Embedded refrigerator connecting structure based on smart home integrated cabinet

Abstract

The utility model relates to the field of embedded refrigerator installation, specifically is a kind of embedded refrigerator connecting structure based on smart home integrated cabinet, including cabinet, cabinet door, baffle and socket being arranged in the other side of baffle;Baffle downside is equipped with sliding slot, sliding member is embedded in sliding slot and can slide, and the clamping groove is opened on sliding member, and the clamping groove is equipped with silica gel cover, for fixing plug;Sliding slot downside is equipped with wire slot, for accommodating power cord, and sliding slot end is equipped with through-hole, and plug can pass through through-hole and be connected with socket.The installation, plug is prearranged in silica gel cover, and power cord is pushed to drive sliding member to move, so that plug is automatically guided through-hole and completes plug-in, realizes accurate positioning and quick connection.The utility model effectively solves the problem that power plug is difficult to butt joint in the installation process of existing embedded refrigerator, has the advantages of convenient installation, accurate positioning, reduce wire bending damage and improve safety and aesthetic degree, applicable to the power connection scene of smart home and various embedded appliances.

Description

Technical Field

[0001] This utility model relates to the field of embedded refrigerator installation, specifically an embedded refrigerator connection structure based on a smart home integrated cabinet. Background Technology

[0002] The common installation process for built-in refrigerators involves "pre-installed power cord for the refrigerator – manual insertion of the plug into the cabinet – searching for the socket in the confined space." This method has significant shortcomings. Because built-in refrigerators need to be installed within the limited space of the cabinet, the space between the refrigerator and the wall or cabinet back panel is often extremely small. After pushing the refrigerator into place, installers can hardly reach behind it to accurately locate the socket, and can only complete the connection by repeatedly trying and blindly inserting the plug. This not only makes the installation process time-consuming and laborious, but also frequently results in the plug not being fully inserted, the plug pins being misaligned, or even scratching the socket port, leading to poor power contact or safety hazards. Especially in high-power appliances, the reliability of the power connection is crucial, and the current blind insertion method is clearly insufficient to meet the requirements of efficiency and safety. Therefore, the background technology lacks a structure that can achieve precise plug guidance and automatic positioning, resulting in a cumbersome installation process and a low success rate.

[0003] The power cord of existing built-in refrigerators is typically led directly from the rear of the refrigerator and then manually guided to the socket. Due to the compact cabinet space, the power cord often needs to be bent, compressed, or even made to sharp corners to fit the limited installation space. This arrangement not only easily leads to pressure damage to the surface insulation layer of the power cord, but also increases resistance and the risk of overheating, thus shortening the lifespan of the power cord. In some cases, the power cord is squeezed between the cabinet and the wall, and is in a bent state for a long time, which may cause insulation damage or internal copper wire breakage, potentially leading to leakage or fire in severe cases. In addition, since there is no dedicated cable tray or guiding mechanism, the power cord is often piled up or suspended after installation, which not only affects the aesthetics of the cabinet interior, but also causes inconvenience for subsequent maintenance. It is clear that the background technology does not provide a reasonable solution for cable management and guidance, and cannot effectively ensure the smoothness and safety of the cable during installation and use.

[0004] In traditional solutions, refrigerator plugs are inserted manually without any guides or cushioning mechanisms. During insertion, uneven force is often applied due to angle deviations, leading to difficulties in insertion or even bending of the plug prongs or damage to the socket. Furthermore, existing technology lacks effective limiting and protection measures, making the plug susceptible to loosening due to cord pulling after insertion, further compromising the reliability of the electrical connection. In addition, traditional sockets are typically standard fixed sockets, lacking integration with smart home systems, preventing remote monitoring and control, resulting in low levels of security and smart features. Therefore, existing technology cannot simultaneously achieve ease of insertion, connection stability, and electrical safety. A new connection structure with guiding, limiting, and cushioning functions is urgently needed to improve the overall installation and user experience. Utility Model Content

[0005] The purpose of this utility model is to provide an embedded refrigerator connection structure based on a smart home integrated cabinet, so as to solve the technical problems mentioned in the background art.

[0006] Based on the above ideas, this utility model provides the following technical solution:

[0007] An embedded refrigerator connection structure based on a smart home integrated cabinet includes a cabinet body (1).

[0008] Cabinet door (2) hinged to the cabinet body (1);

[0009] A partition (3) is provided inside the cabinet (1), and a sliding groove (8) is provided on the lower side of the partition (3).

[0010] A sliding member (5) is embedded in the sliding groove (8) and can slide along the sliding groove (8). A slot (6) is provided on the sliding member (5).

[0011] A silicone sleeve (10) is fitted into the slot (6) to fix the plug;

[0012] A wire groove (7) is provided on the underside of the slide groove (8) for accommodating wires;

[0013] A through hole (9) is provided at the end of the stroke of the slide groove (8);

[0014] The socket (4) is fixed to the inner wall of the cabinet on the side opposite to the partition (3);

[0015] During installation, the plug is inserted into the silicone sleeve (10) and the wire is inserted into the wire groove (7), which pushes the slider (5) to move in the groove (8), so that the plug passes through the through hole (9) and is connected to the socket (4) on the other side of the partition (3).

[0016] Preferably, the silicone sleeve (10) is made of elastic material to buffer the friction between the plug and the slot (6) and enhance the positioning and fixing effect.

[0017] Preferably, the wire groove (7) extends along the length of the slide groove (8) and matches the sliding member (5) to ensure that the wire remains smooth when pushing the sliding member (5) to move.

[0018] Preferably, the through hole (9) is provided corresponding to the socket (4) to ensure that the plug can directly connect with the socket (4) after it passes through the through hole (9).

[0019] Preferably, the sliding member (5) and the groove (8) are in a sliding fit or a rolling fit to reduce sliding resistance.

[0020] Preferably, the partition (3) is a detachable structure to facilitate maintenance or replacement of the wires and sliding parts (5).

[0021] Preferably, the inner wall of the groove (8) is provided with a limiting protrusion to limit the travel of the sliding member (5).

[0022] Preferably, the socket (4) is a smart socket, which can be remotely controlled and monitored for electricity consumption through a smart home system, and the silicone sleeve (10) has different specifications to adapt to different models of power plugs.

[0023] Working principle and its beneficial effects:

[0024] Firstly, in a typical installation scenario, a built-in refrigerator needs to be placed inside a cabinet, where space is limited. Power outlets are often fixed to the wall or the back of a shelf on one side of the cabinet. In this situation, the operator must maneuver the refrigerator's power cord to the outlet in the confined space and then plug it in based on experience or trial and error. This is not only time-consuming and laborious but also poses risks such as improper insertion, damaged plug, or excessively bent wire. This invention addresses this by pre-setting a groove under the shelf and embedding a freely sliding component within the groove. Combined with a slot on the sliding component and an internal silicone sleeve, this achieves the fixing, guiding, and movement of the plug.

[0025] Specifically, before installation, the operator first inserts the refrigerator power plug into the silicone sleeve in the sliding slot. The silicone sleeve has a certain degree of elasticity and friction, which can securely limit the plug's position while preventing the metal prongs from directly rubbing against the sliding component, thus providing a cushioning protection. Once the plug is engaged in the silicone sleeve, it can move smoothly within the sliding groove with the sliding component.

[0026] Meanwhile, the power cord is housed in a cable tray beneath the partition. The cable tray extends along the sliding groove and engages with a sliding component to ensure the cord remains straight as the plug is moved, preventing tangling, bending, or compression. This design guarantees the reliability of the cord's lifespan and avoids increased resistance or safety hazards.

[0027] In practice, installers can easily slide the connector along the groove by gently pushing the power cord. As the connector moves forward, the plug gradually approaches the pre-set through-hole at the end of the groove. When the connector reaches its travel limit, the plug emerges from the through-hole and is exposed on the other side of the partition. Because the through-hole and the socket are pre-aligned, the plug, once pushed out of the through-hole, is positioned precisely in the socket's opening. At this point, a gentle push is all it takes to complete the connection.

[0028] This process fully utilizes the cooperative relationship between the guide rail and the sliding component, transforming the originally complex process of manually finding the socket into a process where the wire pushes the plug to automatically locate itself. Through structural constraints and guidance, the plug and socket can be quickly and accurately aligned, greatly improving installation efficiency and accuracy.

[0029] Furthermore, to prevent the plug from wobbling or misaligning during sliding, the inner wall of the slide can be designed to match the shape of the sliding component and equipped with limiting protrusions to prevent the sliding component from exceeding the preset stroke, ensuring that the plug accurately stops at the through hole. Simultaneously, the presence of a silicone sleeve further enhances the stability of the plug, preventing it from shifting even when pushed or slightly shaken.

[0030] After the connection is complete, the wires remain neatly arranged in the cable tray below the partition, without being exposed or suspended, thus maintaining the overall aesthetics and safety of the cabinet interior. If disassembly or maintenance is required, simply push the wires in the reverse direction; the plug will then slide out of the through-hole and back into the cable tray, making the entire process simple and easy.

[0031] The working principle of this utility model not only solves the problem of plug and socket docking in the installation of embedded refrigerators, but also reflects intelligence and humanization in many details. For example, if the socket is a smart socket, it can also realize remote power on / off or power monitoring through a smart home system, making the connection structure more advantageous in terms of electrical safety and intelligent control. At the same time, the silicone sleeve can be replaced according to different plug specifications, further enhancing the adaptability of the connection structure. Attached Figure Description

[0032] Figure 1 This is a schematic diagram of the main structure of the embedded refrigerator connection structure based on a smart home integrated cabinet of this utility model when closed.

[0033] Figure 2This is a schematic diagram of the main structure of the embedded refrigerator connection structure based on a smart home integrated cabinet when it is opened.

[0034] Figure 3 This is a front view of an embedded refrigerator connection structure based on a smart home integrated cabinet according to this utility model.

[0035] Figure 4 This utility model relates to an embedded refrigerator connection structure based on a smart home integrated cabinet. Figure 1 Enlarged diagram of point A in the middle.

[0036] In the diagram, 1. Cabinet body; 2. Cabinet door; 3. Shelf; 4. Socket; 5. Sliding part; 6. Card slot; 7. Cable channel; 8. Slide track; 9. Through hole; 10. Silicone sleeve. Detailed Implementation

[0037] like Figures 1-4 As shown, this embodiment of an embedded refrigerator connection structure based on a smart home integrated cabinet includes a cabinet body 1, a cabinet door 2, a partition 3, a socket 4, a sliding member 5, a card slot 6, a wire channel 7, a sliding groove 8, a through hole 9, and a silicone sleeve 10.

[0038] Cabinet 1 is part of the smart home system and is used to house the built-in refrigerator. Cabinet 1 is connected to cabinet door 2 by hinges, which can be opened or closed to achieve a sealed and aesthetically pleasing effect for the refrigerator and the cabinet as a whole. A partition 3 is fixedly installed inside cabinet 1, which divides the cabinet space into two parts: a refrigerator housing cavity and a power connection cavity, thus forming an independent structural layout.

[0039] A sliding groove 8 is provided on the lower side of the partition 3. The sliding groove 8 extends horizontally and its cross-sectional shape is preferably rectangular. The sliding member 5 is embedded in the sliding groove 8 and can slide freely along the sliding groove 8 in the horizontal direction. A slot 6 is provided at the front end of the sliding member 5. The cross-sectional dimensions of the slot 6 are adapted to the plug of a common household refrigerator. A silicone sleeve 10 is fitted inside the slot 6. The silicone sleeve 10 is made of flexible silicone material and has good elasticity and cushioning performance. It is used to stabilize and fix the plug during sliding and prevent the plug from shaking or scratching.

[0040] A wire groove 7 is also provided on the lower side of the partition 3. The wire groove 7 is set parallel to the sliding groove 8 to accommodate the refrigerator power cord, ensuring that the power cord is evenly stressed during sliding and avoiding bending or tangling. A through hole 9 is provided at the end of the wire groove 7, which passes through the partition 3 and corresponds to the position of the socket 4. When the sliding member 5 is pushed to the end of the sliding groove 8, the plug passes through the through hole 9, thus enabling it to be plugged into the socket 4. The socket 4 is fixedly installed on the inner wall of the cabinet on the other side of the partition 3, and the socket 4 can be a smart socket, supporting remote control and power monitoring functions.

[0041] During the actual installation process, the built-in refrigerator is first pushed into the receiving space of cabinet 1. Before proceeding, the installer first inserts the refrigerator power plug into the slot 6 of the sliding member 5. Because the slot 6 is fitted with a silicone sleeve 10, the plug is held in place by a certain amount of friction when inserted, thus firmly fixing it to the sliding member 5 without loosening. Subsequently, the refrigerator power cord is neatly placed into the cable tray 7 below the shelf 3, ensuring that the power cord moves in the same direction as the sliding member 5.

[0042] The installer simply pushes the power cord gently, and the slider 5 slides slowly along the groove 8. As the slider 5 moves forward, the plug is guided forward by the stabilizing effect of the silicone sleeve 10, eventually protruding from the other side of the partition 3 through the through hole 9. Because the installation positions of the through hole 9 and the socket 4 are pre-designed and accurately aligned, the plug corresponds perfectly to the socket 4 after it extends. The installer only needs to apply a small amount of force to easily insert the plug into the socket and establish a power connection. The entire process eliminates the need for manual searching for sockets behind cabinets or in confined spaces, greatly improving installation efficiency.

[0043] During disassembly or maintenance, the operator only needs to pull the power cord in the opposite direction, and the sliding part 5 will drive the plug out of the socket 4 and retract into the slide groove 8 through the through hole 9. The whole process is smooth and convenient.

[0044] As can be seen from the above embodiments, the embedded refrigerator connection structure of this utility model fully considers the convenience of installation, the rationality of wiring arrangement, and safety in its structural design. Its working principle is based on the guiding effect of the sliding groove and sliding component, combined with the fixing effect of the slot and silicone sleeve, achieving precise movement and automatic positioning of the plug within a limited space. Compared with the traditional manual insertion method, this utility model can significantly improve installation efficiency, reduce the risk of misoperation, and ensure the neatness and aesthetics of the cabinet interior, possessing high practical value and promising prospects for promotion.

Claims

1. An embedded refrigerator connection structure based on a smart home integrated cabinet, characterized in that, include: Cabinet (1); Cabinet door (2) hinged to the cabinet body (1); A partition (3) is provided inside the cabinet (1), and a sliding groove (8) is provided on the lower side of the partition (3). A sliding member (5) is embedded in the sliding groove (8) and can slide along the sliding groove (8). A slot (6) is provided on the sliding member (5). A silicone sleeve (10) is fitted into the slot (6) to fix the plug; A wire groove (7) is provided on the underside of the slide groove (8) for accommodating wires; A through hole (9) is provided at the end of the stroke of the slide groove (8); The socket (4) is fixed to the inner wall of the cabinet on the side opposite to the partition (3); During installation, the plug is inserted into the silicone sleeve (10) and the wire is inserted into the wire groove (7), which pushes the slider (5) to move in the groove (8), so that the plug passes through the through hole (9) and is connected to the socket (4) on the other side of the partition (3).

2. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 1, characterized in that, The silicone sleeve (10) is made of elastic material and is used to buffer the friction between the plug and the slot (6) to enhance the positioning and fixing effect.

3. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 2, characterized in that, The wire groove (7) extends along the length of the slide groove (8) and matches the sliding member (5) to ensure that the wire remains smooth when pushing the sliding member (5) to move.

4. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 3, characterized in that, The through hole (9) is provided in correspondence with the socket (4) to ensure that the plug can be directly connected to the socket (4) after it passes through the through hole (9).

5. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 4, characterized in that, The sliding member (5) and the groove (8) are in a sliding fit or a rolling fit to reduce sliding resistance.

6. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 5, characterized in that, The partition (3) is a detachable structure to facilitate maintenance or replacement of wires and sliding parts (5).

7. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 6, characterized in that, The inner wall of the groove (8) is provided with a limiting protrusion to limit the travel of the sliding member (5).

8. The embedded refrigerator connection structure based on a smart home integrated cabinet according to claim 6, characterized in that, The socket (4) is a smart socket, which can be remotely controlled and monitored for electricity consumption through a smart home system. The silicone sleeve (10) has different specifications to adapt to different models of power plugs.

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