavity is compact and orderly, which not only meets the realization of their respective functions, but also ensures the compactness of the overall structure of the equipment. The stirring assembly is arranged around the evaporator, which can make the stirring effect better.

[0010] In one embodiment, the transition cavity is arranged opposite to the stirring cavity, and the shell assembly is provided with a waste liquid port communicating with the transition cavity. By arranging the transition cavity opposite to the stirring cavity, and providing the shell assembly with a waste liquid port communicating with the transition cavity, the transition cavity can concentrate and collect the waste liquid generated on the outer wall of the stirring cavity, avoiding the waste liquid from flowing randomly inside the equipment. Through the waste liquid port, the condensed waste liquid collected in the transition cavity can be conveniently discharged from the equipment. The arrangement of the waste liquid port makes the cleaning work of the condensed waste liquid simple and convenient.

[0011] In one of the embodiments, the shell assembly comprises a mounting shell, a stirring bin and a bottom shell, the stirring bin is arranged on the mounting shell, the stirring bin and the mounting shell enclose the stirring cavity, the bottom shell is arranged on the mounting shell and the stirring bin, the bottom shell and the stirring bin enclose the transition cavity, the bottom shell is provided with a waste liquid port, the mounting shell is provided with the mounting cavity, and the evaporator is arranged on the mounting shell. The stirring bin is arranged on the mounting shell, and the stirring bin and the mounting shell enclose the stirring cavity. This structural design makes the stirring cavity have good integrity and stability. The stirring bin and the mounting shell cooperate with each other and can effectively withstand the vibration and impact force generated by the stirring assembly during the stirring process. The bottom shell is arranged on the mounting shell and the stirring bin, and encloses the transition cavity with the stirring bin. The bottom shell provides a solid bottom support for the transition cavity. At the same time, the connection of the bottom shell with the mounting shell and the stirring bin enhances the structural strength of the entire shell assembly, so that the equipment is more stable and reliable during operation. The structure that the stirring bin and the mounting shell enclose the stirring cavity makes the cleaning work of the stirring cavity more convenient. When the stirring cavity needs to be cleaned, the stirring bin can be disassembled from the mounting shell, and the inside of the stirring cavity can be cleaned comprehensively to remove residual materials and dirt.

[0012] In one of the embodiments, the control assembly is arranged on the mounting shell and located in the mounting cavity, and the mounting shell is provided with a gap which is in communication with the mounting cavity. The control assembly is arranged in the mounting cavity of the mounting shell, so that the key components of the evaporator, the stirring assembly and other equipment can be precisely controlled. Through the control assembly, the operator can easily adjust the refrigeration power of the evaporator.

[0013] In one of the embodiments, the mounting shell comprises a mounting shell body and a mounting block, the mounting shell body is provided with a mounting cavity, the mounting block is arranged on the mounting shell body and located in the mounting cavity, the control assembly is arranged on the mounting block, and the mounting shell body is provided with the gap, and the gap is arranged opposite to the control assembly. The mounting block is arranged in the mounting cavity of the mounting shell body, and the control assembly is mounted on the mounting block, which provides precise positioning and stable support for the control assembly. The mounting block can be specially designed according to the size and shape of the control assembly, so that the control assembly can tightly fit the mounting block and avoid displacement due to vibration or shaking during equipment operation. The control assembly is mounted on the mounting block, which realizes the modular design of the equipment. During the equipment production and assembly process, the control assembly and the mounting block can be pre-assembled and debugged as an independent module.

[0014] In one of the embodiments, the control assembly comprises a support shell, a control cover plate and a circuit board, the support shell is arranged on the mounting block, the control cover plate is arranged on the support shell and the control cover plate and the support shell enclose a circuit board mounting cavity, the circuit board is arranged on the support shell and located in the circuit board mounting cavity, and the control cover plate is provided with an air passage. By arranging the support shell on the mounting block, the control cover plate and the support shell enclose the circuit board mounting cavity, and the circuit board is enclosed therein. This structure can effectively block the dust, moisture and other impurities from the outside, so as to avoid the electronic components of the circuit board from being contaminated by dust or being corroded by moisture, and to avoid short circuit and corrosion. The design of the circuit board mounting cavity makes full use of the space, and the circuit board and related electronic components are concentrated in a compact space. At the same time, the structure of the support shell and the control cover plate can be optimized according to the space layout of the mounting cavity, so as to avoid interference with other components in the mounting cavity. This reasonable space utilization and layout helps to improve the integration and compactness of the whole device, realize more functions in limited space, and make the internal structure of the device more regular, which is convenient for later maintenance and repair. The existence of the air passage provides a basis for further heat dissipation measures.

[0015] In one of the embodiments, the stirring bin comprises a stirring bin body, a rear cover, a cover plate and a valve body assembly, the rear cover is arranged on the stirring bin body, the rear cover is provided with an opening, the evaporator passes through the opening, the rear cover abuts against the mounting shell, the stirring bin body, the rear cover and the mounting shell enclose the stirring cavity, the stirring bin body is provided with a feeding port communicating with the stirring cavity, the cover plate is rotationally arranged on the stirring bin body and located at the feeding port, the stirring bin body is provided with a discharging port communicating with the stirring cavity, and the valve body assembly is arranged on the stirring bin body and can open or close the discharging port. The rear cover is arranged on the stirring bin body and abuts against the mounting shell, and the three enclose the stirring cavity. This structure design makes the stirring cavity have good integrity and sealing performance. The stirring bin body, the rear cover and the mounting shell cooperate with each other and can effectively withstand the vibration and impact force generated by the stirring assembly during stirring. For example, when stirring high-viscosity materials, the stirring assembly exerts a large force on the inner wall of the stirring cavity, and the tightly enclosed structure can evenly distribute these forces to prevent the stirring cavity from deforming or being damaged, ensuring the continuous and stable operation of the stirring work. At the same time, the good sealing performance can prevent material leakage and the entry of foreign matter into the stirring cavity, affecting the quality of the material and the normal operation of the equipment. The rear cover is provided with an opening, and the evaporator passes through the opening. This design provides a stable mounting position for the evaporator, so that the evaporator can tightly fit the stirring bin. During the operation of the evaporator, the cooperation of the opening and the rear cover can effectively reduce the vibration of the evaporator transmitted to other parts of the stirring bin, ensuring the stable operation of the evaporator, while not affecting the stability of the overall structure of the stirring bin. The valve body assembly facilitates the control of discharging.

[0016] In one of the embodiments, the back cover comprises a back cover body and a buffer shell, the buffer shell is provided with a groove, the bottom wall and the side wall of the groove are provided with liquid passing openings, and the groove is arranged opposite to the feeding port. The buffer shell is located at the periphery of the evaporator passing through the opening, and the groove faces the feeding port. When the material is added from the feeding port, the buffer shell can buffer the added liquid to prevent splashing.

[0017] In one of the embodiments, the partition is foam cotton. When the evaporator is running, the surface temperature is low, and the ambient heat is easily transferred to the evaporator, thereby affecting the refrigeration and dehumidification efficiency of the evaporator and increasing the energy consumption. The foam cotton as the partition has good heat insulation performance and can effectively prevent the air in the mounting cavity from condensing around the part of the evaporator surrounding the mounting port.

[0018] In one of the embodiments, the partition is annular. The annular partition can perfectly fit the part of the evaporator surrounding the mounting port. Since the layout of the evaporator at the mounting port is annular, the annular partition can cover the corresponding area of the evaporator without gaps, ensuring comprehensive and close protection and heat insulation effect.

[0019] The second aspect of the present application discloses a smoothie maker, comprising:

[0020] The above-mentioned evaporator dehumidification structure.

[0021] The present application discloses a smoothie maker. When making smoothies, the evaporator dehumidification structure improves the overall performance of the smoothie maker, which helps to speed up the smoothie making process and reduce the impact of product condensate water on internal devices. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 It is a perspective view of the evaporator dehumidification structure;

[0023] Figure 2 It is the first exploded view of the evaporator dehumidification structure;

[0024] Figure 3 It is the second exploded view of the evaporator dehumidification structure;

[0025] Figure 4 It is the first sectional view of the evaporator dehumidification structure;

[0026] Figure 5 It is the second sectional view of the evaporator dehumidification structure;

[0027] Figure 6 It is a perspective view of the shell assembly;

[0028] Figure 7 It is a sectional view of the shell assembly;

[0029] Figure 8 This is an exploded view of the housing assembly;

[0030] Figure 9 This is a cross-sectional view of the exploded view of the housing assembly;

[0031] Figure 10 A 3D view of the control components;

[0032] Figure 11 This is a cross-sectional view of the control component.

[0033] The correspondence between the reference numerals and the component names is as follows:

[0034] 1. Shell assembly, 11. Mounting shell, 111. Mounting shell body, 112. Mounting block, 12. Mixing chamber, 121. Mixing chamber body, 122. Rear cover, 1221. Rear cover body, 1222. Buffer shell, 123. Cover plate, 124. Valve body assembly, 13. Bottom shell, 101. Mixing chamber, 102. Mounting chamber, 103. Mounting port, 104. Transition chamber, 105. Waste liquid port;

[0035] 2. Evaporator;

[0036] 3. Stirring components;

[0037] 4. Control components, 41. Support housing, 42. Control cover, 43. Circuit board. Detailed Implementation

[0038] To better understand the above-mentioned objectives, features, and advantages of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0039] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and therefore the scope of protection of the invention is not limited to the specific embodiments disclosed below.

[0040] The evaporator dehumidification structure and smoothie machine of some embodiments of the present invention are described below with reference to the accompanying drawings.

[0041] Example 1

[0042] like Figures 1 to 11 As shown, this embodiment discloses an evaporator dehumidification structure, including:

[0043] The housing assembly 1 is provided with a stirring chamber 101 and a mounting chamber 102. The housing assembly 1 has a mounting port 103, and the stirring chamber 101 communicates with the mounting chamber 102 through the mounting port 103.

[0044] The evaporator 2 is arranged on the shell assembly 1, and the mounting position of the evaporator 2 and the shell assembly 1 is located at the mounting port 103. The evaporator 2 comprises an evaporator body 21 and a limiting part 22. The limiting part 22 is arranged on the evaporator body 21 and located at one end of the evaporator body 21. The evaporator body 21 is arranged in the mounting port 103, and the limiting part 22 is located in the mounting cavity 102 and abuts against the side wall of the mounting port 103.

[0045] The partition is arranged on the evaporator 2 and located in the mounting cavity 102. The partition covers the limiting part.

[0046] The stirring assembly 3 is arranged on the evaporator 2 and surrounds the evaporator 2.

[0047] The first aspect of the present application discloses an evaporator dehumidification structure. The partition is arranged on the evaporator 2 and covers the limiting part, which plays a role in blocking the generation of condensed water. The partition can separate the contact between the limiting part and the outside, reduce the generation of condensed water, prevent the condensed water from damaging other components inside the equipment, such as avoiding the condensed water from contacting the electrical elements to cause short circuit and other problems, and also help to keep the materials in the mounting cavity 102 dry, ensuring that the product quality is not affected by water vapor. The mounting position of the evaporator 2 and the shell assembly 1 is located at the mounting port 103. This design provides a stable mounting basis for the evaporator 2. The structure of the mounting port 103 can effectively support and position the evaporator 2, so that it is not easy to displace or shake during the operation of the equipment. The vibration and force generated by the stirring assembly 3 during operation are transmitted to the shell assembly 1 through the close connection with the evaporator 2. The components cooperate with each other to bear various forces during the operation of the equipment, reducing the stress burden of individual components and improving the reliability and durability of the entire evaporator dehumidification structure. The shell assembly 1 is provided with a stirring cavity 101 and a mounting cavity 102, and is connected through the mounting port 103. This reasonable space layout makes full use of the internal space of the equipment. The arrangement of the evaporator 2, the partition and the stirring assembly 3 in the mounting cavity 102 is compact and orderly, which not only meets the realization of their respective functions, but also ensures the compactness of the overall structure of the equipment. The stirring assembly 3 surrounds the evaporator 2, which can make the stirring effect better.

[0048] As Figure 7As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the transition chamber 104 is arranged opposite to the stirring chamber 101, and the housing assembly 1 has a waste liquid outlet 105 communicating with the transition chamber 104. Because the transition chamber 104 is arranged opposite to the stirring chamber 101, and the housing assembly 1 has a waste liquid outlet 105 communicating with the transition chamber 104, the transition chamber 104 serves to centrally collect the waste liquid generated on the outer wall of the stirring chamber 101, preventing the waste liquid from flowing randomly inside the equipment. The waste liquid outlet 105 allows for convenient discharge of the condensed waste liquid collected in the transition chamber 104 from the equipment. The waste liquid outlet 105 simplifies and facilitates the cleaning of the condensed waste liquid.

[0049] like Figure 4 and Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further defines: the shell assembly 1 includes a mounting shell 11, a stirring chamber 12, and a bottom shell 13. The stirring chamber 12 is disposed on the mounting shell 11, and the stirring chamber 12 and the mounting shell 11 enclose a stirring cavity 101. The bottom shell 13 is disposed on the mounting shell 11 and the stirring chamber 12, and the bottom shell 13 and the stirring chamber 12 enclose a transition cavity 104. The bottom shell 13 has a waste liquid outlet 105. The mounting shell 11 has a mounting cavity 102, and the evaporator 2 is disposed on the mounting shell 11. By disposing of the stirring chamber 12 on the mounting shell 11, the two enclose the stirring cavity 101. This structural design gives the stirring cavity 101 good integrity and stability. The stirring chamber 12 and the mounting shell 11 cooperate with each other and can effectively withstand the vibration and impact force generated by the stirring assembly 3 during the stirring process. The bottom shell 13 is disposed on the mounting shell 11 and the stirring chamber 12, and encloses the stirring chamber 12 to form the transition cavity 104. The bottom shell 13 provides a solid bottom support for the transition cavity 104. Meanwhile, the connection between the bottom shell 13, the mounting shell 11, and the mixing chamber 12 enhances the structural strength of the entire shell assembly 1, making the equipment more stable and reliable during operation. The structure of the mixing chamber 12 and the mounting shell 11 enclosing the mixing cavity 101 makes cleaning the mixing cavity 101 more convenient. When it is necessary to clean the mixing cavity 101, simply remove the mixing chamber 12 from the mounting shell 11 to thoroughly clean the inside of the mixing cavity 101, removing residual materials and dirt.

[0050] like Figure 2 and Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further includes a control component 4, which is disposed on the mounting shell 11 and located within the mounting cavity 102. The mounting shell 11 has a notch 106 that communicates with the mounting cavity 102. By placing the control component 4 within the mounting cavity 102 of the mounting shell 11, key components of the equipment, such as the evaporator 2 and the stirring assembly 3, can be conveniently and precisely controlled. Through the control component 4, operators can easily adjust the cooling power of the evaporator 2.

[0051] As Figure 8 and Figure 9 shown, in addition to the features of the above embodiments, the present embodiment is further limited in that: the mounting shell 11 comprises a mounting shell body 111 and a mounting block 112, the mounting shell body 111 is provided with the mounting cavity 102, the mounting block 112 is arranged on the mounting shell body 111 and located within the mounting cavity 102, the control assembly 4 is arranged on the mounting block 112, and the mounting shell body 111 is provided with a notch 106, which is arranged opposite to the control assembly 4. By arranging the mounting block 112 within the mounting cavity 102 of the mounting shell body 111, and mounting the control assembly 4 on the mounting block 112, precise positioning and stable support are provided for the control assembly 4. The mounting block 112 can be specially designed according to the size and shape of the control assembly 4, so that the control assembly 4 can closely fit the mounting block 112, avoiding displacement due to vibration or shaking during equipment operation. Mounting the control assembly 4 on the mounting block 112 realizes the modular design of the equipment. During equipment production and assembly, the control assembly 4 and the mounting block 112 can be pre-assembled and debugged as an independent module.

[0052] As Figure 10 and Figure 11 shown, in addition to the features of the above embodiments, the present embodiment is further limited in that: the control assembly 4 comprises a support shell 41, a control cover plate 42, and a circuit board 43, the support shell 41 is arranged on the mounting block 112, the control cover plate 42 is arranged on the support shell 41, and the control cover plate 42 and the support shell 41 form a circuit board mounting cavity 401, the circuit board 43 is arranged on the support shell 41 and located within the circuit board mounting cavity 401, and the control cover plate 42 is provided with an air passage 402. By arranging the support shell 41 on the mounting block 112, the control cover plate 42 and the support shell 41 form the circuit board mounting cavity 401, and the circuit board 43 is enclosed therein. This structure can effectively block dust, moisture and other impurities from the outside, avoiding short circuit, corrosion and other faults of the electronic components of the circuit board 43 due to dust or moisture. The design of the circuit board mounting cavity 401 makes full use of the space, and the circuit board 43 and related electronic components are concentrated in a compact space. At the same time, the structure of the support shell 41 and the control cover plate 42 can be optimized according to the spatial layout of the mounting cavity 102, avoiding interference with other components within the mounting cavity 102. This reasonable space utilization and layout helps to improve the overall integration and compactness of the equipment, realize more functions in limited space, and make the internal structure of the equipment more regular, facilitating later maintenance and repair. The existence of the air passage 402 provides a basis for further heat dissipation measures.

[0053] As Figure 8 and Figure 9As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the stirring bin 12 comprises a stirring bin body 121, a rear cover 122, a cover plate 123 and a valve body assembly 124, the rear cover 122 is arranged on the stirring bin body 121, the rear cover 122 is provided with an opening, the evaporator 2 passes through the opening, the rear cover 122 abuts against the mounting shell 11, the stirring bin body 121, the rear cover 122 and the mounting shell 11 enclose the stirring cavity 101, the stirring bin body 121 is provided with a feeding port 107 communicating with the stirring cavity 101, the cover plate 123 is rotationally arranged on the stirring bin body 121 and located at the feeding port 107, the stirring bin body 121 is provided with a discharging port 108 communicating with the stirring cavity 101, and the valve body assembly 124 is arranged on the stirring bin body 121 and capable of opening or closing the discharging port 108. The rear cover 122 is arranged on the stirring bin body 121 and abuts against the mounting shell 11, and the three enclose the stirring cavity 101. This structural design makes the stirring cavity 101 have good integrity and sealing performance. The stirring bin body 121, the rear cover 122 and the mounting shell 11 cooperate with each other and can effectively withstand the vibration and impact force generated by the stirring assembly 3 during stirring. For example, when stirring high-viscosity materials, the stirring assembly 3 exerts a large force on the inner wall of the stirring cavity 101, and the closely enclosed structure can evenly distribute these forces to prevent the stirring cavity 101 from deforming or being damaged, ensuring the continuous and stable operation of the stirring work. At the same time, good sealing performance can prevent material leakage and foreign matter from entering the stirring cavity 101, affecting the quality of the material and the normal operation of the equipment. The rear cover 122 is provided with an opening, and the evaporator 2 passes through the opening. This design provides a stable mounting position for the evaporator 2, allowing the evaporator 2 to closely fit the stirring bin 12. During operation of the evaporator 2, the cooperation of the opening and the rear cover 122 can effectively reduce the vibration of the evaporator 2 from being transmitted to other parts of the stirring bin 12, ensuring stable operation of the evaporator 2, while not affecting the stability of the overall structure of the stirring bin 12. The valve body assembly 124 facilitates control of discharging.

[0054] As shown in Figure 8 and Figure 9 shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the rear cover 122 comprises a rear cover body 1221 and a buffer shell 1222, the buffer shell 1222 is provided with a groove, the bottom wall and the side wall of the groove are provided with liquid passing openings, and the groove is oppositely arranged with the feeding port 107. The buffer shell 1222 is located at the periphery of the opening through which the evaporator 2 passes, and the groove faces the feeding port 107. When adding material from the feeding port 107, the buffer shell 1222 can buffer the added liquid to prevent splashing.

[0055] In addition to the features of the above-mentioned embodiments, the present embodiment is further limited in that the partition is foam cotton. When the evaporator 2 is running, its surface temperature is low, and the ambient heat is easily transferred to the evaporator 2, thereby affecting the refrigeration and dehumidification efficiency of the evaporator 2 and increasing the energy consumption. The foam cotton as the partition has good heat insulation performance and can effectively prevent the air in the mounting cavity 102 from condensing around the portion of the evaporator 2 surrounding the mounting opening 103.

[0056] In addition to the features of the above-mentioned embodiments, the present embodiment is further limited in that the partition is annular. The partition is annular, which can perfectly fit the portion of the evaporator 2 surrounding the mounting opening 103. Since the layout of the evaporator 2 at the mounting opening 103 is annular, the annular partition can cover the corresponding area of the evaporator 2 without gaps, ensuring comprehensive and close protection and heat insulation effect.

[0057] Embodiment 2

[0058] The present embodiment discloses a smoothie maker, comprising:

[0059] The above-mentioned evaporator dehumidification structure.

[0060] The present application discloses a smoothie maker, which improves the overall performance of the smoothie maker when making smoothies, and helps to speed up the smoothie making process. Reduces the impact of product condensate water on internal devices.

[0061] The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description simple, all possible combinations of the technical features in the above-mentioned embodiments are not described, but as long as the combination of the technical features does not exist contradictory, it should be considered as the scope of the present application.

[0062] The above-mentioned embodiments only express several implementation manners of the present application, and the description is more specific and detailed, but it should not be understood as a limitation on the scope of the present application. It should be pointed out that for ordinary skilled in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which all belong to the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the appended claims.

Claims

1. An evaporator dehumidifying structure characterized by comprising: The evaporator dehumidification structure comprises: A shell assembly (1) is provided with a stirring cavity (101) and a mounting cavity (102), the shell assembly (1) is provided with a mounting opening (103), the stirring cavity (101) is communicated with the mounting cavity (102) through the mounting opening (103); An evaporator (2) is arranged on the shell assembly (1), the mounting position of the evaporator (2) and the shell assembly (1) is located at the mounting opening (103), the evaporator (2) comprises an evaporator body (21) and a limiting portion (22), the limiting portion (22) is arranged on the evaporator body (21) and located at one end of the evaporator body (21), the evaporator body (21) is arranged in the mounting opening (103), and the limiting portion (22) is located in the mounting cavity (102) and abuts against the side wall of the mounting opening (103); A partition is arranged on the evaporator (2) and located in the mounting cavity (102), and the partition covers the limiting portion (22); A stirring assembly (3) is arranged on the evaporator (2) and surrounds the evaporator (2).

2. The evaporator dehumidifying structure according to claim 1, wherein The shell assembly (1) is provided with a transition cavity (104), the transition cavity (104) is arranged opposite to the stirring cavity (101), and the shell assembly (1) is provided with a waste liquid opening (105) communicated with the transition cavity (104).

3. The evaporator dehumidifying structure according to any one of claims 1 to 2, characterized by, The shell assembly (1) comprises a mounting shell (11), a stirring bin (12) and a bottom shell (13), the stirring bin (12) is arranged on the mounting shell (11), the stirring bin (12) and the mounting shell (11) form the stirring cavity (101), the bottom shell (13) is arranged on the mounting shell (11) and the stirring bin (12), the bottom shell (13) and the stirring bin (12) form the transition cavity (104), the bottom shell (13) is provided with the waste liquid opening (105), the mounting shell (11) is provided with the mounting cavity (102), and the evaporator (2) is arranged on the mounting shell (11).

4. The evaporator dehumidifying structure according to claim 3, wherein Further comprising a control assembly (4), the control assembly (4) is arranged on the mounting shell (11) and located in the mounting cavity (102), the mounting shell (11) is provided with a notch (106), and the notch (106) is communicated with the mounting cavity (102).

5. The evaporator dehumidifying structure according to claim 4, wherein The mounting shell (11) comprises a mounting shell body (111) and a mounting block (112), the mounting shell body (111) is provided with the mounting cavity (102), the mounting block (112) is arranged on the mounting shell body (111) and located in the mounting cavity (102), the control assembly (4) is arranged on the mounting block (112), the mounting shell body (111) is provided with the notch (106), and the notch is arranged opposite to the control assembly (4).

6. The evaporator dehumidifying structure according to claim 5, wherein The control assembly (4) comprises a support shell (41), a control cover plate (42) and a circuit board (43), the support shell (41) is arranged on the mounting block (112), the control cover plate (42) is arranged on the support shell (41), and the control cover plate (42) and the support shell (41) enclose a circuit board mounting cavity (401), the circuit board (43) is arranged on the support shell (41) and located in the circuit board mounting cavity (401), and the control cover plate (42) is provided with a wind passage (402).

7. The evaporator dehumidifying structure according to claim 3, wherein The stirring bin (12) comprises a stirring bin body (121), a rear cover (122), a cover plate (123) and a valve body assembly (124), the rear cover (122) is arranged on the stirring bin body (121), the rear cover (122) is provided with an opening, the evaporator (2) passes through the opening, the rear cover (122) abuts against the mounting shell (11), the stirring bin body (121), the rear cover (122) and the mounting shell (11) enclose the stirring cavity (101), the stirring bin body (121) is provided with a feeding port (107) in communication with the stirring cavity (101), the cover plate (123) is rotationally arranged on the stirring bin body (121) and located at the feeding port (107), the stirring bin body (121) is provided with a discharging port (108) in communication with the stirring cavity (101), and the valve body assembly (124) is arranged on the stirring bin body (121) and can open or close the discharging port (108).

8. The evaporator dehumidifying structure according to claim 7, wherein The rear cover (122) comprises a rear cover body (1221) and a buffer shell (1222), the buffer shell (1222) is provided with a groove, the bottom wall and the side wall of the groove are provided with liquid passages, and the groove is arranged opposite to the feeding port (107).

9. The evaporator dehumidifying structure according to claim 1, wherein the partition is foam cotton. And / or the partition is annular. The smoothie machine comprises:

10. A smoothie maker characterised in that, The evaporator dehumidifying structure according to any one of claims 1 to 9. ​

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