Multifunctional ice cleaning machine

Abstract

The utility model relates to the technical field of ice-making water dispensers, in particular to a multifunctional ice purifier which comprises a machine body, the machine body comprises a pure water making mechanism and an ice making mechanism, a pure water flow channel is arranged between the pure water making mechanism and the ice making mechanism, and the ice making mechanism comprises an ice making box, an ice making assembly and an ice outlet assembly. The ice making assembly and the ice discharging assembly are connected with the ice making box, the ice crushing assembly is arranged between the ice making box and the ice discharging assembly, before the ice purifier outputs ice blocks, the ice blocks are further crushed through the ice crushing assembly to make crushed ice, and then the crushed ice is guided out through the ice discharging assembly to be used by a user; by arranging the ice crushing assembly in the ice purifier, the ice purifier can make crushed ice, compared with a traditional ice purifier, the ice purifier has the advantages that the shape and size of ice blocks can be formed through an original ice making mold, the ice blocks can be further processed through the ice crushing assembly, the specifications of the ice blocks output by the ice purifier are diversified, the types of the ice blocks are increased, and the practicability of the ice purifier is improved. And the user has more choices, so that the user experience is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of ice-making water dispensers, in particular to a multifunctional ice purifier. Background Art

[0002] An ice purifier is an intelligent small household appliance with functions such as ice-making, water purification, and drinking water. It first filters raw water to produce pure water, and then uses the pure water to make ice, realizing the integration of water purification, drinking water, and ice-making. It is more convenient than a simple water dispenser and ice maker in daily use.

[0003] After the existing ice purifier makes ice cubes, the ice cubes are directly output through an ice guide chute for users to use. However, the shape and size of the ice cubes are fixed, and the shape and size of the ice cubes are only determined by the ice-making mold in the ice purifier, resulting in fewer types of ice cubes available for users and a lower user experience.

[0004] The present utility model is studied and proposed in view of the deficiencies of the existing technology. Summary of the Utility Model

[0005] In view of the problem that after the existing ice purifier makes ice cubes, the ice cubes are directly output through an ice guide chute, and the shape and size of the ice cubes are fixed, and the shape and size of the ice cubes are only determined by the ice-making mold in the ice purifier, resulting in fewer types of ice cubes available for users and a lower user experience, the present utility model proposes a multifunctional ice purifier.

[0006] The technical solution adopted by the present utility model to solve its technical problems is as follows:

[0007] The multifunctional ice purifier includes a machine body. The machine body includes a pure water-making mechanism and an ice-making mechanism. A pure water flow channel is provided between the pure water-making mechanism and the ice-making mechanism. The ice-making mechanism includes an ice-making box, an ice-making component, and an ice output component. The ice-making component and the ice output component are respectively connected to the ice-making box, and a crushed ice component is provided between the ice-making box and the ice output component.

[0008] For the multifunctional ice purifier as described above, the ice-making box is provided with an inner cavity. The ice-making component is installed in the inner cavity and close to the top of the inner cavity. A ice storage cavity is provided in the inner cavity on one side of the ice-making component, a first ice delivery channel communicating between the ice-making component and the ice storage cavity, a second ice delivery channel communicating between the ice storage cavity and the crushed ice component. The crushed ice component is provided with a crushed ice cavity communicating with the second ice delivery channel, and the ice output component is provided with an ice output chute communicating with the crushed ice cavity.

[0009] The multifunctional ice purifying machine as described above, wherein the ice crushing assembly is installed on the outer side of the ice making box, the ice discharging assembly is arranged below the ice crushing assembly, the ice crushing assembly includes a first housing connected to the ice making box and an ice crushing knife, the ice crushing cavity is arranged in the first housing, and the ice crushing knife is rotatably arranged in the ice crushing cavity.

[0010] The multifunctional ice purifying machine as described above, wherein the ice discharging assembly includes a second housing arranged below the ice crushing assembly, an ice discharging chute is arranged in the second housing, the end of the ice discharging chute is an ice discharging port, at least part of the bottom wall of the ice discharging chute is set as an arc wall, and the arc wall is arranged in the second housing and close to the ice discharging port.

[0011] The multifunctional ice purifying machine as described above, wherein the ice discharging assembly further includes a flip cover arranged at the ice discharging port, a rotating connection part is arranged between one end of the flip cover and the second housing, and one side of the flip cover can rotate relative to the ice discharging port around the rotating connection part.

[0012] The multifunctional ice purifying machine as described above, wherein the ice making assembly includes an ice making box, an evaporator, a compressor, a condenser and a radiator, the compressor, the condenser and the radiator are respectively arranged in the machine body, the compressor, the condenser and the evaporator are connected to each other, the radiator is arranged on one side of the condenser, the ice making box is rotatably arranged in the inner cavity, an ice making cavity with an upward opening is arranged in the ice making box, and a plurality of ice making heads are arranged below the evaporator, and each ice making head can extend into the ice making cavity.

[0013] The multifunctional ice purifying machine as described above, wherein the ice making assembly further includes a driving motor connected to the ice making box, one end of the driving motor is provided with a motor shaft, the driving motor is installed on the outer side of the ice making box, the motor shaft passes through the ice making box and is in transmission connection with the ice making box, and the ice making box is driven by the driving motor to rotate counterclockwise, so that the top of the ice making box rotates towards the ice storage cavity.

[0014] The multifunctional ice purifying machine as described above, wherein the ice making assembly further includes a guide ice plate arranged on one side of the ice making box, the guide ice plate has a downward inclination trend, the ice making box is driven by the driving motor to rotate counterclockwise, and drives the guide ice plate to rotate counterclockwise, so that the side of the guide ice plate far away from the ice making box moves downward.

[0015] The multifunctional ice purifying machine as described above, wherein an auxiliary rotating part is arranged at one end of the ice making box far away from the driving motor, and the auxiliary rotating part is connected to the ice making box.

[0016] The multifunctional ice purifying machine as described above further includes a reflux port in the second housing. The reflux port and the ice outlet are arranged along the ice outlet direction of the ice outlet chute. A connecting pipe is provided at the reflux port, and the connecting pipe extends outward from the outer wall of the second housing.

[0017] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0018] The multifunctional ice purifying machine of the present utility model includes an ice making mechanism. The ice making mechanism includes an ice making box, an ice making component, and an ice outlet component. The ice making component and the ice outlet component are respectively connected to the ice making box. A ice crushing component is provided between the ice making box and the ice outlet component. The pure water is made into ice cubes by the ice making component and the ice cubes are transported into the ice making box. The ice making box has a storage space for storing ice cubes. Before the ice purifying machine outputs ice cubes, the ice cubes are further crushed by the ice crushing component to make crushed ice, and then the crushed ice is exported by the ice outlet component for users to use. By providing the ice crushing component in the ice purifying machine, the ice purifying machine can make crushed ice. Compared with the traditional ice purifying machine, the shape and size of the ice cubes can not only be formed by the original ice making mold, but also the ice cubes can be further processed by the ice crushing component, so that the specifications of the ice cubes output by the ice purifying machine are diversified, the types of ice cubes are increased, and users have more choices, thus improving the user experience.

[0019] The following will further describe the present utility model in conjunction with the accompanying drawings and specific embodiments. Description of the Drawings

[0020] Figure 1 is the internal structure diagram of the ice purifying machine of the present utility model;

[0021] Figure 2 is the exploded view of the ice making mechanism of the present utility model Figure 1 ;

[0022] Figure 3 is the exploded view of the ice making mechanism of the present utility model Figure 2 ;

[0023] Figure 4 is the internal structure diagram of the ice making mechanism of the present utility model;

[0024] Figure 5 is the top view of the ice making mechanism of the present utility model;

[0025] Figure 6 is Figure 5 the A - A cross-sectional view in

[0026] Figure 7 is Figure 5 the B - B cross-section in Figure 1 ;

[0027] Figure 8 For Figure 5 the B - B cross - section in Figure 2 . Specific implementation mode

[0028] The following will describe in detail the implementation mode of the present utility model in conjunction with the attached drawings.

[0029] Embodiment:

[0030] As Figure 1 shown in Fig. - 8, the present utility model provides a multifunctional ice purifier, including a machine body. The machine body includes a pure water making mechanism and an ice making mechanism 1. A pure water flow channel is provided between the pure water making mechanism and the ice making mechanism 1. In this embodiment, the ice purifier filters raw water through the pure water making mechanism to produce pure water, and guides the pure water to the ice making mechanism 1 through the pure water flow channel. Making ice with pure water is beneficial to improving the quality of ice cubes and ensuring the health of users.

[0031] Specifically, the ice making mechanism 1 includes an ice making box 11, an ice making component 12 and an ice discharging component 13. The ice making component 12 and the ice discharging component 13 are respectively connected to the ice making box 11. A crushed ice component 14 is provided between the ice making box 11 and the ice discharging component 13. In this embodiment, the ice making box 11 is detachably installed in the machine body. The ice making component 12 is used for making ice, the ice discharging component 13 is used for discharging ice cubes, and the crushed ice component 14 is used for further crushing the ice cubes. In the actual use of the ice purifier, the pure water is made into ice cubes by the ice making component 12 and the ice cubes are transported into the ice making box 11. The ice making box 11 has a storage space for storing ice cubes. Before the ice purifier outputs ice cubes, the crushed ice component 14 further crushes the ice cubes to produce crushed ice, and then the crushed ice is discharged through the ice discharging component 13 for users to use. By setting the crushed ice component 14 in the ice purifier, the ice purifier can produce crushed ice. Compared with traditional ice purifiers, the shape and size of ice cubes can not only be formed by the original ice making molds, but also the ice cubes can be further processed by the crushed ice component 14, making the specifications of the ice cubes output by the ice purifier diversified, increasing the types of ice cubes, giving users more choices, and thus enhancing the user experience.

[0032] Specifically, as Figure 4 and Figure 8 shown Figure 8The dashed line therein represents the conveying route of the ice cubes during the overall process from ice making to ice discharging. The ice maker 11 is provided with an inner cavity 1101. The ice making assembly 12 is installed in the inner cavity 1101 and near the top of the inner cavity 1101. In the inner cavity 1101, there is an ice storage cavity 1102 on one side of the ice making assembly 12, a first ice delivery channel 1103 communicating between the ice making assembly 12 and the ice storage cavity 1102, and a second ice delivery channel 1104 communicating between the ice storage cavity 1102 and the ice crushing assembly 14. The ice crushing assembly 14 is provided with an ice crushing cavity 141 communicating with the second ice delivery channel 1104. The ice discharging assembly 13 is provided with an ice discharging chute 131 communicating with the ice crushing cavity 141. In this embodiment, the ice storage cavity 1102 is a part of the inner cavity 1101. The ice making assembly 12 is installed on one side of the ice storage cavity 1102. The first ice delivery channel 1103 communicates between the ice making assembly 12 and the ice storage cavity 1102. The first ice delivery channel 1103 preferably has a tendency to deliver ice downward, so as to facilitate the delivery of ice cubes into the ice storage cavity 1102 through the first ice delivery channel 1103. As the number of ice cubes produced increases, the ice storage cavity 1102 stores the ice cubes. The ice crushing assembly 14 and the ice discharging assembly 13 are arranged outside the ice maker 11. The ice storage cavity 1102 communicates with the ice crushing assembly 14 through the second ice delivery channel 1104. The second ice delivery channel 1104 is used to deliver the ice cubes located in the ice storage cavity 1102 into the ice crushing cavity 141. After the ice cubes are further crushed by the ice crushing assembly 14, they form crushed ice and enter the ice discharging chute 131. In the actual use of the ice cleaner, ice cubes are made and de-iced by the ice making assembly 12, so that the ice cubes enter the first ice delivery channel 1103, and the ice cubes can enter the ice storage cavity 1102 along the first ice delivery channel 1103 for storage. The ice cubes located in the ice storage cavity 1102 can enter the ice crushing cavity 141 along the second ice delivery channel 1104. After being formed into crushed ice by the ice crushing assembly 14, the ice is discharged through the ice discharging chute 131. It should be noted that the first ice delivery channel 1103 is the path for delivering ice cubes from the ice making cavity 1211 into the ice storage cavity 1102.

[0033] In other embodiments, such as Figure 8As shown, the body further includes an ice delivery component 15 disposed in the inner cavity 1101. The ice storage cavity 1102 communicates between the ice making component 12 and the ice delivery component 15. The second ice delivery channel 1104 is disposed in the ice delivery component 15. The ice delivery component 15 conveys the ice cubes in the ice storage cavity 1102 along the second ice delivery channel 1104 to the ice crushing component 14 for ice crushing. Optionally, the second ice delivery channel 1104 can be set as a vertically ascending or helically ascending channel. The ice inlet of the second ice delivery channel 1104 is disposed near the bottom of the ice storage cavity 1102. The ice outlet of the second ice delivery channel 1104 is disposed above the ice inlet and communicates with the ice crushing component 14. The ice delivery component 15 can adopt a linear ice pusher or a helical ice pusher suitable for the second ice delivery channel 1104, etc. It should be noted that this embodiment does not limit the specific ice delivery direction of the second ice delivery channel 1104. The ice delivery direction of the second ice delivery channel 1104 described above can also be set as vertically descending or helically descending. The ice inlet and the ice outlet of the second ice delivery channel 1104 are set according to the ice delivery direction of the second ice delivery channel 1104. The ice crushing component 14 is disposed on one side of the ice outlet of the second ice delivery channel 1104. Further, as Figure 8 shown, a guiding portion for guiding the ice cubes to the ice inlet of the second ice delivery channel 1104 can be disposed at the bottom of the ice making box 11. The guiding portion can be set as an inclined wall disposed at the bottom of the ice making box 11. The ice cubes fall to the bottom of the ice storage cavity 1102 under the action of gravity, and a lateral acting force is generated on the ice cubes by the inclined wall, so that the ice cubes are guided to the ice inlet of the second ice delivery channel 1104 through the inclined wall.

[0034] In some embodiments, as Figure 1As shown in the figure, the ice crushing assembly 14 is installed on the outer side of the ice maker 11, and the ice discharging assembly 13 is arranged below the ice crushing assembly 14. The ice crushing assembly 14 includes a first housing 142 connected to the ice maker 11 and an ice crushing knife 143. The ice crushing cavity 141 is arranged in the first housing 142, and the ice crushing knife 143 is rotatably arranged in the ice crushing cavity 141. By arranging the ice crushing assembly 14 in the ice cleaner, it is beneficial to further crush the ice cubes, enabling the ice cleaner to produce crushed ice, increasing the diversity of ice making of the ice cleaner, and thus optimizing the user experience. In this embodiment, the ice outlet of the second ice delivery channel 1104 penetrates the wall of the ice maker 11. The first housing 142 is arranged at the ice outlet of the second ice delivery channel 1104 and is connected to the ice maker 11. One side wall of the first housing 142 connected to the ice maker 11 is an open end, so that the second ice delivery channel 1104 is communicated with the ice crushing cavity 141. The ice crushing knife 143 is arranged in the ice crushing cavity 141. Optionally, the ice crushing knife 143 is driven by a motor 1431, and the motor 1431 is arranged on the upper side of the first housing 142. Optionally, as Figure 8 As shown in the figure, the ice crushing cavity 141 includes an upper cavity 1411 and a lower cavity 1412 arranged up and down. The second ice delivery channel 1104, the upper cavity 1411 and the lower cavity 1412 are communicated in sequence. The cutter head of the ice crushing knife 143 extends into the lower cavity 1412. The ice cubes conveyed through the second ice delivery channel 1104 successively enter the upper cavity 1411. These ice cubes fall into the lower cavity 1412 under the drive of gravity, and then are broken into crushed ice by the high-speed rotation of the ice crushing knife 143. The crushed ice falls from the lower cavity 1412 into the ice discharging chute 131. By arranging the upper cavity 1411 and the lower cavity 1412, the conveying route of the ice cubes in the ice cleaner is optimized. When the cutter head of the ice crushing knife 143 rotates at a high speed, a crushing surface is formed in the lower cavity 1412. The ice cubes first enter the upper cavity 1411 from the second ice delivery channel 1104, and then vertically fall from the upper cavity 1411 into the lower cavity 1412 and are chopped by the high-speed rotating ice crushing knife 143. Since the cutting edge side of the common ice crushing knife 143 cutter head such as a straight cutter head or a cross cutter head is generally arranged in the radial direction of the ice crushing knife blade, the ice cubes can directly contact the crushing surface when falling from the upper cavity 1411 to the lower cavity 1412, which is beneficial to improving the ice crushing efficiency and quality, and can also protect the cutter head of the ice crushing knife 143. If the ice crushing knife 143 is directly arranged in the upper cavity 1411 and the tip of the ice crushing knife 143 is located on the outside, the tip of the ice crushing knife 143 contacts the ice cubes during high-speed rotation, which is easy to cause situations such as knife breakage and knife chipping, and it is difficult to ensure the safety of the equipment. It should be noted that the ice crushing knife 143 can adopt a conventional ice crushing tool.

[0035] In some embodiments, as Figure 8 shown, the ice discharging assembly 13 includes a second housing 132 disposed below the ice crushing assembly 14. The ice discharging chute 131 is disposed within the second housing 132. The end of the ice discharging chute 131 is an ice discharging opening 1311. At least a part of the bottom wall of the ice discharging chute 131 is provided as an arc-shaped wall 133. The arc-shaped wall 133 is disposed within the second housing 132 and is close to the ice discharging opening 1311. In this embodiment, the second housing 132 is connected to the lower part of the first housing 142. The second housing 132 is hollow to form the ice discharging chute 131. The top end of the ice discharging chute 131 is connected to the first housing 142 and communicates with the ice crushing chamber 141. The end of the ice discharging chute 131 is the ice discharging opening 1311. The crushed ice can naturally fall into the ice discharging chute 131 driven by gravity without additionally arranging a conveying mechanism for the crushed ice, reducing the driving energy consumption of the ice purifying machine and lowering the production cost of the ice purifying machine. Moreover, the second housing 132 is integrally formed in an arc shape, such that the bottom wall of the ice discharging chute 131 forms an arc-shaped wall 133 concave toward the outside of the second housing 132, which is beneficial to the smooth sliding out of the crushed ice and further enhances the user experience. Preferably, the second housing 132 and the first housing 142 are of an integrally formed structure, simplifying the structures of the first housing 142 and the second housing 132, being beneficial to reducing the production cost and enhancing the production efficiency and installation efficiency of the ice crushing assembly 14 and the ice discharging assembly 13.

[0036] Further, as Figure 4 shown, Figure 4 the arrow S in shows the rotation direction of the flip cover 134 when discharging ice. The ice discharging assembly 13 further includes a flip cover 134 disposed at the ice discharging opening 1311. A rotation connection part 135 is provided between one end of the flip cover 134 and the second housing 132. One side of the flip cover 134 can rotate relative to the outlet of the ice discharging chute 131 around the rotation connection part 135. In this embodiment, the rotation connection part 135 is provided as a hinge structure. One end of the flip cover 134 is hinged to the second housing 132 through the rotation connection part 135, and the other end is a movable end. The flip cover 134 can rotate outward around the hinge point of the rotation connection part 135 under the impact force of the crushed ice to open the ice discharging opening 1311 of the ice discharging chute 131, such that the crushed ice can be discharged to the outside for the user to use. Preferably, when the crushed ice is discharged, the flipping angle range of the flip cover 134 is 0° to 90°, and the flipping angle of the flip cover 134 is preferably less than 90°. In the natural state, the flip cover 134 can be automatically reset around the hinge point of the rotation connection part 135 by its own gravity to close the ice discharging opening 1311 of the ice discharging chute 131, which is beneficial to preventing external bacteria and other impurities from entering the ice purifying machine through the ice discharging chute 131, thereby ensuring the quality of the ice cubes and the health of the user.

[0037] Furthermore, as Figure 4 shown, a return port 1321 is further provided in the second housing 132. The return port 1321 and the ice outlet 1311 are arranged along the ice outlet direction of the ice outlet chute 131. A connecting pipe 1322 is provided at the return port 1321, and the connecting pipe 1322 extends outward from the outer wall of the second housing 132. In this embodiment, the return port 1321 is provided on the bottom wall of the second housing 132, that is, the return port 1321 is arranged in the arc-shaped wall 133. The return port 1321 and the ice outlet 1311 are sequentially arranged along the ice outlet direction of the ice outlet chute 131, and the return port 1321 is close to the ice outlet 1311. Since the ice particles of the crushed ice are smaller, the crushed ice is more likely to melt and form water stains in the ice outlet chute 131. The melted ice water flows along the ice outlet chute 131 to the ice outlet 1311. By providing the return port 1321, the return port 1321 can be connected to the water tank in the ice purifier through a corresponding pipeline, so that the melted ice water can flow out of the ice outlet chute 131 through the return port 1321, avoiding the user receiving melted ice water when receiving ice, which is beneficial to improving the user experience of using the ice purifier; in addition, the return port 1321 can be connected to the water tank in the ice purifier through a pipeline, which is beneficial to the secondary utilization of the melted ice water and reduces the waste of water resources; preferably, a connecting pipe 1322 connected to the return port 1321 is provided outside the second housing 132. The connecting pipe 1322 is hollow, and the connecting pipe 1322 is used for connecting pipelines, which is convenient for pipeline connection in the ice purifier; preferably, the connecting pipe 1322 and the second housing 132 are of an integrally formed structure, which is beneficial to the production and installation of the second housing 132.

[0038] In some embodiments, as Figure 1As shown, the ice-making component 12 includes an ice-making box 121, an evaporator 122, a compressor 123, a condenser 124, and a radiator 125. The compressor 123, the condenser 124, and the radiator 125 are respectively arranged inside the machine body. The compressor 123, the condenser 124, and the evaporator 122 are connected to each other. The radiator 125 is arranged on one side of the condenser 124. The ice-making box 121 is rotatably arranged in the inner cavity 1101. An ice-making cavity 1211 with an upward opening is arranged inside the ice-making box 121. Several ice-making heads 126 are arranged at the lower part of the evaporator 122, and each ice-making head 126 can extend into the ice-making cavity 1211. In this embodiment, the top of the ice-making box 121 is recessed downward to form the ice-making cavity 1211. The pure water flow channel is communicated with the ice-making cavity 1211 to convey pure water into the ice-making cavity 1211. The evaporator 122 is installed on the upper side of the ice-making box 121. A plurality of spaced ice-making heads 126 are connected to the lower part of the evaporator 122, and the ice-making heads 126 can extend into the ice-making cavity 1211. The refrigeration system of the ice purifier in the present utility model is similar to the refrigeration system in the prior art. The compressor 123, the condenser 124, and the evaporator 122 are connected to each other through copper pipes or other pipelines, and a refrigerant flows in the copper pipes. The evaporator 122 preferably adopts a hollow U-shaped pipe. Each ice-making head 126 is provided with a cavity inside, and the inside of the evaporator 122 is communicated with the internal cavities of each ice-making head 126, that is, the refrigerant can flow into the internal cavities of each ice-making head 126. When making ice, pure water is contained in the ice-making cavity 1211, and each ice-making head 126 extends into the pure water. The compressor 123 compresses the refrigerant into a high-temperature and high-pressure gas, the condenser 124 cools and condenses the high-temperature and high-pressure gas into a liquid, and the evaporator 122 evaporates the low-temperature and low-pressure refrigerant liquid and absorbs external heat, so that each ice-making head 126 can absorb the heat in the pure water through the low-temperature and low-pressure refrigerant liquid inside and make ice from the pure water. The radiator 125 is installed on one side of the condenser 124 and is used for heat dissipation. The radiator 125 can be a cooling fan. When defrosting, the high-temperature refrigerant can flow reversely into the evaporator 122 or the ice in the ice-making cavity 1211 can be heated by an electric heating method, so that the connection between the ice and each ice-making head 126 melts, which is beneficial to the ice coming out.

[0039] Further, as Figure 1 and Figure 3As shown, the ice-making assembly 12 further includes a drive motor 127 connected to the ice-making box 121. One end of the drive motor 127 is provided with a motor shaft 1271. The drive motor 127 is installed outside the ice-making refrigerator 11. The motor shaft 1271 passes through the ice-making refrigerator 11 and is in transmission connection with the ice-making box 121. The drive motor 127 drives the ice-making box 121 to rotate counterclockwise, so that the top of the ice-making box 121 rotates towards the ice storage cavity 1102. In this embodiment, during defrosting, the ice cubes are heated to melt and the connections between the ice cubes and the ice-making heads 126 and the ice-making box 121 are disconnected. Then, the drive motor 127 drives the ice-making box 121 to rotate counterclockwise to drive the top of the ice-making box 121 to rotate towards the ice storage cavity 1102, so that the ice cubes in the ice-making cavity 1211 can enter the first ice delivery channel 1103 and move towards the ice storage cavity 1102, thereby realizing defrosting. It should be noted that the ice-making box 121 can rotate counterclockwise by 0° to 180°. When defrosting, the ice-making box 121 can rotate up to 180°, which is beneficial for better defrosting.

[0040] Further, as Figure 3 , Figure 7 and Figure 8 shown, where Figure 7 the ice-making box 121 in Figure 8 is in the state of making ice or when the machine is stopped,

[0041] the ice-making box 121 in Figure 1 is in the state of defrosting. The ice-making assembly 12 further includes a guide ice plate 128 provided on one side of the ice-making box 121. The guide ice plate 128 has a tendency to incline downward. The drive motor 127 drives the ice-making box 121 to rotate counterclockwise and drives the guide ice plate 128 to rotate counterclockwise, so that the side of the guide ice plate 128 far from the ice-making box 121 moves downward. In this embodiment, during the defrosting process, the top surface of the guide ice plate 128 forms an ice delivery surface in contact with the ice cubes. The ice delivery surface can be understood as a part of the first ice delivery channel 1103. The guide ice plate 128 is connected to the side of the ice-making box 121 close to the ice storage cavity 1102. The ice delivery surface of the guide ice plate 128 inclines downward, which is beneficial for transporting the ice cubes into the first ice delivery channel 1103; preferably, the guide ice plate 128 is detachably connected to the ice-making box 121; during defrosting, as the ice-making box 121 rotates counterclockwise, the wall of the ice-making box 121 can apply a force to the ice cubes in the ice-making cavity 1211 to make the ice cubes enter the first ice delivery channel 1103 along the guide ice plate 128, thereby realizing defrosting.

[0041] Preferably, as Figure 1 and Figure 3As shown, an auxiliary rotating part 129 is provided at one end of the ice-making box 121 away from the driving motor 127, and the auxiliary rotating part 129 is connected to the ice-making refrigerator 11. In this embodiment, one end of the auxiliary rotating part 129 is fixedly connected to the ice-making refrigerator 11 and the other end is rotatably connected to the ice-making box 121. Optionally, the auxiliary rotating part 129 can adopt a connecting shaft structure. By providing the auxiliary rotating part 129, the rotation of the ice-making box 121 is optimized from one-end rotation to two-end rotation, enhancing the rotation stability of the ice-making box 121 and facilitating smooth ice detachment.

[0042] The above only uses embodiments to further illustrate the technical content of the present invention to make it easier for readers to understand, but it does not mean that the implementation modes of the present invention are limited to this. Any technical extension or re-creation based on the present invention is protected by the present invention. The protection scope of the present invention is subject to the claims.

Claims

1. Multifunctional ice purifier, including a body, characterized in that, The body includes a pure water making mechanism and an ice making mechanism (1). A pure water flow channel is provided between the pure water making mechanism and the ice making mechanism (1). The ice making mechanism (1) includes an ice making box (11), an ice making assembly (12) and an ice discharging assembly (13). The ice making assembly (12) and the ice discharging assembly (13) are respectively connected to the ice making box (11). A crushed ice assembly (14) is provided between the ice making box (11) and the ice discharging assembly (13).

2. The multifunctional ice purifier according to claim 1, characterized in that, The ice making box (11) is provided with an inner cavity (1101). The ice making assembly (12) is installed in the inner cavity (1101) and close to the top of the inner cavity (1101). In the inner cavity (1101), there is an ice storage cavity (1102) located on one side of the ice making assembly (12), a first ice delivery channel (1103) communicating between the ice making assembly (12) and the ice storage cavity (1102), and a second ice delivery channel (1104) communicating between the ice storage cavity (1102) and the crushed ice assembly (14). A crushed ice cavity (141) communicating with the second ice delivery channel (1104) is provided in the crushed ice assembly (14). An ice discharging slideway (131) communicating with the crushed ice cavity (141) is provided in the ice discharging assembly (13).

3. The multifunctional ice purifier according to claim 2, wherein The crushed ice assembly (14) is installed on the outside of the ice making box (11). The ice discharging assembly (13) is arranged below the crushed ice assembly (14). The crushed ice assembly (14) includes a first housing (142) connected to the ice making box (11) and a crushed ice knife (143). The crushed ice cavity (141) is provided in the first housing (142). The crushed ice knife (143) is rotatably arranged in the crushed ice cavity (141).

4. The multifunctional ice purifier according to claim 2, characterized in that, The ice discharging assembly (13) includes a second housing (132) arranged below the crushed ice assembly (14). The ice discharging slideway (131) is provided in the second housing (132). The end of the ice discharging slideway (131) is an ice discharging port (1311). At least part of the bottom wall of the ice discharging slideway (131) is set as an arc wall (133). The arc wall (133) is provided in the second housing (132) and close to the ice discharging port (1311).

5. The multifunctional ice purifier according to claim 4, wherein The ice discharging assembly (13) further includes a flap (134) arranged at the ice discharging port (1311). A rotating connection part (135) is provided between one end of the flap (134) and the second housing (132). One side of the flap (134) can rotate relative to the ice discharging port (1311) around the rotating connection part (135).

6. The multifunctional ice purifier according to claim 2, wherein The ice-making assembly (12) includes an ice-making box (121), an evaporator (122), a compressor (123), a condenser (124), and a radiator (125). The compressor (123), the condenser (124), and the radiator (125) are respectively arranged inside the machine body. The compressor (123), the condenser (124), and the evaporator (122) are connected to each other. The radiator (125) is arranged on one side of the condenser (124). The ice-making box (121) is rotatably arranged in the inner cavity (1101). An ice-making cavity (1211) with an upward opening is arranged inside the ice-making box (121). Several ice-making heads (126) are arranged at the lower part of the evaporator (122), and each ice-making head (126) can extend into the ice-making cavity (1211).

7. The multifunctional ice purifier according to claim 6, characterized in that, The ice-making assembly (12) further includes a driving motor (127) connected to the ice-making box (121). One end of the driving motor (127) is provided with a motor shaft (1271). The driving motor (127) is installed on the outer side of the ice-making machine (11). The motor shaft (1271) passes through the ice-making machine (11) and is in transmission connection with the ice-making box (121). The driving motor (127) drives the ice-making box (121) to rotate counterclockwise, so that the top of the ice-making box (121) rotates towards the ice storage cavity (1102).

8. The multifunctional ice purifier according to claim 7, characterized in that, The ice-making assembly (12) further includes a guide ice plate (128) arranged on one side of the ice-making box (121). The guide ice plate (128) has a tendency to incline downward. The driving motor (127) drives the ice-making box (121) to rotate counterclockwise and drives the guide ice plate (128) to rotate counterclockwise, so that the side of the guide ice plate (128) far from the ice-making box (121) moves downward.

9. The multifunctional ice purifier according to claim 6, wherein An auxiliary rotating part (129) is arranged at one end of the ice-making box (121) far from the driving motor (127), and the auxiliary rotating part (129) is connected to the ice-making machine (11).

10. The multifunctional ice purifier according to claim 4, characterized in that, A return port (1321) is further arranged in the second housing (132). The return port (1321) and the ice outlet (1311) are arranged along the ice outlet direction of the ice outlet chute (131). A connecting pipe (1322) is arranged at the return port (1321), and the connecting pipe (1322) extends outward from the outer wall of the second housing (132).

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