Ice outlet structure and ice making equipment

Abstract

The utility model relates to the technical field of ice making, in particular to an ice outlet structure and ice making equipment. The ice outlet structure comprises an ice outlet device, the ice outlet device comprises a device body, a baffle and a blocking assembly, the device body is provided with an ice outlet channel, the baffle is located on the upper side of the ice outlet channel, and when equipment is in a shutdown state, the blocking assembly limits the baffle to rotate in the moving direction of ice blocks so as to prevent the ice blocks from being discharged. The baffle is arranged on the upper side of the ice outlet channel, and the blocking assembly used for limiting rotation of the baffle is arranged in the ice outlet device, so that when equipment is in a shutdown state, the blocking assembly can limit the baffle to rotate in the moving direction of ice blocks, and therefore the ice blocks are effectively prevented from being discharged from an outlet of the ice outlet channel; by means of the arrangement, the problem that ice blocks are prone to slipping to the ground during shutdown of existing ice making equipment is solved, resource waste is reduced, and safety risks caused by slipping of the ice blocks are effectively reduced.

Description

TECHNICAL FIELD

[0001] The utility model relates to ice making technical field, concretely is a kind of ice outlet structure and ice making equipment. BACKGROUND

[0002] Ice making equipment is a kind of mechanical equipment for manufacturing ice block, it freezes water into ice block by refrigeration system, then ice block is discharged through ice outlet to supply user with use.Ice outlet as important component of ice making equipment, directly influence the output efficiency of ice block.However, the ice making equipment of prior art still has problems in the design of ice outlet.In actual operation, when operator needs to replace the container loaded with ice block, or ice making equipment needs to be suspended due to failure, ice outlet cannot stop ice block discharge immediately, resulting in ice block sliding to ground, causing resource waste and security risk.

[0003] Therefore, it is necessary to develop an ice outlet structure and ice making equipment, which can realize immediate stop of ice discharge process, effectively prevent ice block from sliding, reduce resource waste and reduce security risk. INVENTION CONTENTS

[0004] In view of the problem that the ice outlet of the ice making equipment in the prior art cannot stop ice block discharge immediately, the technical solution adopted by the utility model to solve the technical problem is:

[0005] An ice outlet structure, comprising an ice outlet device, wherein the ice outlet device comprises a device main body, a baffle hinged to the device main body, and a blocking component for limiting rotation of the baffle, the device main body is provided with an ice discharge channel, the baffle is located on the upper side of the ice discharge channel, when the equipment is in a shutdown state, the blocking component limits rotation of the baffle along the ice block movement direction to block ice block discharge.

[0006] Further, the ice outlet structure according to the scheme, wherein the device main body is further provided with a main body inner cavity, the ice discharge channel is located in the main body inner cavity, the blocking component comprises a telescopic device connected with the device main body, the baffle swings around the hinge point by ice block passing through the ice discharge channel, the telescopic device is used to prevent the baffle from swinging and block ice block discharge at the outlet of the ice discharge channel.

[0007] Further, the ice outlet structure according to the scheme, wherein the telescopic device is provided with a telescopic rod, the device main body is further provided with connecting holes on both sides, the baffle is provided with connecting ends located on both sides and connected with the connecting holes, and a positioning end located on one side of the telescopic device, the positioning end is provided with a positioning surface away from one side of the outlet of the ice discharge channel, the baffle swings around the connecting holes, and the telescopic rod cooperates with the positioning surface to prevent the baffle from swinging.

[0008] Further, the scheme discloses an ice outlet structure, wherein the ice outlet device further comprises a sensing device, the positioning surface extends a sensing end, the baffle swings to make the sensing end close to or away from the sensing device, and the sensing device is used for sensing the swing times of the baffle.

[0009] Further, the scheme discloses an ice outlet structure, wherein the device body located on the side away from the ice outlet channel is further provided with a first mounting end and a second mounting end, the first mounting end comprises a first mounting groove and a first fixing part, the second mounting end comprises a second mounting groove and a second fixing part, the sensing device is mounted in the first mounting groove and fixed through the first fixing part, and the telescopic device is mounted in the second mounting groove and fixed through the second fixing part.

[0010] Further, the scheme discloses an ice outlet structure, wherein the ice outlet channel comprises an ice outlet plate which is arranged to be inclined to a horizontal plane and an ice outlet connected to one end of the ice outlet plate, the baffle is located between the ice outlet plate and the ice outlet, the inner cavity of the main body is provided with a baffle limiting strip for limiting the baffle, and the baffle limiting strip is located between the entrance of the ice outlet channel and the baffle.

[0011] Further, the scheme discloses an ice outlet structure, wherein the ice outlet device further comprises a liquid storage assembly, the device body located below the ice outlet plate is further provided with a reflux cavity, the reflux cavity is provided with a water outlet, the ice outlet plate close to the ice outlet is provided with a plurality of drainage outlets in communication with the reflux cavity, the liquid storage assembly is located below the water outlet, and the liquid storage assembly is arranged in an inverted triangular mode.

[0012] Further, the scheme discloses an ice outlet structure, wherein the ice outlet plate close to the ice outlet side is further provided with a water baffle and a plurality of convex ends, the upper ends of the convex ends are flush with the upper end of the water baffle, so that the ice blocks pass through the water baffle.

[0013] Further, the scheme discloses an ice outlet structure, wherein the ice outlet plate and the convex ends are both arranged to be inclined to the ice outlet, and the upper end of the convex end is arranged in an arc shape.

[0014] Further, the scheme discloses an ice outlet structure, wherein the device body located on the side away from the ice outlet channel is further provided with a first mounting end and a second mounting end, the first mounting end comprises a first mounting groove and a first fixing part, the second mounting end comprises a second mounting groove and a second fixing part, the sensing device is mounted in the first mounting groove and fixed through the first fixing part, and the telescopic device is mounted in the second mounting groove and fixed through the second fixing part.

[0015] The ice outlet structure has the following beneficial effects:

[0016] The utility model discloses an ice outlet structure and an ice making equipment, and the ice outlet structure comprises an ice outlet device, wherein the ice outlet device comprises a device main body, a baffle hinged to the device main body and a blocking assembly for limiting rotation of the baffle, the device main body is provided with an ice outlet channel, and the baffle is located on the upper side of the ice outlet channel.

[0017] The utility model will be further described below in combination with the drawings and specific embodiments. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 It is an ice outlet device appearance schematic drawing of the ice outlet structure of the utility model.

[0019] Figure 2 It is an ice outlet device partial section schematic drawing of the ice outlet structure of the utility model.

[0020] Figure 3 It is a device main body appearance schematic drawing of the ice outlet structure of the utility model.

[0021] Figure 4 It is a device main body section schematic drawing of the ice outlet structure of the utility model.

[0022] Figure 5 It is an ice making equipment appearance schematic drawing of the utility model.

[0023] Figure 6 It is an ice making equipment section schematic drawing of the utility model.

[0024] Figure 7 It is the I part amplification schematic drawing of the ice making equipment of the utility model. DETAILED DESCRIPTION

[0025] The embodiments of the utility model will be described in detail below in combination with the drawings.

[0026] As Figures 1-4 shown, an ice outlet structure comprises an ice outlet device 1, wherein the ice outlet device 1 comprises a device main body 2, a baffle 31 hinged to the device main body 2 and a blocking assembly 3 for limiting rotation of the baffle 31, the device main body 2 is provided with an ice outlet channel 21, the baffle 31 is located on the upper side of the ice outlet channel 21, when the equipment is in the shutdown state, the blocking assembly 3 limits the baffle 31 to rotate along the ice block movement direction to block the ice block from discharging.

[0027] The present invention provides a baffle 31 on the upper side of the ice outlet channel 21, and provides a blocking component 3 in the ice outlet device 1 for limiting the rotation of the baffle 31. When the device is in a shutdown state, the blocking component 3 can limit the rotation of the baffle 31 along the moving direction of the ice cubes, thereby effectively blocking the ice cubes from being discharged from the outlet of the ice outlet channel 21. This arrangement not only solves the problem of ice cubes easily sliding to the ground during shutdown of the existing ice-making equipment, not only reduces resource waste, but also effectively reduces the safety risks caused by ice cubes sliding.

[0028] Furthermore, this arrangement not only fundamentally solves the problem of ice cubes easily sliding to the ground during shutdown of existing ice-making equipment, thus avoiding waste of ice cubes, but also reduces the potential safety hazards caused by ice cubes sliding, so that during shutdown or maintenance, operators do not need to worry about ice cubes accidentally sliding out, reducing the extra workload of cleaning ice cubes on the ground and improving work efficiency; further, this arrangement also enhances the reliability and safety of the equipment, avoids the slippery ground caused by ice cubes sliding, reduces the probability of slipping accidents, and improves the safety of the working environment; further, by effectively preventing ice cubes from sliding out, the ice outlet channel 21 is kept clean, thereby improving the hygiene standards of the equipment.

[0029] Further, such as Figures 1-4 An ice outlet structure is shown, wherein the device body 2 is further provided with a main body inner cavity 22, the ice outlet channel 21 is located in the main body inner cavity 22, the blocking assembly 3 includes a telescopic device 32 connected to the device body 2, and ice cubes pass through the ice outlet channel 21 so that the baffle 31 swings around the hinge point, and the telescopic device 32 is used to prevent the baffle 31 from swinging and prevent the ice cubes from being discharged to the outlet of the ice outlet channel 21.

[0030] The present invention provides a main body cavity 22 inside the device body 2, and the ice outlet channel 21 is provided in the main body cavity 22. This arrangement not only optimizes the spatial layout of the ice outlet structure, but also enhances the stability of the overall structure. Furthermore, when ice cubes pass through the ice outlet channel 21, the baffle 31 is driven to swing around its hinge point, thereby opening the outlet of the ice outlet channel 21. The present invention introduces a telescopic device 32 connected to the device body 2 to limit the swing of the baffle 31, thereby effectively blocking the discharge of ice cubes, thereby preventing accidental discharge of ice cubes in the shutdown state.

[0031] Further, such as Figures 1-4An ice outlet structure is shown, wherein the telescopic device 32 is provided with a telescopic rod 321, and connecting holes 23 are further provided on both sides of the device body 2. The baffle 31 is provided with connecting ends 311 located on both sides and connected to the connecting holes 23, and a positioning end 313 located on one side of the telescopic device 32. The positioning end 313 is provided with a positioning surface 3131 on the side away from the outlet of the ice outlet channel 21. The baffle 31 swings around the connecting hole 23, and the telescopic rod 321 cooperates with the positioning surface 3131 to prevent the baffle 31 from swinging.

[0032] When ice cubes are pushed against the baffle plate 312, the baffle plate 312 can be easily opened by pressing the baffle plate 312 on the ice outlet passage 21. When ice cubes are pushed against the baffle plate 312, the baffle plate 312 can be easily opened by pressing the baffle plate 312 on the ice outlet passage 21.

[0033] Further, such as Figures 1-4 An ice outlet structure is shown, wherein the ice outlet device 1 further includes a sensing device 4, the positioning surface 3131 extends a sensing end 312, the baffle 31 swings so that the sensing end 312 approaches or moves away from the sensing device 4, and the sensing device 4 is used to sense the number of swings of the baffle 31.

[0034] The present invention adds a sensing device 4 to the ice outlet device 1, so that when the ice pushes the baffle 31, the sensing end 312 can swing to the position of the sensing device 4 along with the baffle 31, so that the sensing device 4 can count and the number of ice cubes discharged can be obtained accordingly. This arrangement not only provides the operator with real-time ice output information, making it easier to monitor the operating status and output of the equipment, but also provides data support for the automatic management and fault diagnosis of the equipment, thereby helping to improve the ice making efficiency and the management level of the equipment.

[0035] Further, such as Figures 1-4An ice outlet structure is shown, wherein the device body 2 is located on the side away from the ice outlet channel 21 and is also provided with a first mounting end 24 and a second mounting end 25, the first mounting end 24 includes a first mounting groove 241 and a first fixing portion 242, the second mounting end 25 includes a second mounting groove 251 and a second fixing portion 252, the sensing device 4 is installed in the first mounting groove 241 and fixed by the first fixing portion 242, and the telescopic device 32 is installed in the second mounting groove 251 and fixed by the second fixing portion 252.

[0036] The present invention fixes the sensing device 4 through the first mounting groove 241 and the first fixing portion 242, ensuring that the sensing device 4 remains stable during the operation of the equipment, avoiding loosening of the sensing device 4 due to vibration or impact, thereby affecting the accuracy of counting; further, the telescopic device 32 is fixed through the second mounting groove 251 and the second fixing portion 252, so that the telescopic device 32 can always stably fix the baffle 31 during the process of ice cubes pushing the baffle 31, thereby ensuring that ice cubes will not be discharged when the equipment is stopped, thereby improving the overall stability of the equipment.

[0037] Further, such as Figures 1-4 An ice outlet structure is shown, wherein the ice outlet channel 21 includes an ice outlet plate 211 arranged at an angle to the horizontal plane, and an ice outlet 212 connected to one end of the ice outlet plate 211, the baffle 31 is located between the ice outlet plate 211 and the ice outlet 212, and the main body inner cavity 22 is provided with a baffle 213 for limiting the baffle 31, and the baffle 213 is located between the entrance of the ice outlet channel 21 and the baffle 31.

[0038] The utility model sets the ice outlet plate 211 to be inclined at a certain angle to the horizontal plane, so that the ice cubes can slide more smoothly toward the ice outlet port 212, thereby improving the discharge efficiency of the ice cubes; further, the main body cavity 22 is provided with a blocking bar 213 located between the entrance of the ice outlet channel 21 and the baffle 31, which is used to prevent the baffle 31 from excessively moving toward the ice outlet plate 211, thereby avoiding affecting the normal discharge of the ice cubes; further, by setting the blocking bar 213 on the inner walls on both sides of the main body cavity 22, the blocking bar 213 can block the baffle 31 without blocking the normal discharge of the ice cubes.

[0039] Further, such as Figures 1-4 An ice outlet structure is shown, wherein the ice outlet device 1 also includes a liquid storage component 5, the device body 2 is located below the ice outlet plate 211 and is also provided with a reflux chamber 26, the reflux chamber 26 is provided with a water outlet 261, the ice outlet plate 211 is provided with multiple drain outlets 2111 connected to the reflux chamber 26 near the ice outlet 212, the liquid storage component 5 is located below the water outlet 261, and the liquid storage component 5 is arranged in an inverted triangle.

[0040] The present invention provides a reflux chamber 26 below the ice outlet plate 211 on the device body 2, provides a plurality of drain ports 2111 in communication with the reflux chamber 26 on the ice outlet plate 211, provides a water outlet 261 on the reflux chamber 26, and provides a liquid storage assembly 5 below the water outlet 261. When ice cubes are blocked by the baffle 31 and stay on the ice outlet plate 211 and melt to produce melt water, the melt water can flow into the reflux chamber 26 through the drain ports 2111 and finally be collected into the liquid storage assembly 5 through the water outlet 261, thereby solving the problem of melt water accumulation at the ice outlet 212 and ensuring the hygiene of the ice outlet 212 area. Furthermore, the present invention provides the liquid storage assembly 5 in an inverted triangle shape, which is conducive to promoting the rapid collection and discharge of melt water in the liquid storage assembly 5. Furthermore, the present invention saves and utilizes water resources by recycling the melt water, thereby reducing the waste of water resources.

[0041] Further, such as Figures 1-4 An ice outlet structure is shown, wherein the ice outlet plate 211 is further provided with a water baffle 2112 and a raised end 2113 on the side close to the ice outlet 212, and multiple raised ends 2113 are provided, and the upper end of the raised end 2113 is flush with the upper end of the water baffle 2112 to allow ice cubes to pass through the water baffle 2112.

[0042] The present invention provides a water baffle 2112 on the side of the ice outlet plate 211 close to the ice outlet port 212. This configuration effectively prevents melt water from flowing along the ice outlet plate 211 to the ice outlet port 212, thereby preventing the melt water from contaminating the ice outlet port 212 area and even flowing into the interior of the device and causing damage to the device. Furthermore, the present invention provides a plurality of raised ends 2113, and the upper ends of the raised ends 2113 are flush with the upper ends of the water baffle 2112, so that ice cubes can be normally discharged to the ice outlet port 212 through the raised ends 2113, thereby avoiding the problem of ice cubes staying on the ice outlet plate 211 due to the blocking of the water baffle 2112.

[0043] Further, such as Figures 1-4 In the ice outlet structure shown, the ice outlet plate 211 and the raised end 2113 are both inclined toward the ice outlet 212 , and the upper end cross-section of the raised end 2113 is arc-shaped.

[0044] The present invention tilts the ice outlet plate 211 and the protruding end 2113 toward the ice outlet port 212, so that the ice cubes can slide toward the ice outlet port 212 more smoothly, thereby improving the discharge efficiency of the ice cubes. Furthermore, by setting the upper end of the protruding end 2113 to have an arc-shaped cross-section, the contact area between the protruding end 2113 and the ice cubes is reduced, further reducing the friction of the ice cubes during the sliding process, and ensuring that the ice cubes can be discharged more stably.

[0045] Further, as shown in Figures 1-7 An ice making device, further comprising a main body shell 6 connected with the ice outlet device 1, an ice feeding device 7 connected with the ice outlet device 1, and an ice making device 8 connected with the ice feeding device 7.

[0046] The utility model discloses an ice outlet structure, which comprises an ice outlet device 1, a blocking assembly 3 and a blocking plate 31, wherein the ice outlet device 1 comprises a device main body 2, an ice outlet channel 21 and an ice outlet plate 211; the blocking assembly 3 is arranged on the device main body 2 and is used for limiting the rotation of the blocking plate 31; the blocking plate 31 is arranged on the ice outlet channel 21 and is connected with the device main body 2 through the blocking assembly 3.

[0047] The embodiments of the utility model are as follows:

[0048] Embodiment one:

[0049] Please refer to Figures 1 to 4 In the embodiment, the entire ice outlet device 1 mainly comprises a device main body 2, a blocking plate 31 hinged with the device main body 2 and a blocking assembly 3 for limiting the rotation of the blocking plate 31, wherein the device main body 2 is internally provided with a main body inner cavity 22, the ice outlet channel 21 is located in the main body inner cavity 22, and the ice outlet plate 211 for discharging ice blocks is arranged on the ice outlet channel 21. When the device is running, the ice blocks slide along the ice outlet plate 211 to the ice outlet 212, and in the process, the ice blocks push the blocking plate 31 to swing around the hinge point, so that the ice blocks can be smoothly discharged from the ice outlet plate 211 to the ice outlet 212. In order to ensure the smooth discharge of the ice blocks, the ice outlet plate 211 is arranged to form a certain inclination angle with the horizontal plane.

[0050] When the device is in shutdown mode, the telescopic mechanism 32 in the blocking assembly 3 activates, and its telescopic rod 321 tightly engages the positioning surface 3131 on the positioning end 313 of the baffle 31, effectively preventing the baffle 31 from swinging, ensuring that the outlet of the ice outlet 21 remains closed and preventing ice from accidentally slipping out during shutdown. The telescopic mechanism 32 is installed in the second mounting slot 251 of the device body 2 and secured by the second fixing portion 252. Furthermore, the device body 2 is provided with connecting holes 23 on both sides, and the baffle 31 is provided with connecting ends 311 on both sides that connect to the connecting holes 23. This ensures that the baffle 31 can rotate smoothly and reliably around the connecting holes 23. When ice pushes against the baffle 31, it opens immediately, and when no ice passes through, it quickly returns to the closed position. Furthermore, stop bars 213 are provided on the inner walls of the body cavity 22 to ensure that the baffle 31 remains in the closed position, preventing it from moving further toward the ice plate 211.

[0051] To further enhance the functionality and management efficiency of the device, the ice outlet device 1 is also equipped with a sensor device 4. This device is mounted on the first mounting end 24 of the device body 2 and secured by a first fixing portion 242 to ensure stability during operation. When ice cubes push the baffle 31 away, the sensor end 312 on the baffle 31 approaches the sensor device 4, triggering the sensor device 4 to count and record the number of ice cubes discharged.

[0052] Example 2:

[0053] See also Figures 1 to 4 This embodiment is similar to the first embodiment, except that this embodiment takes into account the problem of ice cubes melting and producing meltwater if they remain on the ice discharge plate 211 for a long time during shutdown. Therefore, a reflux chamber 26 is provided in the device body 2 below the ice discharge plate 211. Multiple drain ports 2111 connected to the reflux chamber 26 are provided on the ice discharge plate 211. Meltwater can flow into the reflux chamber 26 through these drain ports 2111 and ultimately be collected into the liquid storage assembly 5 below the reflux chamber 26 through the water outlet 261 at the bottom of the reflux chamber 26. The liquid storage assembly 5 adopts an inverted triangle design, which facilitates the rapid collection and discharge of meltwater. In addition, a water baffle 2112 and multiple raised ends 2113 are provided on the side of the ice outlet plate 211 close to the ice outlet 212. The upper ends of these raised ends 2113 are flush with the upper end of the water baffle 2112 and are all inclined toward the ice outlet 212. This setting not only helps the ice cubes slide more smoothly toward the ice outlet 212, but also effectively prevents melt water from flowing along the ice outlet plate 211 toward the ice outlet 212.

[0054] Example 3:

[0055] See also Figures 1 to 7The embodiment is similar to the embodiment two, and the difference is that the embodiment further comprises a main body shell 6, an ice feeding device 7 and an ice making device 8. The ice making device 8 is connected with the ice feeding device 7, and the ice feeding device 7 is connected with the ice outlet device 1, so that the automatic process control from ice making to ice feeding is realized. In addition, the main body shell 6 is not only used for connecting the ice making device 8, the ice feeding device 7 and the ice outlet device 1, but also protects the ice making device 8 and the ice feeding device 7 by arranging the ice making device 8 and the ice feeding device 7 in the inner cavity of the main body shell 6.

[0056] The above is only used to further illustrate the technical content of the utility model by means of examples, so that the reader can more easily understand, but does not represent that the embodiment of the utility model is limited to this, and any technical extension or re-creation made according to the utility model is protected by the utility model. The protection scope of the utility model is subject to the claims.

Claims

1. An ice outlet structure, comprising an ice outlet device (1), characterized in that: The ice outlet device (1) comprises a device body (2), a baffle (31) hinged to the device body (2), and a blocking assembly (3) for limiting the rotation of the baffle (31); the device body (2) is provided with an ice outlet channel (21); the baffle (31) is located on the upper side of the ice outlet channel (21); when the device is in a shutdown state, the blocking assembly (3) limits the baffle (31) from rotating along the moving direction of ice cubes to prevent the discharge of ice cubes.

2. The ice outlet structure according to claim 1, characterized in that: The device body (2) is further provided with a body inner cavity (22), the ice outlet channel (21) is located in the body inner cavity (22), the blocking assembly (3) comprises a telescopic device (32) connected to the device body (2), ice cubes pass through the ice outlet channel (21) so that the baffle (31) swings around a hinge point, and the telescopic device (32) is used to prevent the baffle (31) from swinging and prevent the ice cubes from being discharged to the outlet of the ice outlet channel (21).

3. The ice outlet structure according to claim 2, characterized in that: The telescopic device (32) is provided with a telescopic rod (321), and connecting holes (23) are further provided on both sides of the device body (2). The baffle (31) is provided with connecting ends (311) located on both sides and connected to the connecting holes (23), and a positioning end (313) located on one side of the telescopic device (32). A positioning surface (3131) is provided on the side of the positioning end (313) away from the outlet of the ice outlet channel (21). The baffle (31) swings around the connecting hole (23), and the telescopic rod (321) cooperates with the positioning surface (3131) to prevent the baffle (31) from swinging.

4. The ice outlet structure according to claim 3, characterized in that: The ice outlet device (1) further comprises a sensing device (4); the positioning surface (3131) extends a sensing end (312); the baffle (31) swings so that the sensing end (312) approaches or moves away from the sensing device (4); and the sensing device (4) is used to sense the number of swings of the baffle (31).

5. The ice outlet structure according to claim 4, characterized in that: The device body (2) is located on a side away from the ice outlet channel (21) and is further provided with a first mounting end (24) and a second mounting end (25); the first mounting end (24) includes a first mounting groove (241) and a first fixing portion (242); the second mounting end (25) includes a second mounting groove (251) and a second fixing portion (252); the sensing device (4) is mounted in the first mounting groove (241) and fixed by the first fixing portion (242); and the telescopic device (32) is mounted in the second mounting groove (251) and fixed by the second fixing portion (252).

6. The ice outlet structure according to claim 2, characterized in that: The ice outlet channel (21) comprises an ice outlet plate (211) arranged obliquely with respect to a horizontal plane, and an ice outlet port (212) connected to one end of the ice outlet plate (211); the baffle (31) is located between the ice outlet plate (211) and the ice outlet port (212); the main body inner cavity (22) is provided with a baffle (213) for limiting the baffle (31); the baffle (213) is located between the entrance of the ice outlet channel (21) and the baffle (31).

7. The ice outlet structure according to claim 6, characterized in that: The ice outlet device (1) further comprises a liquid storage assembly (5); the device body (2) is located below the ice outlet plate (211) and is further provided with a reflux chamber (26); the reflux chamber (26) is provided with a water outlet (261); the ice outlet plate (211) is provided with a plurality of drain ports (2111) communicating with the reflux chamber (26) near the ice outlet (212); the liquid storage assembly (5) is located below the water outlet (261); and the liquid storage assembly (5) is arranged in an inverted triangle shape.

8. The ice outlet structure according to claim 6, characterized in that: A water baffle (2112) and a raised end (2113) are further provided on a side of the ice outlet plate (211) close to the ice outlet port (212). A plurality of raised ends (2113) are provided, and the upper ends of the raised ends (2113) are flush with the upper end of the water baffle (2112), so that ice cubes can pass through the water baffle (2112).

9. The ice outlet structure according to claim 8, characterized in that: The ice outlet plate (211) and the raised end (2113) are both arranged to be inclined toward the ice outlet (212), and the upper end cross-section of the raised end (2113) is arranged in an arc shape.

10. An ice-making device, characterized in that: It comprises a main body shell (6) connected to the ice outlet device (1), an ice delivery device (7) connected to the ice outlet device (1), an ice making device (8) connected to the ice delivery device (7), and an ice outlet structure according to any one of claims 1 to 9.

Images