Ice unloading structure and ice maker
By designing the connecting structure between the ice trough and the ice removal tank in the ice maker, combining multiple ice troughs and water passages, the difficulty of ice removal in the existing ice maker is solved, and a convenient and safe ice removal process and efficient ice production are achieved, improving user experience and equipment stability.
Patent Information
- Application Number
- CN202422532743.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-18
- Publication Date
- 2025-08-12
- Estimated Expiration
- 2034-10-18
AI Technical Summary
Existing ice making machines have difficulties in the process of deicing ice, resulting in poor user experience. Especially in the case of urgent need for ice, it is easy to cause the ice making box components to deform or break due to improper force, affecting the stability and reliability of the equipment.
Designing an ice removal structure includes setting up an ice-removing groove on the ice-making box assembly and an ice removal groove on the ice-removing shell, so that the ice-removing groove is connected adjacent to the ice-removing groove, providing a clear focus point, and ensuring uniform water distribution through multiple ice-making grooves and water-passing channels, combining the heat-sinking shell and the thermal conductivity assembly to improve structural stability and heat dissipation efficiency.
A convenient and safe ice removal process is achieved, which improves ice-making efficiency and equipment stability, extends service life, reduces energy consumption and improves user experience.
Smart Images
Figure CN223216532U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the field of ice making, in particular to an ice-removing structure and an ice-making machine. Background Art
[0002] With economic development and improved living standards, people's demands for quality of life are becoming increasingly higher, making ice makers a necessity for most households. Existing ice makers have the problem of difficulty in removing ice. When people cannot easily obtain ice when they need it, they feel irritated and dissatisfied. This feeling is especially pronounced in hot weather or when ice is urgently needed, resulting in a poor user experience. Utility Model Content
[0003] Based on this, it is necessary to provide an ice-removing structure and an ice-making machine to address the problem that the ice-making machine has difficulty in removing ice.
[0004] An ice-removing structure includes: an ice-making box assembly, the ice-making box assembly is provided with an ice-climbing groove, the ice-making box assembly is provided with multiple ice-making grooves, the ice-climbing groove is connected to one of the multiple ice-making grooves; an ice-removing shell, the ice-removing shell is provided with an ice-removing groove and an ice-box accommodating cavity, the ice-making box assembly is arranged on the ice-removing shell and located in the ice-box accommodating cavity, and the ice-climbing groove is adjacent to the ice-removing groove.
[0005] The present application discloses an ice-removing structure. By arranging an ice-making box assembly in an ice-making box receiving chamber provided in an ice-removing housing, a stable installation position can be provided for the ice-making box assembly, preventing the ice-making box assembly from shifting or shaking, thereby ensuring the smooth progress of the ice-making process. At the same time, the ice-making box receiving chamber can provide a certain degree of protection for the ice-making box assembly, preventing it from being subjected to external physical damage. Arranging the ice-making box assembly in a dedicated ice-making box receiving chamber can make full use of limited space, making the structure of the device more compact, improving space utilization, and making the device easier to place, use, and carry. The design of the ice-making box receiving chamber can, to a certain extent, play a role in heat preservation and insulation, reduce the impact of the external temperature on the ice-making box assembly, help maintain a low-temperature environment within the ice-making box assembly, improve ice-making efficiency, and also reduce the energy consumption of the refrigeration system. An ice lift groove is provided on the ice making tray assembly and an ice removal groove is provided on the ice removal housing. The ice lift groove and ice removal groove are placed together, providing a clear point of force for ice removal. Since the ice removal groove is not easily frozen during ice making, when ice cubes need to be removed from the ice making tray, an ice lifter can be inserted into the ice lift groove and ice removal groove to easily lift the ice cubes out of the ice making tray, making the ice removal process easier and more efficient. The ice removal process is also simpler and more direct. Users do not need to laboriously find the appropriate ice removal position; they simply align the tool with the ice lift groove and ice removal groove and operate, saving time and energy and improving the user experience. Without a dedicated ice removal design, users may use improper force when removing ice, causing deformation or cracking of the ice making tray assembly. The presence of the ice lift groove and ice removal groove guides users to perform the ice removal operation correctly, reducing the risk of damage to the ice making tray and the possibility of damage to other equipment components. This makes the ice removal process smoother and safer, reduces impact and damage to the equipment, extends the service life of the ice maker, and maintains the performance and reliability of the equipment.
[0006] In one embodiment, the ice-making tray assembly includes an outer shell assembly and an inner shell. The outer shell assembly is mounted on the ice-removing housing and is provided with an ice-climbing groove and an ice-making chamber, the ice-climbing groove communicating with the ice-removing groove. The inner shell assembly is mounted on the inner sidewall of the outer shell assembly and divides the ice-making chamber into a plurality of ice-making grooves. By mounting the outer shell assembly on the ice-removing housing, the ice-making tray assembly is effectively protected. The provision of the ice-climbing groove on the outer shell assembly and its communication with the ice-removing groove effectively guides the insertion direction of the ice-removing tool, preventing damage to the ice-making tray assembly or ice cubes due to improper tool use during the ice-removing process. The inner shell is positioned on the inner sidewall of the outer shell assembly and is used to divide the ice-making chamber of the outer shell assembly into multiple ice-making troughs. Each ice-making trough is relatively small, ensuring more uniform and efficient heat transfer between the water and the cooling source. The cooling source can more quickly cool the water in each trough to below freezing, accelerating ice formation. Consequently, more water can be frozen in the same amount of time, improving ice-making efficiency and meeting users' immediate ice needs. Furthermore, the smaller ice cubes formed by the multiple ice-making troughs are more convenient to access. Users can easily remove the required number of ice cubes as needed, without the difficulty of handling large ice cubes. Users can also select the required ice cubes from the multiple ice-making troughs, avoiding the waste of leftover ice cubes after removing a large number of them at once. Structurally, positioning the inner shell on the inner sidewall of the outer shell assembly provides additional support and reinforcement for the outer shell assembly. During the ice-making and ice-removing processes, the outer shell assembly may be subject to certain pressure and impact forces, which the inner shell can share, improving the structural stability of the outer shell assembly.
[0007] In one embodiment, the housing assembly includes an upper shell and a bottom shell. The bottom shell is mounted on the deicing housing, and the upper shell is mounted on the bottom shell. The upper shell and the bottom shell cooperate to form an ice-climbing groove, which is located adjacent to and connected to one of the ice-making grooves. By mounting the bottom shell on the deicing housing and the upper shell on the bottom shell, the overall structural stability of the ice maker can be enhanced. They provide additional support and fixation, preventing the ice-making tray assembly from deforming or loosening during use. The upper shell and the bottom shell are used to form an ice-lift groove, and the ice-lift groove is located above one of the ice-making grooves. This structure increases the functionality of the ice maker, so that it not only provides the function of ice making, but also provides users with a convenient ice-defrosting solution. This versatility makes the ice-making equipment more practical and meets the needs of users in different scenarios. The convenient ice-defrosting operation and the protection of the ice box assembly and ice cubes can improve the user's satisfaction with the ice-making equipment. When using the ice-making equipment, the user no longer needs to worry about ice-defrosting, but can easily enjoy the convenience brought by the ice cubes. This good user experience can increase the user's favorability towards the product and improve the product's reputation and market competitiveness.
[0008] In one embodiment, the inner shell is provided with a plurality of water passages, the plurality of water passages being connected to the plurality of ice making troughs. By connecting the plurality of water passages provided in the inner shell to the plurality of ice making troughs, the injected water can be evenly distributed to each ice making trough, thereby avoiding the situation where some ice making troughs are filled with too much or too little water due to uneven water injection, and ensuring that the size and quality of the ice cubes in each ice making trough are relatively consistent.
[0009] In one embodiment, the ice box assembly is provided with a plurality of water passages, the plurality of which are connected to the plurality of ice making troughs. By providing the ice box assembly with multiple water passages, and by connecting the multiple water passages to the multiple ice making troughs, the multiple water passages can better distribute the flow of ice-making liquid, allowing the injected water to be evenly distributed to each ice making trough, thereby avoiding the situation where some ice making troughs have too much or too little water due to uneven water injection, and ensuring that the size and quality of ice cubes in each ice making trough are relatively consistent.
[0010] In one embodiment, a liquid-passing notch is provided at the opening of the ice-making trough, and the ice-making trough is connected to the water-passing channel via the liquid-passing notch. By providing the liquid-passing notch at the opening of the ice-making trough and connecting the ice-making trough to the water-passing channel via the liquid-passing notch, ice-making liquid can be evenly distributed to each ice-making trough. Through the connection of the water-passing channel, ice-making liquid can enter each ice-making trough at a relatively consistent flow rate and pressure, ensuring the same ice-making conditions in each location, thereby producing ice cubes of uniform quality.
[0011] In one embodiment, the ice-removing housing includes an upper shell and a lower shell. The upper shell is mounted on the lower shell and is provided with an ice-removing chute and an ice-bin accommodating cavity. The ice-making tray assembly is mounted on the upper shell and located within the ice-bin accommodating cavity. By positioning the upper shell on the lower shell and the ice-making tray assembly on the upper shell and within the ice-bin accommodating cavity, this structural design fully utilizes the internal space of the ice-making device. The shapes and sizes of the upper and lower shells can be optimized based on the requirements of the ice-making tray assembly and other components, maximizing space utilization. Specifically for this ice-making machine, a rational spatial layout enables efficient ice-making within a limited space. The ice-removing chute in the upper shell ensures accurate installation of the ice-making tray assembly, avoiding interference with other components and further improving space utilization. The ice-removing chute also provides a clear point of support for ice-removing operations. Users can insert an ice-lifting knife into the chute to easily lift ice cubes from the ice-making tray assembly, making the ice-removing process easier, more efficient, and faster.
[0012] In one embodiment, the ice-removing trough is located on the upper end surface of the ice-removing housing. This makes it easier for users to place items to be de-iced into the trough, and makes adjustments or adding auxiliary materials during the de-icing process more convenient and efficient, greatly increasing operational convenience.
[0013] The second aspect of the present application discloses an ice maker. The ice maker comprises: an ice-removing structure as described above; a heat dissipation housing, the ice-removing housing of the ice-removing structure being disposed on the heat dissipation housing and having heat dissipation grooves; a heat conduction assembly, the heat conduction assembly being disposed on the heat dissipation housing, the ice-removing housing cover being disposed on the heat conduction assembly; and a refrigeration assembly, the refrigeration assembly being disposed on the heat conduction assembly, and the ice-making box assembly being disposed on the refrigeration assembly.
[0014] The second aspect of the present application discloses an ice maker, wherein the ice-removing shell of the ice-removing structure is arranged on the heat-dissipating shell. This can improve the stability of the entire ice-removing structure by leveraging the structural stability of the heat-dissipating shell, reduce deformation, shaking, and displacement during the ice-removing process, and ensure the accuracy and reliability of the ice-removing operation. The ice-making box assembly is arranged on the refrigeration assembly, which is arranged on the heat-conducting assembly, which is arranged on the heat-dissipating shell. The heat-dissipating shell is provided with a heat-dissipating groove. The refrigeration assembly generates heat during operation. Arranging it on the heat-conducting assembly can more effectively transfer the heat to the heat-conducting assembly. The heat-conducting assembly then dissipates the heat to the surrounding environment through the heat-dissipating groove through contact with the heat-dissipating shell. An effective heat dissipation system can help maintain the temperature of each component within a reasonable range, prevent the ice maker from overheating, improve its performance and lifespan, and ensure the efficiency and stability of ice making. Furthermore, the various components are stacked in sequence, reducing the horizontal space occupied by the device. This is particularly suitable for occasions with limited space and is also convenient for users to carry when going out, meeting their specific usage needs.
[0015] In one embodiment, the heat dissipation housing includes heat dissipation fins and a supporting base. The deicing housing is mounted on the heat dissipation fins, which are mounted on the supporting base. There are multiple heat dissipation fins, and the heat conductive assembly is mounted through the multiple heat dissipation fins. The multiple heat dissipation fins are spaced along the length of the heat conductive assembly to form heat dissipation slots. There are multiple heat dissipation slots. By mounting the deicing housing on the heat dissipation fins, the heat conductive assembly can be effectively protected from external physical damage. The combination of the deicing housing and the heat dissipation fins provides a more stable support structure for the heat conductive assembly, thereby extending the service life of the heat conductive assembly. Mounting the heat dissipation fins on the supporting base ensures that they remain in a stable position during operation and are not easily moved by vibration or external forces. Mounting the heat conductive assembly through the multiple heat dissipation fins, with the heat conductive fins positioned along the heat conductive assembly to form multiple heat dissipation slots, creates a larger heat dissipation area, effectively dissipating heat from within the ice maker, lowering the temperature of the ice maker and maintaining it within a safe range.
[0016] In one embodiment, the heat conduction component includes a heat pipe and a heat conduction plate. The number of the heat conduction pipes is multiple, and the multiple heat conduction pipes are arranged on the heat dissipation housing. The heat conduction plate is arranged on the multiple heat conduction pipes and the multiple heat conduction pipes are arranged on both sides of the heat conduction plate. The refrigeration component is arranged on the heat conduction plate. By arranging multiple heat conduction pipes on the heat dissipation housing, the heat dissipation area is increased, forming a more efficient heat conduction network. The heat of the heating component can be transferred to the heat conduction pipe more quickly, and then transferred to the heat dissipation housing through the large area of the heat conduction pipe. The heat dissipation housing then exchanges heat with the air, thereby improving the efficiency of heat conduction. At the same time, a single heat conduction pipe may cause heat to concentrate in a local area, thereby causing local overheating, while multiple heat conduction pipes can distribute heat more evenly on the heat dissipation housing, avoiding local high temperature points, effectively protecting the refrigeration component and improving the reliability of the ice maker. The heat transfer plate is placed on multiple heat pipes, with the pipes located on either side of the plate. The refrigeration assembly is also placed on the plate. Due to the plate's large surface area, heat generated by the refrigeration assembly can be quickly transferred to the plate, where it is then dissipated in two directions, accelerating heat dissipation and ensuring efficient ice production. The plate also reinforces the heat pipes, providing support for the pipes and increasing the structural strength of the entire assembly, maintaining its shape and performance.
[0017] In one embodiment, the refrigeration assembly includes a cold end and a hot end, wherein the hot end is disposed on the heat conducting assembly, and the cold end is disposed on the ice making box assembly. By disposing the cold end of the refrigeration assembly on the ice making box assembly, low temperatures can be quickly transferred to the water in the ice making box assembly, causing it to rapidly cool and freeze into ice. This direct contact method maximizes refrigeration efficiency, shortens ice making time, and reduces energy loss during the refrigeration process. Disposing the hot end on the heat conducting assembly allows heat generated during the refrigeration process to be quickly transferred to the heat conducting assembly, preventing overheating of the refrigeration assembly and ensuring its continuous and stable operation. Disposing the cold end and hot end of the refrigeration assembly on the ice making box assembly and the heat conducting assembly, respectively, can make the structure of the ice maker more compact. This layout can further miniaturize the ice maker, effectively reducing the space occupied by the equipment and making it more suitable for use in various occasions.
[0018] In one embodiment, a heat dissipation fan is further included. The heat dissipation housing is provided with a fan accommodating cavity. The heat dissipation fan is arranged on the heat dissipation housing and located in the fan accommodating cavity. By arranging the heat dissipation fan in the fan accommodating cavity provided in the heat dissipation housing, a relatively closed space is provided for the heat dissipation fan, which can effectively protect the heat dissipation fan from the impact of external objects, dust, moisture, etc. This helps to extend the service life of the heat dissipation fan and reduce the occurrence of failures caused by external factors. At the same time, it can promote air circulation inside the ice maker. By generating forced airflow, the heat dissipation fan can exhaust hot air from the equipment and at the same time inhale cold air from the outside, forming a good air circulation system, which helps to reduce the temperature of the ice maker and improve its performance and stability.
[0019] In one embodiment, a control assembly is further included. The deicing housing is provided with a receiving hole, and the control assembly is disposed in the deicing housing and located at the receiving hole. By disposing the heat dissipation fan in the fan receiving chamber provided in the heat dissipation housing, a relatively enclosed space is provided for the heat dissipation fan, which can effectively protect the heat dissipation fan from impacts from external objects, dust, moisture, etc. This helps to extend the service life of the heat dissipation fan and reduce the occurrence of failures caused by external factors. At the same time, it can promote air circulation within the ice maker. By generating forced airflow, the heat dissipation fan can exhaust hot air from the equipment while drawing in cold air from the outside, forming a good air circulation system, which helps to reduce the temperature of the ice maker and improve its performance and stability.
[0020] One embodiment further includes an ice-making cover, which is mounted on the de-icing housing and abuts against the ice-making tray assembly. By locating the control assembly within the receiving hole of the de-icing housing, the user can conveniently interact with the ice maker through the control assembly to adjust its operating parameters and modes. This also makes the overall structure of the ice maker more compact, reducing its footprint and improving its aesthetics, making it neater and more elegant.
[0021] By placing the ice-making cover on the de-icing housing and against the ice-making tray assembly, a relatively sealed space is formed, reducing the escape of water vapor during the ice-making process. The sealed environment can maintain a lower temperature, helping to improve ice-making efficiency and freeze water into ice faster. It also prevents external dust, impurities, and bacteria from entering the ice-making tray assembly, effectively ensuring the cleanliness and hygiene of the ice cubes, and ensuring that the ice cubes produced meet food hygiene standards. BRIEF DESCRIPTION OF THE DRAWINGS
[0022] Figure 1 It is a three-dimensional diagram of the ice shedding structure;
[0023] Figure 2 A perspective view of an ice box assembly;
[0024] Figure 3 is a perspective view of the housing assembly;
[0025] Figure 4 A perspective view of the de-icing shell;
[0026] Figure 5 A perspective view of an ice maker;
[0027] Figure 6 A three-dimensional diagram of the de-icing structure and the heat dissipation housing;
[0028] Figure 7 is a cross-sectional view of an ice making machine;
[0029] Figure 8 for Figure 7 A local enlarged view of area A;
[0030] Figure 9 It is a three-dimensional diagram of the heat dissipation housing and the heat conducting component.
[0031] The corresponding relationship between the reference numerals and component names is as follows:
[0032] 1 ice box assembly, 11 outer shell assembly, 111 upper edge shell, 112 bottom shell, 12 inner shell, 101 ice tilting groove, 102 ice making groove, 103 ice making cavity, 104 water passage;
[0033] 2 ice removal housing, 21 upper housing, 22 lower housing, 201 ice removal groove, 202 ice box accommodating cavity, 203 accommodating hole;
[0034] 3 heat dissipation housing, 31 heat dissipation fins, 32 support bottom shell, 301 heat dissipation slot, 302 fan accommodating chamber;
[0035] 4 heat conducting components, 41 heat conducting pipes, 42 heat conducting plates;
[0036] 5 refrigeration component, 51 refrigeration cold end, 52 refrigeration hot end;
[0037] 6 cooling fans;
[0038] 7 control components;
[0039] 8. Make ice cap. DETAILED DESCRIPTION
[0040] In order to more clearly understand the above-mentioned objects, features and advantages of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that, in the absence of conflict, the embodiments of the present application and the features therein can be combined with each other.
[0041] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.
[0042] The ice-removing structure and ice-making machine according to some embodiments of the present invention will be described below with reference to the accompanying drawings.
[0043] Example 1
[0044] like Figures 1 to 6 As shown, this embodiment discloses an ice-removing structure, including: an ice-making box assembly 1, the ice-making box assembly 1 is provided with an ice-climbing groove 101, the ice-making box assembly 1 is provided with multiple ice-making grooves 102, and the ice-climbing groove 101 is connected to one of the multiple ice-making grooves 102; an ice-removing shell 2, the ice-removing shell 2 is provided with an ice-removing groove 201 and an ice-removing box accommodating cavity 202, the ice-making box assembly 1 is arranged on the ice-removing shell 2 and is located in the ice-removing box accommodating cavity 202, and the ice-climbing groove 101 is adjacent to and connected to the ice-removing groove 201.
[0045] The present application discloses an ice-removing structure. By arranging the ice-making box assembly 1 in the ice-making box receiving chamber 202 provided in the ice-removing housing 2, a stable installation position can be provided for the ice-making box assembly 1, preventing the ice-making box assembly 1 from shifting or shaking, thereby ensuring the smooth progress of the ice-making process. At the same time, the ice-making box receiving chamber 202 can provide a certain degree of protection for the ice-making box assembly 1, preventing it from being subjected to external physical damage. Arranging the ice-making box assembly 1 in the dedicated ice-making box receiving chamber 202 can make full use of the limited space, making the structure of the device more compact, improving space utilization, and making the device easier to place, use, and carry. The design of the ice-making box receiving chamber 202 can, to a certain extent, play a role in heat preservation and insulation, reducing the impact of the external temperature on the ice-making box assembly 1, helping to maintain a low-temperature environment within the ice-making box assembly 1, improving ice-making efficiency, and also reducing the energy consumption of the refrigeration system. An ice-lifting groove 101 is provided on the ice-making box assembly 1, and an ice-removing groove 201 is provided on the ice-removing shell 2. The ice-lifting groove 101 and the ice-removing groove 201 are placed together, which provides a clear fulcrum for the ice-removing operation. Since the ice-removing groove is not easy to freeze when making ice, when ice cubes need to be taken out of the ice-making groove 102, an ice-lifting knife can be used to insert the ice-lifting groove 101 and the ice-removing groove 201 to easily lift the ice cubes from the ice-making box, making the ice-removing process easier and more efficient, and making the ice-removing process simpler and more direct. The user does not need to laboriously find a suitable ice-removing position, but only needs to align the tool with the position of the ice-lifting groove 101 and the ice-removing groove 201 to operate, saving time and energy and improving the user's sense of experience. If there is no special ice-removing design, the user may use improper force when removing ice, causing the ice box assembly 1 to deform or break. The presence of the ice-lifting groove 101 and the ice-removing groove 201 can guide the user to perform the ice-removing operation correctly, reducing the risk of damage to the ice box. At the same time, it also reduces the possibility of damage to the ice box assembly 1 affecting other parts of the device, making the ice-removing process smoother and safer, reducing impact and damage to the equipment, extending the service life of the ice maker, and maintaining the performance and reliability of the equipment.
[0046] like Figure 2 and Figure 3As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that the ice-making tray assembly 1 includes an outer shell assembly 11 and an inner shell 12. The outer shell assembly 11 is disposed on the ice-removing housing 2 and is provided with an ice-climbing groove 101 and an ice-making chamber 103. The inner shell 12 is disposed on the inner sidewall of the outer shell assembly 11 and divides the ice-making chamber 103 into a plurality of ice-climbing grooves 102. By disposing the outer shell assembly 11 on the ice-removing housing 2, the ice-making tray assembly 1 is effectively protected. The provision of the ice-climbing groove 101 on the outer shell assembly 11 can effectively guide the insertion direction of the ice-removing tool, thereby preventing damage to the ice-making tray assembly 1 or ice cubes due to improper use of the tool during the ice-removing process. The inner shell 12 is disposed on the inner sidewall of the outer shell assembly 11, and the inner shell 12 is used to divide the ice-making chamber 103 provided in the outer shell assembly 11 into a plurality of ice-making grooves 102. After being divided into the plurality of ice-making grooves 102, each ice-making groove 102 is relatively small in size, making heat transfer between the water and the cooling source more uniform and efficient. The cooling source can more quickly cool the water in each ice-making groove 102 to below freezing, accelerating ice formation. Therefore, more water can be frozen in the same amount of time, improving ice-making efficiency and meeting the user's rapid demand for ice. Furthermore, the smaller ice cubes formed by the multiple ice-making grooves 102 are more convenient to access. The user can easily remove the required number of ice cubes according to actual needs without the difficulty of handling due to overly large ice cubes. The user can also select the required ice cubes from the multiple ice-making grooves 102, avoiding the waste of leftover ice cubes after removing a large number of ice cubes at once. In terms of structure, setting the inner shell 12 on the inner side wall of the outer shell assembly 11 can provide additional support and reinforcement for the outer shell assembly 11. During the ice making and ice removing process, the outer shell assembly 11 may be subjected to certain pressure and impact force. The inner shell 12 can share these forces and improve the structural stability of the outer shell assembly 11.
[0047] like Figure 2 and Figure 3As shown, in addition to the features of the above-described embodiment, this embodiment further defines: the housing assembly 11 includes an upper shell 111 and a bottom shell 112. The bottom shell 112 is disposed on the de-icing housing 2, and the upper shell 111 is disposed on the bottom shell 112. The upper shell 111 and the bottom shell 112 cooperate to form an ice-climbing groove 101, which is located adjacent to and connected to one of the ice-making grooves 102. By disposing the bottom shell 112 on the de-icing housing 2 and the upper shell 111 on the bottom shell 112, the overall structural stability of the ice maker can be enhanced. They can provide additional support and fixation, preventing the ice-making box assembly 1 from deforming or loosening during use. The upper shell 111 and the bottom shell 112 are used to enclose an ice-lifting groove 101, and the ice-lifting groove 101 is located above one of the ice-making grooves 102. This structure increases the functionality of the ice maker, so that it not only provides the function of making ice, but also provides users with a convenient ice-removing solution. This versatility makes the ice-making equipment more practical and meets the needs of users in different scenarios. The convenient ice-removing operation and the protection of the ice box assembly 1 and ice cubes can improve the user's satisfaction with the ice-making equipment. When using the ice-making equipment, the user no longer needs to worry about removing ice, but can easily enjoy the convenience brought by the ice cubes. This good user experience can increase the user's favorability towards the product and improve the product's reputation and market competitiveness.
[0048] like Figure 2 As shown, in addition to the features of the above embodiment, this embodiment further provides that: the inner housing 12 is provided with a plurality of water passages 104, and the plurality of water passages 104 are connected to the plurality of ice-making grooves 102. By connecting the plurality of water passages 104 provided in the inner housing 12 with the plurality of ice-making grooves 102, the injected water can be evenly distributed to each ice-making groove 102, thereby avoiding the situation where some ice-making grooves 102 have too much or too little water due to uneven water injection, and ensuring that the size and quality of the ice cubes in each ice-making groove 102 are relatively consistent.
[0049] like Figure 2 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further provides that: the ice-making box assembly 1 is provided with a plurality of water passages 104, and the plurality of water passages 104 are in communication with the plurality of ice-making grooves 102. By providing the ice-making box assembly 1 with a plurality of water passages 104, and by the plurality of water passages 104 being in communication with the plurality of ice-making grooves 102, the plurality of water passages 104 can better distribute the flow of ice-making liquid, allowing the injected water to be evenly distributed to each ice-making groove 102, thereby avoiding the situation where some ice-making grooves 102 have too much or too little water due to uneven water injection, and ensuring that the size and quality of the ice cubes in each ice-making groove 102 are relatively consistent.
[0050] like Figure 2As shown, in addition to the features of the above-mentioned embodiment, this embodiment further provides that: a liquid-passing notch is provided at the notch of the ice-making trough 102, and the ice-making trough 102 is connected to the water-passing channel 104 through the liquid-passing notch. By providing the liquid-passing notch at the notch of the ice-making trough 102 and connecting the ice-making trough 102 to the water-passing channel 104 through the liquid-passing notch, the ice-making liquid can be evenly distributed to each ice-making trough 102. Through the connection of the water-passing channel 104, the ice-making liquid can enter each ice-making trough 102 at a relatively consistent flow rate and pressure, ensuring the same ice-making conditions in each location, thereby producing ice cubes of uniform quality.
[0051] like Figure 2 and Figure 4 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the ice-removing housing 2 includes an upper shell 21 and a lower shell 22, the upper shell 21 being disposed on the lower shell 22, the upper shell 21 being provided with an ice-removing groove 201 and an ice box receiving cavity 202, and the ice box assembly 1 being disposed on the upper shell 21 and located in the ice box receiving cavity 202. By disposing the upper shell 21 on the lower shell 22 and the ice box assembly 1 on the upper shell 11 and located in the ice box receiving cavity 202, this structural design can fully utilize the internal space of the ice-making device. The shapes and sizes of the upper shell 21 and the lower shell 22 can be optimized according to the requirements of the ice box assembly 1 and other components, thereby maximizing space utilization. In particular, for this ice-making machine, a reasonable spatial layout can enable efficient ice-making within a limited space. An ice-removing groove 201 is provided on the upper shell 11 to ensure that the installation position of the ice-making box assembly 1 is accurate, avoid interference with other components, and further improve the space utilization efficiency. At the same time, the ice-removing groove 201 provides a clear fulcrum for the ice-removing operation. The user can use an ice-lifting knife to insert the ice-removing groove 201 and easily lift the ice cubes from the ice-making box assembly 1, making the ice-removing process easier, more efficient and faster.
[0052] like Figure 4 As shown, in addition to the features of the above embodiment, this embodiment further defines that the ice-removing groove 201 is located on the upper end surface of the ice-removing housing 2. The placement of the ice-removing groove 201 on the upper end surface of the ice-removing housing 2 makes it easier for users to place items to be de-iced into the ice-removing groove 201, and makes adjustments or adding auxiliary materials during the de-icing process more convenient and efficient, greatly increasing the convenience of operation.
[0053] Example 2
[0054] like Figures 1 to 9As shown, this embodiment discloses an ice maker, comprising: an ice-removing structure according to any one of the above items; a heat dissipation housing 3, on which the ice-removing housing 2 of the ice-removing structure is arranged, and the heat dissipation housing 3 is provided with a heat dissipation groove 301; a heat-conducting component 4, on which the heat-conducting component 4 is arranged, and on which the ice-removing housing 2 cover is arranged; a refrigeration component 5, on which the refrigeration component 5 is arranged, and on which the ice-making box component 1 is arranged.
[0055] The second aspect of the present application discloses an ice maker. The ice-removing housing 2 of the ice-removing structure is disposed on a heat-dissipating housing 3. This improves the stability of the entire ice-removing structure by leveraging the structural stability of the heat-dissipating housing 3, reducing deformation, shaking, and displacement during the ice-removing process and ensuring the accuracy and reliability of the ice-removing operation. The ice-making box assembly 1 is disposed on a refrigeration assembly 5, which is disposed on a heat-conducting assembly 4, which is disposed on the heat-dissipating housing 3. The heat-dissipating housing 3 is provided with a heat-dissipating groove 301. The refrigeration assembly 5 generates heat during operation. Placing it on the heat-conducting assembly 4 allows the heat to be more efficiently transferred to the heat-conducting assembly 4. The heat-conducting assembly 4 then dissipates the heat into the surrounding environment through the heat-dissipating groove 301 through contact with the heat-dissipating housing 3. This effective heat dissipation system helps maintain the temperature of each component within a reasonable range, preventing the ice maker from overheating, improving its performance and lifespan, and ensuring efficient and stable ice-making. Furthermore, the stacking of the components reduces the horizontal space occupied by the device, making it particularly suitable for use in spaces with limited space and convenient for users to carry around, meeting their specific needs.
[0056] like Figure 6 、 Figure 7 and Figure 8As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines: the heat dissipation housing 3 includes heat dissipation fins 31 and a supporting base 32. The deicing housing 2 is mounted on the heat dissipation fins 31, which are mounted on the supporting base 32. There are multiple heat dissipation fins 31. The heat conductive assembly 4 is inserted through the multiple heat dissipation fins 31. The heat dissipation fins 31 are spaced along the length of the heat conductive assembly 4 and form heat dissipation slots 301. There are multiple heat dissipation slots 301. By mounting the deicing housing 2 on the heat dissipation fins 31, the heat conductive assembly 4 is effectively protected from external physical damage. The combination of the deicing housing 2 and the heat dissipation fins 31 provides a more stable support structure for the heat conductive assembly, thereby extending the service life of the heat conductive assembly 4. Positioning the heat dissipation fins 31 on the supporting base 32 ensures that they remain in a stable position during operation, preventing them from being easily moved by vibration or external forces. The heat conducting component 4 is passed through a plurality of heat dissipating fins 31 and the heat dissipating fins 31 are arranged along the heat conducting component 4 to form a plurality of heat dissipating grooves 301, thereby forming a larger heat dissipation area, which can effectively dissipate heat from the inside of the ice maker, reduce the temperature of the ice maker and keep its temperature within a safe range.
[0057] like Figure 7 and Figure 9 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that: the heat conduction assembly 4 includes a heat pipe 41 and a heat conduction plate 42. There are multiple heat pipes 41, each disposed on the heat dissipation housing 3. The heat conduction plate 42 is disposed on the multiple heat pipes 41, with the multiple heat pipes 41 disposed on either side of the heat conduction plate 42. The refrigeration assembly 5 is disposed on the heat conduction plate 42. By disposing multiple heat pipes 41 on the heat dissipation housing 3, the heat dissipation area is increased, forming a more efficient heat conduction network. Heat from the heat-generating components can be transferred more quickly to the heat pipes 41, which are then transferred to the heat dissipation housing 3 through the large area of the heat pipes 41. The heat dissipation housing 3 then exchanges heat with the air, improving heat conduction efficiency. Meanwhile, a single heat pipe 41 may cause heat to concentrate in a localized area, leading to local overheating. However, multiple heat pipes 41 can more evenly distribute heat across the heat dissipation housing 3, avoiding localized high-temperature spots, effectively protecting the refrigeration assembly 5, and improving the reliability of the ice maker. The heat conducting plate 42 is mounted on the plurality of heat conducting tubes 41, with the plurality of heat conducting tubes 41 disposed on either side of the heat conducting plate 42. Furthermore, the refrigeration assembly 5 is mounted on the heat conducting plate 42. Due to the large surface area of the heat conducting plate 42, the heat generated by the refrigeration assembly 5 can be quickly transferred to the heat conducting plate 42, where it is then dissipated in two directions, accelerating heat dissipation and ensuring efficient ice making. The heat conducting plate 42 also reinforces the heat conducting tubes 41. The plurality of heat conducting tubes 41 disposed on either side of the heat conducting plate 42 provide support for the heat conducting tubes 41, increasing the structural strength of the entire heat conducting assembly 4 and maintaining the stability of the shape and performance of the heat conducting assembly 4.
[0058] like Figure 6 、 Figure 7 and Figure 9 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that the refrigeration assembly 5 includes a cold end 51 and a hot end 52. The hot end 52 is disposed on the heat conducting assembly 4, while the cold end 51 is disposed on the ice tray assembly 1. By locating the cold end 51 of the refrigeration assembly 5 on the ice tray assembly 1, low temperatures can be quickly transferred to the water in the ice tray assembly 1, rapidly cooling and freezing the water. This direct contact method maximizes refrigeration efficiency, shortens ice-making time, and reduces energy loss during the refrigeration process. Placing the hot end 52 on the heat conducting assembly 4 allows heat generated during the refrigeration process to be quickly transferred to the heat conducting assembly 4, preventing overheating of the refrigeration assembly 5 and ensuring continuous and stable operation. Placing the cold end and hot end of the refrigeration assembly 5 on the ice tray assembly 1 and the heat conducting assembly 4, respectively, makes the ice maker more compact. This layout further miniaturizes the ice maker, effectively reducing the device's footprint and making it more suitable for use in various applications.
[0059] like Figure 7 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines: it also includes a heat dissipation fan 6, the heat dissipation housing 3 is provided with a fan accommodating chamber 302, and the heat dissipation fan 6 is arranged on the heat dissipation housing 3 and located in the fan accommodating chamber 302. By arranging the heat dissipation fan 6 in the fan accommodating chamber 302 provided in the heat dissipation housing 3, a relatively closed space is provided for the heat dissipation fan 6, which can effectively protect the heat dissipation fan 6 from impacts from external objects, dust, moisture, etc. This helps to extend the service life of the heat dissipation fan 6 and reduce the occurrence of failures caused by external factors. At the same time, it can promote air circulation within the ice maker. By generating forced airflow, the heat dissipation fan 6 can exhaust hot air from the equipment while drawing in cold air from the outside, forming a good air circulation system, which helps to reduce the temperature of the ice maker and improve its performance and stability.
[0060] like Figure 5 and Figure 6 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further comprises: a control assembly 7, a receiving hole 203 provided in the deicing housing 2, and the control assembly 7 disposed in the deicing housing 2 and located within the receiving hole 203. By placing the control assembly 7 in the receiving hole 203 of the deicing housing 2, the user can conveniently interact with the ice maker through the control assembly 7 to adjust the operating parameters and mode of the ice maker. This also makes the overall structure of the ice maker more compact, reduces the space occupied by the ice maker, and improves the aesthetics of the ice maker, making it more neat and elegant.
[0061] like Figure 5、 Figure 6 and Figure 7 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further comprises an ice-making cover 8, which is disposed on the ice-removing housing 2 and abuts against the ice-making tray assembly 1. By placing the ice-making cover 8 on the ice-removing housing 2 and abutting against the ice-making tray assembly 1, a relatively sealed space is formed, reducing the escape of moisture during the ice-making process. This sealed environment maintains a lower temperature, helps improve ice-making efficiency, and accelerates the freezing of water into ice. It also prevents external dust, impurities, and bacteria from entering the ice-making tray assembly 1, effectively ensuring the cleanliness and sanitation of the ice cubes, and ensuring that the ice cubes produced meet food hygiene standards.
[0062] The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description concise, not all possible combinations of the technical features in the above-mentioned embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.
[0063] The above-described embodiments merely represent several implementations of the present invention. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that a person skilled in the art would be able to make various modifications and improvements without departing from the concept of the present invention, and these modifications and improvements fall within the scope of protection of the present invention. Therefore, the scope of protection of the present utility model patent shall be determined by the appended claims.
Claims
1. An ice removal structure, characterized in that: The de-icing structure comprises: An ice making box assembly (1), wherein the ice making box assembly (1) is provided with an ice tilting groove (101), the ice making box assembly (1) is provided with a plurality of ice making grooves (102), and the ice tilting groove (101) is in communication with one of the plurality of ice making grooves (102); An ice-removing shell (2) is provided with an ice-removing groove (201) and an ice box accommodating cavity (202); the ice-making box assembly (1) is arranged on the ice-removing shell (2) and located in the ice box accommodating cavity (202); and the ice-lifting groove (101) is adjacent to the ice-removing groove (201).
2. The ice removal structure according to claim 1, characterized in that: The ice making box assembly (1) comprises an outer shell assembly (11) and an inner shell (12); the outer shell assembly (11) is arranged on the ice-removing housing (2); the outer shell assembly (11) is provided with the ice-climbing groove (101) and the ice-making cavity (103); the ice-climbing groove (101) is communicated with the ice-removing groove (201); the inner shell (12) is arranged on the inner side wall of the outer shell assembly (11); the inner shell (12) divides the ice-making cavity (103) into a plurality of ice-making grooves (102).
3. The ice removal structure according to claim 2, characterized in that: The housing assembly (11) comprises an upper edge shell (111) and a bottom shell (112); the bottom shell (112) is arranged on the de-icing shell (2); the upper edge shell (111) is arranged on the bottom shell (112); the upper edge shell (111) and the bottom shell (112) cooperate to form the ice-climbing groove (101); the ice-climbing groove (101) is located adjacent to and communicates with one of the ice-making grooves (102); And / or the inner shell (12) is provided with a water passage (104), the number of the water passages (104) is multiple, and the multiple water passages (104) are connected to the multiple ice making grooves (102).
4. The deicing structure according to claim 1, characterized in that: The ice making box assembly (1) is provided with a water passage (104), the number of the water passages (104) is multiple, and the multiple water passages (104) are in communication with the multiple ice making grooves (102).
5. The ice removal structure according to claim 4, characterized in that: A liquid-passing notch is provided at the notch opening of the ice-making groove (102), and the ice-making groove (102) is connected to the water-passing channel (104) via the liquid-passing notch.
6. The ice removal structure according to claim 1, characterized in that: The ice-removing housing (2) comprises an upper shell (21) and a lower shell (22); the upper shell (21) is arranged on the lower shell (22); the upper shell (21) is provided with the ice-removing groove (201) and the ice box accommodating cavity (202); the ice-making box assembly (1) is arranged on the upper shell (21) and is located at the ice box accommodating cavity (202); And / or the ice-removing groove (201) is located on the upper end surface of the ice-removing shell (2).
7. An ice making machine, characterized in that: The ice making machine comprises: The deicing structure according to any one of claims 1 to 6; A heat dissipation housing (3), the deicing housing (2) of the deicing structure being arranged on the heat dissipation housing (3), and the heat dissipation housing (3) being provided with a heat dissipation groove (301); A heat-conducting component (4), the heat-conducting component (4) being arranged on the heat-dissipating housing (3), and the deicing housing (2) being covered on the heat-conducting component (4); A refrigeration assembly (5) is provided on the heat conduction assembly (4), and the ice box assembly (1) is provided on the refrigeration assembly (5).
8. The ice making machine according to claim 7, characterized in that The heat dissipation housing (3) comprises heat dissipation fins (31) and a supporting bottom shell (32); the deicing housing (2) is arranged on the heat dissipation fins (31); the heat dissipation fins (31) are arranged on the supporting bottom shell (32); the number of the heat dissipation fins (31) is multiple; the heat conduction component (4) is passed through the multiple heat dissipation fins (31); the multiple heat dissipation fins (31) are arranged at intervals along the length direction of the heat conduction component (4) and form the heat dissipation slots (301); the number of the heat dissipation slots (301) is multiple.
9. The ice making machine according to claim 7, wherein: The heat conduction assembly (4) comprises a heat conduction pipe (41) and a heat conduction plate (42). There are a plurality of heat conduction pipes (41), and the plurality of heat conduction pipes (41) are arranged on the heat dissipation housing (3). The heat conduction plate (42) is arranged on the plurality of heat conduction pipes (41), and the plurality of heat conduction pipes (41) are arranged on both sides of the heat conduction plate (42). The refrigeration assembly (5) is arranged on the heat conduction plate (42).
10. The ice making machine according to claim 7, wherein: The refrigeration component (5) comprises a refrigeration cold end (51) and a refrigeration hot end (52), the refrigeration hot end (52) is arranged on the heat conduction component (4), and the refrigeration cold end (51) is arranged on the ice box component (1); And / or further comprising a heat dissipation fan (6), the heat dissipation housing (3) being provided with a fan accommodating cavity (302), the heat dissipation fan (6) being arranged on the heat dissipation housing (3) and being located in the fan accommodating cavity (302); And / or further comprising a control component (7), the deicing housing (2) being provided with a receiving hole (203), the control component (7) being arranged in the deicing housing (2) and located at the receiving hole (203); And / or further comprises an ice making cover (8), wherein the ice making cover (8) is arranged on the ice-removing housing (2) and abuts against the ice making box assembly (1).