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 making machine comprises an ice making module, the ice making module comprises a first ice making module and a second ice making module, the second ice making module is suitable for being switched between an attaching position or a separating position relative to the first ice making module, the second ice making module and the first ice making module are attached to each other at the attaching position, and the second ice making module and the first ice making module are far away from each other at the separating position; and the ice pushing assembly is connected to the first ice making mold and the second ice making mold, is separated from the attaching position, and is suitable for pushing out ice blocks in the first ice making mold and the second ice making mold. The ice maker can be used for quickly making ice blocks, and can also realize quick and efficient ice shedding. A user can obtain required ice cubes in a short time, and the requirements of various use scenes are met. And the ice blocks can be ensured to be subjected to uniform pressure and cooling effect in the forming process, so that the ice blocks with regular shapes and superior quality are obtained.

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 related art, after the ice maker finishes making ice, most of them use manual ice removal methods, such as using an ice scoop or scraper to take out the ice cubes in the ice making chamber. This method is inefficient and easily contaminates the ice cubes, which is not conducive to achieving efficient and clean ice removal. Utility Model Content

[0003] The embodiment of the present invention provides an ice maker to solve the defect of low ice removal efficiency in the related art.

[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] An ice-making mold assembly includes a first ice-making mold and a second ice-making mold, wherein the second ice-making mold is adapted to switch between a contact position and a separation position relative to the first ice-making mold, wherein the second ice-making mold and the first ice-making mold are contacted with each other in the contact position, and the second ice-making mold and the first ice-making mold are separated from each other in the separation position;

[0007] The ice pushing assembly is connected to the first ice making mold and the second ice making mold, and is adapted to push out ice cubes in the first ice making mold and the second ice making mold from the fitting position to the separation position.

[0008] According to one embodiment of the present invention, it further includes:

[0009] A bracket assembly, the bracket assembly comprising a first bracket and a second bracket, the first ice-making mold being mounted on the first bracket, and the second ice-making mold being mounted on the second bracket;

[0010] a driving assembly, drivingly connected to the second bracket to drive the second bracket to switch between the attached position and the separated position;

[0011] A transmission assembly is transmission-connected between the bracket assembly and the drive assembly. From the fitted position to the separated position, the transmission assembly is used to drive the ice-pushing assembly to at least push out the ice cubes in the first ice-making mold. From the separated position to the fitted position, the transmission assembly is used to drive the ice-pushing assembly to withdraw from the first ice-making mold.

[0012] According to one embodiment of the present invention, the transmission assembly includes a first connecting rod and a second connecting rod that are transmission-connected, and the ice-pushing assembly includes a first ice-pushing rod. The first connecting rod is transmission-connected to the driving assembly and the second bracket, and the second connecting rod is transmission-connected to the first ice-pushing rod. From the fitting position to the separation position, the first connecting rod is suitable for driving the second connecting rod to move, so that the second connecting rod drives at least part of the first ice-pushing rod to extend into the first ice-making mold.

[0013] According to one embodiment of the present invention, a connecting shaft is provided on the second bracket, a guide groove is provided on the second connecting rod, and a connecting groove is provided on the first connecting rod. The connecting shaft passes through the guide groove and the connecting groove in sequence, and from the fitting position to the separation position, the connecting shaft is suitable for abutting against the first groove side wall of the guide groove so that the second connecting rod drives at least part of the first ice-pushing rod to extend into the first ice-making mold, and from the separation position to the fitting position, the connecting shaft is suitable for abutting against the second groove side wall of the guide groove so that the second connecting rod drives the first ice-pushing rod to exit the first ice-making groove, wherein the first groove side wall and the second groove side wall are arranged relative to each other.

[0014] According to one embodiment of the present invention, a connecting head is sleeved on the connecting shaft, and a tension spring is provided between the connecting head and the first connecting rod. From the separated position to the fitted position, the tension spring is suitable for tightening the second bracket so that the second bracket and the first bracket fit together.

[0015] According to one embodiment of the present invention, the driving assembly includes a first driving member and a second driving member, the first driving member is connected to the first connecting rod in a transmission manner, the first driving member is used to drive the first connecting rod to move so that the second bracket switches between the fitting position and the separation position, and in the separation position, the second driving member is suitable for being connected to the second bracket in a transmission manner so that the second bracket is flipped relative to the first bracket.

[0016] According to one embodiment of the present invention, a trigger head is provided on the first connecting rod, and the first driving member further includes a first trigger member and a second trigger member. In the fitted position, the trigger head is suitable for triggering the first trigger member, and in the separated position, the trigger head is suitable for triggering the second trigger member. The first driving member is suitable for stopping based on the triggering state of the trigger head, the first trigger member and the second trigger member.

[0017] According to one embodiment of the present invention, it also includes a shell, the bracket assembly is installed on the shell, the shell is provided with an abutment portion, and the second bracket is provided with a second ice-pushing rod at a position corresponding to the second ice-making mold. From the fitting position to the separation position, the second ice-pushing rod is suitable for abutting with the abutment portion so that at least part of the second ice-pushing rod extends into the second ice-making groove.

[0018] According to an embodiment of the present invention, an elastic reset member is provided between the second bracket and the second ice-pushing rod, and the elastic reset member is suitable for driving the second ice-pushing rod to exit the second ice-making groove.

[0019] A second embodiment of the present invention provides a refrigeration device, comprising a refrigeration compartment, wherein the ice maker is provided.

[0020] According to the first aspect of the present invention, an ice maker is provided that quickly produces ice cubes by engaging a first ice mold and a second ice mold. Separating the first and second ice molds reveals the ice cubes. When the second ice mold switches from an engaged position to a separated position relative to the first ice mold, an ice pusher assembly pushes the ice cubes out of the mold, enabling quick and efficient ice removal. In other words, the collaborative operation of the ice making module and the ice pusher assembly makes the ice forming and pushing process more efficient and rapid. Users can obtain the desired ice cubes in a short period of time, meeting the needs of various usage scenarios. While traditional ice makers require users to manually remove ice cubes, the ice maker provided by the present invention utilizes an automated ice pusher assembly, significantly simplifying the operation process and improving the user experience. By optimizing the structural design of the ice making module and the ice pusher assembly, the ice maker maintains stable performance over long-term use, reduces failure rates, and extends its service life. The design of the ice making module ensures that the ice cubes are subjected to uniform pressure and cooling during the forming process, resulting in ice cubes of uniform shape and high quality.

[0021] According to the refrigeration equipment provided by the embodiment of the second aspect of the present invention, by integrating the ice maker in the refrigeration room, this embodiment effectively improves space utilization. The user does not need to install an additional ice maker outside the refrigeration equipment, thereby saving valuable space resources. The design of the integrated ice maker makes it easier for users to obtain ice cubes. They only need to open the door or drawer of the refrigeration equipment to directly take out the ice cubes. Since the ice maker is integrated into the refrigeration room, it can use the refrigeration system of the refrigeration equipment itself to lower the temperature, thereby improving energy efficiency. This helps to reduce energy consumption and lower operating costs. By providing an integrated refrigeration and ice-making solution, the overall user experience is optimized. Users can now meet their refrigeration and ice-making needs on one device without having to purchase and use multiple independent devices. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions of the present application or the prior art, the following will briefly introduce the drawings needed to be used in the embodiments or the prior art description. Obviously, the drawings described below are some embodiments of the present application, and for those skilled in the art, other drawings can also be obtained without creative labor on the basis of these drawings.

[0023] Figure 1 is a schematic perspective view of one angle of the ice maker provided by the present application.

[0024] Figure 2 is a schematic plan view of the ice maker provided by the present application.

[0025] Figure 3 is Figure 2 a schematic sectional view in A-A direction.

[0026] Figure 4 is another schematic perspective view of the ice maker provided by the present application.

[0027] Figure 5 is a schematic perspective view of the second ice making mold in the attached position provided by the present application.

[0028] Figure 6 is a schematic perspective view of the second ice making mold in the separated position provided by the present application.

[0029] Reference signs:

[0030] 100, first ice making mold; 102, second ice making mold; 104, first support; 106, second support; 108, first connecting rod; 110, second connecting rod; 112, first ice pushing rod; 114, connecting shaft; 116, guide groove; 118, connecting groove; 120, connecting head; 122, tension spring; 124, first driving member; 126, second driving member; 128, trigger head; 130, first trigger member; 132, second trigger member; 134, shell; 136, abutting portion; 138, second ice pushing rod; 140, elastic reset member. DETAILED DESCRIPTION

[0031] The embodiments of the present application will be further described in detail below in combination with the drawings and examples. The following examples are used to illustrate the present application, but cannot be used to limit the scope of the present application.

[0032] As shown in the drawings, the present application first aspect embodiment provides an ice maker, comprising: Figures 1 to 6

[0033] ​The ice-making mold assembly includes a first ice-making mold 100 and a second ice-making mold 102. The second ice-making mold 102 is adapted to switch between a contact position and a separation position relative to the first ice-making mold 100. In the contact position, the second ice-making mold 102 and the first ice-making mold 100 are contacted with each other. In the separation position, the second ice-making mold 102 and the first ice-making mold 100 are separated from each other.

[0034] The ice pushing assembly is connected to at least one of the first ice making mold 100 and the second ice making mold 102 and is adapted to push out ice cubes from the first ice making mold 100 and the second ice making mold 102 from the fitting position to the separation position.

[0035] According to the ice-making machine provided by the embodiment of the first aspect of the present invention, ice cubes can be quickly produced by fitting the first ice-making mold 100 and the second ice-making mold 102 together. The ice cubes can be exposed by separating the first ice-making mold 100 and the second ice-making mold 102. When the second ice-making mold 102 switches from the fitting position to the separated position relative to the first ice-making mold 100, the ice-pushing assembly can push the ice cubes out of the ice mold, thereby achieving fast and efficient ice removal. In other words, due to the coordinated work of the ice-making mold and the ice-pushing assembly, the formation and pushing process of ice cubes is made more efficient and faster. Users can obtain the required ice cubes in a short time, meeting the needs of various usage scenarios. Traditional ice-making machines require users to manually remove ice cubes, while the ice-making machine provided by the embodiment of the present invention greatly simplifies the operating process and improves the user experience through the automated ice-pushing assembly. By optimizing the structural design of the ice-making mold and the ice-pushing assembly, it can be ensured that the ice-making machine maintains stable performance during long-term use, reduces the failure rate, and extends its service life. Due to the design of the ice making module, it can ensure that the ice cubes are subjected to uniform pressure and cooling effect during the formation process, so as to obtain ice cubes with regular shape and high quality.

[0036] Please continue to see Figures 1 to 6 The first embodiment of the present invention aims to provide an ice making machine with high efficiency in ice making and ice removing, and the ice making machine mainly includes two core parts: an ice making module and an ice pushing assembly.

[0037] The ice-making mold assembly is composed of a first ice-making mold 100 and a second ice-making mold 102, which are structurally designed to be relatively movable. Specifically, the second ice-making mold 102 can switch between a fitted position and a separated position relative to the first ice-making mold 100.

[0038] When the second ice-making mold 102 is in the fitted position relative to the first ice-making mold 100, the second ice-making mold 102 is tightly fitted to the first ice-making mold 100 to form a closed ice-making space in which water or other ice-making media can be frozen to form ice cubes through cooling or other ice-making methods.

[0039] When ice cubes need to be taken out, the second ice-making mold 102 will switch to a separated position relative to the first ice-making mold 100. At this time, the second ice-making mold 102 and the first ice-making mold 100 are separated from each other, thereby opening the ice-making space so that the ice cubes can be pushed out or taken out.

[0040] The ice pushing assembly is connected to the first ice making mold 100 and the second ice making mold 102. Its main function is to help push the ice cubes out of the ice making mold after ice making is completed.

[0041] When the second ice-making mold 102 moves from the fitting position to the separation position, the ice-pushing assembly will act synchronously, using mechanical force or other physical principles (such as air pressure, hydraulic pressure, etc.) to push the ice cubes so that they detach from the ice-making mold and fall into a collection device or a user-specified location.

[0042] It can be understood that the ice pushing assembly is connected to the first ice making mold 100 and the second ice making mold 102. When the second ice making mold 102 is switched from the fitting position to the separation position, the ice pushing assembly can push the ice cubes in the first ice making mold 100 and the second ice making mold 102 out, and the ice cubes can fall into the ice box.

[0043] It should be noted that, in the embodiment of the present invention, after the ice cubes are made, when the second ice mold 102 moves relative to the first ice mold 100, the ice cubes may be temporarily stored in the first ice mold 100 or the second ice mold 102. In order to ensure smooth ice removal, the ice pushing assembly is connected to the first ice mold 100 and the second ice mold 102 at the same time, thereby ensuring smooth and efficient ice removal.

[0044] like Figure 3 、 Figure 5 and Figure 6 As shown, according to one embodiment of the present utility model, it also includes:

[0045] The bracket assembly includes a first bracket 104 and a second bracket 106. The first ice-making mold 100 is mounted on the first bracket 104, and the second ice-making mold 102 is mounted on the second bracket 106.

[0046] A driving assembly, in transmission connection with the second bracket 106 to drive the second bracket 106 to switch between the attached position and the separated position;

[0047] The transmission assembly is connected between the bracket assembly and the drive assembly. From the fitting position to the separation position, the transmission assembly is used to drive the ice pushing assembly to at least push out the ice cubes in the first ice making mold 100. From the separation position to the fitting position, the transmission assembly is used to drive the ice pushing assembly to exit the first ice making mold 100.

[0048] In one embodiment of the present invention, the ice maker further includes a bracket assembly, a drive assembly, and a transmission assembly. These components work together to further improve the degree of automation and operational convenience of the ice maker.

[0049] The bracket assembly consists of a first bracket 104 and a second bracket 106, which are used to mount the first ice mold 100 and the second ice mold 102, respectively. This design ensures the stability and accuracy of the ice molds while also providing a reliable mounting base for the drive and transmission components. Specifically, the first bracket 104 is used to mount the first ice mold 100, and the second bracket 106 is used to mount the second ice mold 102.

[0050] The drive assembly is in transmission connection with the second bracket 106 and is responsible for providing power to smoothly switch the second bracket 106 (and the second ice mold 102 mounted thereon) between the attached and separated positions. The drive assembly can be powered by a motor, a cylinder, or other power source, with power transmitted through a corresponding transmission assembly.

[0051] The transmission assembly is connected between the support assembly and the drive assembly, transmitting the drive assembly's power to the support assembly. After ice making is complete, when the drive assembly moves the second support 106 (and second ice mold 102) from the engaged position to the separated position, the transmission assembly synchronizes and, utilizing the principle of mechanical linkage, drives the ice pusher assembly to push the ice out of the first ice mold 100. When the second support 106 (and second ice mold 102) returns from the separated position to the engaged position, the transmission assembly drives the ice pusher assembly out of the first ice mold 100, preparing for the next ice making cycle.

[0052] Of course, during this process, the ice pushing assembly on the second ice mold 102 can also push out the ice cubes in the second ice mold 102 at the same time, or the ice pushing assemblies on the first ice mold 100 and the second ice mold 102 can push out the ice cubes in the first ice mold 100 and the second ice mold 102 at the same time.

[0053] In the embodiment of the present utility model, by introducing a bracket assembly, a drive assembly, and a transmission assembly, the user only needs to start the ice maker, and the drive assembly, transmission assembly, and ice-pushing assembly will automatically complete the process of making, pushing out, and resetting ice cubes without the need for manual intervention, greatly improving the efficiency of ice making. Due to the realization of fully automated operation, the user only needs to simply set the ice-making parameters to start ice making, without the need for frequent manual operations, which reduces the difficulty and complexity of operation. The linkage design of the bracket assembly, drive assembly, and transmission assembly makes the entire ice maker compact and occupies a small area, making it suitable for various places with limited space. In addition, the modular design between the components facilitates disassembly and maintenance. When a component fails, the user can quickly locate and replace the faulty part, reducing maintenance costs and time.

[0054] As Figure 5 And Figure 6 According to one embodiment of the present application, the transmission assembly includes a first link 108 and a second link 110 in transmission connection, and the ice pushing assembly includes a first ice pushing rod 112. The first link 108 is further in transmission connection with the driving assembly and the second support 106, and the second link 110 is further in transmission connection with the first ice pushing rod 112. From the adhering position to the separating position, the first link 108 is adapted to drive the second link 110 to act, so that the second link 110 drives at least part of the first ice pushing rod 112 to extend into the first ice making mold 100.

[0055] In one embodiment of the present application, the transmission assembly is composed of the first link 108 and the second link 110, which are connected by transmission. This transmission mode can be mechanical, such as gear transmission, link transmission, etc., to ensure that the two can be coordinated when acting.

[0056] The driving assembly is in transmission connection with the first link 108. The driving assembly can be a motor or other power-providing device, which is used to drive the movement of the entire transmission assembly.

[0057] The ice pushing assembly includes at least the first ice pushing rod 112, which is used to perform the ice pushing action on the ice blocks in the first ice making mold 100. The first ice pushing rod 112 is in transmission connection with the second link 110, which can drive the first ice pushing rod 112 to act when the second link 110 moves.

[0058] In the embodiment of the present application, the action mode of the transmission assembly can be summarized as follows:

[0059] When the ice pushing action is needed to be performed, the driving assembly is started to drive the first link 108 to move;

[0060] At the same time, the first link 108 moves to drive the second link 110 to move through the transmission connection;

[0061] At the same time, the second link 110 moves to further drive the first ice pushing rod 112 to move through the transmission connection, so that at least part of the first ice pushing rod 112 extends into the first ice making mold 100 to push the ice blocks in the first ice making mold 100 out.

[0062] Through the transmission connection between the first connecting rod 108 and the second connecting rod 110, and their coordinated cooperation with the drive assembly and the ice-pushing assembly, structural compactness and high transmission efficiency are achieved. This design reduces energy loss during the transmission process and improves the working efficiency of the entire device. Since the transmission connection between the first connecting rod 108 and the second connecting rod 110 and between them and the ice-pushing assembly are precisely designed, it is possible to ensure that the ice-pushing rod can accurately and quickly extend into the ice-making mold when needed to push out the ice cubes smoothly. This precise motion control improves the ice-pushing effect and reduces the possibility of ice cubes being left behind or damaged. The transmission and ice-pushing assembly of this utility model adopt a modular design, and the connection between the various components is simple and clear, which facilitates daily maintenance and replacement. At the same time, due to the use of a reliable transmission method and high-quality materials, the service life of the entire device is effectively extended.

[0063] like Figure 5 and Figure 6 As shown, according to one embodiment of the present invention, a connecting shaft 114 is provided on the second bracket 106, a guide groove 116 is provided on the second connecting rod 110, and a connecting groove 118 is provided on the first connecting rod 108. The connecting shaft 114 passes through the guide groove 116 and the connecting groove 118 in sequence. From the fitting position to the separation position, the connecting shaft 114 is suitable for abutting against the first groove side wall of the guide groove 116 so that the second connecting rod 110 drives at least part of the first ice-pushing rod 112 to extend into the first ice-making mold 100. From the separation position to the fitting position, the connecting shaft 114 is suitable for abutting against the second groove side wall of the guide groove 116 so that the second connecting rod 110 drives the first ice-pushing rod 112 to exit the first ice-making groove, wherein the first groove side wall and the second groove side wall are arranged relative to each other.

[0064] In one embodiment of the present invention, a more sophisticated transmission and ice pushing device structure is described.

[0065] A connecting shaft 114 is provided on the second bracket 106 , and the connecting shaft 114 plays a key role in transmission and guidance.

[0066] A guide groove 116 is provided on the second connecting rod 110 and is provided along the length direction of the second connecting rod 110 . The guide groove 116 is used to adapt to the movement of the connecting shaft 114 and provide guidance for the movement of the connecting shaft 114 . The guide groove 116 includes a first groove side wall and a second groove side wall that are arranged opposite to each other.

[0067] The first connecting rod 108 is provided with a connecting groove 118 for abutting and matching with the connecting shaft 114. The shape and size of the connecting groove 118 match the connecting shaft 114, allowing the connecting shaft 114 to move freely within the connecting groove 118. At the same time, the position and size of the connecting groove 118 also ensure that it can be properly aligned with the guide groove 116 to achieve the transmission function.

[0068] When the second ice-making mold 102 moves from the attached position to the separated position, the first connecting rod 108 starts to rotate, and the first connecting rod 108 drives the connecting groove 118 to rotate synchronously. When the groove side wall of the connecting groove 118 contacts the connecting shaft 114, the connecting shaft 114 starts to move along the guide groove 116 under the pressing action of the groove side wall of the connecting groove 118. When the connecting shaft 114 contacts the first groove side wall, the connecting shaft 114 drives the second connecting rod 110 to move downward synchronously with the continuous rotation of the first connecting rod 108. When the first connecting rod 108 stops rotating, the second ice-making mold 102 has already moved to the separated position.

[0069] Meanwhile, in this process, the second connecting rod 110 can drive the first ice pushing rod 112 to extend into the first ice-making mold 100 synchronously with the downward movement of the second connecting rod 110, and then the ice in the first ice-making mold 100 is pushed out.

[0070] Conversely, when the second ice-making mold 102 moves from the separated position to the attached position, the first connecting rod 108 reversely rotates, and the first connecting rod 108 drives the connecting groove 118 to reversely rotate synchronously with the reverse rotation of the first connecting rod 108. When the groove side wall on the other side of the connecting groove 118 contacts the connecting shaft 114, the connecting shaft 114 starts to move along the guide groove 116 under the supporting action of the groove side wall of the connecting groove 118. When the connecting shaft 114 contacts the second groove side wall of the guide groove 116, the connecting shaft 114 drives the second connecting rod 110 to move upward synchronously with the continuous reverse rotation of the first connecting rod 108. When the first connecting rod 108 stops rotating, the second ice-making mold 102 has already moved to the attached position.

[0071] Meanwhile, in this process, the second connecting rod 110 can drive the first ice pushing rod 112 to exit from the first ice-making mold 100 synchronously with the upward movement of the second connecting rod 110, and then the first ice-making mold 100 can be prepared for the next ice making.

[0072] The precise coordination of the connecting shaft 114, guide groove 116, and connecting groove 118 achieves high precision and stability during transmission. This design ensures coordinated operation between the first connecting rod 108, the second connecting rod 110, and the first ice-pushing rod 112, preventing inaccurate operation or failure due to transmission errors. The transmission structure of this utility model is compact and efficient, fully utilizing the spatial relationship between the second bracket 106, the first connecting rod 108, and the second connecting rod 110, reducing unnecessary components and space usage. This compact design makes the entire device more compact and lightweight, making it easy to install and maintain. High reliability: Thanks to its modular design, the connections between components are simple and clear, facilitating routine maintenance and replacement. Furthermore, because key components such as the connecting shaft 114, guide groove 116, and connecting groove 118 are made of high-quality materials and undergo precise processing and testing, the reliability and service life of the entire device are effectively guaranteed. This utility model's combined transmission and ice-pushing device is suitable for a variety of ice-making equipment and applications, such as household refrigerators and commercial ice-making machines. Its flexibility and adaptability enable the device to meet the needs of different users and scenario requirements.

[0073] like Figure 5 and Figure 6 As shown, according to one embodiment of the present invention, a connecting head 120 is sleeved on the connecting shaft 114, and a tension spring 122 is provided between the connecting head 120 and the first connecting rod 108. From the separation position to the fitting position, the tension spring 122 is suitable for tightening the second bracket 106 so that the second bracket 106 and the first bracket 104 fit together.

[0074] In one embodiment of the present invention, a connector 120 is sleeved on the end of the connecting shaft 114 , and the connector 120 serves to connect the first connecting rod 108 and the connecting shaft 114 .

[0075] A tension spring 122 is disposed between the connector 120 and the first connecting rod 108. The tension spring 122 is an elastic element that deforms when subjected to an external force and returns to its original shape when the external force is removed. In this embodiment, the tension spring 122 is used to provide tension to assist in the alignment of the second bracket 106 with the first bracket 104.

[0076] As the second bracket 106 moves from the separated position to the engaged position, the tension spring 122 begins to function. Using its own elastic force, the tension spring 122 tightens the second bracket 106, gradually reducing the gap between the second bracket 106 and the first bracket 104 until they are completely engaged. During this process, the connector 120 acts as a transmission medium, transferring the tension of the tension spring 122 to the second bracket 106, ensuring a smooth engagement.

[0077] On the contrary, when it is necessary to move from the fitted position to the separated position, the driving assembly first drives the first connecting rod 108 to rotate, thereby releasing the elastic force of the tension spring 122, and then separating the second bracket 106 from the first bracket 104 according to the action process described above.

[0078] By introducing the elastic element of tension spring 122, the degree of fit between second bracket 106 and first bracket 104 can be more precisely controlled, ensuring the sealing of first ice mold 100 and second ice mold 102. The elastic force of tension spring 122 can be adjusted as needed to ensure a tight and stable fit between the two. The introduction of tension spring 122 not only provides additional tension but also enhances the stability of the entire structure. When subjected to external shock or vibration, tension spring 122 can absorb some of the energy, reducing the impact and damage to the structure. Because tension spring 122 can automatically provide tension, the process of moving from the separated position to the fitted position is simpler and faster. This reduces the difficulty and complexity of operation and improves work efficiency. As an elastic element, tension spring 122 has good durability and reliability. Through reasonable design and material selection, it can be ensured that tension spring 122 maintains stable performance during long-term use, thereby increasing the service life of the entire device.

[0079] like Figure 5 As shown, according to one embodiment of the present invention, the driving assembly includes a first driving member 124 and a second driving member 126. The first driving member 124 is connected to the first connecting rod 108 in a transmission manner. The first driving member 124 is used to drive the first connecting rod 108 to move so that the second bracket 106 switches between the fitting position and the separation position. In the separation position, the second driving member 126 is suitable for being connected to the second bracket 106 in a transmission manner so that the second bracket 106 is flipped relative to the first bracket 104.

[0080] In one embodiment of the present invention, the driving assembly is mainly composed of two core parts, namely the first driving member 124 and the second driving member 126 .

[0081] The main function of the first driving member 124 is to drive the first connecting rod 108 to move, so that the second bracket 106 drives the second ice-making mold 102 to switch between the attached position and the separated position.

[0082] When the second bracket 106 is in the separated position, the second driving member 126 starts to function. The second driving member 126 is responsible for driving the second bracket 106 to flip relative to the first bracket 104 to pour out the ice cubes in the second ice-making mold 102 .

[0083] By controlling the first drive member 124 and the second drive member 126 separately, the position switching of the second bracket 106 between the fitted position and the separated position can be precisely controlled, and the flipping movement of the second bracket 106 can also be controlled, thereby achieving flexible regulation of the motion state of the entire device. In situations where the relative position of the second bracket 106 and the first bracket 104 needs to be kept stable, the second bracket 106 in the fitted position can provide a reliable constraint; and when flipping movement is required, the second bracket 106 is allowed to flip relative to the first bracket 104 to achieve ice removal. Through the integrated drive component design, the flipping movement that may have originally required multiple independent steps or complex mechanisms to achieve can be simplified to the coordinated work of two drive members, thereby reducing the difficulty and complexity of operation. This design improves the efficiency and accuracy of movement by optimizing the transmission connection and drive mode, while reducing energy loss and wear, which helps to improve the overall performance and service life of the entire device.

[0084] like Figure 5 and Figure 6 As shown, according to one embodiment of the present invention, a trigger head 128 is provided on the first connecting rod 108, and the first driving member 124 also includes a first trigger member 130 and a second trigger member 132. In the fitted position, the trigger head 128 is suitable for triggering the first trigger member 130, and in the separated position, the trigger head 128 is suitable for triggering the second trigger member 132. The first driving member 124 is suitable for stopping based on the triggering state of the trigger head 128 and the first trigger member 130 and the second trigger member 132.

[0085] In one embodiment of the present invention, a trigger head 128 is provided on the first connecting rod 108. The trigger head 128 is designed to interact with a specific trigger member to change the working state of the driving member.

[0086] When the second bracket 106 is in the fitted position, the trigger head 128 contacts the first trigger member 130 , thereby triggering the first trigger member 130 . Similarly, when the second bracket 106 is in the separated position, the trigger head 128 contacts the second trigger member 132 , thereby triggering the second trigger member 132 .

[0087] As will be appreciated, this trigger mechanism relies on the interaction between the trigger head 128 and the first and second trigger members 130, 132. When the trigger head 128 triggers any of the trigger members, it sends a signal to the first driver 124, instructing it to stop. This design ensures that the first driver 124 accurately stops when the connecting rod reaches the predetermined position (whether engaged or separated). Specifically, when the second bracket 106 moves to the separated position, the trigger head 128 triggers the second trigger member 132, causing the first driver 124 to stop. Simultaneously, the second driver 126 operates to rotate the second bracket 106 relative to the first bracket 104. When the second bracket 106 moves to the engaged position, the trigger head 128 triggers the first trigger member 130, causing the first driver 124 to reverse direction and stop, closing the first and second ice molds 100, 102.

[0088] By introducing the interaction between the trigger head 128 and the trigger member, the working state of the first drive member 124 can be precisely controlled. Whether in the attached or separated position, it can ensure that the first drive member 124 stops at the correct moment, thereby improving the movement accuracy of the entire system. The design of the trigger mechanism reduces motion errors caused by misoperation or external interference. Once the trigger head 128 contacts the first trigger member 130 or the second trigger member 132, the first drive member 124 will stop working immediately, avoiding unnecessary movement or damage. Precise position control is achieved through physical triggering rather than complex electronic control logic, simplifying the design and maintenance of the system. This reduces the complexity and cost of the system while improving its reliability and durability.

[0089] like Figure 1 、 Figure 2 and Figure 4 As shown, according to one embodiment of the present invention, it also includes a shell 134, the bracket assembly is installed on the shell 134, the shell 134 is provided with an abutment portion 136, and the second bracket 106 is provided with a second ice-pushing rod 138 at a position corresponding to the second ice-making mold 102. From the fitting position to the separation position, the second ice-pushing rod 138 is suitable for abutting with the abutment portion 136 so that at least part of the second ice-pushing rod 138 extends into the second ice-making groove.

[0090] In one embodiment of the present invention, the shell 134 serves as the outer structure of the entire ice maker. The shell 134 not only provides the function of installing and protecting internal components, but also participates in the function realization of the ice maker through its specific design, such as the setting of the abutment portion 136.

[0091] The bracket assembly (including the first bracket 104 and the second bracket 106) is fixedly installed in the housing 134. This installation method ensures the stability and reliability of the bracket assembly, and is also conducive to the compactness and integration of the entire device.

[0092] The housing 134 is provided with an abutment portion 136 , the position and shape of which are precisely designed so as to interact with the second ice-pushing rod 138 when the second bracket 106 moves from the fitted position to the separated position.

[0093] A second ice pusher 138 is provided on the second support 106 at a position corresponding to the second ice mold 102. The second ice pusher 138 extends into the second ice groove when the second support 106 moves from the engaging position to the disengaged position, so as to push or assist in pushing out the ice cubes in the second ice mold 102.

[0094] Specifically, when the second bracket 106 moves from the engaged position to the disengaged position, the second ice-pushing lever 138 abuts against the abutment portion 136 on the housing 134. This abutment pushes or guides the second ice-pushing lever 138 into the second ice-making chute, thereby completing the ice-pushing operation. Combined with the function of the first ice-pushing lever 112 mentioned above, when the second bracket 106 moves from the engaged position to the disengaged position, the first ice-pushing lever 112 and the second ice-pushing lever 138 operate simultaneously to efficiently remove ice.

[0095] Through the precisely designed and controlled interaction between the abutment 136 and the second ice-pushing rod 138, the efficiency and accuracy of the ice-pushing action can be significantly improved. This helps to reduce the amount of ice cubes remaining in the ice-making trough and improve the overall performance of the ice-making machine. The fixed installation of the shell 134 and the bracket assembly and the precise design of the abutment 136 enhance the structural stability of the entire device. This helps to reduce vibration and noise during movement and improve the durability and reliability of the device. Through integrated design and precise motion control, the operation process of the ice-making machine can be simplified. The user only needs to start the ice-making machine, and the system will automatically complete the entire process from ice making to ice pushing without human intervention. The compact design of the shell 134 and the precise layout of the bracket assembly and the ice-pushing rod optimize the space utilization of the entire device. This makes the ice-making machine suitable for a wider range of installation environments while maintaining high performance and efficiency.

[0096] like Figure 4 As shown, according to one embodiment of the present invention, an elastic reset member 140 is provided between the second bracket 106 and the second ice-pushing rod 138 , and the elastic reset member 140 is suitable for driving the second ice-pushing rod 138 to exit the second ice-making groove.

[0097] In one embodiment of the present invention, an elastic return member 140 is disposed between the second bracket 106 and the second ice-pushing rod 138. The elastic return member 140 can be a spring, an elastic sheet, or other elastic element. Its function is to provide a restoring force to enable the second ice-pushing rod 138 to automatically withdraw from the second ice-making chute under certain conditions.

[0098] When the second support 106 moves from the attached position to the detached position, the second ice pushing rod 138 extends into the second ice making slot to complete the ice pushing action. When the second support 106 moves from the detached position to the attached position, the elastic return member 140 will use its elastic force to drive the second ice pushing rod 138 to move in the opposite direction, i.e., to exit the second ice making slot.

[0099] With the continuous movement of the second support 106, the elastic return member 140 will maintain its tension state and wait for the triggering of the next ice pushing action. In this way, the entire device forms a cyclic working process, enabling continuous ice making and ice pushing operations.

[0100] By introducing the elastic return member 140, the embodiment of the utility model further improves the automation level of the ice maker. The second ice pushing rod 138 can automatically exit the ice making slot after completing the ice pushing action without the need for manual intervention or additional control mechanisms. The use of the elastic return member 140 ensures that the second ice pushing rod 138 can accurately and quickly exit the ice making slot, thereby avoiding the residual or adhesion of ice cubes in the ice making slot. This helps to improve the overall performance of the ice maker and the quality of the ice cubes. As a mechanical component, the elastic return member 140 has high reliability and durability, and can withstand multiple compression and release cycles without significantly affecting its performance or lifespan. Since the elastic return member 140 is mechanical, its maintenance and replacement are relatively simple. Compared with electronic control components, it does not require complex debugging or calibration processes.

[0101] The second aspect embodiment of the utility model provides a refrigeration equipment, including refrigeration room, be provided with above-mentioned ice maker in refrigeration room.

[0102] The second aspect embodiment of the utility model provides a refrigeration equipment, and the main feature of the refrigeration equipment is that it is internally provided with a refrigeration compartment, and the ice maker described above is integrated in this refrigeration compartment.

[0103] The refrigeration compartment is the main part of the refrigeration equipment, used to provide a low-temperature environment for storing food, beverages or other items that need to be refrigerated. In the refrigeration compartment, the ice maker described above is integrated. This means that all components of the ice maker, such as the first support 104, the second support 106, the first drive member 124, the second drive member 126, the trigger head 128, the abutting portion 136, the second ice pushing rod 138 and the elastic return member 140, etc., are arranged within the refrigeration compartment or in the area adjacent thereto.

[0104] The integrated design of the ice maker ensures that it can work normally in the low-temperature environment of the refrigeration compartment without interfering with the other functions of the refrigeration compartment.

[0105] When ice is needed, the user can start the ice maker through the control panel or remote control of the refrigeration unit. In addition to the basic ice-making function, the refrigeration unit may also have other additional functions, such as temperature control, humidity adjustment, and defrosting. These functions can be set and adjusted through the control panel or remote control of the refrigeration unit.

[0106] By integrating the ice maker within the refrigeration compartment, this embodiment effectively improves space utilization. Users no longer need to install an additional ice maker outside the refrigeration unit, saving valuable space resources. The integrated ice maker design makes it more convenient for users to access ice cubes. They can simply open the door or drawer of the refrigeration unit and take out the ice cubes directly. Because the ice maker is integrated into the refrigeration compartment, it can utilize the refrigeration unit's own refrigeration system to lower the temperature, thereby improving energy efficiency. This helps reduce energy consumption and lower operating costs. By providing an integrated refrigeration and ice-making solution, the overall user experience is optimized. Users can now meet their refrigeration and ice-making needs simultaneously with a single device, without having to purchase and use multiple separate devices.

[0107] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. An ice making machine, characterized in that: include: An ice-making mold assembly includes a first ice-making mold and a second ice-making mold, wherein the second ice-making mold is adapted to switch between a contact position and a separation position relative to the first ice-making mold, wherein the second ice-making mold and the first ice-making mold are contacted with each other in the contact position, and the second ice-making mold and the first ice-making mold are separated from each other in the separation position; The ice pushing assembly is connected to the first ice making mold and the second ice making mold, and is adapted to push out ice cubes in the first ice making mold and the second ice making mold from the fitting position to the separation position.

2. The ice making machine according to claim 1, wherein: Also includes: A bracket assembly, the bracket assembly comprising a first bracket and a second bracket, the first ice-making mold being mounted on the first bracket, and the second ice-making mold being mounted on the second bracket; a driving assembly, drivingly connected to the second bracket to drive the second bracket to switch between the attached position and the separated position; A transmission assembly is transmission-connected between the bracket assembly and the drive assembly. From the fitted position to the separated position, the transmission assembly is used to drive the ice-pushing assembly to at least push out the ice cubes in the first ice-making mold. From the separated position to the fitted position, the transmission assembly is used to drive the ice-pushing assembly to withdraw from the first ice-making mold.

3. The ice making machine according to claim 2, characterized in that The transmission assembly includes a first connecting rod and a second connecting rod that are transmission-connected, and the ice-pushing assembly includes a first ice-pushing rod. The first connecting rod is transmission-connected to the driving assembly and the second bracket, and the second connecting rod is transmission-connected to the first ice-pushing rod. From the fitting position to the separation position, the first connecting rod is suitable for driving the second connecting rod to move, so that the second connecting rod drives at least a portion of the first ice-pushing rod to extend into the first ice-making mold.

4. The ice making machine according to claim 3, wherein: The second bracket is provided with a connecting shaft, the second connecting rod is provided with a guide groove, and the first connecting rod is provided with a connecting groove, the connecting shaft passes through the guide groove and the connecting groove in sequence, and from the engaging position to the separating position, the connecting shaft is suitable for abutting against the first groove side wall of the guide groove so that the second connecting rod drives at least part of the first ice-pushing rod to extend into the first ice-making mold, and from the separating position to the engaging position, the connecting shaft is suitable for abutting against the second groove side wall of the guide groove so that the second connecting rod drives the first ice-pushing rod to withdraw from the first ice-making mold, wherein the first groove side wall and the second groove side wall are arranged opposite to each other.

5. The ice making machine according to claim 4, characterized in that A connecting head is sleeved on the connecting shaft, and a tension spring is provided between the connecting head and the first connecting rod. From the separated position to the fitted position, the tension spring is suitable for tightening the second bracket so that the second bracket and the first bracket fit together.

6. The ice making machine according to claim 3, characterized in that The driving assembly includes a first driving member and a second driving member, the first driving member is connected to the first connecting rod in a transmission manner, the first driving member is used to drive the first connecting rod to move the second bracket to switch between the fitting position and the separation position, and in the separation position, the second driving member is suitable for being connected to the second bracket in a transmission manner to flip the second bracket relative to the first bracket.

7. The ice making machine according to claim 6, characterized in that A trigger head is provided on the first connecting rod, and the first driving member further includes a first trigger member and a second trigger member. In the fitted position, the trigger head is suitable for triggering the first trigger member, and in the separated position, the trigger head is suitable for triggering the second trigger member. The first driving member is suitable for stopping based on the triggering state of the trigger head, the first trigger member and the second trigger member.

8. The ice making machine according to any one of claims 2 to 7, characterized in that: It also includes a shell, the bracket assembly is installed on the shell, the shell is provided with an abutment portion, and the second bracket is provided with a second ice-pushing rod at a position corresponding to the second ice-making mold. From the fitting position to the separation position, the second ice-pushing rod is suitable for abutting with the abutment portion so that at least part of the second ice-pushing rod extends into the second ice-making mold.

9. The ice making machine according to claim 8, characterized in that An elastic reset member is provided between the second bracket and the second ice-pushing rod, and the elastic reset member is suitable for driving the second ice-pushing rod to exit the second ice-making mold.

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

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