Ice feeding mechanism for ice purifier and ice purifier

Abstract

The utility model relates to the technical field of ice-making water dispensers, in particular to an ice delivery mechanism for an ice purifier and the ice purifier, the ice delivery mechanism is mounted in the ice purifier and comprises an ice delivery part, an ice delivery channel is arranged in the ice delivery part and connected with an ice inlet and an ice outlet, and the ice inlet and the ice outlet are communicated with each other. The ice inlets and the ice outlets are distributed at intervals in the longitudinal direction of the ice conveying channel. Compared with transverse ice conveying of a traditional ice-making water dispenser, the ice purifier has the advantages that the ice conveying channel is arranged to be longitudinal ice conveying, the ice conveying mechanism conveys ice blocks longitudinally through the ice conveying channel, the height space in the ice purifier can be effectively utilized, the ice block storage space is increased in the limited equipment internal space, and the ice making efficiency is improved. The space utilization rate of the ice purifier is improved, the ice block supply amount of the ice purifier can be increased, and user experience can be optimized.

Description

Technical Field

[0001] This utility model relates to the technical field of ice-making water dispensers, and more particularly to an ice delivery mechanism for an ice purifier and the ice purifier itself. Background Technology

[0002] An ice purifier is a smart small appliance that combines ice making, water purification, and drinking water functions. It first filters raw water to produce pure water, and then uses the pure water to make ice, thus integrating water purification, drinking water, and ice making. It is more convenient to use than a simple water dispenser or ice maker.

[0003] Existing ice purifiers typically use horizontal or inclined ice dispensing methods. For example, Chinese patent application No. 202410689447.8 discloses an ice-making water dispenser with an ice guide slide that is inclined upward between the bottom of the ice storage compartment and the ice outlet. A spiral ice dispensing rod is arranged parallel above the ice guide slide. As can be clearly seen from the attached drawings, the ice guide slide is roughly horizontally arranged in the ice-making water dispenser. In the limited internal space of the ice-making water dispenser, this ice guide slide occupies a large space, compressing the ice storage space and thus reducing the space utilization rate of the ice purifier.

[0004] This utility model was proposed in response to the shortcomings of the existing technology. Utility Model Content

[0005] This invention addresses the problem that existing ice purifiers typically use horizontal or inclined ice delivery methods, which, in the limited internal space of the water dispenser, result in a large proportion of space occupied by the horizontally oriented ice guide slide, compressing the ice storage space and thus reducing the space utilization rate of the ice purifier. The invention proposes an ice delivery mechanism and an ice purifier for ice purifiers.

[0006] The technical solution adopted by this utility model to solve its technical problem is:

[0007] An ice delivery mechanism for an ice purifier, the ice delivery mechanism includes an ice delivery component, the ice delivery component is provided with an ice delivery channel, the ice delivery channel is connected to an ice inlet and an ice outlet, the ice inlet and the ice outlet are distributed at intervals along the longitudinal direction of the ice delivery channel.

[0008] As described above, in an ice-feeding mechanism for an ice purifier, the ice-feeding channel is spirally arranged along the longitudinal direction of the ice-feeding component.

[0009] As described above, an ice-feeding mechanism for an ice purifier includes a connecting rod and ice-feeding blades connected to the connecting rod. The ice-feeding blades are spirally arranged along the outer wall of the connecting rod to form the ice-feeding channel.

[0010] As described above, an ice delivery mechanism for an ice purifier has an ice inlet provided with a guide plate for guiding ice into the ice delivery channel, and the guide plate is connected to the end of the ice delivery blade.

[0011] As described above, an ice-feeding mechanism for an ice purifier further includes an ice-feeding cylinder with an inner cavity. An ice-feeding component is vertically disposed within the inner cavity, and an ice-feeding channel is formed between the ice-feeding cylinder and the ice-feeding component.

[0012] As described above, in an ice delivery mechanism for an ice purifier, the ice inlet and ice outlet are respectively located in the ice delivery cylinder.

[0013] As described above, in an ice-feeding mechanism for an ice purifier, the ice-feeding blades and the connecting rod are integrally formed.

[0014] As described above, an ice-feeding mechanism for an ice purifier further includes a driver. One end of the ice-feeding component extends to the outside of the ice-feeding cylinder and is connected to the driver for transmission. The driver drives the ice-feeding component to rotate relative to the ice-feeding cylinder in the inner cavity. The driver includes a motor and a motor output shaft connected to each other. The end of the ice-feeding component is provided with a mounting part connected to the motor output shaft.

[0015] As described above, an ice delivery mechanism for an ice purifier includes an ice crushing mechanism at the ice outlet. The ice crushing mechanism has an ice crushing chamber and an ice outlet channel that are sequentially connected to the ice outlet. An ice crusher is installed inside the ice crushing chamber, and at least part of the bottom wall of the ice outlet channel is configured as an arc-shaped section.

[0016] An ice purifier includes an ice delivery mechanism as described above.

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

[0018] 1. Compared with the horizontal ice delivery of traditional ice makers and water dispensers, the ice purifier of this utility model sets the ice delivery channel to vertical ice delivery. The ice delivery mechanism transports ice blocks vertically through the ice delivery channel, which can effectively utilize the internal height space of the ice purifier, increase the ice storage space in the limited internal space of the equipment, improve the space utilization rate of the ice purifier, and also increase the ice supply of the ice purifier, which is conducive to optimizing the user experience.

[0019] 2. By spirally arranging the ice delivery channel along the longitudinal direction of the ice delivery component, the ice delivery mechanism can drive the ice block to spirally rise or spirally fall along the ice delivery channel to achieve the purpose of conveying ice blocks. Vertical spiral conveying of ice blocks has stronger adaptability. In the actual production of the ice purifier, by adjusting the spiral spacing of the ice delivery component, the ice delivery channel can adapt to ice blocks of different sizes and shapes. Moreover, during the ice dispensing process, the ice block is in a stationary state relative to the ice delivery component, which can reduce ice block wear and thus maintain the integrity of the ice block.

[0020] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description

[0021] Figure 1 This is a perspective view of the ice feeding mechanism and the ice crushing mechanism of this utility model;

[0022] Figure 2 for Figure 1 An exploded view of the ice delivery mechanism in the diagram;

[0023] Figure 3 This is a top view of the ice feeding mechanism and ice crushing mechanism of this utility model;

[0024] Figure 4 for Figure 3 Section A-A in Figure 1 ;

[0025] Figure 5 for Figure 3 Section A-A in Figure 2 . Detailed Implementation

[0026] The embodiments of this utility model will now be described in detail with reference to the accompanying drawings.

[0027] like Figure 1As shown in Figure 5, this utility model provides an ice-feeding mechanism for an ice purifier and an ice purifier. The ice purifier is similar to the ice-making water dispenser in the prior art, and can first produce pure water and then use the pure water to make ice. The ice purifier includes an ice-feeding mechanism, which includes an ice-feeding component 1. The ice-feeding component 1 is provided with an ice-feeding channel 101. The ice-feeding channel 101 is connected to an ice inlet 102 and an ice outlet 103. The ice inlet 102 and the ice outlet 103 are distributed at intervals along the longitudinal direction of the ice-feeding channel 101. In this embodiment, the ice-feeding mechanism is installed inside the ice purifier and is suitable for transporting and discharging the ice blocks processed by the ice purifier. During installation, the ice-feeding component 1 can be vertically arranged inside the ice purifier to ensure that the ice-feeding channel 101 is longitudinally arranged inside the ice purifier. The two ends of the ice-feeding channel 101 are respectively connected to an ice inlet 102 and an ice outlet 103, and the ice inlet 102 and the ice outlet 103 are distributed at intervals along the longitudinal direction of the ice-feeding channel 101. During the ice discharging process, the ice blocks can enter the ice-feeding channel 101 from the ice inlet 102, move along the ice-feeding channel 101, and finally be discharged from the ice outlet 103. The ice-feeding component 1 can carry the ice blocks and drive the ice blocks to move along the ice-feeding channel 101. It should be noted that the size of the ice blocks that can enter the ice-feeding channel 101 is adapted to the ice inlet 102, the ice-feeding channel 101, and the ice outlet 103. Furthermore, the specific arrangement of the ice inlet 102 and the ice outlet 103 is not limited. For example, when the ice inlet 102 is located near the bottom of the ice delivery channel 101, the ice outlet 103 is located above the ice inlet 102; when the ice inlet 102 is located near the top of the ice delivery channel 101, the ice outlet 103 is located below the ice inlet 102. Compared to the horizontal ice delivery of traditional ice-making water dispensers, the ice purifier in this embodiment sets the ice delivery channel 101 to vertical ice delivery. In actual installation, the ice delivery mechanism is also vertically distributed, so that the ice delivery channel 101 is kept vertically arranged inside the ice purifier. By transporting ice blocks vertically through the ice delivery channel 101, the internal height space of the ice purifier can be effectively utilized, increasing the ice storage space in the limited internal space of the equipment, improving the space utilization rate of the ice purifier, and also increasing the ice supply of the ice purifier, which is beneficial to optimizing the user experience.

[0028] Specifically, the ice delivery channel 101 is spirally arranged along the longitudinal direction of the ice delivery component 1. For example... Figure 5 As shown, Figure 5The dotted spiral line in the diagram represents the trajectory of the ice block spiraling upwards along the ice delivery channel 101. In this embodiment, the ice delivery mechanism can drive the ice block to move spirally upwards or downwards along the ice delivery channel 101 to achieve the purpose of conveying ice blocks. Vertical spiral conveying of ice blocks has stronger adaptability. In the actual production of the ice purifier, by adjusting the spiral spacing of the ice delivery component 1, the ice delivery channel 101 can adapt to ice blocks of different sizes and shapes. Moreover, during the ice discharge process, the ice block is stationary relative to the ice delivery component 1, which can reduce ice block wear and maintain the integrity of the ice block. It should be noted that the ice inlet 102 and the ice outlet 103 are set corresponding to the spiral trend line of the ice delivery channel 101.

[0029] More specifically, such as Figure 2 and Figure 4 As shown, the ice-feeding component 1 includes a connecting rod 11 and an ice-feeding blade 12 connected to the connecting rod 11. The ice-feeding blade 12 is spirally arranged along the outer wall of the connecting rod 11 to form the ice-feeding channel 101. In this embodiment, the ice-feeding blade 12 is preferably a one-piece structure, and the ice-feeding blade 12 is spirally arranged along the outer wall of the connecting rod 11. In actual production, the spiral spacing of the ice-feeding blade 12 can be adjusted to accommodate ice blocks of different sizes and shapes, thereby improving the versatility and flexibility of the ice-feeding mechanism. In addition, during the ice-feeding process, the ice block is supported by the ice-feeding blade 12 and moves along the ice-feeding channel 101. The one-piece ice-feeding blade 12 can better support the ice block and is more conducive to maintaining the integrity of the ice-feeding channel 101, thereby ensuring the smooth delivery of the ice block.

[0030] Preferred, such as Figure 4As shown, in order to better guide ice into the ice delivery channel 101, an inlet 102 is provided with an inlet plate 13 for guiding ice into the ice delivery channel 101. The inlet plate 13 is connected to the end of the ice delivery blade 12. In this embodiment, the inlet plate 13 is provided on one side of the ice inlet 102, and the inlet plate 13 is arranged along the spiral trend of one end of the ice delivery blade 12, that is, the top surface of the inlet plate 13 corresponds to the spiral trend of the ice delivery channel 101. In some embodiments, when the ice inlet 102 is positioned near the top of the ice delivery component 1, the guide plate 13 is connected to the first end of the ice delivery blade 12 and can be located at the top of the ice inlet 102; when the ice inlet 102 is positioned near the bottom of the ice delivery component 1, the guide plate 13 is connected to the tail end of the ice delivery blade 12 and can be located at the bottom of the ice inlet 102; during the ice delivery process, the guide plate 13 guides each ice block into the ice delivery channel 101 in an orderly manner to prevent a large amount of ice blocks from accumulating and blocking the ice inlet 102, which is conducive to the smooth delivery of ice blocks. In addition, the guide plate 13 can also prevent ice blocks from overflowing outside the ice delivery channel 101 and prevent ice blocks from entering other parts of the equipment, thereby ensuring the safety of the ice purifier.

[0031] Preferably, in order to enhance the structural strength and service life of the ice delivery component 1, the ice delivery blade 12 and the connecting rod 11 are integrally formed; in addition, the integral forming of the ice delivery blade 12 and the connecting rod 11 reduces the number of parts and simplifies the production and installation of the ice delivery component 1.

[0032] like Figure 2 and Figure 4 As shown, in some embodiments, the ice delivery mechanism further includes an ice delivery cylinder 2, which has an inner cavity 201. The ice delivery component 1 is vertically disposed in the inner cavity 201, and the ice delivery channel 101 is formed between the ice delivery cylinder 2 and the ice delivery component 1. In this embodiment, the ice delivery cylinder 2 is installed inside the ice purifier. The ice delivery cylinder 2 is hollow, forming the inner cavity 201. The ice delivery component 1 is vertically arranged within the inner cavity 201. More specifically, in other embodiments, the connecting rod 11 is placed in the inner cavity 201 and coaxially arranged with the ice delivery cylinder 2. The ice delivery blade 12 is placed between the ice delivery cylinder 2 and the connecting rod 11, with the inner edge of the ice delivery blade 12 connected to the connecting rod 11 and the outer edge of the ice delivery blade 12 facing the inner wall of the ice delivery cylinder 2, so that a spiral ice delivery channel 101 is formed between the connecting rod 11, the ice delivery blade 12, and the ice delivery cylinder 2. It should be noted that the ice delivery blade 12 is not connected to the ice delivery cylinder 2. The ice delivery cylinder 2 forms a barrier wall on the outside of the ice delivery channel 101 to prevent ice from falling out of the ice delivery channel 101 during transportation, thereby reducing the ice supply and compromising the safety of the ice purifier.

[0033] like Figure 4 As shown, preferably, the ice inlet 102 and the ice outlet 103 are respectively located in the ice delivery cylinder 2. In this embodiment, the ice delivery channel 101 is a channel open at both ends for ice blocks to pass through. The ice delivery cylinder 2 is provided with an ice inlet 102 and an ice outlet 103 corresponding to the entry and exit of ice blocks, respectively. The ice inlet 102 and the ice outlet 103 are respectively connected to the ice delivery channel 101 to facilitate the smooth entry of ice blocks into the ice delivery channel 101.

[0034] like Figure 4 and Figure 5 As shown, preferably, the ice-feeding mechanism further includes a driver 3. One end of the ice-feeding component 1 extends to the outside of the ice-feeding cylinder 2 and is connected to the driver 3 for transmission. The driver 3 drives the ice-feeding component 1 to rotate relative to the ice-feeding cylinder 2 in the inner cavity 201. The driver 3 includes a motor 31 and a motor output shaft 32 connected to each other. The end of the ice-feeding component 1 is provided with a mounting part connected to the motor output shaft 32. In this embodiment, the motor 31 and the motor output shaft 32 are fixedly connected, and the ice-feeding component 1 is detachably connected to the motor output shaft 32 through the mounting part. Specifically, in some other embodiments, the mounting part is located at the end of the connecting rod 11, and the connecting rod 11 is detachably connected to the motor output shaft 32 through the mounting part. When the ice-feeding mechanism is running, the ice block enters into the ice-feeding channel 101, and the motor 31 drives the ice-feeding component 1 to rotate relative to the ice-feeding cylinder 2 in the inner cavity 201, thereby driving the ice-feeding blade 12 to rotate. Thus, the ice block is moved along the ice-feeding channel 101 by the ice-feeding blade 12, realizing the spiral conveying of the ice block. More preferably, the driver 3 is preferably set as a common motor 31, which is easy to obtain and has a low production cost. Optionally, the connecting rod 11 and the motor output shaft 32 can be connected by direct connection, threaded connection or key connection, etc. The mounting part in the connecting rod 11 is the part of the connecting rod 11 used to connect with the motor output shaft 32.

[0035] like Figure 4 and Figure 5As shown, preferably, to further optimize the user experience, an ice-crushing mechanism 4 is provided at the ice outlet 103. The ice-crushing mechanism 4 has an ice-crushing chamber 401 and an ice-discharging channel 402 that are sequentially connected to the ice outlet 103. An ice crusher 41 is provided in the ice-crushing chamber 401, and at least a portion of the bottom wall of the ice-discharging channel 402 is configured as an arc-shaped section 403. In this embodiment, the ice-crushing mechanism 4 is used to further break larger ice particles into smaller ice particles and deliver them to the user. The ice-crushing chamber 401 is connected between the ice outlet 103 and the ice-discharging channel 402. By crushing the ice with the ice crusher 41, larger ice particles are further processed and broken into smaller ice particles, making them easier for the user to use and further optimizing the user experience. In addition, the ice-discharging channel 402 is used to discharge the final formed ice particles, and at least a portion of the bottom wall of the ice-discharging channel 402 is configured as an arc-shaped section 403, which is conducive to the smooth discharge of ice particles and makes them easier for the user to use, further optimizing the user experience. It should be noted that the ice crusher 41 can be made using a conventional ice crusher blade.

[0036] The above examples are merely illustrative of the technical content of this utility model to facilitate reader understanding, but do not imply that the implementation of this utility model is limited to these embodiments. Any technical extensions or re-creations made based on this utility model are protected by this utility model. The scope of protection of this utility model is defined by the claims.

Claims

1. An ice-feeding mechanism for an ice purifier, characterized in that, The ice feeding mechanism includes an ice feeding component (1), which has an ice feeding channel (101). The ice feeding channel (101) is connected to an ice inlet (102) and an ice outlet (103). The ice inlet (102) and the ice outlet (103) are distributed at intervals along the longitudinal direction of the ice feeding channel (101). An ice-crushing mechanism (4) is provided at the ice outlet (103). The ice-crushing mechanism (4) is provided with an ice-crushing chamber (401) and an ice outlet channel (402) that are connected to the ice outlet (103) in sequence. An ice crusher (41) is provided in the ice-crushing chamber (401).

2. The ice delivery mechanism for an ice purifier as described in claim 1, characterized in that, The ice delivery channel (101) is spirally arranged along the longitudinal direction of the ice delivery component (1).

3. The ice delivery mechanism for an ice purifier as described in claim 2, characterized in that, The ice delivery component (1) includes a connecting rod (11) and an ice delivery blade (12) connected to the connecting rod (11). The ice delivery blade (12) is spirally arranged along the outer wall of the connecting rod (11) to form the ice delivery channel (101).

4. The ice delivery mechanism for an ice purifier as described in claim 3, characterized in that, The ice inlet (102) is provided with an inlet plate (13) for guiding ice into the ice delivery channel (101), and the inlet plate (13) is connected to the end of the ice delivery blade (12).

5. The ice delivery mechanism for an ice purifier as described in claim 2, characterized in that, The ice delivery mechanism also includes an ice delivery cylinder (2), which has an inner cavity (201). The ice delivery component (1) is vertically arranged in the inner cavity (201), and the ice delivery channel (101) is formed between the ice delivery cylinder (2) and the ice delivery component (1).

6. The ice delivery mechanism for an ice purifier as described in claim 5, characterized in that, The ice inlet (102) and ice outlet (103) are respectively located in the ice delivery cylinder (2).

7. The ice delivery mechanism for an ice purifier as described in claim 3, characterized in that, The ice delivery blade (12) and the connecting rod (11) are integrally formed.

8. The ice delivery mechanism for an ice purifier as described in claim 5, characterized in that, The ice delivery mechanism also includes a driver (3). One end of the ice delivery component (1) extends to the outside of the ice delivery cylinder (2) and is connected to the driver (3) for transmission. The driver (3) drives the ice delivery component (1) to rotate relative to the ice delivery cylinder (2) in the inner cavity (201). The driver (3) includes a motor (31) and a motor output shaft (32) connected to each other, and the end of the ice feeding component (1) is provided with a mounting part connected to the motor output shaft (32).

9. The ice delivery mechanism for an ice purifier as described in claim 1, characterized in that, At least part of the bottom wall of the ice outlet channel (402) is configured as an arc-shaped section (403).

10. A refrigerator air purifier, characterized in that, Includes the ice delivery mechanism as described in any one of claims 1 to 9.

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