Ice storage module and ice making device

Abstract

The application discloses a kind of ice storage module and ice making equipment, and the ice storage module includes container and spraying mechanism.The container can store the ice product obtained by ice making module into container;Spraying mechanism includes spraying piece, spraying piece is assembled in container and at least partially protrudes from the inner wall of container, and the spraying piece is formed with liquid supply channel connected to the container, and the liquid supply channel is used to guide the medium to spray along the spraying path in the container;Spraying path includes first spraying path, and the direction of first spraying path is different from the protruding direction of spraying piece.The application is fixed in the container for storing ice by spraying mechanism, and it is easier to clean the inside of the container regularly and timely by spraying mechanism, and it is helpful to improve the cleanliness of the inside of the container, so that the execution of cleaning step is more simple and efficient, and finally it is helpful to improve the use reliability of the whole machine.

Description

Technical Field

[0001] This invention relates to the field of ice-making equipment technology, specifically to an ice storage module and ice-making equipment. Background Technology

[0002] Ice-making equipment, such as ice makers, typically stores the produced ice in ice buckets. Over long-term use, if the ice buckets are not cleaned regularly, bacteria and mold can easily grow inside, producing odors and accumulating scale, creating safety hazards. Accumulated impurities and dirt can also reduce heat transfer efficiency, leading to decreased ice-making efficiency. Furthermore, impurities and dirt may clog internal components, increasing wear and tear, shortening the lifespan of the ice maker, and reducing its reliability. Summary of the Invention

[0003] The main objective of this invention is to propose an ice storage module and ice-making equipment, which aims to solve the problem that the reliability of ice makers is easily reduced due to the failure to clean the ice bucket in a timely manner.

[0004] To achieve the above objectives, the present invention proposes an ice storage module, comprising: A container for connection to an ice-making module in an ice-making device, so as to store ice products made by the ice-making module into the container; and, A spraying mechanism includes a spraying element, which is assembled to the container and at least partially protrudes from the inner wall of the container. The spraying element forms a liquid supply channel communicating with the container, the liquid supply channel being used to guide a medium to be sprayed out of the container along a spraying path. The spray path includes a first spray path, the direction of which is different from the protruding direction of the spray element.

[0005] Optionally, the direction of the first spray path is the same as the opposite direction of the protrusion direction; or, The direction of the first spray path intersects with the protruding direction.

[0006] Optionally, the spray element protrudes at least partially from the top wall of the container, and the protrusion direction is the direction of gravity; and / or, The direction of the first spray path intersects the protruding direction, and the included angle between them is not less than 90°; and / or, The first spray path is provided with at least two, and the directions of the at least two first spray paths are different from each other.

[0007] Optionally, the liquid supply channel includes a main channel section defined by the shell wall of the spray member, and a first liquid outlet section that penetrates the shell wall of the spray member and forms a first liquid outlet. The first liquid outlet section and the first liquid outlet together define the first spray path. The extension direction of the first liquid outlet section is different from the protruding direction; and / or, The orientation of the first liquid outlet is different from the direction of the protrusion.

[0008] Optionally, the shell wall of the spray member has an end located at its free end and a side portion connected to the end; The first liquid outlet section and / or the first liquid outlet is located at the end; or... The first liquid outlet section and / or the first liquid outlet is located on the side; or... The first liquid outlet section and / or the first liquid outlet is located at the connection between the end and the side, and extends toward the end and the side, respectively.

[0009] Optionally, the spray path further includes a second spray path, wherein the direction of the second spray path is the same as the protruding direction of the spray element; The liquid supply channel includes a main channel section defined by the shell wall of the spray member, and a second liquid outlet section that penetrates the shell wall of the spray member and forms a second liquid outlet. The second liquid outlet section and the second liquid outlet together define the second spray path.

[0010] Optionally, the spray component includes an assembly section and a protruding section, the assembly section being assembled to the container, and the protruding section being assembled to the assembly section and protruding from the inner wall of the container; The orientation of the assembly section relative to the container is fixed; or the orientation of the assembly section relative to the container is movable and adjustable; and / or, The protruding section is fixed in position relative to the assembly section; or the protruding section is movable and adjustable in position relative to the assembly section.

[0011] Optionally, the spraying mechanism further includes a power component that drives the assembly section and / or the protruding section to move actively; and / or, As the medium is sprayed out of the container along the spray path, the assembly section and / or the protruding section move accordingly.

[0012] Optionally, the container has a conveying channel formed through its side wall, the conveying channel being used at least for inputting ice products and / or outputting ice products; The spray element protrudes from the same side wall of the conveying channel and is disposed adjacent to the conveying channel so as to break up ice products during input and / or output.

[0013] Optionally, the outer diameter of the spray element is configured to decrease along the protruding direction; and / or, The spray path is provided with at least two, and at least one of the spray paths is arranged facing the conveying channel.

[0014] Furthermore, to achieve the above objectives, the present invention also provides an ice storage module, comprising: A container for connection to an ice-making module in an ice-making device, so as to store ice products made by the ice-making module into the container; and, A spraying mechanism includes a spraying element, which is assembled to the container and at least partially protrudes from the inner wall of the container. The spraying element forms a liquid supply channel communicating with the container, the liquid supply channel being used to guide a medium to be sprayed out of the container along a spraying path. The liquid supply channel is used to connect to at least two media.

[0015] Optionally, the spraying mechanism guides at least two media to be sprayed along the same spraying path; or the spraying path is provided with at least two, and the spraying mechanism guides at least two media to be sprayed along different spraying paths; and / or, The spraying mechanism guides at least two media to be sprayed simultaneously; or the spraying mechanism guides at least two media to be sprayed in stages.

[0016] Optionally, the spraying mechanism further includes: A detection component, acting within the container, is capable of acquiring detection data within the container; and, An adjustment component is disposed on the spray element and electrically connected to the detection component. The adjustment component is used to adjust the spray parameters of the spray element according to the detection data.

[0017] Optionally, the spray path includes the first spray path as described above.

[0018] Furthermore, to achieve the above objectives, the present invention also provides an ice storage module, comprising: A container for connection to an ice-making module in an ice-making device, so as to store ice products made by the ice-making module into the container; and, A spraying mechanism includes a spraying element and a driver, the spraying element being assembled to the container and at least partially protruding from the inner wall of the container, the spraying element forming a liquid supply channel communicating into the container; The actuator acts on the liquid supply channel and can create positive pressure in the liquid supply channel to guide the medium to be sprayed into the container along the spray path; it can also create negative pressure in the liquid supply channel to draw the medium in the container.

[0019] Optionally, the spray element is disposed on the bottom wall of the container; or the spray element is disposed adjacent to the bottom wall of the container; and / or, The spray element is disposed on the bottom wall of the container and extends protruding in the opposite direction of gravity; the spray path includes a third spray path; wherein the direction of the third spray path is the same as the protruding direction of the spray element; or the direction of the third spray path intersects the protruding direction of the spray element, and the included angle between the two is not greater than 90°.

[0020] In addition, to achieve the above objectives, the present invention also provides an ice-making device, including the ice storage module as described above.

[0021] In the technical solution provided by the present invention, by fixing a spray mechanism inside the ice storage container, it is easier to clean the inside of the container regularly and in a timely manner by means of the spray mechanism, which helps to improve the cleanliness of the inside of the container, making the cleaning steps simpler and more efficient, and ultimately helping to improve the reliability of the whole machine.

[0022] Furthermore, by specifically designing its spray structure and spray power, the spray mechanism can accurately define the spray path of the medium. Specifically, the different protrusion directions of the first spray path and the spray element help to expand the spray area of ​​the mechanism, thus making the spray cleaning more comprehensive and effective. Especially when the first spray path and the protrusion direction of the spray element are the same or nearly the same, the inner wall of the container to which the spray element is mounted can be cleaned, avoiding the formation of cleaning blind spots on the inner wall that would lead to the accumulation of excessive impurities and dirt. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0024] Figure 1 This is a perspective view of an embodiment of the ice storage module provided by the present invention; Figure 2 for Figure 1 A top view of the ice storage module; Figure 3 for Figure 2 Schematic diagram of the cross-sectional structure at point AA; Figure 4 for Figure 3 Enlarged structural diagram at point B; Figure 5 for Figure 1 Assembly diagram of the spray nozzle and container; Figure 6 for Figure 1 A three-dimensional schematic diagram of the central spray component; Figure 7 for Figure 6 A perspective view of a partial embodiment of the spray nozzle; Figure 8 for Figure 7 A schematic diagram of the liquid outlet section in the central spray unit; Figure 9 for Figure 6 A perspective view of a portion of the second embodiment of the spray nozzle; Figure 10 for Figure 9 A schematic diagram of the liquid outlet section in the central spray unit; Figure 11 for Figure 6 A perspective view of a portion of the third embodiment of the spray nozzle; Figure 12 for Figure 11 A schematic diagram of the liquid outlet section in the central spray unit; Figure 13 for Figure 6 A perspective view of a portion of the fourth embodiment of the spray nozzle; Figure 14 for Figure 13 A schematic diagram of the liquid outlet section in the central spray unit; Figure 15 for Figure 6 A top perspective view of a portion of the fifth embodiment of the spray nozzle.

[0025] Explanation of icon numbers: 100 Container; 110 Input channel; 120 Output channel; 200 Spraying mechanism; 210 Spraying component; 220 Liquid supply channel; 221 Main channel section; 223 First liquid outlet section; 223a First liquid outlet; 224 Second liquid outlet section; 224a Second liquid outlet; 230 Assembly section; 240 Protruding section; 241 End; 242 Side; 300 Crushing mechanism; T Protruding direction; S1 First spraying path; S2 Second spraying path.

[0026] The realization of the objective, functional features and advantages of the present invention will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0027] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0028] It should be noted that if the embodiments of the present invention involve directional indicators (such as up, down, left, right, front, back, etc.), the directional indicators are only used to explain the relative positional relationship and movement of the components in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicators will also change accordingly.

[0029] Furthermore, if the embodiments of this invention involve descriptions such as "first" or "second," these descriptions are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined with "first" or "second" may explicitly or implicitly include at least one of those features. Additionally, the meaning of "and / or" throughout the text includes three parallel solutions; for example, "A and / or B" includes solution A, solution B, or a solution where both A and B are satisfied simultaneously. Furthermore, the technical solutions of the various embodiments can be combined with each other, but this must be based on the ability of those skilled in the art to implement them. When the combination of technical solutions is contradictory or impossible to implement, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection claimed by this invention.

[0030] Please see Figures 1 to 15 This invention provides an ice storage module and an ice-making device applicable thereto.

[0031] It's understandable that ice-making equipment is generally used to produce ice products. These ice products can be ice cubes directly, or they can be other ice products made using ice cubes as a raw material or auxiliary ingredient. However, for ease of understanding, the following explanation will use ice cubes as an example.

[0032] In addition to the ice storage module, ice-making equipment generally includes an ice-making module. The ice-making module can turn liquid materials into ice blocks.

[0033] The ice storage module includes a container 100 and a spraying mechanism 200.

[0034] The container 100 is connected to the ice-making module in the ice-making equipment. This allows the ice blocks produced by the ice-making module to be stored in the container 100.

[0035] Specifically, an ice storage cavity is formed inside the container 100. The ice storage cavity is equipped with a conveying channel. This conveying channel can be used to convey ice blocks.

[0036] For example, the conveying channel includes an input channel 110. The input channel 110 is directly or indirectly connected to the ice outlet of the ice-making module, so that the ice blocks produced by the ice-making module can be fed into the ice storage cavity via the input channel 110.

[0037] And / or, for example, the conveying channel includes an output channel 120. The output channel 120 communicates with the outside of the ice storage chamber, thereby enabling the ice stored in the ice storage chamber to be output to the outside via the output channel 120.

[0038] Optionally, the conveying channel may also include a drainage channel. The drainage channel also connects to the outside of the ice storage chamber and may optionally connect to external components such as a water collection tank or wastewater pan, thereby enabling the discharge of ice water formed from melted ice from the ice storage chamber.

[0039] The input channel 110, output channel 120, and drainage channel can be configured independently of each other, meaning they are each defined separately by three independent channel structures. Alternatively, at least two of the input channel 110, output channel 120, and drainage channel can be configured as a single entity, meaning they are defined by the same channel structure.

[0040] The specific structure of container 100 itself is not limited. For example... Figure 1 As shown, the container 100 can be generally cylindrical. Optionally, the container 100 may include a barrel body and a lid. The lid is closable relative to the barrel body. When the barrel body is closed, both lid and lid together define an ice storage cavity.

[0041] The spray mechanism 200 includes a spray element 210. The spray element 210 is fitted to the container 100 and at least partially protrudes from the inner wall of the container 100. For ease of understanding, the spray element 210 may, for example, extend elongatedly along its axial direction (basically, the protrusion direction T described below). The spray element 210 includes a fitting section 230 and a protruding section 240 connected sequentially along its axial direction.

[0042] Assembly section 230 is assembled to container 100. The assembly method for both is not limited; for example, it can be, but is not limited to, [examples of assembly methods]. Figures 1 to 4 The connection method is shown. That is, the container 100 has a pre-set mounting hole. The mounting section 230 is adapted to be plugged in or interference-fitted into this mounting hole. Correspondingly, one end of the mounting section 230 is exposed outside the container 100 and can be directly or indirectly connected to an external water source. The other end of the mounting section 230 is exposed inside the container 100, that is, inside the ice storage chamber.

[0043] Alternatively, assembly section 230 can also be assembled to container 100 by means of adhesive fixation, magnetic fixation, or other methods.

[0044] The external water source can be an external water source connected to the entire ice-making equipment or only the spray mechanism 200, such as an external faucet. Alternatively, the entire ice-making equipment or only the spray mechanism 200 may be pre-installed with a water tank. An appropriate amount of medium is pre-filled inside the water tank. The water tank constitutes the external water source.

[0045] However, it should be noted that the media mentioned above and below are not limited to clean water. Depending on the actual needs, the media can be, but is not limited to, clean water, solutions containing cleaning agents or other auxiliary materials used for cleaning, etc. Furthermore, its state can be, but is not limited to, room temperature liquid, high temperature liquid, high pressure gas, high temperature and high pressure steam, etc.

[0046] The protruding section 240 is assembled to the assembly section 230. The protruding section 240 is protruding relative to the inner wall of the container 100.

[0047] However, it should be noted that, firstly, the protruding section 240 and the assembly section 230 can be integrally formed. Alternatively, the protruding section 240 and the assembly section 230 can be detachably or non-detachably connected after they are each separately formed.

[0048] Secondly, the above does not limit the number of sections of the spray component 210 that protrude from the inner wall of the container 100 to be protruding sections 240. Alternatively, the assembly section 230 may be completely contained within, for example, the aforementioned assembly hole. Or, the assembly section 230 may at least partially protrude from the inner wall of the container 100. Similarly, the above does not limit the number of protruding sections 240 to be entirely protruding from the inner wall of the container 100. Alternatively, the protruding section 240 may be entirely protruding from the inner wall of the container 100. Or, a portion of the protruding section 240 may be contained within, for example, the aforementioned assembly hole, with the remaining portion protruding from the inner wall of the container 100.

[0049] Third, the protruding direction T of the protruding section 240 is not limited to being perpendicular to the inner wall of the container 100 to which it is assembled. Depending on actual needs, the protruding direction T of the protruding section 240 can form any required angle with the inner wall of the container 100 to which it is assembled, including acute angle, right angle or obtuse angle.

[0050] Following the above, the spray component 210 has a liquid supply channel 220 that communicates with the container 100. The liquid supply channel 220 is used to guide the medium to be sprayed out along the spray path in the container 100.

[0051] The spray path can be set to one or at least two. When the spray path is set to one, it directly constitutes the first spray path S1. When the spray path is set to at least two, at least one of them constitutes the first spray path S1.

[0052] In the first application example provided by the present invention, the direction of the first spray path S1 is different from the protruding direction T of the spray member 210.

[0053] In the technical solution provided by the present invention, by fixing a spray mechanism 200 inside the ice storage container 100, it is easier to clean the inside of the container 100 regularly and in a timely manner by means of the spray mechanism 200, which helps to improve the cleanliness inside the container 100, making the cleaning steps simpler and more efficient, and ultimately helping to improve the reliability of the whole machine.

[0054] Furthermore, the spray mechanism 200, through specific design of its spray structure and spray power, can accurately define the spray path of the medium. Specifically, the first spray path S1 and the protrusion direction T of the spray element 210 are different, which at least helps to expand the spray area of ​​the spray mechanism 200, thereby making the spray cleaning more comprehensive and complete. Especially when the first spray path S1 is the same as or nearly the same as the protrusion direction T of the spray element 210, the inner wall of the container 100 to which the spray element 210 is mounted can be cleaned, avoiding the formation of cleaning blind spots on the inner wall that would lead to the accumulation of excessive impurities and dirt.

[0055] Based on the above, the spray component 210 can be installed at any position within the container 100. For example, when the container 100 extends in the direction of gravity (i.e., vertically, or commonly referred to as up and down), the inner wall of the container 100 includes a top wall, a bottom wall, and a peripheral wall connecting the top wall and the bottom wall.

[0056] It is understood that the spray element 210 described in any of the above and below embodiments can be configured as one or at least two. Therefore, depending on actual needs, any spray element 210 can be selectively assembled on the top wall, bottom wall, and / or peripheral sidewall of the container 100.

[0057] However, for ease of understanding, at least in any embodiment of the first application example, the description will primarily focus on the example of the spray element 210 being assembled on the top wall of the container 100. In this case, the protruding direction T of the spray element 210 is also the direction of gravity, or downward. The opposite direction of the protruding direction T is also the opposite direction of gravity, or upward. And the direction of the first spray path S1 is also the direction in which the medium is sprayed out by the spray element 210.

[0058] Based on this, the direction of the first spray path S1 is different from the convex direction T, and the specific situations include: The direction of the first spray path S1 is the same as the opposite direction of the protrusion direction T. Specifically, for example, the direction of the first spray path S1 is also the opposite direction of gravity, or upward. After the medium is sprayed out along the first spray path S1, it can be sprayed directly onto the top wall of the container 100, thereby acting on the top wall of the container 100 in the shortest distance and fastest speed, effectively cleaning the top wall of the container 100. Moreover, subsequently, the medium can also fall sequentially under the action of gravity, acting directly on the bottom wall of the container 100; or it can fall onto the bottom wall of the container 100 along the peripheral side wall. Overall, this helps to clean the inner wall of the container 100 over a wider area.

[0059] Alternatively, the direction of the first spray path S1 intersects the protruding direction T, forming an angle that is neither 0° nor 180°. In this case, after the medium is sprayed along the first spray path S1, it will directly face the bottom wall, the peripheral side wall, and / or the top wall, depending on the specific intersection angle, to achieve targeted cleaning of at least one of the target inner walls mentioned above. Similarly, the medium can subsequently fall under the action of gravity, flowing through the remaining inner walls located below the target inner wall and achieving cleaning.

[0060] As described above, the liquid supply channel 220 penetrates the assembly section 230 and forms an inlet. The liquid supply channel 220 penetrates the protruding section 240 and forms an outlet. The medium entering the liquid supply channel 220 through the inlet is ultimately sprayed outward through the outlet. Therefore, the direction of the spray path is mainly defined by the orientation of the outlet and / or the extension direction of the channel segment in the liquid supply channel 220 adjacent to the outlet.

[0061] In a specific embodiment, the spray element 210 is generally composed of a shell structure. The liquid supply channel 220 may include a main channel section 221 defined by the shell wall of the spray element 210, and a first liquid outlet section 223 that penetrates the shell wall of the spray element 210 and forms a first liquid outlet 223a. The first liquid outlet section 223 constitutes the channel section of the liquid supply channel 220 adjacent to the first liquid outlet 223a.

[0062] At this point, the direction of the first spray path S1 is basically defined by the orientation of the first liquid outlet 223a and / or the extension direction of the first liquid outlet section 223. Specifically, when the orientation of the first spray path differs from the protrusion direction T, it can be that the extension direction of the first liquid outlet section 223 is different from the protrusion direction T, and / or that the orientation of the first liquid outlet 223a is different from the protrusion direction T.

[0063] Based on the specific breakdown of the "differences" mentioned above, the above solution may further include: the extension direction of the first liquid outlet section 223 is the same as the opposite direction of the protrusion direction T. Alternatively, the extension direction of the first liquid outlet section 223 intersects the protrusion direction T and forms an angle that is neither 0° nor 180°.

[0064] And / or, the orientation of the first outlet 223a is the same as the opposite direction of the protrusion direction T. Or the orientation of the first outlet 223a intersects the protrusion direction T and forms an angle that is neither 0° nor 180°.

[0065] In practical applications, based on the aforementioned spray element 210 having an end portion 241 and a side portion 242, the specific arrangement of the first liquid outlet 223a and / or the first liquid outlet section 223 can be, but is not limited to: In one scheme, such as Figures 9 to 10 As shown, a first liquid outlet section 223 and / or a first liquid outlet 223a are provided at end 241. Correspondingly, the orientation of the first spray path S1, defined by the extending direction of the first liquid outlet section 223 and / or the orientation of the first liquid outlet 223a, intersects with the protruding direction T, and the included angle between the two is no greater than 90°. The medium sprayed outward through the first spray path S1 can be sprayed obliquely downward toward the bottom wall of the container 100 and toward the peripheral sidewalls near the bottom wall. This scheme can be optionally applied, for example, in a container 100 with a large vertical depth dimension.

[0066] In one scheme, such as Figures 7 to 8 , Figures 11 to 12 As shown, the first liquid outlet section 223 and / or the first liquid outlet 223a are located on the side portion 242. The orientation of the first spray path S1, which is defined at this time, intersects with the protruding direction T, and the angle formed between them is highly flexible, potentially less than 90°, approximately equal to 90°, or greater than 90°. The medium sprayed outward through the first spray path S1 can be sprayed obliquely downwards towards the peripheral wall of the container 100, perpendicularly towards the peripheral wall of the container 100, and / or obliquely upwards towards the peripheral wall of the container 100. The medium, flowing downwards under gravity, eventually passes through the bottom wall of the container 100.

[0067] Among them, such as Figures 7 to 8 In the illustrated scheme, the direction of the first spray path S1 forms an angle greater than 90° with the protruding direction T. This scheme is primarily suitable for applications requiring cleaning of the top wall of container 100, i.e., containers 100 with relatively high cleaning requirements.

[0068] And such Figures 11 to 12 In the illustrated scheme, the direction of the first spray path S1 forms an angle of not less than 90° with the protruding direction T. It is primarily suitable for applications such as containers 100 with large volumes, especially large diameters, for example, ice storage chambers.

[0069] In one scheme, such as Figures 13 to 14As shown, the first liquid outlet section 223 and / or the first liquid outlet 223a are located at the connection between the end portion 241 and the side portion 242, and extend towards the end portion 241 and the side portion 242, respectively. This results in more diverse orientations for the defined first spray path S1, and a relatively larger spray area. The medium sprayed outward through the first spray path S1 can be sprayed obliquely downwards towards the peripheral wall of the container 100, vertically towards the peripheral wall of the container 100, obliquely upwards towards the peripheral wall of the container 100, and / or obliquely downwards towards the bottom wall of the container 100. It is primarily suitable for use in containers 100 requiring high cleaning standards for their peripheral walls. Furthermore, it can achieve a large spray area and spray angle within a substantially simultaneous timeframe.

[0070] In addition, specifically as follows Figure 15 As shown, in one specific embodiment, the first liquid outlet section 223 and / or the first liquid outlet 223a may be provided on the side portion 242. Essentially, the first liquid outlet section 223 extends tangentially along the outer periphery of the spray member 210. When the number of first liquid outlet sections 223 provided at the same spray member 210 is at least two, each first liquid outlet section 223 is arranged in the same clockwise or counterclockwise direction along the outer periphery of the spray member 210.

[0071] Next, the spray component 210 is rotatably assembled to the container 100 around its own axis. When the medium is sprayed outward through the first liquid outlet section 223 and / or the first liquid outlet 223a, the reverse force of the medium can drive the spray component 210 to rotate around its own axis, so as to achieve the purpose of spraying while rotating.

[0072] Then, optionally, for example Figure 15 The calculation of the specific parameters involved in the structure shown can be referred to the following steps.

[0073] First, we can clearly state the formula for calculating torque: T = F × r × sin(θ).

[0074] Where T is the torque to be calculated; F is the reaction force generated after the medium is ejected; r is the distance from the first liquid outlet 223a to the rotation axis of the spray element 210; θ is the spray angle value, which is the tangential angle of the first liquid outlet section 223.

[0075] Then we can use the formula for calculating force: F=M×v.

[0076] Where F is the reaction force generated after the medium is ejected; M is the mass flow rate, which can be obtained by multiplying the mass m and the time t; and v is the velocity of the medium.

[0077] The steps to obtain M may include: preparing a container of known capacity (or placing it on an electronic scale). Allowing all the medium sprayed from the spray unit 210 to enter the container, and recording the time t using a timer. After completion, weighing the mass m of the medium inside the container.

[0078] The steps to obtain v may include: Method 1: Calculation using Bernoulli's equation. According to fluid mechanics principles, the velocity of the medium ejected from the first outlet 223a mainly depends on the pressure value at the inlet of the supply channel 220. Therefore, the specific pressure value P can be obtained at the inlet of the supply channel 220 using a pressure gauge or similar device. Finally, the value of v is calculated using Bernoulli's equation.

[0079] Method 2: The average velocity can be calculated using the flow rate reverse calculation method. For example, measure the cross-sectional area A of the opening of the first outlet 223a. Then, use the flow rate formula to calculate the v value.

[0080] Also based on Figures 7 to 15 It is understood that this application does not limit the number of first spray paths S1 provided at the same spray element 210. That is, the same spray element 210 can be provided with a set of first liquid outlet sections 223 and / or first liquid outlets 223a as needed. Alternatively, at least two sets of first liquid outlet sections 223 and / or first liquid outlets 223a can be selectively provided.

[0081] When at least two sets of first liquid outlet sections 223 and / or first liquid outlets 223a are provided, the directions of at least two first spray paths S1 defined by each set of first liquid outlet sections 223 and / or first liquid outlets 223a can be set to be basically the same, that is, to spray and clean the inner wall of almost the same area.

[0082] Alternatively, the directions of each of the first spray paths S1 can be set to be different from each other, such as... Figures 9 to 14 The solutions are generally more flexible and diverse.

[0083] As mentioned above, when there is a cleaning requirement for the upper area of ​​the top wall and / or the peripheral sidewall of the container 100, the first spray path S1 can be selected to intersect with the protruding direction T, and the included angle between the two is not less than 90°.

[0084] Optionally, the spray path also includes a second spray path S2. The direction of the second spray path S2 is the same as the protruding direction T of the spray element 210. That is, the medium sprayed outward through the second spray path S2 is mainly directed towards the bottom wall of the container 100 and has a relatively stronger impact force. It is more suitable for situations where the cleaning requirements at the bottom wall are larger and more concentrated.

[0085] Similarly, it can be combined Figures 7 to 15As indicated by the dashed circle, the liquid supply channel 220 may, as described above, include a main channel section 221 defined by the shell wall of the spray member 210, and a second liquid outlet section 224 that penetrates the shell wall of the spray member 210 and forms a second liquid outlet 224a. The second liquid outlet section 224 constitutes the channel section of the liquid supply channel 220 adjacent to the second liquid outlet 224a.

[0086] At this point, the direction of the second spray path S2 is basically defined by the orientation of the second outlet 224a and / or the extension direction of the second outlet section 224. Specifically, when the orientation of the first spray path is the same as the protrusion direction T, it can be that the extension direction of the second outlet section 224 is the same as the protrusion direction T, and / or that the orientation of the first outlet 223a is the same as the protrusion direction T.

[0087] In this application, the configuration scheme of the first spray path S1 can be selected as the main one. Then, according to actual needs, a second spray path S2 can be added as an auxiliary and optimization based on the first spray path S1.

[0088] When at least two spray paths are formed as described above, for example, a combination of at least one first spray path S1 and at least one second spray path S2, or a combination of at least two first spray paths S1, then as follows: In one scheme, the main channel segment 221 may be provided with one or at least two segments, depending on actual needs.

[0089] When one main channel segment 221 is provided, it can be connected to one or at least two media at a time. Alternatively, it can be connected to different media sequentially.

[0090] Alternatively, when at least two main channel sections 221 are provided: Optionally, each main channel section 221 can be connected to the same external water source. That is, it can circulate and spray media of essentially the same type and / or state. Alternatively, at least two of the main channel sections 221 can be configured to connect to different external water sources. That is, at least two main channel sections 221 are specifically connected to media of different types and / or states, thereby enabling the spraying mechanism 200 to spray media of different types and / or states.

[0091] In one embodiment, the first outlet section 223 and the second outlet section 224 are connected to the same main channel section 221. Alternatively, when at least two main channel sections 221 are provided as described above, the first outlet section 223 and the second outlet section 224 may be connected to different main channel sections 221 respectively. Or, when at least two main channel sections 221 are provided as described above, and at least two first outlet sections 223 and / or second outlet sections 224 are also provided, the connection relationship between the first outlet section 223, the second outlet section 224, and the main channel section 221 can be arbitrarily configured according to actual needs.

[0092] In addition, such as Figures 7 to 15 In the illustrated scheme, at least two sets of first liquid outlets 223a / first liquid outlet segments 223 can be arranged along the circumference of the protruding segment 240. For example, when there are two sets, the two sets of first liquid outlets 223a / first liquid outlet segments 223 are arranged symmetrically along the radial direction of the protruding segment 240. For example, when there are three or more sets, each set of first liquid outlets 223a / first liquid outlet segments 223 can be arranged symmetrically about the center of the protruding segment 240, etc.

[0093] Of course, when there are at least two sets of first outlet 223a / first outlet section 223, the parameters of each set of first outlet 223a / first outlet section 223 can be set the same. Alternatively, the parameters of at least two sets of first outlet 223a / first outlet section 223 can be set differently.

[0094] Based on one or at least two of the above embodiments, in a further embodiment, the assembly segment 230 and the container 100 can be fixedly arranged as described above. That is, the orientation of the assembly segment 230 relative to the container 100 remains basically constant, and the two can be in a unique and stable connection state.

[0095] Alternatively, in one embodiment, the assembly section 230 and the container 100 can be movably connected. That is, the orientation of the assembly section 230 relative to the container 100 is adjustable. The specific adjustment scheme and purpose are not limited, and may include, but are not limited to: For example, assembly section 230 is mounted on the top wall and can move freely along the plane of the top wall, allowing the overall position of the spray component 210 to be adjusted on the plane of the top wall during its movement. This can be achieved by pre-setting multiple tracks on the top wall. Assembly section 230 is provided with sliding protrusions that slidably connect with the tracks. The sliding protrusions move along the tracks. Furthermore, the connection between assembly section 230 and the external water source can be flexibly adapted and connected by means of, for example, hoses or flexible joints.

[0096] Alternatively, for example, assembly section 230 is mounted on the top wall and is rotatable about an axis extending in the protruding direction T. This allows for flexible adjustment of the direction of the first spray path S1 and / or the second spray path S2 during rotation. Alternatively, assembly section 230 can be rotatably mounted on the top wall using bearings or similar structures.

[0097] Alternatively, for example, assembly section 230 is fitted to the top wall and can be telescopically moved along the protruding direction T. This allows the protruding section 240 to have a working state protruding from the top wall and a retracted state that is essentially flush with the top wall during its translation. When switched to the retracted state, the spray component 210 is effectively protected within the shell of the container 100, preventing interference with other surrounding objects.

[0098] Similarly, regarding the protruding segment 240: In a further embodiment, the protruding section 240 and the assembly section 230, as described above, can be fixedly connected. That is, the orientation of the protruding section 240 relative to the assembly section 230 remains essentially constant, and the two can be connected in a unique and stable manner.

[0099] Alternatively, in one embodiment, the protruding section 240 and the assembly section 230 can be movably connected. That is, the orientation of the protruding section 240 relative to the assembly section 230 is adjustable. The specific adjustment scheme and purpose are not limited, and may include, but are not limited to: For example, the protruding section 240 can be telescopically translated along the protrusion direction T. During this translation, the protruding section 240 can have a working state protruding from the assembly section 230 and a retracted state within the assembly section 230. When switched to the retracted state, the protruding section 240 and the assembly section 230 are interlocked. The protruding section 240 is effectively protected within the assembly section 230, preventing interference with other surrounding objects. Furthermore, the overall shortening of the protruding dimension of the spray component 210 also helps avoid interference and provides shielding protection for the first liquid outlet 223a and the second liquid outlet 224a at the protruding section 240.

[0100] Alternatively, for example, assembly section 230 is assembled to the top wall. Protruding section 240 is laterally bent relative to assembly section 230. Thus, during its lateral bending, the orientation of the first liquid outlet 223a / second liquid outlet 224a and the extension direction of the first liquid outlet section 223 / second liquid outlet section 224 can be adjusted. The first spray path S1 and the second spray path S2 can then be directed towards any target inner wall, achieving targeted cleaning of the target inner wall. Alternatively, at least a portion of the protruding section 240 can be configured to be flexibly or elastically bent, and then, using a combination of transmission, such as a traction line and a reel, the traction and release of the lateral bending adjustment of the protruding section 240 can be achieved.

[0101] Alternatively, for example, the protruding section 240 can be rotated about an axis extending in the protrusion direction T. This allows for flexible adjustment of the orientation of the first spray path S1 and / or the second spray path S2 during rotation. Alternatively, the protruding section 240 can be rotatably mounted at the assembly section 230 using a structure such as bearings.

[0102] Of course, the embodiments listed above do not constitute a limitation on the movement scheme of the assembly section 230 and / or the protruding section 240.

[0103] Furthermore, it can be understood that the aforementioned movement adjustments can be performed during the assembly process of assembly section 230 relative to container 100 and protruding section 240 relative to assembly section 230. This results in greater flexibility in the assembly of assembly section 230 relative to container 100 and protruding section 240 relative to assembly section 230, allowing for arbitrary adjustment of their relative positions. Once assembled, and during subsequent spraying operations, the relative positions of assembly section 230 and protruding section 240 relative to assembly section 230 remain essentially unchanged after adjustment.

[0104] Alternatively, the aforementioned movement adjustment can be performed after the assembly section 230 is in place relative to the container 100 and the protruding section 240 is in place relative to the assembly section 230, i.e., during the subsequent spraying operation. This means that during the spraying process, the orientation of the assembly section 230 relative to the container 100 and the protruding section 240 relative to the assembly section 230 can be actively or dynamically adjusted. During adjustment, the spray path dynamically changes, thereby improving the versatility and flexibility of the spraying process.

[0105] Furthermore, the aforementioned movement adjustment can be actively performed. Specifically, for example, the spray mechanism 200 also includes a power unit. The power unit drives the assembly section 230 and / or the protruding section 240 to move actively. The power unit can specifically be a motor, cylinder, or other actuator itself. Alternatively, the power unit can be a combination of an actuator and a transmission assembly such as a gear set, rack and pinion, or lead screw and nut mechanism.

[0106] And / or, the aforementioned movement adjustment can be performed responsively. Specifically, for example, when the medium is sprayed out of the container 100 along the spray path, the assembly section 230 and / or the protruding section 240 are moved responsively by means of the action or reaction force generated by the sprayed medium.

[0107] For example, at least one first spray path S1 is aligned with the protrusion direction T, i.e., spraying directly towards the top wall. Since the distance between the first outlet 223a and the top wall is relatively short, the impact force of the medium sprayed from the first spray path S1 exerts a reaction force on the protruding section 240, causing the protruding section 240 to tend to move along the protrusion direction T or in a downward oblique direction intersecting the protrusion direction T. Then, by employing an elastic or floating connection between the protruding section 240 and the assembly section 230, this tendency to move can be transformed into a tangible movement, causing the protruding section 240 to move along the protrusion direction T or bend laterally.

[0108] Similarly, if the first spray path S1 extends tangentially along the outer periphery of the protruding section 240 at its location, and if one or at least two such first spray paths S1 are configured, then the impact force of the medium sprayed outward through the first spray path S1 exerts a reaction force on the protruding section 240, causing the protruding section 240 to tend to rotate. Then, by employing a rotating connection between the protruding section 240 and the assembly section 230, this rotational tendency can be transformed into a tangible force, causing the protruding section 240 to rotate and forming a vortex-shaped medium spray path.

[0109] Of course, the above can also be achieved by using the flow of the medium in the main channel section 221, the force or reaction force of the driving medium to flow in the liquid supply channel 220, etc., to drive the assembly section 230 and / or the protruding section 240 to move accordingly.

[0110] Furthermore, as described above, the container 100 has a conveying channel formed through its side wall. The conveying channel may optionally include an input channel 110, an output channel 120, and / or a drainage channel. Generally, specifically taking an example where the conveying channel includes at least an input channel 110 and / or an output channel 120, in order to break larger-diameter ice blocks into smaller-diameter ice blocks during the process of ice blocks entering the ice storage chamber via the input channel 110 and / or ice blocks in the ice storage chamber being discharged out of the ice storage chamber via the output channel 120, the ice storage module generally also includes a breaking mechanism 300. The breaking mechanism 300 may include a piercing protrusion. The piercing protrusion is located adjacent to the input channel 110 and / or the output channel 120 and protrudes relative to the inner wall of the container 100 at that location. When a larger-diameter ice block is moved close to the piercing protrusion, an interaction force is generated between it and the piercing protrusion, causing it to break into smaller-diameter ice blocks.

[0111] In one specific embodiment, the spray element 210 can protrude from the same side wall of the conveying channel and be disposed adjacent to the conveying channel to break up ice products during input and / or output. That is, at least a portion of the spray element 210 can constitute the breaking mechanism 300, for example, the puncturing protrusion. Especially when the ice storage module is in a stage where spray cleaning is not required, such as the normal ice feeding, storage, and discharging stages, the spray element 210 can be used as a puncturing protrusion, increasing the structural practicality of the spray element 210.

[0112] Specifically, the outer diameter of the optional spray component 210 is reduced along the protruding direction T, which means that it does not affect the spray output, but can increase the interaction strength between the spray component 210 and the ice block to a certain extent, thus optimizing the crushing effect.

[0113] In combination with the above-mentioned arrangement, such as the assembly section 230 being movable relative to the container 100 and the protruding section 240 being movable relative to the assembly section 230, it is possible to adjust, for example, the protruding size of the spray component 210 and the distance between the spray component 210 and the input channel 110 / output channel 120.

[0114] And / or optionally, the spray path is provided with at least two, and similarly, the spray path can be, but is not limited to, two or more first spray paths S1. Or a combination of at least one first spray path S1 and at least one second spray path S2.

[0115] At this time, at least one spray path can be oriented towards the conveying channel. For example, at least one first spray path S1 can be oriented towards the output channel 120 and / or the drainage channel. In this way, the output channel 120 and / or the drainage channel can be cleaned simultaneously when cleaning is required, avoiding the accumulation of impurities or dirt in the output channel 120 and / or the drainage channel during long-term use.

[0116] Optionally, the spray mechanism 200 also includes auxiliary devices. These auxiliary devices are disposed on the spray member 210. The auxiliary devices assist the spray member 210 in performing the spray cleaning operation. Therefore, the auxiliary devices may include, but are not limited to, the following: The auxiliary device is a disinfection device. The disinfection device is located inside the container 100 and is used to disinfect the interior of the container 100. Examples of disinfection devices include ultraviolet lamps and plasma disinfection products. The disinfection device can be optionally activated before, during, or after the spray cleaning of the spray unit 210 to perform auxiliary disinfection, thereby increasing the cleanliness of the container 100.

[0117] And / or, the auxiliary device is a lighting device. The lighting device is installed inside the container 100 and is used to illuminate the interior of the container 100. On the one hand, the lighting device can facilitate the user to visually inspect the internal condition of the ice storage cavity, the status of the spray unit 210, etc., when needed. On the other hand, when sensors or detection devices are installed inside the ice storage cavity, the lighting device can provide an auxiliary light source to improve the sensing effect of the sensors or detection devices.

[0118] And / or, the auxiliary device is a drying device. The drying device is disposed within the container 100 and is used to dry the contents of the container 100. The drying device can be an air-drying product, such as using clean airflow to achieve the drying purpose. The drying device can also be a heating product, such as using hot air to achieve the drying purpose. After the spray cleaning by the spray unit 210, the drying device can be optionally activated for drying.

[0119] Furthermore, when the drying device is a heating product, the container 100 can be preheated before the spray cleaning of the spray component 210 to accelerate the melting of residual ice and other substances, which helps to optimize the effect of subsequent spray cleaning.

[0120] Furthermore, in a second application example provided by the present invention, an ice storage module is also provided. This ice storage module, similar to the one described above, may include a container 100 and a spraying mechanism 200.

[0121] The specific configuration schemes of container 100 and spraying mechanism 200, which are not specifically mentioned below, can all refer to conventional designs or the above-mentioned improvements.

[0122] However, unlike the first application example, the second application example does not limit the spray path to include the first spray path S1. Instead, it limits the liquid supply channel 220 to be connected to at least two media as needed, which helps to enrich the spray patterns and allows for the selection of media type and state as needed, enabling targeted selection of media suitable for the current cleaning needs for more effective cleaning.

[0123] Specifically, in one embodiment, the spray mechanism 200 guides at least two media to be sprayed along the same spray path. In this case, the spray mechanism 200 can guide at least two media to be sprayed synchronously. That is, at least two media can be mixed within the liquid supply channel 220 after being connected to it, and then sprayed out together through the outlet section after mixing. This can be applied, for example, to situations where cleaning pills need to be mixed with water to form a cleaning solvent. Furthermore, the mixing time of the at least two media in the liquid supply channel 220 is not limited, nor is the liquid storage capacity of the liquid supply channel 220; the specific structure of the spray component 210 can be adjusted according to actual needs.

[0124] Alternatively, the spraying mechanism 200 can guide at least two media to be sprayed out in stages. For example, when it is necessary to spray and clean the container 100, hot water can be sprayed first to melt the ice remaining in the container 100; then a solution mixed with cleaning agent can be sprayed to clean the inner wall of the container 100; finally, high-temperature and high-pressure steam can be sprayed to further clean and disinfect the inner wall of the container 100.

[0125] Specifically, in another embodiment, at least two spray paths can be provided. The spray mechanism 200 guides at least two media to be sprayed along different spray paths. In this case, the spray mechanism 200 is configured with different spray paths corresponding to different media, so that more reasonable spray paths can be designed according to the different needs of the media, which helps to further improve the cleaning quality.

[0126] For example, hot water can be sprayed outward along the second spray path S2 or the downward-sloping first spray path S1. Clean water or solutions can be sprayed outward along the first spray path S1 as much as possible, and so on.

[0127] Similarly, the spray mechanism 200 can guide at least two media to be sprayed synchronously along their respective spray paths. Alternatively, the spray mechanism 200 can also guide at least two media to be sprayed stepwise along their respective spray paths.

[0128] As can be seen from the above, different media can basically form different spray schemes. Each spray scheme has its own targeted cleaning effect. To make the spray cleaning of container 100 more intelligent and precise, the spray mechanism 200 may further include detection and adjustment components.

[0129] The detection component acts within the container 100 to obtain detection data within the container 100. An adjustment component is located on the spray element 210 and is electrically connected to the detection component. The adjustment component is used to adjust the spray parameters of the spray element 210 according to the detection data.

[0130] There are no restrictions on the specific type of detection component: for example, a capacitive sensor can be used to sense the state of ice or ice layers inside container 100 to determine whether there is a significant amount of residual ice or ice layers. Then, the possibility of using hot water as one of the spraying media will be considered.

[0131] Alternatively, the detection component could be an optical turbidity sensor. An optical turbidity sensor can detect suspended particles (such as algae and dirt debris) using the intensity of light scattered at a 90° angle. Its sensitivity is highest primarily at the moment ice melts within container 100, and the detection data can be used to determine whether impurities within container 100 exceed the quality threshold.

[0132] Alternatively, for example, the detection component may be an ultraviolet fluorescence organic matter sensor to detect the presence of biological contamination; and / or the detection component may be a conductivity / TDS sensor to detect the presence of ionic contamination, etc.

[0133] The regulating component can be used to adjust the delivery state of the medium in the spray mechanism 200. In this case, the regulating component may be, for example, a valve body, pump body, or other structure that controls the opening and closing of the liquid supply channel 220 and different external water sources. The regulating component can also be used to adjust the type and / or state of the medium in the spray mechanism 200, such as heating clean water into hot water or adding cleaning agents to clean water.

[0134] Furthermore, in a third application example provided by the present invention, an ice storage module is also provided. This ice storage module, similar to the one described above, may include a container 100 and a spraying mechanism 200.

[0135] The specific configuration schemes of container 100 and spraying mechanism 200, which are not specifically mentioned below, can all refer to conventional designs or the above-mentioned improvements.

[0136] However, unlike the first application example, the third application example does not limit the spray path to include the first spray path S1. Additionally, the spray mechanism 200 may also be equipped with a driver. The driver acts on the liquid supply channel 220 and can create positive pressure within the liquid supply channel 220 to guide the medium along the spray path into the container 100. Negative pressure can also be created within the liquid supply channel 220 to draw the medium from the container 100.

[0137] In other words, when it is necessary to spray clean the container 100, a positive pressure can be generated in the liquid supply channel 220 by means of a driver. The positive pressure can drive the medium in the liquid supply channel 220 to be sprayed outward along the spray path (i.e., the liquid outlet section and the liquid outlet), so as to achieve the purpose of spray cleaning.

[0138] When the ice storage module is not in a spray cleaning phase, such as during normal ice feeding, storage, and discharging, some ice may melt, resulting in ice water appearing in container 100. In this case, a negative pressure can be created in the liquid supply channel 220 using a actuator. This negative pressure can draw the ice water from container 100 into the liquid supply channel 220.

[0139] The pumped-out chilled water can then be discharged directly as wastewater. Alternatively, it can be temporarily stored or recycled. A storage solution could include a pre-installed water storage chamber. This chamber can collect chilled water over a certain period and then reuse it for purposes such as ice making or spray cleaning.

[0140] Since the driver switches the liquid supply channel 220 to a spray state and a suction state, at least in this case, it should be ensured that in the suction state, for example, the liquid outlet or the suction port specially provided in the spray component 210 should be located near the bottom wall of the container 100.

[0141] Therefore, in one specific embodiment, the spray element 210 is directly disposed on the bottom wall of the container 100. Alternatively, the spray element 210 is disposed on the peripheral side wall of the container 100, and then disposed as close as possible to the bottom wall of the container 100.

[0142] When the spray element 210 is provided on the bottom wall of the container 100, it can extend protruding in the opposite direction of gravity. When the spray element 210 is provided on the peripheral side wall of the container 100, it can extend protruding in, for example, a horizontal direction.

[0143] Taking the example of a spray element 210 located on the bottom wall of container 100 and extending protruding in the opposite direction along the direction of gravity: Specifically, the spray path may include a third spray path. The direction of the third spray path may be the same as the protruding direction T of the spray element 210. That is, after the medium is sprayed towards the top wall, the medium can flow back to the peripheral sidewall and bottom wall under the action of gravity.

[0144] Alternatively, the direction of the third spray path can intersect with the protruding direction T of the spray element 210, thus forming any suitable angle that is neither 0° nor 180°. For example, when it is necessary to clean the top wall, the angle between the two can be further limited to no more than 90° to ensure that the medium sprayed outward through the third spray path can be sprayed obliquely upward.

[0145] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention in any way. Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present invention. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present invention without departing from the scope of the present invention shall still fall within the scope of the present invention.

Claims

1. An ice storage module, characterized in that, include: A container for connecting to an ice-making module in an ice-making device, so that ice products made by the ice-making module can be stored in the container; as well as, A spraying mechanism includes a spraying element, which is assembled to the container and at least partially protrudes from the inner wall of the container. The spraying element forms a liquid supply channel communicating with the container, the liquid supply channel being used to guide a medium to be sprayed out of the container along a spraying path. The spray path includes a first spray path, the direction of which is different from the protruding direction of the spray element.

2. The ice storage module as described in claim 1, characterized in that, The direction of the first spray path is the same as the opposite direction of the protruding direction; or, The direction of the first spray path intersects with the protruding direction.

3. The ice storage module as described in claim 1, characterized in that, The spray element protrudes at least partially from the top wall of the container, and the direction of the protrusion is the direction of gravity; and / or, The direction of the first spray path intersects the protruding direction, and the included angle between them is not less than 90°; and / or, The first spray path is provided with at least two, and the directions of the at least two first spray paths are different from each other.

4. The ice storage module as described in claim 1, characterized in that, The liquid supply channel includes a main channel section defined by the shell wall of the spray member, and a first liquid outlet section that penetrates the shell wall of the spray member and forms a first liquid outlet. The first liquid outlet section and the first liquid outlet together define the first spray path. The extension direction of the first liquid outlet section is different from the protruding direction; and / or, The orientation of the first liquid outlet is different from the direction of the protrusion.

5. The ice storage module as described in claim 4, characterized in that, The shell wall of the spray element has an end located at its free end and a side portion connected to the end; The first liquid outlet section and / or the first liquid outlet is located at the end; or... The first liquid outlet section and / or the first liquid outlet is located on the side; or... The first liquid outlet section and / or the first liquid outlet is located at the connection between the end and the side, and extends toward the end and the side, respectively.

6. The ice storage module as described in claim 4 or 5, characterized in that, The spray path also includes a second spray path, the direction of which is the same as the protruding direction of the spray element; The liquid supply channel includes a main channel section defined by the shell wall of the spray member, and a second liquid outlet section that penetrates the shell wall of the spray member and forms a second liquid outlet. The second liquid outlet section and the second liquid outlet together define the second spray path.

7. The ice storage module as described in claim 1, characterized in that, The spray component includes an assembly section and a protruding section. The assembly section is assembled to the container, and the protruding section is assembled to the assembly section and protrudes from the inner wall of the container. The orientation of the assembly section relative to the container is fixed; or the orientation of the assembly section relative to the container is movable and adjustable; and / or, The protruding section is fixed in position relative to the assembly section; or the protruding section is movable and adjustable in position relative to the assembly section.

8. The ice storage module as described in claim 7, characterized in that, The spraying mechanism further includes a power unit that drives the assembly section and / or the protruding section to move actively; and / or... As the medium is sprayed out of the container along the spray path, the assembly section and / or the protruding section move accordingly.

9. The ice storage module as described in claim 1, characterized in that, The container has a conveying channel formed through its side wall, the conveying channel being used at least for inputting ice products and / or outputting ice products; The spray element protrudes from the same side wall of the conveying channel and is disposed adjacent to the conveying channel so as to break up ice products during input and / or output.

10. The ice storage module as described in claim 9, characterized in that, The outer diameter of the spray element is set to decrease along the protruding direction; and / or, The spray path is provided with at least two, and at least one of the spray paths is arranged facing the conveying channel.

11. An ice storage module, characterized in that, include: A container for connecting to an ice-making module in an ice-making device, so that ice products made by the ice-making module can be stored in the container; as well as, A spraying mechanism includes a spraying element, which is assembled to the container and at least partially protrudes from the inner wall of the container. The spraying element forms a liquid supply channel communicating with the container, the liquid supply channel being used to guide a medium to be sprayed out of the container along a spraying path. The liquid supply channel is used to connect to at least two media.

12. The ice storage module as described in claim 11, characterized in that, The spraying mechanism guides at least two media to be sprayed along the same spraying path; or the spraying path is provided with at least two, and the spraying mechanism guides at least two media to be sprayed along different spraying paths; and / or, The spraying mechanism guides at least two media to be sprayed simultaneously; or the spraying mechanism guides at least two media to be sprayed in stages.

13. The ice storage module as described in claim 11, characterized in that, The spraying mechanism also includes: A detection component, acting within the container, is capable of acquiring detection data within the container; and, An adjustment component is disposed on the spray element and electrically connected to the detection component. The adjustment component is used to adjust the spray parameters of the spray element according to the detection data.

14. The ice storage module as described in any one of claims 11 to 13, characterized in that, The spray path includes the first spray path as described in any one of claims 1 to 10.

15. An ice storage module, characterized in that, include: A container for connecting to an ice-making module in an ice-making device, so that ice products made by the ice-making module can be stored in the container; as well as, A spraying mechanism includes a spraying element and a driver, the spraying element being assembled to the container and at least partially protruding from the inner wall of the container, the spraying element forming a liquid supply channel communicating into the container; The actuator acts on the liquid supply channel and can create positive pressure in the liquid supply channel to guide the medium to be sprayed into the container along the spray path; it can also create negative pressure in the liquid supply channel to draw the medium in the container.

16. The ice storage module as described in claim 15, characterized in that, The spray element is disposed on the bottom wall of the container; or the spray element is disposed adjacent to the bottom wall of the container; and / or, The spray element is disposed on the bottom wall of the container and extends protruding in the opposite direction of gravity; the spray path includes a third spray path; wherein the direction of the third spray path is the same as the protruding direction of the spray element; or the direction of the third spray path intersects the protruding direction of the spray element, and the included angle between the two is not greater than 90°.

17. An ice-making device, characterized in that, Includes the ice storage module as described in any one of claims 1 to 16.

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