Ice crushing device and ice purifier with same

Abstract

The utility model relates to the technical field of ice-making water dispensers, in particular to an ice crushing device and an ice purifier with the same. The ice making device is used for making pure water into ice blocks, and then the ice blocks are conveyed into the ice crushing device through the ice conveying channel; the ice crushing device comprises a main support and an ice crushing assembly. An ice crushing cavity, an ice discharging cavity, a first ice outlet channel used for outputting ice in the first state and a second ice outlet channel used for outputting ice in the second state are arranged in the main support. The ice crushing assembly is arranged between the ice crushing cavity and the second ice outlet channel and is used for further crushing the first-state ice to form second-state ice; first-state ice in the ice crushing cavity can be directly output to a user along the first ice outlet channel; or the first-state ice can be further cut up through the ice breaking assembly to form second-state ice, and then the second-state ice is output to the user through the second ice outlet channel; the ice purifier can output different types of ice cubes for users to use, so that different use requirements of the users are met, and the user experience is optimized.

Description

Technical Field

[0001] The utility model relates to the technical field of ice-making and water-drinking machines, in particular to an ice crushing device and an ice purifier having the same. Background Art

[0002] An ice purifier, also known as an ice-making and water-dispensing machine, is an appliance that purifies water, dispenses water, and makes and dispenses ice. Currently, the ice-making mold in an ice purifier typically includes an ice box and an evaporator. The lower portion of the evaporator has an ice-making head that extends into the ice box. The evaporator is connected to a compressor and a condenser. Ice is made by injecting water into the ice box. The refrigerant flows between the compressor, condenser, and evaporator, allowing the low-temperature, low-pressure refrigerant in the evaporator to flow to the ice-making head and absorb heat from the water in the ice box. However, the resulting ice cubes depend on the internal structure of the ice-making mold, resulting in a limited variety of ice cubes available from existing ice-making and water-dispensing machines, making it difficult to meet the diverse ice needs of users.

[0003] The present invention is proposed in view of the deficiencies in the prior art. Utility Model Content

[0004] The present invention aims to solve the problem that the ice cubes produced by the above-mentioned existing ice-making and water-making machines depend on the internal structure of the ice-making mold, resulting in limited types of ice cubes output and difficulty in meeting the various ice needs of users. An ice crushing device and an ice purifier having the same are proposed.

[0005] The technical solution adopted by the utility model to solve its technical problems is:

[0006] An ice crushing device, comprising:

[0007] a main support, wherein the main support is provided with a separate ice crushing chamber and an ice discharge chamber, and a first ice discharge channel and a second ice discharge channel respectively connected to the ice crushing chamber and the ice discharge chamber, the first ice discharge channel being used to discharge ice in a first state, and the second ice discharge channel being used to discharge ice in a second state;

[0008] An ice crushing assembly is provided between the ice crushing chamber and the second ice outlet channel, and is used for further crushing the ice in the first state to form ice in the second state.

[0009] The ice crushing device as described above also includes a sealing device arranged between the first ice outlet channel and the ice discharge chamber, the sealing device having an open state and a sealed state for controlling the opening and closing of the first ice outlet channel; a partition for isolating the ice crushing chamber and the ice discharge chamber is provided in the main bracket, and a first ice discharge port and a second ice discharge port respectively connected to the first ice outlet channel and the second ice outlet channel are provided in the partition, the open state and the sealed state of the sealing device respectively correspond to opening or closing the first ice discharge port, the ice crushing assembly is arranged at the second ice discharge port, and the ice crushing device includes an ice guide rotatably arranged in the ice crushing chamber, the ice guide being used to drive the ice in the first state to move in the ice crushing chamber relative to the first ice discharge port and the ice crushing assembly.

[0010] As described above, the ice crushing device comprises a sealing member rotatably arranged in the ice discharge chamber, a first driving device for driving the sealing member to rotate, the ice discharge chamber comprises a rotating chamber for accommodating the sealing member, a first limiting portion and a second limiting portion respectively arranged on both sides of the rotating chamber, the rotating chamber is connected to the first ice discharge port and the first ice outlet channel, the first driving device can drive the sealing member to rotate between the first limiting portion and the second limiting portion, so that the sealing member can switch between the open state and the sealed state relative to the first ice discharge port; the first limiting portion is used to isolate the first ice outlet channel and the second ice outlet channel; the ice discharge chamber also comprises a third limiting portion opposite to the first limiting portion, and the second ice outlet channel is formed between the third limiting portion and the second limiting portion.

[0011] As described above, the ice crushing device, the first driving device includes a driving motor arranged on one side of the main bracket, and a transmission member arranged between the driving motor and the sealing member, the driving motor is provided with an output shaft connected to the transmission member, the sealing member is provided with a matching portion transmission-connected to the transmission member, and the main bracket is provided with an opening corresponding to the matching portion, the driving motor drives the transmission member to rotate, so that transmission is generated between the transmission member and the matching portion, thereby driving the sealing member to rotate in the rotating chamber; the length of the matching portion is greater than or equal to the rotation distance of the sealing member.

[0012] In the ice crushing device as described above, a first connecting portion is further provided on the side of the seal opposite to the mating portion, and a second connecting portion connected to the main bracket is further provided in the ice discharge chamber, and the seal is rotatably connected to the second connecting portion via the first connecting portion.

[0013] The ice crushing device as described above includes an ice crushing assembly comprising an ice crushing blade arranged between the ice crushing chamber and the second ice outlet channel, the ice crushing blade being arranged close to the second ice outlet, and the blade of the ice crushing blade being able to extend into the ice crushing chamber through the second ice outlet, a gap being formed between the ice crushing blade and the second ice outlet for allowing ice in the second state to pass through and being connected to the second ice outlet channel; the ice crushing device also includes a second driving device for driving the ice guide to rotate, the ice guide being provided with a third connecting portion connected to the second driving device and a third connecting portion connected to the third connecting portion The ice pushing part is connected to and placed in the ice crushing chamber, and the ice pushing parts are provided with a plurality of them and arranged along the circumference of the third connecting part. An ice guide cavity connected to the ice crushing chamber is formed between any two of the ice pushing parts, and each of the ice guide cavities can accommodate ice in the first state. Each of the ice pushing parts is opposite to the partition and forms a rotation gap. The blade of the ice crushing knife extends into the rotation gap through the second ice discharge port. The second driving device can drive the ice guide to rotate in the ice crushing chamber, and drive the ice in the first state to rotate relative to the first ice discharge port and the blade through each of the ice pushing parts.

[0014] According to the ice crushing device as described above, a water guide wall opposite to the ice crushing chamber and a first drain outlet connected between the ice crushing chamber and the ice discharge chamber are further provided in the partition portion, the water guide wall extends downward along the height direction of the main bracket, and the inner diameter of the water guide wall gradually decreases along its extension direction, the first drain outlet is arranged near the bottom end of the water guide wall, the first ice discharge outlet and the second ice discharge outlet are respectively arranged in the water guide wall, a drainage channel is provided between the ice crushing chamber, the water guide wall, the first drain outlet and the ice discharge chamber, and the drainage channel is connected with the first ice outlet channel and the second ice outlet channel.

[0015] The ice crushing device as described above also includes an ice discharge chute connected to the first ice discharge channel and the second ice discharge channel, an ice discharge port provided at the end of the ice discharge chute, the ice discharge chute including a bottom wall provided between the ice discharge cavity and the ice discharge port, a top wall provided above the bottom wall, a first side wall and a second side wall provided between the bottom wall and the top wall and opposite to each other, an ice blocking portion provided on one side of the bottom wall and the ice discharge port, the spacing between the bottom wall and the top wall gradually increasing along the ice discharge direction of the ice discharge chute, the first side wall is provided with a The main support is provided with a first ice guide wall, and the second side wall is provided with a second ice guide wall arranged close to the main support, and the distance between the first ice guide wall and the second ice guide wall gradually decreases along the ice outlet direction of the ice outlet chute; the ice retaining portion is arranged between the top wall, the first side wall and the second side wall; the ice outlet chute further includes a drainage groove and a water retaining portion arranged between the bottom wall and the ice outlet along the ice outlet direction of the ice outlet chute, and a second drain outlet arranged between the drainage groove and the bottom wall, and the water retaining portion extends upward along the height direction of the ice outlet chute.

[0016] In the ice crushing device described above, the main bracket includes a first shell and a second shell arranged above and below, the ice crushing chamber is arranged in the first shell, and the ice discharge chamber is arranged in the second shell. At least a portion of the first shell can extend into the ice discharge chamber, and the partition is arranged in the portion of the first shell extending into the ice discharge chamber.

[0017] The present invention also provides an ice purifier, comprising the ice crushing device as described above, an ice making device arranged on the upper side of the ice crushing device, and an ice delivery channel arranged between the ice making device and the ice crushing device and connected to the ice crushing chamber. The ice making device is used to make ice and transport ice cubes to the ice crushing chamber through the ice delivery channel. The ice cubes entering the ice crushing chamber from the ice making device form the first state ice.

[0018] Compared with the prior art, the beneficial effects of the present invention are:

[0019] 1. The first ice outlet channel and the second ice outlet channel are provided in the ice purifier. Ice in a first state is output to the user through the first ice outlet channel, and ice in a second state is output to the user through the second ice outlet channel. The ice purifier can output different types of ice cubes for the user to meet different user needs and optimize the user experience.

[0020] 2. The ice crushing device is provided with a sealing device capable of controlling the opening and closing of the first ice discharge channel, wherein the sealing device has an open state and a sealed state corresponding to opening or closing the first ice discharge port. When the sealing device is in the open state, the first ice discharge port is connected to the first ice discharge channel, and ice in the first state can be directly output to the user through the first ice discharge channel; when the sealing device is in the sealed state, the first ice discharge port is blocked, and the ice in the first state can be pushed by the ice guide member to the ice crushing assembly for crushing to form ice in the second state, and output to the user through the second ice discharge channel, so as to realize different ice discharge modes of the ice purifier, thereby increasing the ice output types of the ice purifier to meet different ice usage needs of the user; and when the sealing device is in the sealed state, the first ice discharge port is blocked to restrict the ice in the first state from entering the first ice discharge channel, thereby increasing the amount of ice in the first state further crushed by the ice crushing assembly, thereby increasing the output amount of ice in the second state.

[0021] The present invention will be further described below with reference to the accompanying drawings and specific implementation methods. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the connection between the ice making device and the ice crushing device of the present invention;

[0023] Figure 2 for Figure 1 A-A sectional view in FIG;

[0024] Figure 3 The decomposition of the ice crushing device of the utility model Figure 1 ;

[0025] Figure 4 The decomposition of the ice crushing device of the utility model Figure 2 ;

[0026] Figure 5 This is a three-dimensional diagram of the ice crushing device of the present invention;

[0027] Figure 6 This is a top view of the ice crushing device of the present invention;

[0028] Figure 7 for Figure 6 The B-B section view in FIG;

[0029] Figure 8 for Figure 6 The C-C section view in the figure;

[0030] Figure 9 This is a schematic diagram of the sealing device of the present invention in an open state (the first housing is hidden);

[0031] Figure 10 This is a schematic diagram of the sealing device of the present invention in a sealed state (the first housing is hidden);

[0032] Figure 11 It is a side view of the ice crushing device of the present invention;

[0033] Figure 12 for Figure 11 D-D section in Figure 1 (The sealing device is in the open state);

[0034] Figure 13 for Figure 11 D-D section in Figure 2 (The sealing device is in the sealed state). DETAILED DESCRIPTION

[0035] The following describes the embodiments of the present invention in detail with reference to the accompanying drawings.

[0036] Example 1:

[0037] like Figure 1As shown in FIG13 , the ice purifier includes a water purifier, an ice making device 200 and an ice crushing device 100 respectively arranged inside the ice purifier, a pure water flow channel is provided between the water purifier and the ice making device 200, and an ice delivery channel 300 is provided between the ice making device 200 and the ice crushing device 100. Drinkable pure water is prepared by the water purifier, and the pure water is delivered to the ice making device 200 through the pure water flow channel. The pure water is made into ice cubes by the ice making device 200 to improve the quality of the ice cubes, and then the ice cubes are delivered to the ice crushing device 100 through the ice delivery channel 300 for crushing. Specifically, the ice making device 200 and the ice crushing device 100 are arranged up and down in the ice purifier, so that the ice delivery channel 300 has a tendency to deliver ice downward, and the ice cubes in the ice making device 200 are driven by gravity to fall along the ice delivery channel 300 into the ice crushing device 100, so as to reduce the energy consumption of the ice purifier.

[0038] The ice crushing device 100 includes a main bracket 110 arranged inside the ice purifier, an ice crushing assembly arranged in the main bracket 110, an ice crushing chamber 111 and an ice discharge chamber 112 separated from each other are provided in the main bracket 110, and a first ice discharge channel 113 and a second ice discharge channel 114 respectively connected to the ice crushing chamber 111 and the ice discharge chamber 112, the first ice discharge channel 113 is used to output ice in a first state, and the second ice discharge channel 114 is used to output ice in a second state; the ice crushing assembly is arranged between the ice crushing chamber 111 and the second ice discharge channel 114, and is used to The ice in the first state is further crushed to form the ice in the second state; the ice crushing chamber 111 and the ice discharge chamber 112 are distributed up and down in the main bracket 110, the top of the ice crushing chamber 111 is an open end and the ice crushing chamber 111 is connected to the ice delivery channel 300, so that the ice cubes in the ice making device 200 can fall into the ice crushing chamber 111 along the ice delivery channel 300, and the ice cubes entering the ice crushing chamber 111 from the ice making device 200 along the ice delivery channel 300 form the ice in the first state. 0 free fall, during the falling process of ice cubes, there is a possibility that the ice cubes will collide with the ice making device 200 and the wall of the main support 110, and the ice cubes may be broken into small ice cubes of different sizes after the collision. Therefore, the first state ice at least includes the ice cubes that are not broken when entering the ice crushing chamber 111 along the ice delivery channel 300, and the ice cubes that are collided and broken into small ice cubes of different sizes in the ice delivery channel 300; the first state ice in the ice crushing chamber 111 can be directly output to the user along the first ice outlet channel 113; or the first state ice can be further output to the user through the ice crushing assembly The second-state ice is crushed and formed into ice in the second step. Since the ice crushing component is used for crushing ice, the second-state ice can be understood as crushed ice, and the second-state ice can be output to the user through the second ice outlet channel 114; by arranging the first ice outlet channel 113 and the second ice outlet channel 114 in the ice purifier, the first-state ice is output to the user through the first ice outlet channel 113, and the second-state ice is output to the user through the second ice outlet channel 114, so that the ice purifier can output different types of ice cubes for users to meet different usage needs of users and optimize user experience.

[0039] More specifically, Figure 3 、 Figure 4 、 Figure 9As shown in FIG13 , the ice crushing device 100 further includes a sealing device 130 provided between the first ice outlet channel 113 and the ice discharge chamber 112. The sealing device 130 has an open state and a sealed state for controlling the opening and closing of the first ice outlet channel 113. A partition 115 for isolating the ice crushing chamber 111 from the ice discharge chamber 112 is provided in the main bracket 110. The partition 115 is provided with a first ice discharge port 1151 and a second ice discharge port 1152 respectively communicating with the first ice outlet channel 113 and the second ice discharge channel 114. The open state and the sealed state of the sealing device 130 correspond to opening or closing the first ice discharge port 1151, respectively. The ice crushing assembly is arranged at the second ice discharge port 1152, and the ice crushing device 100 further includes an ice guide 140 rotatably arranged in the ice crushing chamber 111, and the ice guide 140 is used to drive the first state ice to move in the ice crushing chamber 111 relative to the first ice discharge port 1151 and the ice crushing assembly; the ice crushing chamber 111 and the ice discharge chamber 112 are respectively arranged on the upper and lower sides of the partition 115, and the first ice discharge port 1151 and the second ice discharge port 1152 are arranged at intervals in the partition 115 and penetrate the partition 115 along the thickness direction of the partition 115, so that the first ice discharge port 1151 and the second ice discharge port 1152 are arranged at intervals in the partition 115 and penetrate the partition 115 along the thickness direction of the partition 115, so that the first ice discharge port 1151 and the second ice discharge port 1152 are arranged at intervals in the partition 115. 2 are respectively connected between the ice crushing chamber 111 and the ice discharge chamber 112, wherein at least a portion of the first ice discharge channel 113 is arranged in the ice discharge chamber 112, that is, a portion of the first ice discharge channel 113 overlaps with the ice discharge chamber 112, and at least a portion of the second ice discharge channel 114 is arranged in the ice discharge chamber 112, that is, a portion of the second ice discharge channel 114 overlaps with the ice discharge chamber 112, so that the first ice discharge channel 113 is arranged between the first ice discharge port 1151 and the ice discharge chamber 112 and is connected to the ice crushing chamber 111, and the second ice discharge channel 114 is arranged between the second ice discharge port 1152 and the ice discharge chamber 112 and is connected to the ice crushing chamber 111. The ice outlet 113 and the ice outlet 114 are connected to each other in the ice discharge chamber 112. It should be noted that, inside the ice discharge chamber 112, the first ice discharge channel 113 and the second ice discharge channel 114 are isolated from each other; by respectively arranging the first ice discharge port 1151 and the second ice discharge port 1152 in the partition 115, and directly dividing the space inside the ice discharge chamber 112 into the first ice discharge channel 113 and the second ice discharge channel 114, the ice discharge length of the first ice discharge channel 113 and the second ice discharge channel 114 can be shortened, so as to improve the ice discharge efficiency of the ice purifier, simplify the internal layout of the ice crushing device 100, reduce the volume of the ice crushing device 100, and thereby improve the utilization rate of the internal space of the ice purifier.

[0040] In addition, the sealing device 130 is provided in a portion of the ice discharge chamber 112 corresponding to the first ice discharge channel 113, that is, the sealing device 130 is provided in the rotating chamber 1121, and the sealing device 130 controls the opening and closing of the first ice discharge channel 113 by controlling the opening or closing of the first ice discharge port 1151, thereby limiting the first-state ice from entering the first ice discharge channel 113; when the sealing device 130 is in the open state, the first ice discharge port 1151 is communicated with the first ice discharge channel 113, and the ice guide 140 rotates in the ice crushing chamber 111, driving the first-state ice to move toward the first ice discharge port 1151 in the ice crushing chamber 111, so that the first-state ice can enter the first ice discharge channel 113 through the first ice discharge port 1151. an ice outlet channel 113, so that the ice purifier can output the first-state ice through the first ice outlet channel 113; when the sealing device 130 is in the sealed state, the first ice outlet 1151 is blocked to restrict the first-state ice in the ice crushing chamber 111 from entering the first ice outlet channel 113. At this time, the ice guide 140 rotates in the ice crushing chamber 111 and drives the first-state ice to move toward the ice crushing assembly in the ice crushing chamber 111, so that the first-state ice can be further crushed by the ice crushing assembly to form the second-state ice, and the second-state ice can enter the second ice outlet channel 114 through the second ice outlet 1152, so that the ice purifier can output the second-state ice through the second ice outlet channel 114. By providing the sealing device 130 capable of controlling the opening and closing of the first ice outlet channel 113 in the ice crushing device 100, the sealing device 130 has an open state and a sealed state corresponding to opening or closing the first ice outlet 1151. When the sealing device 130 is in the open state, the first ice outlet 1151 is connected to the first ice outlet channel 113, and the ice in the first state can be directly output to the user through the first ice outlet channel 113; when the sealing device 130 is in the sealed state, the first ice outlet 1151 is blocked, and the ice in the first state can be directly output to the user through the first ice outlet channel 113. The ice guide 140 is pushed to the ice crushing assembly to crush ice to form the second-state ice, and is output to the user through the second ice outlet channel 114 to realize different ice outlet modes of the ice purifier, thereby increasing the ice output types of the ice purifier to meet the different ice usage needs of the user; and when the sealing device 130 is in the sealed state, the first ice outlet 1151 is blocked to restrict the first-state ice from entering the first ice outlet channel 113, thereby increasing the amount of the first-state ice further crushed by the ice crushing assembly, thereby increasing the output of the second-state ice.

[0041] In some embodiments, as Figure 3 —5. Figure 11As shown in FIG. 13 , the sealing device 130 includes a sealing member 131 rotatably disposed in the ice discharge chamber 112, a first driving device 132 for driving the sealing member 131 to rotate, the ice discharge chamber 112 includes a rotating chamber 1121 for accommodating the sealing member 131, a first limiting portion 1122 and a second limiting portion 1123 respectively disposed on both sides of the rotating chamber 1121, the rotating chamber 1121 being connected to the first ice discharge port 1151 and the first ice discharge channel 113, and the first driving device 132 is capable of driving the sealing member 131 to rotate. The seal 131 rotates between the first limiting portion 1122 and the second limiting portion 1123 so that the seal 131 can switch between the open state and the sealed state relative to the first ice discharge port 1151; the first limiting portion 1122 is used to isolate the first ice discharge channel 113 and the second ice discharge channel 114; the ice discharge chamber 112 also includes a third limiting portion 1124 opposite to the first limiting portion 1122, and the second ice discharge channel 114 is formed between the third limiting portion 1124 and the second limiting portion 1123. In this embodiment, a first limiting portion 1122, a second limiting portion 1123 and a third limiting portion 1124 are circumferentially spaced apart in the ice discharge chamber 112, wherein the rotating chamber 1121 is formed between the first limiting portion 1122 and the second limiting portion 1123, the first ice discharge channel 113 is provided in the rotating chamber 1121, and the first limiting portion 1122 is located between the first ice discharge channel 113 and the second ice discharge channel 114 to separate the two, that is, the first ice discharge channel 113 and the second ice discharge channel 114 are respectively located on both sides of the first limiting portion 1122; the third limiting portion 1124 is correspondingly provided on the lower side of the second ice discharge port 1152, and the second ice discharge channel 114 is formed between the third limiting portion 1124 and the second limiting portion 1123, and the second ice discharge port 1152 is opposite to the second ice discharge channel 114, so that ice in the second state can directly fall into the second ice discharge channel 114 through the second ice discharge port 1152. In addition, in this embodiment, the first limiting portion 1122 is correspondingly arranged at the lower side of the first ice discharge port 1151, and the first ice discharge port 1151 is opposite to the first ice discharge channel 113, so that the ice in the first state can directly fall into the first ice discharge channel 113 through the first ice discharge port 1151; the sealing member 131 is adapted to the shape of the rotating chamber 1121, and the sealing member 131 is rotated in the rotating chamber 1121 by the first driving device 132, and the rotation range of the sealing member 131 is limited by the first limiting portion 1122 and the second limiting portion 1123, as shown in FIG. Figure 13As shown, when the sealing member 131 rotates counterclockwise in the rotating chamber 1121 through the first driving device 132, that is, the side surface of the sealing member 131 opposite to the first limiting portion 1122 continuously approaches the first limiting portion 1122 and rotates until it contacts the first limiting portion 1122, the sealing member 131 completely blocks the first ice discharge port 1151, and the sealing device 130 is in a sealed state; Figure 12 As shown, when the seal 131 is rotated clockwise by the first driving device 132, that is, the side surface of the seal 131 opposite to the first limiting portion 1122 continuously moves away from the first limiting portion 1122, and the side surface of the seal 131 opposite to the first limiting portion 1122 rotates in a direction away from the first ice discharge port 1151 so that the seal 131 gradually opens the first ice discharge port 1151, and the seal 131 stops when it rotates to contact with the second limiting portion 1123. At this time, the first ice discharge port 1151 is connected to the first ice discharge channel 113, and the sealing device 130 is in an open state; the seal 131 rotates between the first limiting portion 1122 and the second limiting portion 1123 to change the position of the seal 131 relative to the first ice discharge port 1151. The blocking area of ​​the first ice discharge port 1151 is reduced, thereby realizing the switching between the open state and the sealed state of the sealing device 130, which has a simple structure and is easy to implement; the first limiting portion 1122 and the second limiting portion 1123 are used to limit the rotation distance of the sealing member 131, which is conducive to ensuring the normal operation of the sealing device 130; the first limiting portion 1122, the second limiting portion 1123 and the third limiting portion 1124 are arranged in the ice discharge chamber 112 at intervals along the circumferential direction to divide the ice discharge chamber 112 into a rotating chamber 1121 (including the first ice discharge channel 113) and the second ice discharge channel 114, which is conducive to simplifying the layout of the first ice discharge channel 113 and the second ice discharge channel 114, thereby simplifying the internal structure of the main bracket 110 and reducing the production cost of the ice crushing device 100. Preferably, in order to further improve the production efficiency and assembly efficiency of the main bracket 110, the first limiting portion 1122, the second limiting portion 1123 and the third limiting portion 1124 are an integrally formed structure with the main bracket 110.

[0042] In some embodiments, as Figure 5As shown, the first driving device 132 includes a driving motor 1321 provided on one side of the main bracket 110, a transmission member 1322 provided between the driving motor 1321 and the sealing member 131, the driving motor 1321 is provided with an output shaft connected to the transmission member 1322, and the sealing member 131 is provided with a matching portion 1311 connected to the transmission member 1322. The driving motor 1321 drives the transmission member 1322 to rotate, so that the transmission member 1322 and the matching portion 1311 are connected to each other. 11, thereby driving the sealing member 131 to rotate in the rotating chamber 1121; the length of the matching portion 1311 is greater than or equal to the rotation distance of the sealing member 131; a first connecting portion 1312 is further provided on the side of the sealing member 131 opposite to the matching portion 1311, and a second connecting portion 1125 connected to the main bracket 110 is further provided in the ice discharge chamber 112, and the sealing member 131 is rotatably connected to the second connecting portion 1125 through the first connecting portion 1312. In this embodiment, the sealing member 131 is provided with the matching portion 1311 on one side and the first connecting portion 1312 on the other side. One side of the sealing member 131 is connected to the transmission member 1322 through the matching portion 1311 and is connected to the main bracket 110 through the first connecting portion 1312. The matching portion 1311 extends toward one side along the top outer edge of the sealing member 131. An opening 116 corresponding to the matching portion 1311 is provided in the main bracket 110, and the opening 116 extends along the circumference of the main bracket 110, so that the matching portion 1311 can extend out of the main bracket 110 and be transmission-connected to the transmission member 1322. The opening 116 is for the matching portion 1 The rotation of the sealing device 130 provides sufficient space. The driving motor 1321 is connected to the transmission member 1322 through the output shaft of the motor 151. The driving motor 1321 drives the transmission member 1322 to rotate circumferentially, and the transmission member 1322 drives the matching portion 1311 to rotate relative to the opening 116, thereby driving the sealing member 131 to rotate in the rotating cavity 1121. The structure is simple and easy to implement. Preferably, in order to further improve the transmission efficiency of the transmission member 1322, the transmission member 1322 and the matching portion 1311 are respectively provided with matching meshing portions. The transmission member 1322 and the matching portion 1311 are meshed and connected through their respective meshing portions to achieve transmission. Optionally, in order to ensure the normal operation of the sealing device 130, the length of the matching portion 1311 is set to be greater than or equal to the rotation distance of the sealing member 131. Further preferably, the length of the matching portion 1311 is approximately one-third to two-thirds of the outer edge length of the sealing member 131.In addition, the first connecting portion 1312 is provided in the seal 131 to enhance the rotational stability of the seal 131. Optionally, the second connecting portion 1125 extends upward from the bottom wall 162 of the main bracket 110. The first connecting portion 1312 and the second connecting portion 1125 can adopt a sleeve connection structure similar to a shaft-hole connection. When the seal 131 is rotated by the first driving device 132, the first connecting portion 1312 can be driven to rotate relative to the second connecting portion 1125 to ensure normal rotation of the seal 131. Preferably, to improve the production efficiency and assembly efficiency of the seal 131, the mating portion 1311 and the first connecting portion 1312 are integrally formed with the seal 131.

[0043] In some embodiments, as Figure 3 —4. Figure 8As shown, the ice crushing assembly includes an ice crushing knife 120 arranged between the ice crushing chamber 111 and the second ice outlet channel 114. The ice crushing knife 120 is arranged close to the second ice outlet 1152, and the blade 121 of the ice crushing knife 120 can extend into the ice crushing chamber 111 through the second ice outlet 1152. A gap 1150 is formed between the ice crushing knife 120 and the second ice outlet 1152, through which the second-state ice can pass and is connected to the second ice outlet channel 114. In this embodiment, a first mounting portion 1155 for mounting the ice crushing blade 120 is provided at the lower portion of the partition 115, and the first mounting portion 1155 is located on one side of the second ice row port 1152. One end of the ice crushing blade 120 is provided with a second mounting portion 122 corresponding to the first mounting portion 1155, and the other end is provided with the blade 121. Optionally, the first mounting portion 1155 and the second mounting portion 122 can be connected by a threaded connection, or the ice crushing blade 120 can be detachably mounted on the partition 115 using fasteners such as screws and bolts. During installation, the first mounting portion 1155 is aligned with the second mounting portion 122 to form a detachable connection. The ice-crushing knife 120 should be connected so as to be installed on the partition 115, and the ice-crushing knife 120 extends obliquely upward into the ice-crushing chamber 111 relative to the second ice-discharging port 1152, so that the blade 121 can extend into the ice-crushing chamber 111, and the gap is formed between the ice-crushing knife 120 and the second ice-discharging port 1152; when the first-state ice is pushed by the ice-guide 140 and rotates relative to the blade 121 of the ice-crushing knife 120, the first-state ice can be further chopped by the blade 121 to form the second-state ice, and the second-state ice can fall into the second ice-discharging channel 114 through the gap 1150. Furthermore, in some embodiments, the first ice discharge port 1151 and the second ice discharge port 1152 are spaced apart along the circumference of the partition 115, and the ice crushing blade 120 extends obliquely upward relative to the second ice discharge port 1152 in a direction away from the first ice discharge port 1151, that is, the blade 121 faces away from the first ice discharge port 1151; Figure 6 As shown, Figure 6 The arrow S1 in FIG. 1 indicates that the ice guide 140 rotates counterclockwise. Figure 6The arrow S2 in the figure indicates that the ice guide 140 rotates clockwise. The ice guide 140 can rotate clockwise or counterclockwise in the ice crushing chamber 111. When the ice guide 140 rotates clockwise, the ice guide 140 pushes the first-state ice to rotate clockwise, so that the first-state ice continuously approaches the blade 121 of the ice crushing knife 120 and forms the second-state ice, which is beneficial for the ice purifier to output the second-state ice; when the ice guide 140 rotates counterclockwise, the ice guide 140 pushes the first-state ice to rotate counterclockwise, so that the first-state ice is preferentially output from the first ice outlet channel 113, and the first-state ice continuously approaches the back of the ice crushing knife 120, which is beneficial for the ice purifier to output the first-state ice.

[0044] Further, such as Figure 6As shown in FIG. 8 , the ice crushing device 100 further includes a second driving device 150 for driving the ice guide 140 to rotate. The ice guide 140 is provided with a third connecting portion 141 connected to the second driving device 150, and an ice pushing portion 142 connected to the third connecting portion 141 and placed in the ice crushing cavity 111. The ice pushing portions 142 are provided with a plurality of ice pushing portions 142 and are arranged along the circumference of the third connecting portion 141. An ice guide cavity 142 communicating with the ice crushing cavity 111 is formed between any two of the ice pushing portions 142. 3. Each of the ice guide cavities 143 is capable of accommodating ice in the first state. Each of the ice pushers 142 is opposite to the partition 115 and forms a rotation gap 144. The blade 121 of the ice crushing knife 120 extends into the rotation gap 144 through the second ice discharge port 1152. The second driving device 150 is capable of driving the ice guide 140 to rotate in the ice crushing cavity 111 and driving the ice in the first state to rotate relative to the first ice discharge port 1151 and the blade 121 through each of the ice pushers 142. In this embodiment, the third connecting portion 141 can be set as a connecting shaft, and a plurality of the ice pushing portions 142 are arranged at equal intervals along the circumference of the third connecting shaft, and each of the ice pushing portions 142 is placed in the ice crushing chamber 111, so that an ice guide chamber 143 connected to the ice crushing chamber 111 is formed between any two of the ice pushing portions 142. Preferably, in order to improve the production efficiency and assembly efficiency of the ice guide member 140, the ice guide member 140 as a whole can be an integrated molding structure.In addition, in some embodiments, in addition to outputting different types of ice cubes through the first ice outlet channel 113 and the second ice outlet channel 114 respectively, the ice purifier can also output the first state ice and the second state ice at the same time. In this embodiment, the ice guide 140 is connected to the second driving device 150 through the third connecting portion 141, the first ice outlet 1151 and the second ice outlet 1152 are arranged at intervals along the circumference of the partition 115, and the ice crushing knife 120 extends obliquely upward relative to the second ice outlet 1152 in a direction away from the first ice outlet 1151, that is, the direction of the blade 121 is away from the first ice outlet 1151; when the sealing device 130 is in the open state, the first ice outlet channel 113 is connected to the first ice outlet 1151, and the second driving device 150 drives the first ice outlet 1151 to the second state. The ice guide 140 rotates in the ice crushing chamber 111 and drives the first-state ice in each ice guide chamber 143 to rotate clockwise relative to the first ice discharge port 1151 and the blade 121 through each ice pushing portion 142. During this process, the first-state ice in the ice guide chamber 143 connected to the first ice discharge port 1151 can enter the first ice discharge channel 113 and be directly output. The first-state ice in the ice guide chamber 143 connected to the second ice discharge port 1152 rotates toward the direction close to the blade 121 and is further crushed by the ice crushing blade 120 to form the second-state ice under the interaction between the corresponding ice pushing portion 142 and the blade 121. The second-state ice then enters the second ice discharge channel 114 through the gap 1150 and is output. In order to ensure that the ice guide 140 rotates smoothly in the ice crushing chamber 111, the ice guide 140 is opposite to the inner wall of the ice crushing chamber 111 and forms the rotation gap 144, and the blade 121 of the ice crushing knife 120 extends into the rotation gap 144 to prevent the blade 121 from extending too far into the ice crushing chamber 111 and blocking the rotation of the ice guide 140, thereby realizing the ice crushing function of the ice crushing device 100.

[0045] In some embodiments, as Figure 7As shown, the second driving device 150 includes a motor 151 and a transmission connecting member 152 provided between the motor 151 and the ice guide 140. The motor 151 and the transmission connecting member 152 are placed below the main bracket 110. The ice guide 140 is connected to the transmission connecting member 152 through the third connecting portion 141. A through hole adapted to the third connecting portion 141 is provided in the main bracket 110. The third connecting portion 141 passes through the through hole and is connected to the transmission connecting member 152. The motor 151 is connected to the transmission connecting member 152 through the output shaft of the motor 151. The transmission connecting member 152 is driven to rotate by the motor 151, and the transmission connecting member 152 drives the third connecting portion 141 to rotate, thereby realizing the rotation of the ice guide 140 in the ice crushing chamber 111. The second driving device 150 has a simple structure and is easy to implement. In addition, a waterproof portion 153 is provided on the side of the transmission connector 152 facing the main bracket 110. The waterproof portion 153 can cover the motor 151 to limit the melted ice water in the main bracket 110 from dripping into the motor 151, thereby protecting the motor 151. During the rotation of the transmission connector 152, the waterproof portion 153 rotates synchronously with the transmission connector 152. The melted ice water leaking from the main bracket 110 can be bounced away by the waterproof portion 153, or when the transmission connector 152 is stationary, the waterproof portion 153 can also prevent the melted ice water from dripping into the motor 151.

[0046] Example 2:

[0047] like Figure 4 、 Figure 6As shown in FIG. 7 , the second embodiment can be a further improvement of the first embodiment. Since the melting of ice cubes will form melt water in the ice crushing device 100, in order to clean up the melt water in time, the ice crushing device 100 is provided with a drainage channel. Specifically, the partition 115 is further provided with a water guide wall 1153 opposite to the ice crushing chamber 111, and a first drainage port 1154 connected between the ice crushing chamber 111 and the ice discharge chamber 112. The water guide wall 1153 is arranged along the height direction of the main bracket 110. The water guide wall 1153 extends downward, and the inner diameter of the water guide wall 1153 gradually decreases along its extension direction. The first drain port 1154 is arranged near the bottom end of the water guide wall 1153. The first ice discharge port 1151 and the second ice discharge port 1152 are respectively arranged in the water guide wall 1153. A drainage channel is provided between the ice crushing chamber 111, the water guide wall 1153, the first drain port 1154 and the ice discharge chamber 112, and the drainage channel is connected to the first ice discharge channel 113 and the second ice discharge channel 114. In this embodiment, the partition 115 can be set as a conical wall body, and the water guide wall 1153 can be understood as the inner wall of the partition 115 opposite to the ice crushing chamber 111. The water guide wall 1153 extends downward along the height direction of the ice crushing chamber 111, and the inner diameter of the water guide wall 1153 gradually decreases along its extension direction, so as to facilitate the downward transportation of ice cubes and ice melt water through the water guide wall 1153. The ice cubes and ice melt water in the ice crushing chamber 111 can be directly moved downward along the water guide wall 1153 to the bottom of the ice crushing chamber 111 due to gravity, which can improve the transportation efficiency of ice cubes and ice melt water and reduce the energy consumption of the ice purifier.The first drain port 1154, the first ice discharge port 1151 and the second ice discharge port 1152 are respectively arranged in the water guide wall 1153 at intervals along the circumferential direction, and the first drain port 1154 is located at the lower side of the first ice discharge port 1151 and the second ice discharge port 1152. The first drain port 1154 is arranged close to the bottom end of the water guide wall 1153 to facilitate the flow of melted ice water along the water guide wall 1153 to the first drain port 1154 and enter the drainage channel from the first drain port 1154. In this embodiment, since the first limiting portion 1122, the second limiting portion 1123 and the third limiting portion 1124 are arranged in the ice discharge chamber 112 at intervals along the circumferential direction, a gap is formed between the second limiting portion 1123 and the third limiting portion 1124. A drainage cavity is connected to the drainage channel, and the first limiting part 1122, the second limiting part 1123 and the third limiting part 1124 are respectively provided with drainage holes connected to the drainage channel, or the first limiting part 1122, the second limiting part 1123 and the third limiting part 1124 are respectively opposite to the second connecting part 1125 in the main bracket 110 and form a drainage gap 1126 connected to the drainage channel, the melted ice water flows into the drainage cavity through the first drain port 1154, and can be discharged to the outside of the main bracket 110 along each of the drainage gaps 1126, so as to realize the cleaning of the melted ice water in the ice crushing device 100, avoid the melted ice water from remaining in the ice crushing device 100 and easily breeding bacteria, thereby ensuring the quality of the ice and the safety of users. It should be noted that the drainage channel is arranged between the water guide wall 1153, the first drain port 1154, the drainage cavity and each of the drainage gaps 1126, and the drainage channel is connected to the first ice outlet channel 113 and the second ice outlet channel 114, so that the melted water of the ice can be discharged to the outside along the drainage channel, the first ice outlet channel 113 and the second ice outlet channel 114.

[0048] Example 3:

[0049] like Figure 6 and Figure 8As shown, the third embodiment can be a combination of the first and second embodiments, or a further improvement of the first or second embodiments. The ice crushing device 100 further includes an ice discharge chute 160 connected to the first ice discharge channel 113 and the second ice discharge channel 114, and an ice discharge port 161 provided at the end of the ice discharge chute 160. The ice discharge chute 160 includes a bottom wall 162 provided between the ice discharge cavity 112 and the ice discharge port 161, a top wall 163 provided above the bottom wall 162, and a first side wall 163 provided between the bottom wall 162 and the top wall 163 and opposite to each other. 4 and the second side wall 165, the spacing between the bottom wall 162 and the top wall 163 gradually increases along the ice discharge direction of the ice discharge chute 160, the first side wall 164 is provided with a first ice guide wall 1641 arranged close to the main support 110, and the second side wall 165 is provided with a second ice guide wall 1651 arranged close to the main support 110, and the spacing between the first ice guide wall 1641 and the second ice guide wall 1651 gradually decreases along the ice discharge direction of the ice discharge chute 160; in this embodiment, the main support 110 is provided with a first ice discharge channel 113 and a second ice discharge channel 113. The ice outlet channel 114 is connected to an open port 117, and the first ice outlet channel 113 and the second ice outlet channel 114 are connected to the ice outlet chute 160 through the open port 117. The top wall 163 and the bottom wall 162 are arranged opposite to each other, and the bottom wall 162 can be understood as the bottom wall 162 of the ice outlet chute 160. The first side wall 164 and the second side wall 165 are arranged opposite to each other and connected between the top wall 163 and the bottom wall 162. The ice outlet chute 160 is formed by the top wall 163, the first side wall 164, the bottom wall 162 and the second side wall 165. The head end of the ice discharge chute 160 is connected to the main bracket 110 through the top wall 163, the first side wall 164, the bottom wall 162 and the second side wall 165, and the end is provided with an ice discharge port 161. Ice in the first ice discharge channel 113 and the second ice discharge channel 114 can enter the ice discharge chute 160 through the open port 117 and slide along the ice discharge chute 160 toward the ice discharge port 161 to the user; the ice discharge direction of the ice discharge chute 160 is the direction from the first ice discharge channel 113 or the second ice discharge channel 114 toward the ice discharge port 161. By arranging the first ice guide wall 1641 and the second ice guide wall 1651 whose spacing gradually decreases along the ice discharging direction, the ice purifier can guide the ice in the first state or the ice in the second state to gather along the ice discharging channel when discharging ice, so that the ice cubes can be concentrated and distributed together when discharging ice to facilitate the user to receive the ice; in addition, the bottom wall 162 extends obliquely downward along the ice discharging direction, so that the spacing between the top wall 163 and the bottom wall 162 gradually increases along the ice discharging direction, so as to facilitate the expansion of the volume of the ice discharging chute 160, promote the smooth sliding of ice cubes, and avoid the ice cubes from being blocked at the ice outlet 161.

[0050] In some embodiments, as Figure 8 As shown, the ice discharge chute 160 further includes an ice blocking portion 166 provided on one side of the bottom wall 162 and the ice discharge port 161, and the ice blocking portion 166 is provided between the top wall 163, the first side wall 164 and the second side wall 165; in this embodiment, one end of the first side wall 164 and the second side wall 165 are connected to form the entire side wall of the ice discharge chute 160, and the overall side wall is connected between the top wall 163 and the bottom wall 162, and the ice blocking portion 166 is formed by the wall bodies of the top wall 163, the first side wall 164 and the second side wall 165 respectively opposite to the ice discharge port 161, and the ice blocking portion 166 limits the escape of ice cubes when being discharged along the ice discharge chute 160, thereby improving the ice discharge efficiency of the ice purifier.

[0051] In some embodiments, as Figure 8 and Figure 12 As shown, the ice discharge chute 160 further includes a drainage groove 167 and a water retaining portion 168 disposed between the bottom wall 162 and the ice discharge port 161 along the ice discharge direction of the ice discharge chute 160, and a second drain outlet 169 disposed between the drainage groove 167 and the bottom wall 162. The water retaining portion 168 extends upward along the height direction of the ice discharge chute 160. The bottom end of the bottom wall 162 extends horizontally toward the ice discharge port 161, and the water retaining portion 168 is connected to a side of the bottom wall 162 near the ice discharge port 161. The water retaining portion 168 extends vertically toward the top wall 163, forming the downwardly concave drainage groove 167 between the water retaining portion 168 and the bottom wall 162. The drainage groove 167 is disposed near the bottom end of the bottom wall 162. Since the main support 110 is provided with a drainage channel as described in the above-mentioned embodiment 2, and the drainage channel is connected to the ice discharge chute 160 through the first ice discharge channel 113 and the second ice discharge channel 114, the melted ice water in the drainage channel can also flow directly along the ice discharge chute 160 and be discharged to the outside of the ice crushing device 100 through the second drainage port 169, which is conducive to the discharge of the melted ice water by the ice crushing device 100; if the melted ice water to be discharged is large, the drainage pressure of the second drainage port 169 can be relieved by the drainage groove 167 to prevent the melted ice water from flowing over the water retaining portion 168 and leaking out of the ice discharge port 161, thereby ensuring the quality of the ice output by the ice purifier and optimizing the user experience; it should be noted that the water retaining portion 168 only needs to extend toward the top wall 163 to be able to prevent water from leaking out of the ice discharge port 161, so as to prevent the water retaining portion 168 from being too high and affecting the ice discharge of the ice purifier.

[0052] In some embodiments, a cold water tank may be provided in the ice purifier, and the cold water tank is provided below the ice crushing device 100. The second drain outlet 169 may be connected to the cold water tank through a pipeline to recycle the melted water of the ice cubes in the ice crushing device 100 into the cold water tank for secondary use, which is beneficial to improving the utilization rate of water resources and reducing waste; a first return flow channel may be provided between the cold water tank and the water purification device, and the water in the cold water tank is diverted to the water purification device through the first return flow channel for secondary filtration, so as to improve the water quality and the quality of ice cubes; a second return flow channel may be provided between the cold water tank and the ice making device 200, and the water in the cold water tank is diverted to the ice making device 200 through the second return flow channel to make ice.

[0053] Example 4:

[0054] like Figure 3 As shown in FIG. 5 , the only difference between this fourth embodiment and the aforementioned first to third embodiments is that the main bracket 110 includes a first shell 101 and a second shell 102 arranged vertically. The ice crushing chamber 111 is disposed within the first shell 101, and the ice discharge chamber 112 is disposed within the second shell 102. At least a portion of the first shell 101 can extend into the ice discharge chamber 112, and the partition 115 is disposed within the portion of the first shell 101 that extends into the ice discharge chamber 112. The first shell 101 and the second shell 102 are detachably connected vertically to facilitate assembly and disassembly of the various components of the ice crushing device 100. In some embodiments, an opening 116 is formed between the first shell 101 and the second shell 102, through which the mating portion 1311 passes. The opening 116 extends along the outer circumference of the first shell 101 and the second shell 102, thereby providing ample rotational space for the mating portion 1311. In some embodiments, the ice discharging chute 160 is connected to one side of the second shell 102 , so that the ice crushing cavity 111 is in communication with the ice discharging chute 160 .

[0055] On the other hand, the specific steps of the ice making method based on the above ice purifier are as follows:

[0056] Pure water is produced by a water purification device, and the pure water is directed to the ice-making device 200 through a pure water flow channel; specifically, the water purification device includes a raw water tank and a filter assembly, the raw water tank contains raw water, a raw water flow channel is provided between the raw water tank and the raw water input end of the filter assembly, and a pure water flow channel is provided between the pure water output end of the filter assembly and the ice-making device 200. The raw water in the raw water tank is directed to the filter assembly through the raw water flow channel for filtration and production of drinkable pure water, and then the pure water is directed to the ice-making device 200 through the pure water flow channel.

[0057] The ice making device 200 makes ice, and the ice cubes made by the ice making device 200 are transported to the ice crushing chamber 111 through the ice delivery channel 300. The ice cubes entering the ice crushing chamber 111 from the ice making device 200 form the first state of ice. Specifically, the ice making device 200 includes a refrigerator 210 and an ice making assembly 220. The refrigerator 210 is provided with an ice storage chamber 211 that is connected to the ice delivery channel 300. The ice making assembly 220 is installed in the refrigerator 210 and is located at On the upper side of the ice storage chamber 211, the pure water flow channel is connected between the pure water output end of the filter assembly and the ice making assembly 220. Inside the ice purifier, the ice delivery channel 300 is connected between the ice storage chamber 211 and the ice crushing chamber 111. Pure water is injected into the ice making assembly 220 through the pure water flow channel, and then ice cubes are made by the ice making assembly 220 and poured downward into the ice storage chamber 211. The ice cubes fall along the ice delivery channel 300 and enter the ice crushing chamber 111, and the first state of ice is formed in the ice crushing chamber 111.

[0058] The first-state ice is output through the first ice outlet channel 113; the first-state ice is further crushed by the ice crushing assembly to form the second-state ice, and the second-state ice is output through the second ice outlet channel 114. According to the various embodiments of the above-mentioned ice crushing device 100, through the different operating states of the sealing device 130, the different rotation directions of the ice guide 140 and the orientation of the blade 121 of the ice crushing knife 120, the ice purifier has at least three ice output modes; specifically, the first-state ice that freely falls along the ice delivery channel 300 into the ice crushing chamber 111 is scattered in each of the ice guide cavities 143, and each of the ice guide cavities 143 is separated by any two of the ice pushing parts 142 in the ice guide 140 and the inner wall of the ice crushing chamber 111 (i.e., the inner wall of the main bracket 110). The ice guide 140 is rotated in the ice crushing chamber 111 by the second driving device 150, and the ice pushing parts 142 drive the ice in the first state to rotate relative to the first ice discharge port 1151 and the blade 121 of the ice crushing knife 120. The ice crushing knife 120 extends obliquely upward relative to the second ice discharge port 1152 and the blade 121 extends into the ice crushing chamber 111, and the blade 121 faces away from the first ice discharge port 1151. When the sealing device 130 is in the open state, the first ice discharge port 1151 and the ice crushing knife 120 are rotated relative to the first ice discharge port 1151. The first ice outlet channel 113 is connected, and when the ice guide 140 rotates counterclockwise in the ice crushing chamber 111, the ice in the first state is pushed to rotate counterclockwise by the ice pushing parts 142, so that the ice in the first state directly enters the first ice outlet channel 113 through the first ice outlet 1151 and is preferentially output from the first ice outlet channel 113, and the ice in the first state continuously approaches the back of the ice crushing knife 120, thereby limiting the ice in the first state from being crushed by the blade 121 of the ice crushing knife 120 to form ice in the second state, so that the ice purifier can output the ice in the second state. First-state ice; when the sealing device 130 is in the sealed state, the first ice discharge port 1151 is blocked by the sealing member 131, and the ice guide 140 rotates clockwise in the ice crushing chamber 111, the ice pushers 142 push the first-state ice to rotate clockwise, causing the first-state ice to continuously approach the blade 121 of the ice crushing blade 120 and form the second-state ice. The second-state ice enters the second ice discharge channel 114 through the second ice discharge port 1152 and is discharged, so that the ice purifier can output the second-state ice.When the sealing device 130 is in the open state, the first ice discharge port 1151 is connected to the first ice discharge channel 113, and the ice guide 140 rotates clockwise in the ice crushing chamber 111, the first-state ice in each of the ice guide cavities 143 will pass through the first and second ice discharge ports 1151 and 1152. The ice pushers 142 push the first-state ice clockwise, and some of the first-state ice will gradually approach the blade 121 of the ice crushing blade 120 and form the second-state ice. This second-state ice can enter the second ice discharge channel 114 through the second ice discharge port 1152 and be discharged. Some of the first-state ice can directly enter the first ice discharge channel 113 from the first ice discharge port 1151 and be discharged, so that the ice purifier can simultaneously output the first and second-state ice. Through the above configuration, the ice purifier has multiple ice discharge modes to meet the ice usage needs in different application scenarios and optimize the user experience.

[0059] The above examples are merely used to further illustrate the technical content of the present invention for easier understanding by the reader. However, they do not limit the implementation of the present invention to these examples. Any technical extension or reinvention based on the present invention is protected by the present invention. The scope of protection of the present invention shall be determined by the claims.

Claims

1. An ice crushing device, characterized in that: The ice crushing device (100) comprises: A main support (110), wherein the main support (110) is provided with a separated ice crushing chamber (111) and an ice discharge chamber (112), and a first ice discharge channel (113) and a second ice discharge channel (114) respectively connected to the ice crushing chamber (111) and the ice discharge chamber (112), wherein the first ice discharge channel (113) is used to output ice in a first state, and the second ice discharge channel (114) is used to output ice in a second state; An ice crushing assembly is provided between the ice crushing chamber (111) and the second ice outlet channel (114), and is used for further crushing the ice in the first state to form ice in the second state.

2. An ice crushing device according to claim 1, characterized in that: The ice crushing device (100) further comprises a sealing device (130) provided between the first ice outlet channel (113) and the ice discharge chamber (112), the sealing device (130) having an open state and a sealed state for controlling the opening and closing of the first ice outlet channel (113); A partition (115) for isolating the ice crushing chamber (111) from the ice discharge chamber (112) is provided in the main bracket (110); a first ice discharge port (1151) and a second ice discharge port (1152) are provided in the partition (115), which are respectively connected to the first ice discharge channel (113) and the second ice discharge channel (114); the open state and the sealed state of the sealing device (130) correspond to opening or closing the first ice discharge port (1151), respectively; the ice crushing assembly is provided at the second ice discharge port (1152); and the ice crushing device (100) includes an ice guide (140) rotatably provided in the ice crushing chamber (111); the ice guide (140) is used to drive ice in the first state to move in the ice crushing chamber (111) relative to the first ice discharge port (1151) and the ice crushing assembly.

3. An ice crushing device according to claim 2, characterized in that: The sealing device (130) comprises a sealing member (131) rotatably arranged in the ice discharge chamber (112), a first driving device (132) for driving the sealing member (131) to rotate, the ice discharge chamber (112) comprising a rotating chamber (1121) for accommodating the sealing member (131), a first limiting portion (1122) and a second limiting portion (1123) respectively arranged on both sides of the rotating chamber (1121), the rotating chamber (1121) and the first ice discharge port ( 1151) and the first ice outlet channel (113) are connected, the first driving device (132) can drive the sealing member (131) to rotate between the first limiting portion (1122) and the second limiting portion (1123), so that the sealing member (131) can switch between the open state and the sealed state relative to the first ice outlet (1151); the first limiting portion (1122) is used to isolate the first ice outlet channel (113) and the second ice outlet channel (114); The ice discharge chamber (112) further comprises a third limiting portion (1124) opposite to the first limiting portion (1122), and the second ice discharge channel (114) is formed between the third limiting portion (1124) and the second limiting portion (1123).

4. An ice crushing device according to claim 3, characterized in that: The first driving device (132) comprises a driving motor (1321) provided on one side of the main support (110), and a transmission member (1322) provided between the driving motor (1321) and the sealing member (131); the driving motor (1321) is provided with an output shaft connected to the transmission member (1322); the sealing member (131) is provided with a matching portion (1311) connected to the transmission member (1322); the main support (110) is provided with an opening (116) corresponding to the matching portion (1311); the driving motor (1321) drives the transmission member (1322) to rotate, so that transmission is generated between the transmission member (1322) and the matching portion (1311), thereby driving the sealing member (131) to rotate in the rotating chamber (1121); the length of the matching portion (1311) is greater than or equal to the rotation distance of the sealing member (131).

5. The ice crushing device according to claim 4, characterized in that: A first connecting portion (1312) is further provided on a side of the sealing member (131) opposite to the matching portion (1311), and a second connecting portion (1125) connected to the main bracket (110) is further provided in the ice discharge chamber (112), and the sealing member (131) is rotatably connected to the second connecting portion (1125) via the first connecting portion (1312).

6. The ice crushing device according to claim 2, characterized in that: The ice crushing assembly includes an ice crushing knife (120) disposed between the ice crushing chamber (111) and the second ice outlet channel (114); the ice crushing knife (120) is disposed close to the second ice outlet (1152); and the blade (121) of the ice crushing knife (120) can extend into the ice crushing chamber (111) through the second ice outlet (1152); a gap (1150) is formed between the ice crushing knife (120) and the second ice outlet (1152) for allowing ice in the second state to pass through and communicating with the second ice outlet channel (114); The ice crushing device (100) further includes a second driving device (150) for driving the ice guide member (140) to rotate, the ice guide member (140) is provided with a third connecting portion (141) connected to the second driving device (150), and an ice pushing portion (142) connected to the third connecting portion (141) and disposed in the ice crushing cavity (111), the ice pushing portions (142) being provided with a plurality of ice pushing portions (142) and arranged along the circumference of the third connecting portion (141), and an ice guide cavity (143) communicating with the ice crushing cavity (111) is formed between any two of the ice pushing portions (142), each of which is connected to the ice crushing cavity (111). The ice guide chamber (143) is capable of accommodating ice in the first state, each of the ice pushing parts (142) is opposite to the partition (115) and forms a rotation gap (144), and the blade (121) of the ice crushing knife (120) extends into the rotation gap (144) through the second ice discharge port (1152), and the second driving device (150) is capable of driving the ice guide (140) to rotate in the ice crushing chamber (111), and driving the ice in the first state to rotate relative to the first ice discharge port (1151) and the blade (121) through each of the ice pushing parts (142).

7. The ice crushing device according to claim 2, characterized in that: The partition (115) is further provided with a water guide wall (1153) opposite to the ice crushing chamber (111), and a first drain port (1154) communicating between the ice crushing chamber (111) and the ice discharge chamber (112); the water guide wall (1153) extends downward along the height direction of the main bracket (110), and the inner diameter of the water guide wall (1153) gradually decreases along its extension direction; the first drain port (1154) is provided near the bottom end of the water guide wall (1153); the first ice discharge port (1151) and the second ice discharge port (1152) are respectively provided in the water guide wall (1153); a drainage channel is provided between the ice crushing chamber (111), the water guide wall (1153), the first drain port (1154) and the ice discharge chamber (112); the drainage channel is communicated with the first ice discharge channel (113) and the second ice discharge channel (114).

8. The ice crushing device according to claim 1, characterized in that: The ice crushing device (100) further comprises an ice discharge chute (160) in communication with the first ice discharge channel (113) and the second ice discharge channel (114), an ice discharge port (161) provided at the end of the ice discharge chute (160), the ice discharge chute (160) comprising a bottom wall (162) provided between the ice discharge cavity (112) and the ice discharge port (161), a top wall (163) provided above the bottom wall (162), a first side wall (164) and a second side wall (165) provided between the bottom wall (162) and the top wall (163) and arranged opposite to each other, an ice blocking portion (164) provided on one side of the bottom wall (162) and the ice discharge port (161), and a second side wall (165) provided on one side of the bottom wall (162) and the ice discharge port (161). 6), the spacing between the bottom wall (162) and the top wall (163) gradually increases along the ice outlet direction of the ice outlet chute (160), the first side wall (164) is provided with a first ice guide wall (1641) arranged close to the main bracket (110), the second side wall (165) is provided with a second ice guide wall (1651) arranged close to the main bracket (110), and the spacing between the first ice guide wall (1641) and the second ice guide wall (1651) gradually decreases along the ice outlet direction of the ice outlet chute (160); the ice blocking portion (166) is provided between the top wall (163), the first side wall (164) and the second side wall (165); The ice discharge chute (160) further comprises a drainage groove (167) and a water retaining portion (168) arranged between the bottom wall (162) and the ice discharge port (161) along the ice discharge direction of the ice discharge chute (160), and a second drainage port (169) arranged between the drainage groove (167) and the bottom wall (162), wherein the water retaining portion (168) extends upward along the height direction of the ice discharge chute (160).

9. The ice crushing device according to claim 2, characterized in that: The main bracket (110) comprises a first shell (101) and a second shell (102) arranged above and below, the ice crushing chamber (111) being arranged in the first shell (101), the ice discharge chamber (112) being arranged in the second shell (102), at least a portion of the first shell (101) being able to extend into the ice discharge chamber (112), and the partition (115) being arranged in the portion of the first shell (101) extending into the ice discharge chamber (112).

10. An ice purifier, characterized in that: The invention comprises an ice crushing device (100) according to any one of claims 1 to 9, an ice making device (200) provided on the upper side of the ice crushing device (100), and an ice delivery channel (300) provided between the ice making device (200) and the ice crushing device (100) and connected to the ice crushing chamber (111), wherein the ice making device (200) is used for making ice and delivering ice cubes to the ice crushing chamber (111) through the ice delivery channel (300), and the ice cubes entering the ice crushing chamber (111) from the ice making device (200) form the first state ice.

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