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 a first ice making mold and a second ice making mold, 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, an ice pushing rod is arranged on the first ice making mold, and a connecting shaft is arranged on the second ice making mold; a driving assembly; the transmission assembly comprises a first connecting rod and a second connecting rod, the first connecting rod is in transmission connection with the driving assembly and the second ice making mold, the second connecting rod is in transmission connection with the ice pushing rod and the connecting shaft, and the first connecting rod is suitable for driving the connecting shaft to act from the attaching position to the separating position; and the connecting shaft drives the second connecting rod to act, so that at least part of the ice pushing rod extends into the first ice making mold. According to the ice maker, automation of ice making and ice pushing is achieved, manual operation is reduced, and the working efficiency is improved. Power transmission and component linkage are achieved through the connecting rod mechanism, so that the whole ice maker is more compact in structure, and occupied space is reduced.

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 utility model provides an ice maker to solve the defect of difficulty in removing ice 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] a first ice-making mold and a second ice-making mold, wherein the second ice-making mold is adapted to switch between a fitted position and a separated position relative to the first ice-making mold, the first ice-making mold is provided with an ice-pushing rod, and the second ice-making mold is provided with a connecting shaft;

[0007] Drive components;

[0008] The transmission assembly includes a first connecting rod and a second connecting rod. The first connecting rod is connected to the driving assembly and the second ice-making mold, and the second connecting rod is connected to the ice-pushing rod and the connecting shaft. From the fitting position to the separation position, the first connecting rod is suitable for driving the connecting shaft to move, so that the connecting shaft drives the second connecting rod to move at least part of the ice-pushing rod into the first ice-making mold.

[0009] According to one embodiment of the present invention, a trigger head is provided on the first connecting rod, and the driving assembly includes a driving member, 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 driving member is suitable for stopping based on the triggering state of the trigger head and the first trigger member and the second trigger member.

[0010] According to one embodiment of the present invention, a rocker arm is connected to the first connecting rod, a connecting groove is provided on the rocker arm, a guide groove is provided on the second connecting rod, and the connecting shaft passes through the guide groove and the connecting groove in sequence.

[0011] 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 rocker arm. From the separation position to the fitting position, the tension spring is suitable for tightening the second ice-making mold so that the second ice-making mold and the first ice-making mold fit together.

[0012] According to one embodiment of the present invention, from the engaging position to the disengaging position, the connecting shaft is adapted to abut against the first groove side wall of the guide groove so that the second connecting rod drives at least a portion of the ice-pushing rod to extend into the first ice-making mold; and from the disengaging position to the engaging position, the connecting shaft is adapted to abut against the second groove side wall of the guide groove so that the second connecting rod drives the ice-pushing rod to exit the first ice-making mold;

[0013] Wherein, the first groove side wall and the second groove side wall are arranged opposite to each other.

[0014] According to an embodiment of the present invention, a pressure rod is provided at a position corresponding to the guide groove and the second groove side wall, and an elastic buffer is provided between the pressure rod and the second groove side wall.

[0015] According to an embodiment of the present invention, there are at least two first ice-making molds, the ice-pushing rods are arranged in one-to-one correspondence with the first ice-making molds, and a synchronization rod is connected between the ice-pushing rods.

[0016] According to an embodiment of the present invention, a through hole is formed on the top of the first ice-making mold, and the ice-pushing rod is movably inserted into the through hole.

[0017] According to an embodiment of the present invention, the ice-pushing rod is a metal ice-pushing rod, and a heating element is wound around the ice-pushing rod.

[0018] A second embodiment of the present invention provides a refrigeration device, comprising a refrigeration compartment, wherein the ice maker is provided.

[0019] According to the ice-making machine provided by the embodiment of the first aspect of the present invention, the automation of ice making and ice pushing is achieved through the coordinated work of the drive assembly and the transmission assembly, which reduces manual operation and improves work efficiency. When the drive assembly drives the first connecting rod to move, the second connecting rod can follow the first connecting rod. At the same time, the second connecting rod can drive the ice-pushing rod on the first ice-making mold to extend into the first ice-making mold to complete the ice-pushing action, thereby achieving efficient ice pushing. The use of a connecting rod mechanism to achieve power transmission and component linkage makes the structure of the entire ice-making machine more compact and reduces space occupancy. The design of the connecting rod mechanism makes the movement relationship between the various components clearer and more stable, reduces the failure rate, and improves the reliability of the equipment. By optimizing the design of the transmission assembly, the movement of the second ice-making mold and the action of the ice-pushing rod are more coordinated and efficient, thereby improving ice making efficiency. Due to the compact structure and clear movement relationship, the maintenance and care of the ice-making machine becomes simpler and more convenient.

[0020] According to the refrigeration equipment provided by the embodiment of the second aspect of the present invention, the ice maker is directly integrated into the refrigeration equipment to achieve functional integration, providing users with a more convenient user experience. Users do not need to purchase and install an ice maker separately to enjoy the ice-making function in the refrigeration equipment. Since the ice maker is directly installed in the refrigeration room, the internal space of the refrigeration equipment can be fully utilized, avoiding the problem of additional external space occupation. The low temperature environment inside the refrigeration equipment can provide ideal ice-making conditions for the ice maker, thereby improving the ice-making efficiency. At the same time, since the ice maker and the refrigeration equipment share the same power supply and cooling system, the rational use of energy is also achieved. Since the ice maker is integrated into the refrigeration equipment, its maintenance and maintenance work can also be combined with the daily maintenance of the refrigeration equipment, reducing maintenance costs and complexity. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] 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.

[0022] Figure 1 It is a schematic top view of the ice maker provided by the utility model.

[0023] Figure 2 yes Figure 1 Schematic cross-sectional view along the AA direction.

[0024] Figure 3 It is a schematic three-dimensional diagram of the second ice-making mold provided by the present invention in the fitting position.

[0025] Figure 4 This is a schematic three-dimensional diagram showing the second ice-making mold provided by the present invention in a separated position at one angle.

[0026] Figure 5 This is a schematic three-dimensional diagram showing the second ice-making mold provided by the present invention in a fitting position from another angle.

[0027] Reference numerals:

[0028] 100. First ice-making mold; 102. Second ice-making mold; 104. Ice-pushing rod; 106. First connecting rod; 108. Second connecting rod; 110. Trigger head; 112. Driving member; 114. First trigger member; 116. Second trigger member; 118. Connecting shaft; 120. Rocker arm; 122. Connecting groove; 124. Guide groove; 126. Connecting head; 128. Tension spring; 130. Pressure rod; 132. Elastic buffer; 134. Synchronizing rod. 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 5 As shown, the first embodiment of the present invention provides an ice making machine, comprising:

[0031] A first ice mold 100 and a second ice mold 102, wherein the second ice mold 102 is adapted to switch between a fitted position and a separated position relative to the first ice mold 100, an ice pusher 104 being provided on the first ice mold 100, and a connecting shaft 118 being provided on the second ice mold 102;

[0032] Drive components;

[0033] The transmission assembly includes a first connecting rod 106 and a second connecting rod 108. The first connecting rod 106 is connected to the driving assembly and the second ice-making mold 102, and the second connecting rod 108 is connected to the ice-pushing rod 104 and the connecting shaft 118. From the fitting position to the separation position, the first connecting rod 106 is suitable for driving the connecting shaft 118 to move, so that the connecting shaft 118 drives the second connecting rod 108 to move, which will drive at least part of the ice-pushing rod 104 to extend into the first ice-making mold 100.

[0034] According to the first embodiment of the present invention, the ice-making machine provided by the drive assembly and transmission assembly achieves automated ice making and pushing, reducing manual operation and improving work efficiency. When the drive assembly drives the first connecting rod 106, the connecting shaft 118 can follow the first connecting rod 106. Simultaneously, the connecting shaft 118 drives the second connecting rod 108, which in turn drives the ice-pushing rod 104 on the first ice-making mold 100 to extend into the first ice-making mold 100, completing the ice-pushing operation and achieving efficient ice-pushing. The use of a connecting rod mechanism to achieve power transmission and component linkage makes the entire ice-making machine more compact and reduces space usage. The design of the connecting rod mechanism makes the kinematic relationships between the various components more clear and stable, reducing the failure rate and improving the reliability of the device. By optimizing the design of the transmission assembly, the movement of the second ice-making mold 102 and the movement of the ice-pushing rod 104 are more coordinated and efficient, thereby improving ice-making efficiency. Due to its compact structure and clear kinematic relationships, the maintenance and repair of the ice-making machine is simplified and convenient.

[0035] Please continue to see Figures 1 to 5 The first embodiment of the present invention provides an ice making machine, the core structure of which includes a first ice making mold 100, a second ice making mold 102, a driving assembly and a transmission assembly.

[0036] The first and second ice molds 100, 102, are the core components of the ice maker, forming the molds for ice cubes. The second ice mold 102 can move relative to the first ice mold 100 between an attached position and a detached position. When in the attached position, the two molds together form a closed space that can be filled with water and frozen into ice cubes. To remove the ice cubes, the second ice mold 102 moves to the detached position, allowing the ice cubes to be released from the first and second ice molds 100, 102.

[0037] An ice pusher 104 is provided on the first ice mold 100 and is used to push the ice cubes out of the first ice mold 100 after they are formed. The design of the ice pusher 104 allows the ice cubes to be ejected from the mold more easily and cleanly. A connecting shaft 118 is added to the second ice mold 102 and is in driving connection with the first connecting rod 106 and the second connecting rod 108.

[0038] The driving assembly is used to provide power for the moving parts of the ice maker. The driving assembly may include components such as a motor and a gear box, which are used to drive the movement of the second ice-making mold 102 and the operation of the transmission assembly.

[0039] The transmission assembly includes a first connecting rod 106 and a second connecting rod 108. The first connecting rod 106 is in transmission connection with the drive assembly and the second ice mold 102, responsible for transmitting the drive assembly's power to the second ice mold 102, enabling its movement relative to the first ice mold 100. The second connecting rod 108 is in transmission connection with the ice pusher 104. When the second ice mold 102 moves from the attached position to the separated position, the first connecting rod 106 drives the second connecting rod 108, which in turn pushes at least a portion of the ice pusher 104 into the first ice mold 100, completing the ejection of ice cubes.

[0040] like Figure 5 As shown, according to one embodiment of the present invention, a trigger head 110 is provided on the first connecting rod 106, and the driving assembly includes a driving member 112, a first trigger member 114 and a second trigger member 116. In the fitted position, the trigger head 110 is suitable for triggering the first trigger member 114, and in the separated position, the trigger head 110 is suitable for triggering the second trigger member 116. The driving member 112 is suitable for stopping based on the triggering state of the trigger head 110 and the first trigger member 114 and the second trigger member 116.

[0041] In one embodiment of the present invention, a trigger head 110 is added to the first connecting rod 106, and the driving assembly includes a first trigger member 114 and a second trigger member 116. The two trigger members correspond to the attached position and the separated position of the second ice mold 102, respectively.

[0042] The trigger head 110 is disposed on the first connecting rod 106 and moves along with the movement of the first connecting rod 106. The shape and size of the trigger head 110 are designed to be able to reliably contact and trigger the first trigger member 114 and the second trigger member 116.

[0043] The first trigger member 114 and the second trigger member 116 are respectively installed at appropriate positions of the motor to detect the position of the trigger head 110. When the trigger head 110 moves to a certain position, the trigger head 110 triggers the corresponding trigger member, thereby sending a signal to the drive assembly.

[0044] It will be appreciated that the drive assembly includes a drive member 112 (such as a motor) for powering the movement of the second ice mold 102. In this embodiment, the drive assembly is designed to deactivate based on the triggering status of the trigger head 110, the first trigger member 114, and the second trigger member 116. When the trigger head 110 triggers the first trigger member 114, indicating that the second ice mold 102 has reached the attached position, the drive assembly can be deactivated to conserve energy. Similarly, when the trigger head 110 triggers the second trigger member 116, indicating that the second ice mold 102 has reached the separated position and ice cubes have been ejected, the drive assembly can also be deactivated.

[0045] The trigger mechanism can precisely control the moving position of the second ice-making mold 102, thereby ensuring that the shape and size of the ice cubes meet the design requirements. When the driving assembly does not need to operate, the trigger mechanism can stop the driving assembly from working, thereby effectively reducing energy consumption and improving the energy efficiency ratio of the device. The trigger mechanism can avoid problems such as overheating and wear of the driving assembly caused by long-time continuous operation, thereby prolonging the service life of the device. Since the trigger mechanism can automatically detect and control the operating state of the driving assembly, the user can realize the automatic process of ice making and ice pushing without manual operation.

[0046] As shown in Figure 3 and Figure 4 According to one embodiment of the present application, a rocker arm 120 is connected to the first connecting rod 106, a connecting groove 122 is formed in the rocker arm 120, a guide groove 124 is formed in the second connecting rod 108, and the connecting shaft 118 sequentially passes through the guide groove 124 and the connecting groove 122.

[0047] In one embodiment of the present application, the connection mode between the second ice-making mold 102, the first connecting rod 106, the rocker arm 120, and the second connecting rod 108 is innovatively designed. Specifically, the first connecting rod 106 is connected to the second connecting rod 108 through a rocker arm 120. A connecting groove 122 is formed in the rocker arm 120, and a guide groove 124 is formed in the second connecting rod 108. The design of these two grooves enables the connecting shaft 118 to sequentially pass through them, thereby realizing stable connection and transmission between components.

[0048] The connecting shaft 118 is arranged on the second ice-making mold 102 and is used to connect the rocker arm 120 on the first connecting rod 106 and the second connecting rod 108. The shape and size of the connecting shaft 118 are designed to be able to cooperate with the connecting groove 122 on the rocker arm 120 and the guide groove 124 on the second connecting rod 108.

[0049] The rocker arm 120 is connected to the first connecting rod 106 and is used to transmit the movement of the first connecting rod 106 to the second connecting rod 108. The design of the rocker arm 120 enables the rocker arm 120 to swing within a certain range, thereby adapting to the movement of the second ice-making mold 102. The connecting groove 122 is formed at an appropriate position of the rocker arm 120 and is used to accommodate the connecting shaft 118.

[0050] The connecting groove 122 is formed in the rocker arm 120 and is designed in shape and size to cooperate with the connecting shaft 118. When the connecting shaft 118 passes through the connecting groove 122, a stable connection relationship is established between the rocker arm 120 and the second ice-making mold 102.

[0051] A guide groove 124 is provided on the second connecting rod 108 to guide the movement of the connecting shaft 118. The shape and dimensions of the guide groove 124 are designed to fit the connecting shaft 118 and allow the connecting shaft 118 to slide or rotate within a certain range. Thus, when the second ice mold 102 moves, the connecting shaft 118 moves along the guide groove 124, thereby driving the second connecting rod 108 to move accordingly.

[0052] It can be understood that when the first connecting rod 106 moves, the first connecting rod 106 drives the rocking arm 120 to rotate, and the side wall of the connecting groove 122 on the rocking arm 120 abuts against the connecting shaft 118. When the connecting shaft 118 moves, the connecting shaft 118 can move along the guide groove 124 on the second connecting rod 108. When the connecting shaft 118 abuts against the side wall of the guide groove 124, the purpose of driving the second connecting rod 108 to move downward can be achieved. At the same time, the second connecting rod 108 can drive the ice pushing rod 104 to extend into the first ice-making mold 100. Similarly, when the first connecting rod 106 moves in the reverse direction, the groove side wall on the other side of the connecting groove 122 on the rocker arm 120 abuts against the connecting shaft 118. When the connecting shaft 118 moves, it can move in the reverse direction along the guide groove 124 on the second connecting rod 108. When the connecting shaft 118 abuts against the groove side wall on the other side of the guide groove 124, it can drive the second connecting rod 108 to move upward. At the same time, the second connecting rod 108 can drive the ice pushing rod 104 to withdraw from the first ice-making mold 100.

[0053] The coordinated use of the connecting shaft 118, rocker arm 120, connecting slot 122, and guide slot 124 achieves stable transmission between the first connecting rod 106 and the second connecting rod 108. This design reduces energy loss during transmission, thereby improving transmission efficiency. The coordinated use of the connecting shaft 118, rocker arm 120, connecting slot 122, and guide slot 124 ensures a more secure and stable connection between the various components. This ensures that even under significant forces or vibration during the ice-making process, the components maintain a relatively fixed position, ensuring the proper operation of the ice-making machine. This design simplifies and facilitates assembly of the various components. Simply inserting the connecting shaft 118 through the guide slot 124 and the connecting slot 122 in sequence connects the various components. This significantly reduces assembly difficulty and cost. The more secure and stable connection between the various components also improves the reliability of the equipment. This reduces the risk of failures caused by loose or damaged components, thereby extending the service life of the equipment.

[0054] like Figures 3 to 5As shown, according to one embodiment of the present invention, a connecting head 126 is sleeved on the connecting shaft 118, and a tension spring 128 is provided between the connecting head 126 and the rocker arm 120. From the separation position to the fitting position, the tension spring 128 is suitable for tightening the second ice-making mold 102 so that the second ice-making mold 102 and the first ice-making mold 100 fit together.

[0055] In one embodiment of the present invention, the connection between connecting shaft 118 and rocker arm 120 has been further optimized. Specifically, a connector 126 is sleeved on connecting shaft 118, and a tension spring 128 is disposed between connector 126 and rocker arm 120. This design allows tension spring 128 to tighten second ice mold 102 during movement from the separated position to the engaged position, ensuring a tight fit between second ice mold 102 and first ice mold 100.

[0056] The connector 126 is sleeved on the connecting shaft 118 and is used to connect the tension spring 128 and the rocker arm 120. The shape and size of the connector 126 are designed to be closely matched with the connecting shaft 118. At the same time, the connector 126 is also provided with a hook or hole for installing the tension spring 128.

[0057] A tension spring 128 is disposed between the connector 126 and the rocker arm 120 to provide tension. The shape and dimensions of the tension spring 128 are designed to be stretchable within a certain range. When the second ice mold 102 moves from the separated position to the engaged position, the tension spring 128 is stretched, generating a tension force that allows the second ice mold 102 to fit tightly against the first ice mold 100.

[0058] That is, when the second ice-making mold 102 moves from the separated position to the fitted position, the tension spring 128 is always in a stretched state. During this process, the tension spring 128 always tightens the second ice-making mold 102 by tightening the connecting shaft 118. When the second ice-making mold 102 moves to the fitted position, the tension spring 128 is still in a stretched state, thereby ensuring that the second ice-making mold 102 fits tightly with the first ice-making mold 100.

[0059] The pulling force of the tension spring 128 can ensure that the second ice-making mold 102 and the first ice-making mold 100 can maintain close contact when being attached, thereby improving the forming quality and precision of ice cubes. The presence of the tension spring 128 makes the connection between components more firm and stable. Even if subjected to a larger force or vibration during ice making, the components can maintain a relatively fixed positional relationship, thereby ensuring the normal operation of the ice maker. Since the tension spring 128 can automatically provide a pulling force, the user does not need to manually operate to achieve the attachment of the second ice-making mold 102 and the first ice-making mold 100. This greatly simplifies the operation process and improves work efficiency. The design of the tension spring 128 enables the device to maintain good attachment effect after a long time of operation, thereby reducing the failure rate caused by loose or damaged components. By sleeving the connecting head 126 on the connecting shaft 118 and arranging the tension spring 128 between the connecting head 126 and the rocker arm 120, the ice maker of the utility model not only realizes the close attachment of the second ice-making mold 102 and the first ice-making mold 100, but also improves the attachment precision, enhances the structural stability, simplifies the operation process, and improves the reliability of the device.

[0060] According to an embodiment of the utility model, from the attachment position to the separation position, the connecting shaft 118 is adapted to abut against the first slot side wall of the guide slot 124 to make the second connecting rod 108 drive at least part of the ice pushing rod 104 to extend into the first ice-making mold 100, and from the separation position to the attachment position, the connecting shaft 118 is adapted to abut against the second slot side wall of the guide slot 124 to make the second connecting rod 108 drive the ice pushing rod 104 to exit the first ice-making mold; wherein the first slot side wall and the second slot side wall are oppositely arranged.

[0061] In an embodiment of the utility model, the interaction between the connecting shaft 118 and the guide slot 124 is designed in detail. Specifically, when the second ice-making mold 102 moves from the attachment position to the separation position, the connecting shaft 118 will abut against the first slot side wall of the guide slot 124, thereby driving the second connecting rod 108 to act, so that at least part of the ice pushing rod 104 extends into the first ice-making mold 100 to push out ice cubes. Conversely, when the second ice-making mold 102 moves from the separation position to the attachment position, the connecting shaft 118 will abut against the second slot side wall of the guide slot 124, thereby driving the second connecting rod 108 to act in reverse, so that the ice pushing rod 104 exits the first ice-making mold 100.

[0062] As mentioned earlier, the connecting shaft 118 is arranged on the second ice-making mold 102 and connected with the tension spring 128 and the rocker arm 120 through the connecting head 126. In this embodiment, the shape and size of the connecting shaft 118 are designed to be able to cooperate with the guide slot 124 and abut against the first slot side wall and the second slot side wall during movement.

[0063] Guide groove 124 is defined along the length of second connecting rod 108 and serves to guide the movement of connecting shaft 118. Guide groove 124 is designed to have a first sidewall and a second sidewall. These two sidewalls are positioned opposite each other and correspond to the separated and engaged positions of second ice mold 102, respectively. As connecting shaft 118 moves along guide groove 124, it contacts the first and second sidewalls, respectively, driving second connecting rod 108 to perform the corresponding movement.

[0064] As previously mentioned, the second connecting rod 108 is in transmission connection with the ice pushing rod 104. In this embodiment, the design of the second connecting rod 108 enables it to drive the ice pushing rod 104 to push ice or withdraw from the first ice mold 100 when the connecting shaft 118 abuts against the groove sidewall of the guide groove 124.

[0065] The abutment between the connecting shaft 118 and the sidewalls of the guide groove 124 automatically drives the second connecting rod 108, thereby automating the operation of the ice-pushing lever 104. This significantly improves the automation and operating efficiency of the ice-making machine. The clear and stable fit between the connecting shaft 118 and the sidewalls of the guide groove 124 ensures accurate control of the position and force of the ice-pushing lever 104 during its extension and retraction, thereby improving ice-pushing accuracy and ice quality. This design avoids the use of complex transmission mechanisms and control systems, resulting in a simpler and more streamlined structure for the ice-making machine, reducing manufacturing costs and maintenance. The clear and stable connections and transmission relationships between the various components enhance the reliability of the device, reducing the failure rate caused by loose or damaged components and extending the device's service life. Through the abutment between the connecting shaft 118 and the sidewalls of the guide groove 124, the ice-making machine design of the present invention not only achieves automated ice-pushing, but also improves ice-pushing accuracy, simplifies the structural design, and enhances device reliability.

[0066] like Figure 3 As shown, according to one embodiment of the present invention, a pressure rod 130 is provided at a position corresponding to the second groove side wall of the guide groove 124, and an elastic buffer 132 is provided between the pressure rod 130 and the second groove side wall.

[0067] In one embodiment of the present invention, the design of guide groove 124 has been further optimized. Specifically, a pressure rod 130 is added at the position corresponding to the second groove sidewall of guide groove 124, and an elastic buffer member 132 is provided between pressure rod 130 and the second groove sidewall. This design is intended to improve the stability and durability of the ice maker during operation.

[0068] The pressure rod 130 is disposed on the second sidewall of the guide groove 124 and is configured to contact the connecting shaft 118 at a specific stage. The shape and size of the pressure rod 130 are designed to cooperate with the connecting shaft 118. When the connecting shaft 118 moves along the guide groove 124 to a position corresponding to the second sidewall, the connecting shaft 118 contacts the pressure rod 130.

[0069] An elastic buffer 132 is disposed between the pressure rod 130 and the sidewall of the second groove to provide a cushioning effect. The elastic buffer 132 can be made of rubber, a spring, or other elastic material. When the connecting shaft 118 contacts the pressure rod 130, the elastic buffer 132 absorbs some of the impact force, thereby protecting the various components of the ice maker from damage.

[0070] By adding the pressure rod 130 and the elastic buffer 132, the impact of the connecting shaft 118 on the guide groove 124 and the second connecting rod 108 during movement can be reduced, thereby improving the stability of the ice maker during operation. The elastic buffer 132 can also absorb some of the impact force, thereby extending the service life of the various components of the ice maker and enhancing the durability of the equipment. The design of the pressure rod 130 and the elastic buffer 132 can make the connecting shaft 118 more stable during movement, avoiding excessive vibration or shaking, and thus optimizing the movement trajectory of the connecting shaft 118. Since the ice maker is more stable and durable during operation, users can enjoy a smoother and more reliable ice-making experience.

[0071] More importantly, when the connecting shaft 118 contacts the pressure rod 130, if the ice-pushing rod 104 is unable to push the ice cubes in the first ice-making mold 100, as the driving member 112 continues to move, the elastic buffer member 132 will gradually accumulate energy, thereby increasing the pressure applied to the ice-pushing rod 104. When the ice cubes in the first ice-making mold 100 gradually separate from the first ice-making mold 100, the ice-pushing rod 104 will apply greater pressure to the ice cubes in the first ice-making mold 100 so that the ice cubes in the first ice-making mold 100 are quickly pushed out.

[0072] like Figures 3 to 5 As shown, according to one embodiment of the present invention, there are at least two first ice-making molds 100 , and the ice-pushing rods 104 are provided in one-to-one correspondence with the first ice-making molds 100 . A synchronization rod 134 is connected between the ice-pushing rods 104 .

[0073] In one embodiment of the present invention, the structure of the ice maker is further optimized. Specifically, there are at least two first ice molds 100, each of which is equipped with an ice pusher 104. Furthermore, a synchronization rod 134 is connected between the ice pushers 104 to ensure they maintain synchronized motion when pushing ice cubes.

[0074] As mentioned above, the first ice-making mold 100 is used to make ice cubes. In this embodiment, the number of the first ice-making molds 100 is designed to be at least two to meet the demand of making multiple ice cubes at the same time.

[0075] The ice push rods 104 are provided in one-to-one correspondence with the first ice molds 100 for pushing out the ice cubes in the corresponding first ice molds 100. The shape and size of the ice push rods 104 are designed to cooperate with the ice cube pushing port of the first ice mold 100 to ensure that the ice cubes can be pushed out smoothly.

[0076] A synchronization rod 134 is connected between the multiple ice pushers 104 to ensure that they maintain synchronized motion when pushing ice cubes. The synchronization rod 134 is designed so that when one ice pusher 104 moves, the other ice pushers 104 also move accordingly, thereby achieving synchronized pushing of multiple ice cubes. The synchronization rod 134 is also connected to the second connecting rod 108.

[0077] By increasing the number of first ice-making molds 100 and providing corresponding ice-pushing rods 104, the ice-making machine can simultaneously produce and push out multiple ice cubes, thereby improving ice-making efficiency. Since each first ice-making mold 100 is provided with a corresponding ice-pushing rod 104, and these ice-pushing rods 104 are connected by a synchronization rod 134, it can be ensured that each ice cube is subjected to uniform force when being pushed out, thereby ensuring the quality of the ice cube. The design of the synchronization rod 134 eliminates the need for the user to operate each ice-pushing rod 104 separately. Multiple ice cubes can be pushed out synchronously with a single operation, thereby simplifying the operating process. Since the connection and transmission relationship between the various components is clear and stable, the reliability of the equipment is improved. This reduces the failure rate caused by loose or damaged components and extends the service life of the equipment.

[0078] According to one embodiment of the present invention, a through hole is formed on the top of the first ice-making mold 100 , and the ice-pushing rod 104 is movably inserted into the through hole.

[0079] In one embodiment of the present invention, the structure of the first ice-making mold 100 is further optimized. Specifically, the top of the first ice-making mold 100 is designed to have through holes, and the ice-pushing rods 104 are designed to be movably inserted into these through holes.

[0080] The top of the first ice mold 100 is designed with through holes, the shape and size of which are designed to fit the ice pushers 104. In other words, the through holes are provided on the top of the first ice mold 100 to accommodate the ice pushers 104. The position and number of the through holes correspond to the ice pushers 104, ensuring that each ice pusher 104 can be accurately inserted into the corresponding through hole.

[0081] Because the ice-pushing rod 104 is movably inserted into the through-hole of the first ice-making mold 100, it is ensured that the ice cubes are subjected to uniform force when being pushed out, thereby improving the efficiency of ice-pushing. The design of the through-hole allows the ice-pushing rod 104 to push the ice cubes more smoothly, avoiding excessive impact or vibration, thereby ensuring the integrity of the ice cubes. This design avoids the use of complex transmission mechanisms and control systems, making the structural design of the ice-making machine more concise and clear, reducing manufacturing costs and maintenance difficulties. Because the connection between the ice-pushing rod 104 and the first ice-making mold 100 is clear and stable, the reliability of the equipment is improved. This reduces the failure rate caused by loose or damaged components and extends the service life of the equipment.

[0082] In addition, it should be noted that the through hole is also used to realize the function of injecting water into the first ice-making mold 100 .

[0083] According to an embodiment of the present invention, the ice pushing rod 104 is a metal ice pushing rod 104 , and a heating element is wound around the ice pushing rod 104 .

[0084] In one embodiment of the present invention, an innovative design is made to the material and structure of the ice-pushing rod 104. Specifically, the ice-pushing rod 104 is designed to be made of metal, and a heating element is wound around the ice-pushing rod 104.

[0085] The metal ice pusher 104 has high strength and good thermal conductivity. The selection of metal material can ensure that the ice pusher 104 has sufficient strength and durability when pushing ice cubes, and the good thermal conductivity of metal also provides convenience for the use of the heating element.

[0086] A heating element is wound around the metal ice pusher 104 to heat it. The heating element can be made of materials such as heating wire or a heating plate, and generates heat when energized. The design of the heating element allows the ice pusher 104 to quickly heat up when it contacts the ice, thereby reducing the adhesion between the ice and the ice pusher 104, and between the ice and the first ice mold 100, making it easier to push the ice out.

[0087] Since the heating element heats the ice-pushing rod 104, the adhesion between the ice cubes and the ice-pushing rod 104 is reduced, so the ice cubes can be pushed out of the ice mold more easily, which improves the efficiency of pushing out the ice cubes. The traditional method of pushing ice may generate a large friction between the ice cubes and the ice-pushing rod 104, causing the ice cubes to break. The design of the heating element can reduce this friction, thereby preventing the ice cubes from breaking during the pushing process. The use of the heating element can make the ice cubes easier to push out, so the user does not need to operate the ice-pushing rod 104 with excessive force, simplifying the operation process. By adopting a metal ice-pushing rod 104 and winding a heating element thereon, the ice-making machine design of the present invention has achieved remarkable results in improving the efficiency of pushing out ice cubes, preventing ice cubes from breaking, simplifying the operation process and enhancing equipment reliability.

[0088] A second embodiment of the present invention provides a refrigeration device, comprising a refrigeration compartment, in which the above-mentioned ice maker is arranged.

[0089] A second embodiment of the present invention provides a refrigeration device comprising a refrigeration compartment, wherein the refrigeration compartment has an integrated ice maker as previously described. This design integrates the ice making function directly into the refrigeration device, providing a more convenient and integrated user experience.

[0090] The refrigeration compartment is the main component of refrigeration equipment, is used to provide low temperature environment to preserve food, beverage or other articles that need to be refrigerated.In this embodiment, the refrigeration compartment is designed to can hold and move ice making machine.

[0091] The ice maker is designed and manufactured according to the previously described embodiment, and includes at least two first ice molds 100, ice pushers 104 corresponding to the first ice molds 100, and a synchronization rod 134 connected between the ice pushers 104. The ice maker is installed at an appropriate location in the refrigeration compartment to make ice cubes when needed.

[0092] By directly integrating the ice maker into the refrigeration unit, functional integration is achieved, providing users with a more convenient user experience. Users can enjoy the ice-making function of the refrigeration unit without having to purchase and install a separate ice maker. Because the ice maker is installed directly in the refrigeration room, the internal space of the refrigeration unit can be fully utilized, avoiding the problem of occupying additional external space. The low temperature environment inside the refrigeration unit provides ideal ice-making conditions for the ice maker, thereby improving ice-making efficiency. Furthermore, because the ice maker and the refrigeration unit share the same power supply and cooling system, energy is used more efficiently. Since the ice maker is integrated into the refrigeration unit, its maintenance and servicing can be combined with the routine maintenance of the refrigeration unit, reducing maintenance costs and complexity.

[0093] 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 and a second ice-making mold, wherein the second ice-making mold is adapted to switch between a fitted position and a separated position relative to the first ice-making mold, the first ice-making mold is provided with an ice-pushing rod, and the second ice-making mold is provided with a connecting shaft; Drive components; The transmission assembly includes a first connecting rod and a second connecting rod. The first connecting rod is transmission-connected to the drive assembly and the second ice-making mold, and the second connecting rod is transmission-connected to the ice-pushing rod and the connecting shaft. From the fitting position to the separation position, the first connecting rod is suitable for driving the connecting shaft to move, so that the connecting shaft drives the second connecting rod to move at least a portion of the ice-pushing rod into the first ice-making mold.

2. The ice making machine according to claim 1, wherein: A trigger head is provided on the first connecting rod, and the driving assembly includes a driving member, 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 driving member is suitable for stopping based on the triggering state of the trigger head, the first trigger member and the second trigger member.

3. The ice making machine according to claim 1, wherein: The first connecting rod is connected to a rocker arm, the rocker arm is provided with a connecting groove, the second connecting rod is provided with a guide groove, and the connecting shaft passes through the guide groove and the connecting groove in sequence.

4. The ice making machine according to claim 3, wherein: A connecting head is sleeved on the connecting shaft, and a tension spring is provided between the connecting head and the rocker arm. From the separation position to the fitting position, the tension spring is suitable for tightening the second ice-making mold so that the second ice-making mold and the first ice-making mold fit together.

5. The ice making machine according to claim 3, wherein: When the connecting shaft abuts against the first side wall of the guide groove from the engaging position to the disengaging position, the connecting shaft is adapted to abut against the first side wall of the guide groove so that the second connecting rod drives at least a portion of the ice-pushing rod to extend into the first ice-making mold; when the connecting shaft abuts against the second side wall of the guide groove from the disengaging position to the engaging position, the connecting shaft abuts against the second side wall of the guide groove so that the second connecting rod drives the ice-pushing rod to exit the first ice-making mold; Wherein, the first groove side wall and the second groove side wall are arranged opposite to each other.

6. The ice making machine according to claim 5, characterized in that A pressure rod is provided at a position of the guide groove corresponding to the side wall of the second groove, and an elastic buffer is provided between the pressure rod and the side wall of the second groove.

7. The ice making machine according to any one of claims 1 to 6, characterized in that: There are at least two first ice-making molds, and the ice-pushing rods are arranged in one-to-one correspondence with the first ice-making molds. A synchronization rod is connected between the ice-pushing rods.

8. The ice making machine according to claim 7, characterized in that A through hole is provided on the top of the first ice-making mold, and the ice-pushing rod is movably arranged through the through hole.

9. The ice making machine according to any one of claims 1 to 6, characterized in that: The ice pushing rod is a metal ice pushing rod, and a heating element is wound around the ice pushing rod.

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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