Ice maker and refrigeration equipment

Abstract

The utility model relates to the field of ice making, and provides an ice maker and refrigeration equipment. The ice maker comprises a first ice making mold provided with a first corrugated surface; the second ice-making mold is provided with a second corrugated surface, the second ice-making mold is suitable for being switched between an attaching position and a separating position relative to the first ice-making mold, the first corrugated surface and the second corrugated surface are mutually buckled at the attaching position, and the second ice-making mold is far away from the first ice-making mold at the separating position. The ice maker can avoid leakage of cooling capacity in the ice making process, and ice blocks with flatter surfaces can be formed. The mutual buckling of the corrugated surfaces ensures that water is uniformly distributed and limited in the freezing process, the problem that cavities or irregular shapes appear in the ice block is avoided, meanwhile, skirt edges formed on the periphery of the ice block are reduced, and the overall quality and practicability of the ice block are improved. Meanwhile, the user can conveniently and easily take out the made ice blocks without using extra tools or force, and therefore using convenience and safety are improved.

Description

Technical Field

[0001] The utility model relates to the field of ice making and provides an ice making machine and refrigeration equipment. Background Art

[0002] In the prior art, water often overflows from the ice mold due to a poor seal during ice making. This can seriously affect the normal operation of the ice maker and result in voids in the resulting ice, reducing its quality. Poor ice mold sealing can easily cause ice to stick to the mold, making it difficult to remove ice. Utility Model Content

[0003] The embodiment of the present invention provides an ice maker to solve the defect of the related art that the ice making mold is not tightly sealed.

[0004] The embodiment of the present utility model also provides a refrigeration device.

[0005] The first embodiment of the present invention provides an ice making machine, comprising:

[0006] A first ice-making mold is provided with a first corrugated surface;

[0007] The second ice-making mold is provided with a second corrugated surface. The second ice-making mold is suitable for switching between a contact position and a separation position relative to the first ice-making mold. In the contact position, the first corrugated surface and the second corrugated surface are engaged with each other. In the separation position, the second ice-making mold is away from the first ice-making mold.

[0008] According to one embodiment of the present invention, a housing is further included, wherein a bracket assembly is disposed in the housing, and the bracket assembly includes:

[0009] a first bracket, wherein the first ice-making mold is disposed on the first bracket;

[0010] The second support is provided with the second ice-making mold.

[0011] According to one embodiment of the present invention, the first ice-making mold includes a first ice mold and a first fin, wherein the first fin is provided at an edge of the first ice mold;

[0012] The second ice-making mold includes a second ice mold, a second fin and a bent section. The second fin is connected to the edge of the second ice mold, extends in a horizontal direction, the bent section is connected to the second fin, extends toward the first ice mold, and the outer side surface of the first fin is in contact with the bent section.

[0013] According to one embodiment of the present invention, a first sealing structure is formed between the outer side surface of the first fin and the bent section;

[0014] A second sealing structure is formed between the edge of the second fin and the shell.

[0015] According to an embodiment of the present invention, a receiving cavity is formed at the bottom of the second ice mold, and a cooling member is provided in the receiving cavity.

[0016] According to an embodiment of the present invention, an evaporator module is provided on the second bracket, and the evaporator module is thermally coupled to the cooling member.

[0017] According to an embodiment of the present invention, the first ice-making mold and the first bracket are positioned and connected via a first positioning structure, and the second ice-making mold and the second bracket are positioned and connected via a second positioning structure.

[0018] According to an embodiment of the present invention, the first bracket is connected to the housing via a first mounting structure, and the second bracket is connected to the housing via a second mounting structure.

[0019] According to one embodiment of the present invention, the first ice-making mold is a flexible ice-making mold, and / or the second ice-making mold is a flexible ice-making mold.

[0020] A second embodiment of the present invention provides a refrigeration device, comprising a refrigeration compartment, wherein the ice maker is provided.

[0021] The ice-making machine provided by the first embodiment of the present invention utilizes a corrugated surface sealing design to enhance the sealing effect when the first and second ice-making molds are closed, thereby improving the isolation between the first and second ice-making molds and the outside world, preventing leakage of cold during the ice-making process, and facilitating the formation of ice cubes with smoother surfaces. The interlocking of the corrugated surfaces ensures that water is evenly distributed and confined during the freezing process, preventing the formation of cavities or irregular shapes within the ice cubes. It also reduces the skirt formed around the ice cubes, thereby improving the overall quality and practicality of the ice cubes. When the second ice-making mold is in the separated position, the user can easily remove the ice cubes without the need for additional tools or force, thereby improving ease of use and safety.

[0022] According to the refrigeration equipment provided by the second embodiment of the present invention, by integrating the ice maker into the refrigeration compartment and sharing the cold source with the refrigeration system, the refrigeration equipment of this embodiment achieves higher energy efficiency. This not only reduces energy costs but also reduces the impact on the environment. The refrigeration equipment is equipped with an intuitive and easy-to-use user interface and intelligent reminder functions, making it easier for users to operate and manage the equipment. At the same time, the ice maker's efficient ice-making capacity also meets users' immediate needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] In order to more clearly illustrate the technical solutions in the present invention or the prior art, a brief introduction will be given below to the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0024] Figure 1 It is a schematic top view of the ice maker provided by the utility model.

[0025] Figure 2 yes Figure 1 Schematic cross-sectional view along the AA direction.

[0026] Figure 3 yes Figure 1 Schematic cross-sectional view along the BB direction.

[0027] Reference numerals:

[0028] 100. First ice-making mold; 102. First corrugated surface; 104. Second ice-making mold; 106. Second corrugated surface; 107. Shell; 108. First bracket; 110. Second bracket; 112. First ice mold; 114. First fin; 116. Second ice mold; 118. Second fin; 120. Bend section; 122. First sealing structure; 124. Second sealing structure; 126. Cooling element; 128. Evaporator module. DETAILED DESCRIPTION

[0029] The following embodiments of the present invention are described in further detail with reference to the accompanying drawings and examples. The following examples are used to illustrate the present invention, but are not intended to limit the scope of the present invention.

[0030] like Figures 1 to 3 As shown, the first embodiment of the present invention provides an ice making machine, comprising:

[0031] The first ice-making mold 100 is provided with a first corrugated surface 102;

[0032] The second ice-making mold 104 is provided with a second corrugated surface 106. The second ice-making mold 104 is suitable for switching between a contact position and a separation position relative to the first ice-making mold 100. In the contact position, the first corrugated surface 102 and the second corrugated surface 106 are interlocked. In the separation position, the second ice-making mold 104 is away from the first ice-making mold 100.

[0033] According to the ice maker provided by the first aspect of the utility model, the sealing effect of the first ice making mold 100 and the second ice making mold 104 when being combined is improved by adopting the sealing design of the corrugated surface, the isolation performance of the first ice making mold 100, the second ice making mold 104 and the outside world is improved, the leakage of cold energy in the ice making process is avoided, and the ice block with a more flat surface is beneficial to be formed. The mutual buckling of the corrugated surface ensures that the moisture is evenly distributed and limited in the freezing process, the problem that the ice block has a hollow or irregular shape is avoided, meanwhile, the skirt formed around the ice block is reduced, and the overall quality and practicability of the ice block are improved. When the second ice making mold 104 is in the separated position, the user can easily take out the formed ice block without using additional tools or force, thereby improving the convenience and safety in use.

[0034] Please continue to see Figures 1 to 3 The utility model first aspect embodiment provides a kind of ice maker design, including first ice making mold 100 and second ice making mold 104 two components.

[0035] The surface of the combining surface of the first ice making mold 100 is provided with the first corrugated surface 102. The design of the first corrugated surface 102 not only increases the surface area of the ice making mold, which is beneficial to freeze the moisture more quickly, but also provides a unique texture and shape for the finally formed ice block, increasing the aesthetic and practicability of the ice block.

[0036] The second ice making mold 104 corresponds to the first ice making mold 100, and the surface of the combining surface of the second ice making mold 104 is provided with the second corrugated surface 106. The first corrugated surface 102 and the second corrugated surface 106 are matched with each other in structure and function, and when the first ice making mold 100 and the second ice making mold 104 are in the adhering position, they can be tightly combined together to form a complete ice making cavity. This design ensures that the moisture is effectively limited between the corrugated surfaces during the freezing process, thereby making ice blocks with regular shape and uniform quality.

[0037] The second ice making mold 104 is designed to be switchable between the adhering position and the separated position relative to the first ice making mold 100. In the adhering position, the two ice making molds are tightly adhered to form a closed ice making environment, and in the separated position, the second ice making mold 104 is away from the first ice making mold 100, so that the formed ice block can be easily taken out.

[0038] Please continue to see Figures 1 to 3 According to an embodiment of the utility model, further including a shell 107, the shell 107 is provided with a support assembly inside, and the support assembly includes:

[0039] A first support 108, and the first ice making mold 100 is arranged in the first support 108.

[0040] The second support 110 , and the second ice-making mold 104 is disposed on the second support 110 .

[0041] In one embodiment of the present invention, the bracket assembly serves as a supporting structure of the ice making machine, which not only ensures the stable installation of the first ice making mold 100 and the second ice making mold 104, but also optimizes the overall mechanical performance and ice making efficiency.

[0042] The housing 107 is the outer protective structure of the ice maker and can be made of a strong and durable material. The design of the housing 107 is intended to protect the internal ice mold, bracket assembly and other key components from damage by the external environment while providing a clean and aesthetically pleasing appearance.

[0043] The support assembly includes a first support 108 and a second support 110, which are respectively used to support the first ice mold 100 and the second ice mold 104. The design of the support generally takes into account the weight, shape and movement requirements of the ice mold to ensure stable support during the ice making process.

[0044] The first bracket 108 is designed to securely support the first ice mold 100. The first bracket 108 may include a support surface and fixing devices (such as bolts, nuts, or clips) that match the shape and size of the first ice mold 100. By connecting these fixing devices to corresponding parts on the first ice mold 100, the stability and accuracy of the first ice mold 100 during the ice-making process can be ensured.

[0045] Similar to the first support 108, the second support 110 is also designed to firmly support the second ice-making mold 104. The second support 110 may also include a support surface and fixing devices that match the shape and size of the second ice-making mold 104. These fixing devices allow the second ice-making mold 104 to move relative to the first ice-making mold 100 when needed (e.g., switch between an attached position and a separated position) while maintaining its stability during the ice-making process.

[0046] By mounting the first ice mold 100 and the second ice mold 104 on the first bracket 108 and the second bracket 110, respectively, stability and accuracy are ensured during the ice-making process. This design reduces performance degradation caused by movement or loosening of the ice molds, thereby improving the overall reliability of the ice maker. The design of the bracket assembly allows the first ice mold 100 and the second ice mold 104 to quickly and accurately switch between the attached and separated positions. This helps reduce unnecessary time spent during the ice-making cycle and improves ice-making efficiency. The design of the housing 107 and bracket assembly makes the internal components of the ice maker easier to maintain and replace. For example, when the ice mold needs to be cleaned or replaced, the user can easily remove the relevant bracket and fixture without having to disassemble the entire ice maker.

[0047] like Figure 2 and Figure 3 As shown, according to one embodiment of the present invention, the first ice mold 100 includes a first ice mold 112 and a first fin 114, and the first fin 114 is arranged at the edge of the first ice mold 112; the second ice mold 104 includes a second ice mold 116, a second fin 118 and a bending section 120, the second fin 118 is connected to the edge of the second ice mold 116, the second fin 118 extends in a horizontal direction, the bending section 120 is connected to the second fin 118, and the bending section 120 extends toward the direction of the first ice mold 112, and the outer side surface of the first fin 114 is in contact with the bending section 120.

[0048] In one embodiment of the present invention, structural features such as the first fin 114, the second fin 118 and the bent section 120 are introduced to achieve a more efficient and stable seal, thereby improving the sealing performance during the ice making process.

[0049] The first ice mold 100 includes a first ice mold 112 and a first fin 114. The first ice mold 112 forms the space where ice cubes are formed during the ice-making process. The first fin 114 is located at the edge of the first ice mold 112 and is designed to mate with the second fin 118 and curved section 120 of the second ice mold 104. The outer side of the first fin 114 (i.e., the side facing away from the first ice mold 112) is designed to fit tightly against the curved section 120, ensuring a tight seal between the two ice molds during the ice-making process.

[0050] Second ice mold 104 includes a second ice mold 116, a second fin 118, and a bent section 120. Second ice mold 116 is also used to form ice cubes. Second fin 118 is connected to the edge of second ice mold 116 and extends horizontally. This design allows second fin 118 to provide a larger contact area with first fin 114 when mating, thereby enhancing the sealing effect.

[0051] Bend section 120 connects to second fin 118 and extends toward first ice mold 112. The design of bend section 120 ensures that when two ice molds are placed together, the outer surface of first fin 114 fits tightly against bend section 120, forming a continuous sealing surface. This design not only improves sealing during ice making but also helps prevent water from escaping from the ice mold during the process.

[0052] During the ice making process, the first ice mold 100 and the second ice mold 104 are fitted together by the first fin 114 and the bent section 120. This fitting ensures a tight connection between the ice molds, thereby preventing water (such as water) from leaking during the ice making process.

[0053] The two ice-making molds after being attached form a complete ice-making space, and the water in the space gradually solidifies into ice cubes under the cooling effect. Due to the close attachment between the first flash 114 and the bent section 120, the ice cubes can maintain their shape and integrity during formation, avoiding deformation or damage of the ice cubes due to leakage.

[0054] Through the close attachment of the first flash 114 and the bent section 120, the sealing between the ice molds during ice making is ensured. This design reduces the risk of water leakage, thereby improving the quality and efficiency of ice cube formation. Due to the close fit between the first flash 114 and the bent section 120, the ice cubes can maintain their shape and integrity during formation. This design avoids the problem of ice cube deformation or damage due to leakage, improving the quality and usability of the ice cubes. The design of the first flash 114, the second flash 118 and the bent section 120 is relatively simple and easy to manufacture. This design reduces the manufacturing cost of the ice-making mold and simplifies the maintenance and replacement process. By optimizing the design of the ice-making mold, the overall performance and efficiency of the ice maker are improved. This design enables the ice maker to produce high-quality ice cubes more quickly and accurately, thereby meeting the user's demand for ice quality and quantity.

[0055] As shown in Figure 2 and Figure 3 According to one embodiment of the present application, a first sealing structure 122 is formed between the outer side of the first flash 114 and the bent section 120.

[0056] A second sealing structure 124 is formed between the edge of the second flash 118 and the shell 107.

[0057] In one embodiment of the present application, by introducing the first sealing structure 122 and the second sealing structure 124, the sealing between the two ice-making molds and the shell 107 during ice making is ensured, thereby improving the ice-making efficiency and ice cube quality.

[0058] The first sealing structure 122 is located between the outer side of the first flash 114 and the bent section 120. When the first ice-making mold 100 and the second ice-making mold 104 are attached, the outer side of the first flash 114 is closely attached to the bent section 120, forming a continuous sealing surface. This sealing surface is reinforced by the first sealing structure 122 to prevent water from leaking between the ice molds during ice making.

[0059] The first sealing structure 122 can take various forms, such as elastic sealing protrusions, sealing strips, sealing glue or sealing pads, etc. These sealing materials usually have excellent elasticity and corrosion resistance, and can maintain their sealing performance in harsh ice-making environments.

[0060] Second sealing structure 124 is located between the edge of second fin 118 and housing 107. Its primary function is to prevent water from leaking through the gap between the ice mold and housing 107. By ensuring a tight fit between second fin 118 and housing 107, second sealing structure 124 effectively prevents water leakage, thereby improving ice forming quality and efficiency.

[0061] Similar to the first sealing structure 122, the second sealing structure 124 can also be implemented by using sealing materials such as elastic sealing protrusions, sealing strips, sealants or sealing pads. The selection of these materials should be determined based on the operating environment of the ice maker, the characteristics of water and the required sealing performance.

[0062] The first sealing structure 122 and the second sealing structure 124 work together during the ice making process to ensure the seal between the ice mold and the housing 107. Through tight fit and effective sealing, these two structures can prevent water leakage, thereby keeping the water in the ice mold gradually solidified into ice cubes under the cooling effect.

[0063] Furthermore, these two seals contribute to the overall performance and efficiency of the ice machine. By reducing leaks and waste, energy consumption and operating costs are reduced while improving the quality and availability of ice cubes.

[0064] By forming sealing structures between the outer side of the first fin 114 and the bent section 120, and between the edge of the second fin 118 and the housing 107, a tight connection between the ice mold and the housing 107 is ensured during the ice-making process. This design reduces the risk of water leakage, thereby improving the quality and efficiency of ice forming. The provision of the first sealing structure 122 and the second sealing structure 124 ensures that the ice cubes maintain their shape and integrity during the forming process. By reducing the possibility of leakage, the ice cubes are more likely to solidify evenly within the ice mold, thus avoiding deformation or damage caused by leakage.

[0065] like Figure 2 and Figure 3 As shown, according to one embodiment of the present invention, a receiving cavity is formed at the bottom of the second ice mold 116 , and a cooling member 126 is disposed in the receiving cavity.

[0066] In one embodiment of the present invention, a receiving cavity is provided at the bottom of the second ice mold 116, and a cooling member 126 is installed in the receiving cavity. This design is intended to improve ice making efficiency and ensure that ice cubes can solidify quickly and evenly.

[0067] The accommodating cavity is provided at the bottom of the second ice mold 116 . This design enables the cooling member 126 to be firmly installed in the accommodating cavity while ensuring that the cooling member 126 is in close contact with the bottom of the second ice mold 116 .

[0068] The main function of the heat sink 126 is to absorb and transfer heat, allowing water to quickly freeze into ice cubes. In this embodiment, the heat sink 126 is installed in the accommodation cavity and is in close contact with the bottom of the second ice mold 116.

[0069] The material of the heat sink 126 usually has good thermal conductivity and corrosion resistance, such as copper, aluminum, or stainless steel, etc. These materials can effectively transfer heat while resisting corrosion and wear that may occur during ice making.

[0070] The heat sink 126 can also have a specific surface structure, such as grooves or bumps, to increase the contact area with water or cold air, further improving heat transfer efficiency.

[0071] During the ice making process, the heat sink 126 absorbs the cold energy of the water or cold air at the bottom of the second ice mold 116, causing its temperature to drop rapidly. As the temperature drops, the water begins to freeze into ice cubes.

[0072] Due to the good thermal conductivity of the heat sink 126, it can quickly transfer the absorbed heat to the surrounding air or cooling medium (such as water or refrigerant). In this way, the heat sink 126 can continuously absorb and transfer heat, ensuring that the ice making process can continue.

[0073] Due to the rapid absorption and transfer of heat by the heat sink 126, water can quickly freeze into ice cubes. This greatly improves the ice making efficiency and shortens the ice making cycle. The close contact between the heat sink 126 and the bottom of the second ice mold 116 ensures that heat is evenly transferred to the water. In this way, the ice cubes can maintain uniform thickness and shape during freezing, improving the quality of the ice cubes.

[0074] As shown in Figure 2 and Figure 3 According to one embodiment of the present application, an evaporator module 128 is provided on the second bracket 110, and the evaporator module 128 is thermally coupled to the heat sink 126.

[0075] In one embodiment of the present application, an evaporator module 128 is provided on the second bracket 110, and the evaporator module 128 is thermally coupled to the heat sink 126. This design aims to improve ice making efficiency, ensure that ice cubes can quickly and uniformly freeze, and optimize energy utilization.

[0076] The second bracket 110 serves as a support structure for the evaporator module 128, and the second bracket 110 can withstand the pressure and temperature changes generated by the evaporator module 128 during operation, while maintaining the stability and durability of the structure.

[0077] The main function of the evaporator module 128 is to absorb heat through evaporation of the refrigerant, thereby reducing the temperature of the surrounding environment.

[0078] In this embodiment, the evaporator module 128 is disposed on the second bracket 110 and is thermally coupled to the cooling member 126. This connection allows the evaporator module 128 to efficiently transfer absorbed heat to the cooling member 126, thereby achieving rapid ice production.

[0079] The evaporator module 128 may include components such as heat dissipation fins. The heat dissipation fins may be used to increase the contact area between the evaporator module 128 and the air, thereby improving heat dissipation efficiency.

[0080] The cooling element 126 serves as a heat transfer medium during the ice-making process, and its design needs to take into account the thermal coupling connection with the evaporator module 128 .

[0081] In order to further improve the thermal coupling efficiency, a heat conducting medium may be added between the cooling element 126 and the evaporator module 128. The heat conducting medium can fill the small gap between the two, reduce thermal resistance, and improve heat transfer efficiency.

[0082] During the ice-making process, the evaporator module 128 absorbs cold energy, causing the temperature of the evaporator module 128 to decrease; heat is transferred between the cooling element 126 and the evaporator module 128 through thermal coupling, causing the temperature of the cooling element 126 to decrease accordingly; when water and the cooling element 126 come into heat exchange contact, their heat will be quickly absorbed, thereby achieving rapid ice-making.

[0083] As the ice making process progresses, the refrigerant in the evaporator module 128 gradually evaporates and needs to be replenished. At this time, the ice making machine adjusts the supply of refrigerant through the control system to ensure that the evaporator module 128 can work continuously and stably.

[0084] By thermally coupling the evaporator module 128 with the cooling element 126, heat is efficiently transferred and dissipated. This significantly improves ice-making efficiency and shortens the ice-making cycle. The thermal coupling between the evaporator module 128 and the cooling element 126 ensures efficient heat utilization and recovery, reducing energy waste and improving the overall energy efficiency of the ice-making machine.

[0085] According to an embodiment of the present invention, the first ice-making mold 100 is positioned and connected to the first bracket 108 via a first positioning structure, and the second ice-making mold 104 is positioned and connected to the second bracket 110 via a second positioning structure.

[0086] In one embodiment of the present invention, a first positioning structure and a second positioning structure are respectively introduced between the first ice-making mold 100 and the first bracket 108, and between the second ice-making mold 104 and the second bracket 110. This design is intended to ensure the stability and accuracy of the ice-making molds during the ice-making process, thereby improving the quality and efficiency of ice cube formation.

[0087] A first positioning structure is provided between the first ice mold 100 and the first bracket 108 to ensure precise positioning and connection between the two. The first positioning structure can take various forms, such as positioning pins, positioning holes, positioning slots, or positioning blocks. These positioning elements typically have precise dimensions and shapes to ensure that the first ice mold 100 is accurately mounted on the first bracket 108 and does not move or deviate during the ice-making process.

[0088] The first positioning structure allows the first ice-making mold 100 to fit tightly against the first bracket 108, forming a stable ice-making chamber. This helps ensure that water solidifies evenly during the cooling process, thereby improving the quality and efficiency of ice formation.

[0089] Similar to the first positioning structure, a second positioning structure is also provided between the second ice mold 104 and the second bracket 110 to achieve precise positioning and connection between the two. The second positioning structure can also take the form of a positioning pin, a positioning hole, a positioning slot, or a positioning block, depending on the shape and size of the ice mold and bracket, as well as the requirements of the ice making process.

[0090] The second positioning structure allows the second ice-making mold 104 to be securely mounted on the second bracket 110, forming an ice-making chamber corresponding to the first ice-making mold 100. This helps ensure that the two ice-making molds maintain synchronization and coordination during the ice-making process, thereby improving the consistency and efficiency of ice cube formation.

[0091] When installing the ice molds, first ice mold 100 must be accurately mounted on first bracket 108 using the first positioning structure. Similarly, second ice mold 104 must also be accurately mounted on second bracket 110 using the second positioning structure. This ensures that the two ice molds maintain relative position and stability during the ice-making process.

[0092] During the ice-making process, water gradually solidifies into ice cubes. Due to the presence of the first positioning structure and the second positioning structure, the ice-making mold can maintain a stable and accurate position, thereby ensuring the molding quality and efficiency of the ice cubes.

[0093] The first and second positioning structures securely attach the first and second ice molds 100 and 104 to their respective brackets, preventing problems such as poor ice formation or damage caused by movement or offset during the ice-making process. Because the first and second ice molds 100 and 104 maintain stable and accurate positioning, water solidifies evenly during the cooling process, improving the quality and consistency of the ice. Precisely positioning and connecting the ice molds to the brackets reduces installation and adjustment time, improving the overall efficiency of the ice maker.

[0094] According to an embodiment of the present invention, the first bracket 108 is connected to the housing 107 via a first mounting structure, and the second bracket 110 is connected to the housing 107 via a second mounting structure.

[0095] In one embodiment of the present invention, a first mounting structure and a second mounting structure are introduced between the first bracket 108 and the housing 107, and between the second bracket 110 and the housing 107, respectively. This design is intended to ensure that the brackets are firmly installed in the housing 107, thereby improving the overall structural stability and durability of the ice maker.

[0096] The first mounting structure is provided between the first bracket 108 and the housing 107 to achieve a stable connection between the two. The first mounting structure can be in various forms, such as a bolt connection, a snap connection, etc.

[0097] Through the first mounting structure, the first bracket 108 can be tightly fitted on the inner wall of the housing 107 to form a stable support structure. This helps ensure the stability and accuracy of the ice mold during the ice making process, thereby improving the quality and efficiency of ice cube formation.

[0098] Similar to the first mounting structure, the second mounting structure is also provided between the second bracket 110 and the housing 107 to achieve a stable connection between the two. The second mounting structure can also be in the form of a bolt connection, a snap connection, etc.

[0099] Through the second mounting structure, the second bracket 110 can be firmly mounted in the housing 107, forming a symmetrical or complementary support structure with the first bracket 108. This helps to ensure the stability and balance of the entire ice maker during the ice making process.

[0100] When assembling the ice maker, first bracket 108 must be accurately mounted at a predetermined position on housing 107 using the first mounting structure. Similarly, second bracket 110 must also be accurately mounted at another predetermined position on housing 107 using the second mounting structure. This ensures the relative position and stability of the two brackets within housing 107.

[0101] Once installed, the first bracket 108 and the second bracket 110 together provide a secure support for the ice mold, ensuring it does not move or deform during the ice making process. Furthermore, the first bracket 108 and the second bracket 110 together with the housing 107 form a closed ice making chamber, providing the necessary protection and isolation during the ice making process.

[0102] The first and second mounting structures securely mount the bracket within housing 107, preventing problems such as poor ice formation or machine malfunction caused by loosening or deformation of the bracket during ice making. This secure mounting structure reduces friction and vibration between the bracket and housing 107, thereby reducing the risk of wear and damage. This helps extend the life of the ice maker and reduces repair and replacement costs.

[0103] According to one embodiment of the present invention, the first ice-making mold 100 is a flexible ice-making mold, and / or the second ice-making mold 104 is a flexible ice-making mold.

[0104] In one embodiment of the present invention, by using a flexible material to make an ice-making mold, the flexibility and efficiency of the ice-making process are improved, while the molding quality and demoulding convenience of the ice cubes are optimized.

[0105] The flexible first ice-making mold 100 is made of a flexible and elastic material, such as silicone, rubber or flexible plastic, etc. These materials have good sealing and corrosion resistance and can adapt to ice making needs of different shapes and sizes.

[0106] The design of the flexible first ice-making mold 100 can be customized according to actual needs, such as providing different grooves, protrusions or textures, etc., to optimize the forming effect and aesthetics of the ice cubes.

[0107] Due to the characteristics of the flexible material, the flexible first ice-making mold 100 can better fit the surface of the housing 107 or the bracket during the ice-making process, reducing leakage and the generation of bubbles, thereby improving the molding quality of ice cubes.

[0108] Similar to the flexible first ice-making mold 100, the flexible second ice-making mold 104 is also made of a flexible and elastic material. It can be used in conjunction with the flexible first ice-making mold 100 or used alone to meet specific ice-making needs.

[0109] The design of the flexible second ice-making mold 104 can also be customized according to actual needs, such as setting different shapes, sizes and textures to adapt to different ice types and uses.

[0110] The flexible second ice mold 104 provides better sealing and fit during the ice-making process, ensuring that the ice cubes solidify evenly and quickly. Furthermore, during demolding, the elasticity of the flexible material makes it easier to remove the ice cubes from the ice mold, reducing the risk of damage and breakage.

[0111] Flexible ice molds can be customized to meet different ice-making needs, adapting to the production of ice cubes of different shapes, sizes, and textures. This improves the flexibility and efficiency of the ice-making process and meets the needs of different users. Due to the properties of the flexible material, the flexible ice mold can better conform to the surface of the housing 107 or the bracket, reducing leakage and the generation of bubbles. This improves the molding quality and aesthetics of the ice cubes, making the ice cubes more uniform, smooth, and transparent. The flexible ice mold has greater elasticity and flexibility during the demolding process, making it easier to remove the ice cubes from the ice mold. This reduces the risk of ice damage and breakage while improving the convenience and efficiency of demolding.

[0112] A second embodiment of the present invention provides a refrigeration device, including a refrigeration compartment, in which the above-mentioned ice maker is arranged.

[0113] A second embodiment of the present invention provides a refrigeration device, wherein a refrigeration compartment is provided inside the refrigeration device, and the ice maker mentioned above is integrated in the refrigeration compartment.

[0114] The refrigeration compartment provides a low-temperature environment for storing food, beverages, and making ice, etc. The refrigeration compartment uses advanced insulation materials and sealing technology to ensure internal temperature stability and energy efficiency.

[0115] In the refrigeration compartment, the ice maker is integrated inside, sharing the cold source with the refrigeration system, thereby improving overall energy efficiency. This integrated design not only saves space, but also makes the ice making process more efficient and energy-saving.

[0116] In the embodiment of the present invention, the intelligent control system can also automatically adjust the operating state of the ice maker according to parameters such as the temperature and humidity in the refrigeration room to ensure an energy efficiency balance between the two.

[0117] When the temperature in the refrigeration room reaches the preset value, the intelligent control system will start the ice maker to make ice cubes. When the temperature drops to a certain level, the system will stop the ice maker in time to avoid over-refrigeration and energy waste.

[0118] According to the refrigeration equipment provided by the second embodiment of the present invention, by integrating the ice maker into the refrigeration compartment and sharing the cold source with the refrigeration system, the refrigeration equipment of this embodiment achieves higher energy efficiency. This not only reduces energy costs but also reduces the impact on the environment. The refrigeration equipment is equipped with an intuitive and easy-to-use user interface and intelligent reminder functions, making it easier for users to operate and manage the equipment. At the same time, the ice maker's efficient ice-making capacity also meets users' immediate needs.

[0119] Finally, it should be noted that the above embodiments are intended only to illustrate the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the embodiments, those skilled in the art will appreciate that various combinations, modifications, or equivalent substitutions of the technical solutions of the present invention do not depart from the spirit and scope of the technical solutions of the present invention and are intended to be encompassed by the claims of the present invention.

Claims

1. An ice making machine, characterized in that: include: a first ice-making mold provided with a first corrugated surface; The second ice-making mold is provided with a second corrugated surface. The second ice-making mold is suitable for switching between a contact position and a separation position relative to the first ice-making mold. In the contact position, the first corrugated surface and the second corrugated surface are engaged with each other. In the separation position, the second ice-making mold is away from the first ice-making mold.

2. The ice making machine according to claim 1, wherein: The invention also includes a housing, wherein a bracket assembly is disposed in the housing, and the bracket assembly includes: a first bracket, wherein the first ice-making mold is disposed on the first bracket; The second support is provided with the second ice-making mold.

3. The ice making machine according to claim 2, characterized in that The first ice-making mold includes a first ice mold and a first fin, wherein the first fin is arranged at an edge of the first ice mold; The second ice-making mold includes a second ice mold, a second fin and a bent section. The second fin is connected to the edge of the second ice mold, extends in a horizontal direction, the bent section is connected to the second fin, extends toward the first ice mold, and the outer side surface of the first fin is in contact with the bent section.

4. The ice making machine according to claim 3, wherein: A first sealing structure is formed between the outer side surface of the first fin and the bent section; A second sealing structure is formed between the edge of the second fin and the shell.

5. The ice making machine according to claim 3, wherein: A receiving cavity is formed at the bottom of the second ice mold, and a cooling member is arranged in the receiving cavity.

6. The ice making machine according to claim 5, characterized in that An evaporator module is provided on the second bracket, and the evaporator module is thermally coupled to the cooling member.

7. The ice making machine according to any one of claims 2 to 6, characterized in that: The first ice-making mold and the first bracket are positioned and connected via a first positioning structure, and the second ice-making mold and the second bracket are positioned and connected via a second positioning structure.

8. The ice making machine according to any one of claims 2 to 6, characterized in that: The first bracket is connected to the shell via a first mounting structure, and the second bracket is connected to the shell via a second mounting structure.

9. The ice making machine according to any one of claims 1 to 6, characterized in that: The first ice-making mold is a flexible ice-making mold, and / or the second ice-making mold is a flexible ice-making mold.

10. A refrigeration device, characterized in that: The invention comprises a refrigeration compartment, in which an ice maker according to any one of claims 1 to 9 is arranged.

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