Automatic ice discharging mechanism and ice-making and water-purifying all-in-one machine

Abstract

The utility model discloses an automatic ice discharging mechanism and an ice-making and water-purifying all-in-one machine, and the automatic ice discharging mechanism comprises an ice storage bucket which is provided with an ice discharging opening; the electromagnet bracket is fixedly connected to the ice storage bucket; the switch bracket is hinged to the electromagnet bracket, corresponds to the ice outlet opening and is used for controlling the opening and closing of the ice outlet opening; the outlet bracket is arranged below the ice outlet opening and is used for receiving ice blocks falling from the ice outlet opening; the push-pull type electromagnet is installed on the electromagnet support and connected with the switch support, when the push-pull type electromagnet is powered on, the switch support is driven to rotate around a hinge point to form a switching action, so that the ice outlet opening is opened, the ice blocks fall to the outlet support, and when the push-pull type electromagnet is powered off, the push-pull type electromagnet resets to seal the ice outlet opening; the automatic ice block distribution device has the advantages that manual intervention is not needed, sanitary and convenient ice block automatic distribution is achieved, and user experience is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of water dispensers, and particularly relates to an automatic ice discharging mechanism and an ice-making and pure water drinking integrated machine. Background Art

[0002] With the continuous improvement of the living standards in modern society, people's requirements for the quality of daily life are also increasing day by day. In the field of water treatment equipment, the functions of traditional water purifiers are relatively single, and most of them only have the purification function. However, consumers' functional requirements for water purification equipment have developed from single purification to multi-functional integration. In this context, integrated machine products that combine water purification functions with functions such as heating and refrigeration are becoming more and more popular among consumers.

[0003] Especially in the hot summer, ice makers have become an indispensable household appliance for many families. Ice makers can not only provide cold drinks, ice cream and other delicious foods, but also help people cool down in hot weather. However, when traditional ice makers are combined with water purifiers to form integrated machine products, there are some problems that need to be solved urgently.

[0004] Most of the ice outlets of the current ice makers on the market adopt the manual ice-taking method, that is, the user needs to open the machine and use an ice-scooping tool to scoop out the ice cubes. Although this method is simple in structure and easy to implement, it has obvious deficiencies in terms of convenience and hygiene when combined with a water purifier. Specifically, the user needs to open the machine every time to take out the ice cubes, which is cumbersome and time-consuming, reducing the user experience of the product. At the same time, the process of opening the machine to take ice will cause cold air to overflow, which not only affects the ice-making efficiency but also increases energy consumption. In addition, when used in public places such as offices and hotel lobbies, multiple people need to share the ice-scooping tool, and the hands or tools of the users may directly or indirectly contact the ice cubes. This method is prone to introducing bacteria and pollutants, causing serious hygiene hazards. Especially today when people are increasingly concerned about health and hygiene, this potential risk of cross-infection can no longer meet the hygiene requirements of modern consumers for drinking water and ice-making equipment.

[0005] Therefore, developing an automatic ice discharging device integrated in an ice-making and pure water drinking integrated machine, which can not only maintain the coordination of the overall structure of the machine but also improve the convenience and hygiene of ice-taking, has become an inevitable trend in the industry development. Summary of the Utility Model

[0006] One of the purposes of the utility model is to provide an automatic ice discharging mechanism, which can realize the automatic distribution of ice cubes hygienically and conveniently without manual intervention and improve the user experience.

[0007] To achieve the above purpose, the utility model provides the following technical solution: an automatic ice discharging mechanism, including,

[0008] An ice storage bucket having an ice discharging opening;

[0009] An electromagnet bracket, fixedly connected to the ice storage bucket;

[0010] A switch bracket, hinged to the electromagnet bracket and corresponding to the ice outlet opening, for controlling the opening and closing of the ice outlet opening;

[0011] An outlet bracket is disposed below the ice outlet opening and is used to receive ice cubes falling from the ice outlet opening;

[0012] A push-pull electromagnet is installed on the electromagnet bracket and connected to the switch bracket. When the push-pull electromagnet is energized, it drives the switch bracket to rotate around the hinge point to form a switch action, so that the ice outlet opening is opened and ice cubes fall to the outlet bracket. When the power is off, the push-pull electromagnet is reset to close the ice outlet opening.

[0013] Preferably, it also includes:

[0014] a silicone pad connected to the switch bracket and used for sealing the ice outlet opening when the switch bracket is closed;

[0015] A stainless steel pressing sheet is connected to the silicone pad to enhance the sealing effect and prevent the silicone pad from deforming.

[0016] Preferably, the switch bracket comprises:

[0017] The main body has a hinge hole and is hinged to the electromagnet bracket via a hinge axis;

[0018] An arc groove is provided on the main body part and is slidably matched with the pin shaft on the push-pull electromagnet. When the push-pull electromagnet moves, the pin shaft slides in the arc groove, driving the switch bracket to rotate around the hinge point;

[0019] A shielding plate is arranged on the main body and is used for shielding the ice outlet opening in a closed state.

[0020] Preferably, a guide bracket is fixed at the ice outlet opening, and the guide bracket has an inclined surface for guiding ice cubes into the outlet bracket.

[0021] Preferably, the outlet bracket has an outlet that passes through from top to bottom, the outlet is connected to the inclined surface, a transparent decorative cover is fixed to the lower end of the outlet bracket, and an electroplated decorative cover is fixed to the outer side of the transparent decorative cover.

[0022] Preferably, the upper movable cover of the ice storage bucket is provided with a bucket cover, and the inner side of the ice storage bucket is provided with a heat preservation layer.

[0023] Preferably, a rotatable tray is provided inside the ice storage bucket. The tray is used to receive the stored ice cubes and is driven by a driving mechanism arranged at the lower end of the ice storage bucket.

[0024] Preferably, an inclined portion that slopes outward from top to bottom is provided at the edge of the tray. A plurality of protrusions are evenly arranged circumferentially on the inclined portion, and a stirring rod is fixed on the upper surface of the tray.

[0025] Preferably, the driving mechanism includes a driving motor and a rotating shaft. The driving motor is fixed to the lower end of the ice storage bucket through a mounting bracket. The rotating shaft is rotatably connected to the ice storage bucket, and the upper end of the rotating shaft is fixed to the tray, and the lower end of the rotating shaft is connected to the output shaft of the driving motor.

[0026] Another object of the present utility model is to provide an ice-making and purified drinking integrated machine, including the automatic ice discharging mechanism described above.

[0027] Compared with the prior art, the advantages of the present utility model are as follows: During operation, power is supplied to the push-pull electromagnet, and the push-pull electromagnet generates a magnetic force to drive the moving rod to move. This movement is converted into the rotation of the switch bracket by mechanical connection. The switch bracket rotates around its hinge point to open the originally closed ice discharging opening. At this time, the ice cubes in the ice storage bucket fall through the ice discharging opening into the lower outlet bracket under the action of gravity, achieving precise guiding; when the power supply is interrupted, the push-pull electromagnet automatically resets under the action of the spring force, driving the switch bracket back to its original position to re-close the ice discharging opening and prevent the ice cubes from continuing to fall.

[0028] This design realizes fully automatic ice discharging, avoids the loss of cold air caused by frequent opening of the device during traditional manual ice taking, and users do not need to directly contact the ice cubes, significantly improving the hygiene. It is especially suitable for public places. The electromagnetic control mechanism responds quickly and accurately, can achieve precise quantitative ice discharging, and the overall structure is also compact and simple, which is easy to be integrated with the ice-making and purified drinking integrated machine, improving the comprehensive practicality and user experience of the product. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the following will briefly introduce the drawings required for the description of the embodiments. Obviously, the following drawings are only the embodiments of the present application. For those of ordinary skill in the art, other drawings can also be obtained according to the provided drawings without creative efforts.

[0030] Figure 1 is a three-dimensional structural schematic diagram of the present utility model;

[0031] Figure 2 is a cross-sectional view of the present utility model;

[0032] Figure 3 This is a three-dimensional structural schematic diagram of the disassembled state of the present utility model;

[0033] Figure 4 This is a schematic diagram of the internal structure of the ice storage bucket in the present utility model;

[0034] In the figure, 1 is an ice storage bucket; 2 is an ice outlet opening; 3 is an electromagnet bracket; 4 is a switch bracket; 5 is an outlet bracket; 6 is a push-pull electromagnet; 7 is a silica gel pad; 8 is a stainless steel pressing piece; 9 is a main body part; 10 is a hinge hole; 11 is a hinge shaft; 12 is an arc-shaped groove; 13 is a pin shaft; 14 is a shielding plate; 15 is a guiding bracket; 16 is an inclined surface; 17 is a discharge port; 18 is a transparent decorative cover; 19 is a plated decorative cover; 20 is a bucket cover; 21 is a heat insulation layer; 22 is a tray; 23 is a driving mechanism; 24 is an inclined part; 25 is a protrusion; 26 is a stirring rod; 27 is a driving motor; 28 is a rotating shaft; 29 is a mounting bracket. Specific embodiments

[0035] Next, the technical solutions in the embodiments of the present application will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present application.

[0036] Embodiment 1: As Figures 1-4 shown, an automatic ice discharging mechanism includes

[0037] an ice storage bucket 1 having an ice outlet opening 2;

[0038] an electromagnet bracket 3 fixedly connected to the ice storage bucket 1;

[0039] a switch bracket 4 hinged to the electromagnet bracket 3 and corresponding to the ice outlet opening 2 for controlling the opening and closing of the ice outlet opening 2;

[0040] an outlet bracket 5 provided below the ice outlet opening 2 for receiving the ice cubes falling from the ice outlet opening 2;

[0041] a push-pull electromagnet 6 installed on the electromagnet bracket 3 and connected to the switch bracket 4. When the push-pull electromagnet 6 is energized, it drives the switch bracket 4 to rotate around the hinge point to form a switching action, opening the ice outlet opening 2, and the ice cubes fall to the outlet bracket 5. When powered off, the push-pull electromagnet 6 resets to close the ice outlet opening 2.

[0042] Embodiment 2: As Figures 1-4 shown, different from Embodiment 1, it further includes

[0043] The silicone pad 7 is connected to the switch bracket 4 and is used to seal the ice outlet opening 2 when the switch bracket 4 is closed;

[0044] The stainless-steel pressing piece 8 is connected to the silicone pad 7 and is used to enhance the sealing effect and prevent the silicone pad 7 from deforming.

[0045] This structure adopts the combined design of the silicone pad 7 and the stainless-steel pressing piece 8, significantly improving the sealing effect and service life of the ice outlet opening 2. The silicone pad 7 is directly connected to the switch bracket 4. When the switch bracket 4 is in the closed state, the soft and highly elastic silicone pad 7 closely adheres to the periphery of the ice outlet opening 2, forming an effective sealing barrier to prevent cold air from leaking and external temperature from infiltrating. The silicone material also has excellent low-temperature tolerance and can still maintain elasticity even in a long-term low-temperature environment, without hardening or cracking due to temperature changes.

[0046] The stainless-steel pressing piece 8 is connected to the surface of the silicone pad 7 and has two functions: on the one hand, it enhances the uniformity of pressure distribution, making the silicone pad 7 contact the ice outlet opening 2 more closely and improving the sealing effect; on the other hand, it effectively prevents the silicone pad 7 from deforming or sagging due to repeated pressure during long-term use, extending the service life of the sealing component. The stainless-steel material also has excellent corrosion resistance and hygienic characteristics, meeting the requirements of food contact materials.

[0047] This composite material structure design takes into account both the sealing performance and structural stability, solves the limitations of traditional single-material sealing solutions, enables the ice outlet mechanism to maintain a stable and reliable sealing effect during long-term operation, reduces the maintenance frequency, and improves the energy efficiency and refrigeration performance of the whole machine.

[0048] In this embodiment, the switch bracket 4 includes,

[0049] The main body part 9 has a hinge hole 10 and is hinged to the electromagnet bracket 3 through a hinge shaft 11;

[0050] The arc-shaped groove 12 is arranged on the main body part 9 and is in sliding fit with the pin shaft 13 on the push-pull electromagnet 6. When the push-pull electromagnet 6 moves, the pin shaft 13 slides in the arc-shaped groove 12, driving the switch bracket 4 to rotate around the hinge point;

[0051] The baffle plate 14 is arranged on the main body part 9 and is used to block the ice outlet opening 2 in the closed state.

[0052] The hinge hole 10 on the main part 9 of the switch bracket 4 forms a stable rotation fulcrum with the electromagnet bracket 3 through the hinge shaft 11, ensuring that the switch bracket 4 can rotate smoothly along a fixed track. The arc groove 12 set on the main part 9 is the core design of the structure. It forms a sliding fit with the pin 13 on the moving rod of the push-pull electromagnet 6. This design converts the linear push-pull motion generated by the electromagnet into the rotational motion of the switch bracket 4. When the push-pull electromagnet 6 is energized, the moving rod pushes the pin 13 to slide in the arc groove 12. Due to the specific curvature and angle design of the arc groove 12, the pin 13 applies a torque to the switch bracket 4 during the movement, driving the entire switch bracket 4 to rotate around the hinge point.

[0053] The shielding plate 14 is fixed on the main body 9 and moves with the rotation of the switch bracket 4. When in the closed position, the shielding plate 14 completely covers the ice outlet opening 2 to form a physical barrier; when the switch bracket 4 is rotated to the open position, the shielding plate 14 leaves the ice outlet opening 2 to create a channel for ice cubes to fall. This structural design not only rotates smoothly and reliably, but also bears force evenly, reduces mechanical wear, and prolongs the service life of the device. At the same time, the design of the arc groove 12 also allows the opening angle to be adjusted to meet the needs of ice cubes of different sizes.

[0054] In this embodiment, a guide bracket 15 is fixed at the ice outlet opening 2 , and the guide bracket 15 has an inclined surface 16 for guiding ice cubes into the outlet bracket 5 .

[0055] In the above mechanism, the inclined surface 16 on the outlet bracket 15 forms a smooth transition channel. When the ice cubes in the ice storage bucket 1 fall through the ice outlet opening 2, they first contact the inclined surface 16. The inclined surface 16 can not only ensure that the ice cubes slide smoothly under the action of gravity, but also control the falling speed of the ice cubes to prevent the ice cubes from breaking or bouncing due to the impact force generated by free fall. In the process of the ice cubes sliding along the inclined surface 16, the movement direction is effectively guided, so that the ice cubes can accurately fall into the outlet bracket 5 below.

[0056] This structural design solves the problem of ice cubes getting stuck, scattered or piled up between the ice storage bucket 1 and the outlet bracket 5, ensuring the continuity and reliability of ice cube transportation. The presence of the outlet bracket 15 also shortens the free fall distance of ice cubes, reduces the chance of collision between ice cubes, and effectively maintains the integrity and appearance quality of the ice cubes.

[0057] Embodiment 3: Figures 1-4 As shown, different from the second embodiment, the outlet bracket 5 has an outlet 17 which passes through from top to bottom, and the outlet 17 is connected to the inclined surface 16 . A transparent decorative cover 18 is also fixed to the lower end of the outlet bracket 5 , and a plated decorative cover 19 is fixed to the outer side of the transparent decorative cover 18 .

[0058] The vertically penetrating discharge opening 17 on the outlet bracket 5 forms the final channel for ice transportation. It is precisely docked with the inclined surface 16 of the export bracket 15 to ensure that ice cubes can be smoothly and continuously transported from the ice storage bucket 1 to the final outlet. This seamless connection design eliminates the potential obstruction points during ice transmission and realizes a smooth ice movement trajectory.

[0059] The transparent decorative cover 18 fixed to the lower end of the outlet bracket 5 has multiple practical functions. It allows users to directly observe the ice discharging state, facilitating the judgment of the ice quantity and quality. At the same time, it plays a role of physical isolation to prevent external pollutants from entering the system. The electroplated decorative cover 19 fixed to the outside of the transparent decorative cover 18 not only enhances the overall aesthetic and high-class sense of the product but also strengthens the structural strength, protecting the internal transparent cover from external force damage. The electroplating process endows the surface with good wear resistance and corrosion resistance, extending the service life of the decorative parts.

[0060] In this embodiment, the upper end of the ice storage bucket 1 is movably covered with a bucket lid 20, and a heat preservation layer 21 is arranged inside the ice storage bucket 1.

[0061] The bucket lid 20 equipped at the upper end of the ice storage bucket 1 creates a relatively closed internal environment, effectively preventing external hot air from entering the bucket and blocking external dust and potential pollutants. This movable design also facilitates users to quickly add ice cubes or perform cleaning and maintenance when needed.

[0062] The heat preservation layer 21 inside the ice storage bucket 1 is made of high-efficiency heat preservation materials, forming an effective heat blocking area between the outer wall and the inner wall of the ice storage bucket 1, significantly reducing the influence of the external environmental temperature on the low-temperature environment inside the bucket. This heat preservation structure greatly reduces the heat conduction rate, enabling the inside of the ice storage bucket 1 to maintain a low temperature for a long time, slowing down the ice melting speed, and extending the ice preservation time.

[0063] In this embodiment, a rotatable tray 22 is arranged inside the ice storage bucket 1. The tray 22 is used to receive and store the ice cubes and is driven by a driving mechanism 23 arranged at the lower end of the ice storage bucket 1.

[0064] The main function of the tray 22 is to receive and store the ice cubes produced by the ice-making system. The driving mechanism 23 arranged at the lower end of the ice storage bucket 1 provides a power source for the tray 22 to ensure that the tray 22 can rotate in a preset manner. This mechanical driving method avoids the trouble of manual intervention and realizes the automation of ice management. When the tray 22 rotates, the ice cubes are continuously flattened and evenly distributed on the surface of the tray 22, preventing the difficulty of ice taking caused by excessive accumulation of ice cubes in a single area. More importantly, the periodic rotation of the tray 22 effectively blocks the long-term static contact between the ice cubes, significantly reducing the possibility of ice cubes sticking together and forming lumps.

[0065] This dynamic storage method ensures that the ice cubes remain dispersed and independent, facilitating subsequent ice dispensing operations. The drive mechanism 23 can adjust the rotation frequency and duration of the tray 22 according to system requirements, flexibly adapting to different usage scenarios. This structural design not only improves the effectiveness and reliability of ice storage but also optimizes the smoothness of the ice dispensing process, reduces ice jamming and blockage failures, and enhances the overall operating stability and user satisfaction of the machine.

[0066] In this embodiment, the edge of the tray 22 is provided with an inclined portion 24 that slopes outward from top to bottom. A plurality of protrusions 25 are circumferentially and evenly arranged on the inclined portion 24, and a stirring rod 26 is fixed on the upper surface of the tray 22.

[0067] The design of the edge of the tray 22 that slopes outward from top to bottom creates an ideal ice guiding surface. When newly manufactured ice cubes fall into the ice storage bucket 1, they naturally slide towards this inclined portion 24. This outward inclination angle utilizes the force of gravity to prevent the ice cubes from accumulating excessively in the central area and promotes the uniform dispersion of the ice cubes towards the periphery.

[0068] The plurality of protrusions 25 circumferentially and evenly distributed on the inclined portion 24 play a key stirring role during the rotation of the tray 22. These protrusions 25 can push and disperse the ice cubes in contact, preventing static contact points from forming between the ice cubes. The stirring rod 26 fixed on the upper surface of the tray 22 forms a large stirring area when the tray 22 rotates, effectively breaking the ice connections that may have started to form.

[0069] In this embodiment, the drive mechanism 23 includes a drive motor 27 and a rotating shaft 28. The drive motor 27 is fixed to the lower end of the ice storage bucket 1 through a mounting bracket 29. The rotating shaft 28 is rotatably connected to the ice storage bucket 1, and the upper end of the rotating shaft 28 is fixed to the tray 22, and the lower end of the rotating shaft 28 is connected to the output shaft of the drive motor 27.

[0070] The design of the drive mechanism 23 ensures the stable and reliable operation of the tray 22. The drive motor 27 is firmly fixed to the lower end of the ice storage bucket 1 through the mounting bracket 29. This layout not only ensures the proper isolation of the motor from the low-temperature environment but also saves the effective space inside the ice storage bucket 1. The rotational power generated by the drive motor 27 is directly transmitted to the lower end of the rotating shaft 28 through its output shaft, forming an efficient power transmission chain. The rotating shaft 28 is designed to be rotatably connected to the ice storage bucket 1, and it forms a low-friction rotating interface with the ice storage bucket 1 through a bearing or bushing structure, ensuring the minimization of energy loss during the rotation process. The fixed connection between the upper end of the rotating shaft 28 and the tray 22 establishes a stable power transmission terminal, enabling the rotational torque generated by the motor to be completely and accurately transmitted to the tray 22. This vertically penetrating design of the rotating shaft 28 solves the problem of spatial isolation between the power source and the working component, enabling the motor located outside the ice storage bucket 1 and the tray 22 located inside to work in coordination.

[0071] Embodiment 4: An ice-making and purified drinking integrated machine, including the automatic ice discharging mechanism in Embodiment 3.

[0072] This ice-making and purified drinking integrated machine achieves the purpose of complete ice storage and distribution. First, the ice cubes manufactured by the ice-making and purified drinking integrated machine fall from the ice-making system onto the rotatable tray 22 in the ice storage bucket 1. The tray 22 rotates regularly under the control of the driving mechanism 23 at the bottom of the ice storage bucket 1. The inclined part 24 and the circumferential protrusion 25 on its edge cooperate with the stirring rod 26 on the upper surface to make the ice cubes evenly distributed and prevent them from freezing into blocks. The ice storage bucket 1 is equipped with a heat insulation layer 21 and a bucket cover 20, which effectively maintains the low-temperature environment inside and extends the preservation time of the ice cubes.

[0073] When the user needs to take ice, press the ice discharging button through the control panel. The system supplies power to the push-pull electromagnet 6. After the electromagnet is energized, the pin shaft 13 on its moving rod slides in the arc-shaped groove 12 of the switch bracket 4, converting the linear motion into the rotation of the switch bracket 4. The switch bracket 4 rotates around the hinge point, driving the baffle 14 on it to leave the ice discharging opening 2 and open the channel. At this time, the ice cubes in the ice storage bucket 1 fall onto the inclined surface 16 through the ice discharging opening 2 under the action of gravity and slide into the discharge port 17 of the outlet bracket 5 along the inclined surface 16. The outlet bracket 5 guides the ice cubes to the final outlet, and the user can directly take the ice cubes.

[0074] After the ice discharging is completed, the electromagnet is powered off. The push-pull electromagnet 6 returns to its original position under the action of the return spring, driving the switch bracket 4 to close. The silica gel pad 7 on the switch bracket 4 and the stainless steel pressing piece 8 are combined to tightly seal the ice discharging opening 2, preventing cold air from leaking. The entire ice discharging process is automatically completed without manual operation of the ice bucket or direct contact with the ice cubes, ensuring both hygiene and improving the convenience of use.

[0075] The above is only the implementation mode of this application, and it does not limit the patent scope of this application accordingly. Any equivalent structure or equivalent process transformation made by using the content of the specification and drawings of this application, or directly or indirectly applied in other related technical fields, shall be included in the patent protection scope of this application by the same token.

Claims

1. An automatic ice dispensing mechanism, characterized in that: include, An ice storage bucket having an ice discharging opening; An electromagnet bracket, fixedly connected to the ice storage bucket; A switch bracket, hinged to the electromagnet bracket and corresponding to the ice outlet opening, for controlling the opening and closing of the ice outlet opening; An outlet bracket is disposed below the ice outlet opening and is used to receive ice cubes falling from the ice outlet opening; A push-pull electromagnet is installed on the electromagnet bracket and connected to the switch bracket. When the push-pull electromagnet is energized, it drives the switch bracket to rotate around the hinge point to form a switch action, so that the ice outlet opening is opened and ice cubes fall to the outlet bracket. When the power is off, the push-pull electromagnet is reset to close the ice outlet opening.

2. The automatic ice dispensing mechanism according to claim 1, characterized in that: Also includes, a silicone pad connected to the switch bracket and used for sealing the ice outlet opening when the switch bracket is closed; A stainless steel pressing sheet is connected to the silicone pad to enhance the sealing effect and prevent the silicone pad from deforming.

3. The automatic ice dispensing mechanism according to claim 1, characterized in that: The switch bracket comprises: The main body has a hinge hole and is hinged to the electromagnet bracket via a hinge axis; An arc groove is provided on the main body part and is slidably matched with the pin shaft on the push-pull electromagnet. When the push-pull electromagnet moves, the pin shaft slides in the arc groove, driving the switch bracket to rotate around the hinge point; A shielding plate is arranged on the main body and is used for shielding the ice outlet opening in a closed state.

4. The automatic ice dispensing mechanism according to claim 1, characterized in that: A guide bracket is fixed at the ice outlet opening, and the guide bracket has an inclined surface for guiding ice cubes into the outlet bracket.

5. The automatic ice dispensing mechanism according to claim 4, characterized in that: The outlet bracket has an outlet that passes through from top to bottom, and the outlet is connected to the inclined surface. A transparent decorative cover is fixed to the lower end of the outlet bracket, and an electroplated decorative cover is fixed to the outer side of the transparent decorative cover.

6. The automatic ice dispensing mechanism according to claim 1, characterized in that: The upper movable cover of the ice storage bucket is provided with a bucket cover, and the inner side of the ice storage bucket is provided with a heat preservation layer.

7. The automatic ice dispensing mechanism according to claim 1, characterized in that: A rotatable tray is arranged in the ice storage bucket, and the tray is used to receive the stored ice cubes and is driven by a driving mechanism arranged at the lower end of the ice storage bucket.

8. The automatic ice dispensing mechanism according to claim 7, characterized in that: The edge of the tray is provided with an inclined portion which is inclined outward from top to bottom, and a plurality of protrusions are evenly arranged circumferentially on the inclined portion. A stirring rod is fixed on the upper surface of the tray.

9. The automatic ice dispensing mechanism according to claim 7, characterized in that: The driving mechanism includes a driving motor and a rotating shaft. The driving motor is fixed to the lower end of the ice storage bucket through a mounting frame. The rotating shaft is rotatably connected to the ice storage bucket, and the upper end of the rotating shaft is fixed to the tray, and the lower end of the rotating shaft is connected to the output shaft of the driving motor.

10. An all-in-one ice-making and beverage-purifying machine, characterized in that: The invention comprises the automatic ice discharging mechanism as claimed in any one of claims 1 to 9.

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