Building thermal insulation wall

Abstract

The utility model belongs to the technical field of building heat preservation, and particularly relates to a building heat preservation wall. Comprising a building wall body, a heat preservation wall plate is arranged on the building wall body, the heat preservation wall plate is connected with the building wall body through an assembling assembly, and the heat preservation wall plate is assembled on the building wall body through the assembling assembly; the heat exchange coil pipe is arranged between the building wall body and the heat preservation wall plate, and indoor and outdoor heat exchange is achieved through circulating water; the heat exchange groove is formed in the heat preservation wall plate and used for the heat exchange coil pipe to achieve indoor and outdoor heat exchange; the clamping assembly is arranged on the building wall body and used for installing the heat exchange coil pipe between the building wall body and the heat preservation wall plate; the clamping assembly comprises a fixing plate arranged on a building wall; the bolt holes are formed in the two sides of the fixing plate; the buckles are arranged on the fixing plate, and the buckles are evenly distributed in the length direction of the fixing plate at intervals. The utility model provides a building thermal insulation wall which can be used for quickly dismounting and mounting a pipeline and is convenient to replace.

Description

Technical Field

[0001] This utility model belongs to the field of building insulation technology, and particularly relates to building insulation walls. Background Technology

[0002] Existing building structures are all made of concrete walls. This type of wall structure is simple. If people living inside want to get the same temperature as outside, they can only open the windows. However, when the outside temperature is very low, the indoor temperature is still low even with the windows open because there is no sunlight. Meanwhile, the outdoor surfaces exposed to sunlight have a high temperature. If the indoor walls could exchange heat with the outdoor walls, then people could enjoy the higher outdoor temperature indoors. Currently, the walls use circulating water to achieve heat exchange between the indoor and outdoor areas, thus creating a day-night temperature difference.

[0003] However, the pipes used for water circulation heat exchange are usually fixed between the building walls and the insulation wall panels. When the pipes are damaged or need to be repaired, they cannot be quickly disassembled, which delays the repair efficiency. The installation is also more complicated and the replacement is inconvenient. Utility Model Content

[0004] The purpose of this utility model is to address the aforementioned technical problems by providing a building insulation wall that allows for quick disassembly and installation of pipes and facilitates replacement.

[0005] In view of this, the present invention provides a building insulation wall, comprising:

[0006] The building wall is equipped with an insulated wall panel. The insulated wall panel is connected to the building wall through an assembly component, which assembles the insulated wall panel onto the building wall.

[0007] Heat exchange coils are installed between the building walls and insulation wall panels to achieve heat exchange between the indoor and outdoor spaces using circulating water.

[0008] The heat exchange trough is installed on the insulated wall panel and is used by the heat exchange coil to achieve indoor and outdoor heat exchange.

[0009] The snap-fit ​​assembly, installed on the building wall, is used to install the heat exchange coil between the building wall and the insulation wall panel;

[0010] The card-connecting components include:

[0011] A fixed plate, installed on the building wall;

[0012] Bolt holes are located on both sides of the fixing plate;

[0013] The buckle is set on the fixing plate. There are several buckles, which are evenly spaced along the length of the fixing plate.

[0014] Furthermore, in the above technical solution, the buckle has elastic deformation capability and can undergo elastic deformation when an external force is applied; when it is used in conjunction with the heat exchange coil, it can form a reliable clamping constraint on the heat exchange coil by means of its own elastic recovery force, thereby stably clamping the heat exchange coil and ensuring the stability of the heat exchange coil in the connected state.

[0015] In any of the above technical solutions, furthermore, external pipes are provided on both sides of the lower end of the heat exchange coil, and adapter caps are provided on the external pipes. The outer end of the external pipes is connected to the micro circulation pump through the adapter caps.

[0016] In any of the above technical solutions, the heat exchange tank is further provided with fins to increase the heat exchange area. The fins are located outside the heat exchange coil and are fixed in the heat exchange tank by a mounting assembly.

[0017] In any of the above technical solutions, the installation components further include:

[0018] The limiting frame is located inside the rear side of the heat exchange tank;

[0019] Through holes are formed around the perimeter of the limiting frame;

[0020] The connecting edge is located in the heat exchange tank and in front of the limiting frame, with fins arranged on the connecting edge;

[0021] Fixing holes are provided on the connecting edge, and the fixing holes correspond to the through holes;

[0022] Tighten the bolts, pass them through the fixing holes and through holes, and install the connecting plate onto the plate limit frame.

[0023] In any of the above technical solutions, the assembly components further include:

[0024] The slots are located on the left and right ends of the front side of the building wall;

[0025] The locking blocks are located on the left and right ends of the back side of the insulation wall panel, and the locking blocks are engaged in the locking slots.

[0026] Interlocking panels are installed on one side of the building wall.

[0027] In any of the above technical solutions, furthermore, positioning components are provided between the upper and lower sides of the building wall and the insulation wall panel, and the positioning components include:

[0028] Slots are installed on the top of building walls and insulation wall panels;

[0029] Insert plates are installed at the bottom of building walls and insulation wall panels;

[0030] Connecting frames are installed at the top and bottom of building walls and insulation wall panels;

[0031] There are two positioning slots, which are located on the lower connecting frame. The insert plate is plugged into the positioning slots.

[0032] The positioning plate is located at the bottom of the upper connecting frame and is plugged into the slot.

[0033] The beneficial effects of this utility model are:

[0034] 1. The heat exchange coil is stably installed between the building wall and the insulation wall panel by the evenly spaced buckles on the fixing plate, ensuring that the position of the heat exchange coil is fixed during operation and does not shift, so as to facilitate replacement and improve replacement efficiency. No complicated tools or cumbersome operation procedures are required, which greatly improves the installation efficiency.

[0035] 2. The external pipe serves as the connection channel between the heat exchange coil and the micro circulation pump, realizing the physical connection between the two and providing a path for the flow of circulating water; the adapter cap plays the role of tightly connecting the external pipe and the micro circulation pump, ensuring the sealing of the connection, preventing circulating water leakage, and ensuring the integrity of the entire water circulation system; the micro circulation pump provides power to the entire water circulation system, driving the circulating water to flow continuously in the heat exchange coil, enabling the circulating water to continuously exchange heat between indoors and outdoors, thereby maintaining the heat exchange efficiency of the building's thermal insulation wall and effectively regulating the indoor temperature;

[0036] 3. By installing fins in the heat exchange tank, the heat exchange area between the heat exchange coil and the surrounding environment is increased. Since heat transfer is proportional to the heat exchange area, a larger contact area means that heat can be exchanged between the heat exchange coil and the outside more quickly and fully, effectively improving the heat exchange efficiency. This allows for more efficient indoor and outdoor heat exchange, optimizes the heat exchange performance of the building's insulation wall, and further enhances the indoor temperature regulation effect.

[0037] 4. Move the finned connecting edge to the front of the limiting frame, so that the fixing holes and through holes correspond one by one. Pass the fastening bolts through the fixing holes and through holes, and use tools to tighten the bolts to firmly fix the connecting edge to the limiting frame. This achieves stable installation of the fins, ensuring that the fins maintain the accurate position throughout the service life of the building insulation wall, and stably perform their functions such as increasing the heat exchange area and enhancing the heat exchange effect, thus ensuring the high-efficiency heat exchange performance of the building insulation wall.

[0038] 5. Move the insulation wall panel to the front of the building wall, align the clips on the back of the insulation wall panel with the slots on the building wall, and push the insulation wall panel to insert the clips into the slots, completing the initial connection between the insulation wall panel and the building wall. This achieves a convenient and stable connection between the insulation wall panel and the building wall, ensuring the integrity of the insulation structure, allowing the insulation wall panel to fit tightly against the building wall, effectively exerting its insulation function, and providing convenience for subsequent maintenance and replacement.

[0039] 6. Install the insert plate at the bottom of the building wall or insulation wall panel, aligning it with the positioning groove on the lower connecting frame. Slowly push it in until the insert plate is fully inserted into the positioning groove, completing the initial positioning at the bottom. Next, align the slot at the top of the insulation wall panel or building wall with the positioning plate, and slowly lower it until the positioning plate is inserted into the slot, completing the top positioning connection. This further improves the accuracy and stability of the connection between the building wall and the insulation wall panel, ensuring that both are accurately positioned vertically. Attached Figure Description

[0040] Figure 1 This is a three-dimensional structural schematic diagram of the present invention;

[0041] Figure 2 This is a three-dimensional structural diagram of the heat exchange coil of this utility model;

[0042] Figure 3 This is a three-dimensional structural diagram of the snap-fit ​​assembly of this utility model;

[0043] Figure 4 This is a partial three-dimensional structural schematic diagram of the present invention;

[0044] Figure 5 This is a partial three-dimensional structural diagram of the installation component of this utility model;

[0045] Figure 6 This is a partial three-dimensional structural diagram of the assembly components of this utility model;

[0046] Figure 7 This is a three-dimensional structural diagram of the first part of the positioning component of this utility model;

[0047] Figure 8 This is a three-dimensional structural diagram of the second part of the positioning component of this utility model;

[0048] Figure 9 This is a three-dimensional structural diagram of the third part of the positioning component of this utility model;

[0049] The attached diagram is labeled as follows: 1. Building wall; 2. Insulated wall panel; 3. Heat exchange coil; 31. External pipe; 32. Adapter cap; 33. Micro circulating pump; 4. Heat exchange tank; 5. Snap-fit ​​assembly; 51. Fixing plate; 52. Bolt hole; 53. Clip; 6. Fin; 7. Mounting assembly; 71. Limiting frame; 72. Through hole; 73. Connecting edge; 74. Fixing hole; 75. Fastening bolt; 8. Assembly assembly; 81. Slot; 82. Clip block; 83. Splicing plate; 9. Positioning assembly; 91. Slot; 92. Insert plate; 93. Connecting frame; 94. Positioning groove; 95. Positioning plate. Detailed Implementation

[0050] The technical solutions of the embodiments of this application will be clearly described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application are within the scope of protection of this application.

[0051] In the description of this application, it should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the exemplary embodiments according to this application. For ease of description, the dimensions of the various parts shown in the drawings are not drawn to actual scale. Techniques, methods, and devices known to those skilled in the art may not be discussed in detail, but where appropriate, such techniques, methods, and devices should be considered part of the specification. In all examples shown and discussed herein, any specific values ​​should be interpreted as merely exemplary and not as limitations. Therefore, other examples of exemplary embodiments may have different values. It should be noted that similar reference numerals and letters in the following drawings denote similar items, and therefore, once an item is defined in one drawing, it need not be further discussed in subsequent drawings.

[0052] Example 1:

[0053] like Figure 1 and Figure 3 As shown, this embodiment provides a building insulation wall, including:

[0054] Building wall 1, on which insulation wall panel 2 is provided. Insulation wall panel 2 is connected to building wall 1 through assembly component 8. Assembly component 8 assembles insulation wall panel 2 onto building wall 1.

[0055] The heat exchange coil 3 is installed between the building wall 1 and the insulation wall panel 2, and uses circulating water to achieve heat exchange between the indoor and outdoor areas.

[0056] Heat exchange tank 4 is provided on the insulation wall panel 2. Heat exchange tank 4 is used by heat exchange coil 3 to realize indoor and outdoor heat exchange.

[0057] The snap-fit ​​assembly 5 is installed on the building wall 1 and is used to install the heat exchange coil 3 between the building wall 1 and the insulation wall panel 2.

[0058] The card connector 5 includes:

[0059] Fixing plate 51 is installed on building wall 1;

[0060] Bolt holes 52 are provided on both sides of the fixing plate 51;

[0061] Buckles 53 are provided on the fixing plate 51. There are several buckles 53, which are evenly distributed along the length of the fixing plate 51.

[0062] In this technical solution, the insulation wall panel 2 is connected to the building wall 1 via assembly component 8 to form an insulation structure, reducing direct heat transfer between indoors and outdoors, lowering heat loss from the building, and providing good insulation. The heat exchange coil 3 is installed between the building wall 1 and the insulation wall panel 2, using circulating water as the heat exchange medium to achieve heat exchange between indoors and outdoors. In winter, it transfers outdoor heat to the interior to assist in indoor heating; in summer, it transfers indoor heat to the exterior to assist in indoor cooling. The fixing plate 51 in the snap-fit ​​assembly 5 is installed on the building wall 1 and can be firmly fixed using bolt holes 52. Evenly spaced clips 53 on the fixing plate 51 are used to stably install the heat exchange coil 3 between the building wall 1 and the insulation wall panel 2, ensuring that the heat exchange coil 3 remains fixed in position during operation and does not shift.

[0063] Workflow: First, install a fixing plate 51 on the building wall 1, securing it to the wall 1 with bolts through bolt holes 52. Then, install the heat exchange coil 3 onto the fixing plate 51 using clips 53, positioning it between the building wall 1 and the insulation wall panel 2. Finally, use the assembly component 8 to install the insulation wall panel 2 onto the building wall 1, completing the installation of the building insulation wall. At this point, the heat exchange coil 3 is positioned between the insulation wall panel 2 and the building wall 1, behind the heat exchange trough 4. When the system starts, circulating water flows through the heat exchange coil 3. During daytime use, the circulating water facilitates heat exchange between the indoor and outdoor environments, bringing the indoor and outdoor temperatures closer together. After heat exchange, the water temperature in the heat exchange coil 3 rises, and this warmed water can be used for continuous heating at night. In winter, the circulating water absorbs heat from the outdoor air in the outdoor section, raising its temperature, and then flows back to the indoor section, releasing heat into the indoor air to provide heating. In summer, the circulating water absorbs heat from the indoor air in the indoor section, raising its temperature, and then flows to the outdoor section, releasing the heat into the outdoor air to cool the indoor environment. Throughout the entire operation, the insulation wall panel 2 continuously provides insulation, reducing unnecessary heat loss and ensuring stable indoor temperature regulation. Meanwhile, the snap-fit ​​assembly 5 always ensures the position of the heat exchange coil 3 is fixed, maintaining the stable operation of the entire system. When the heat exchange coil 3 needs to be replaced, it can be removed from the snap-fit ​​53 for easy replacement and improved replacement efficiency.

[0064] like Figure 3 As shown, in this embodiment, the optimized buckle 53 has elastic deformation capability and can undergo elastic deformation when an external force is applied; when it cooperates with the heat exchange coil 3, it can form a reliable clamping constraint on the heat exchange coil 3 by means of its own elastic recovery force, thereby stably clamping the heat exchange coil 3 and ensuring the stability of the heat exchange coil 3 in the connected state.

[0065] In this technical solution, the purpose of the snap-fit ​​53 design is to ensure that the heat exchange coil 3 can be stably and reliably fixed in the building insulation wall structure. Through its unique elastic properties, it provides a firm and durable fixation for the heat exchange coil 3 during installation and use, ensuring the stable operation of the heat exchange links in the entire building insulation wall system and avoiding the impact on heat exchange effect and overall system performance due to the loosening of the heat exchange coil 3.

[0066] The clip 53 possesses elastic deformation capability, allowing operators to easily place the heat exchange coil 3 within its encircling range during installation. By applying a certain external force, the clip 53 undergoes elastic deformation, smoothly embedding the heat exchange coil 3 into the appropriate position without the need for complex tools or cumbersome procedures, significantly improving installation efficiency. Once the heat exchange coil 3 is in place, the clip 53, with its own elastic restoring force, quickly returns to its near-initial state, providing a reliable clamping constraint on the heat exchange coil 3. This clamping force effectively resists external forces generated by factors such as water flow impact within the pipes and minor displacements of the building structure, stably clamping the heat exchange coil 3 and ensuring its stability during connection, preventing shaking or detachment, thus guaranteeing the continuity and stability of the heat exchange process.

[0067] Workflow: During the installation of the building insulation wall, when it is necessary to fix the heat exchange coil 3, first install the fixing plate 51 with clips 53 on the building wall 1. Then, align the heat exchange coil 3 with each clip 53 along the length of the fixing plate 51. Gently press the heat exchange coil 3 towards the clips 53. The clips 53 will elastically deform under the external force, widening the opening to allow the heat exchange coil 3 to pass through. Once the heat exchange coil 3 reaches the appropriate position, release the external force. The clips 53 will return to their original shape due to their elastic restoring force, tightly holding the heat exchange coil 3, completing the installation and fixing steps of the heat exchange coil 3. After the building insulation wall is put into use, circulating water flows inside the heat exchange coil 3 for heat exchange. Due to the impact of the water flow and the slight vibrations that may occur during the use of the building, the heat exchange coil 3 will be subjected to certain external forces. At this time, the elastic fastening function of the clips 53 plays a crucial role. Even if the heat exchange coil 3 is subjected to external force, the elastic restoring force of the clip 53 can always keep it tightly bound, offsetting part of the external force and maintaining the stable position of the heat exchange coil 3. If a larger external impact causes the clip 53 to deform to a certain extent, after the impact force disappears, the clip 53 can rely on its own elasticity to return to the state of tightly holding the heat exchange coil 3, continuously ensuring the stability of the heat exchange coil 3 in the building insulation wall structure and ensuring the normal operation of the entire heat exchange system.

[0068] like Figure 2As shown, in this embodiment, the optimized heat exchange coil 3 is provided with external pipes 31 on both sides of the lower end, and an adapter cap 32 is provided on the external pipe 31. The outer end of the external pipe 31 is connected to the micro circulation pump 33 through the adapter cap 32.

[0069] In this technical solution, the external pipe 31 serves as the connection channel between the heat exchange coil 3 and the micro circulating pump 33, achieving physical connection between the two and providing a path for the flow of circulating water. The adapter cap 32 serves to tightly connect the external pipe 31 and the micro circulating pump 33, ensuring the sealing of the connection, preventing circulating water leakage, and ensuring the integrity of the entire water circulation system. The micro circulating pump 33 provides power to the entire water circulation system. It can overcome pipe resistance and drive the circulating water to continuously flow within the heat exchange coil 3, enabling the circulating water to continuously exchange heat between indoors and outdoors, thereby maintaining the heat exchange efficiency of the building's insulation walls and effectively regulating the indoor temperature.

[0070] Workflow: During the installation of the building insulation wall, after the heat exchange coil 3 is installed and fixed, the adapter caps 32 are installed on the outer ends of the external pipes 31. The installation of the adapter caps 32 must ensure a good seal, which can be achieved through threaded tightening or other sealing connection methods. Then, the micro circulation pump 33 is connected to the adapter caps 32 to complete the installation of the entire water circulation system. During the connection process, it is necessary to check whether each connection is secure to avoid loosening and leakage. When the building insulation wall is put into use, the micro circulation pump 33 is started. The micro circulation pump 33 starts working, generating a pressure difference, drawing the circulating water in the heat exchange coil 3 from one side of the external pipe 31, pressurizing it through the micro circulation pump 33, and then injecting it back into the heat exchange coil 3 from the other side of the external pipe 31. In winter, the circulating water absorbs heat in the outdoor part of the heat exchange coil 3, and then flows back to the indoor part through the circulation pump, releasing the heat into the indoor air; in summer, the circulating water absorbs heat in the indoor part, and then flows to the outdoor part through the circulation pump to release the heat. Throughout the entire operation, the adapter cap 32 maintains a tight connection between the external pipe 31 and the micro circulation pump 33 to ensure the normal flow of circulating water, while the micro circulation pump 33 works continuously and stably to ensure the circulation of circulating water, achieve efficient indoor and outdoor heat exchange, and maintain stable indoor temperature.

[0071] Example 2:

[0072] This embodiment provides a building insulation wall, which, in addition to the technical solutions of the above embodiments, also has the following technical features.

[0073] like Figure 1 and Figure 5 As shown, in this embodiment, the optimized heat exchange tank 4 is provided with fins 6 to increase the heat exchange area. The fins 6 are located outside the heat exchange coil 3 and are fixed in the heat exchange tank 4 by the mounting assembly 7.

[0074] In this technical solution, fins 6 are set in the heat exchange tank 4. The main purpose is to increase the heat exchange area between the heat exchange coil 3 and the surrounding environment, improve the heat transfer efficiency, thereby achieving more efficient indoor and outdoor heat exchange, optimizing the heat exchange performance of the building insulation wall, and further improving the indoor temperature regulation effect.

[0075] Fins 6 are installed on the outside of the heat exchange coil 3, greatly expanding the contact area with air or other heat exchange media. Since heat transfer is proportional to the heat exchange area, a larger contact area means that heat can be exchanged more quickly and fully between the heat exchange coil 3 and the outside environment, effectively improving heat exchange efficiency. The presence of fins 6 can disrupt the boundary layer formed by the heat exchange medium on the heat exchange surface. When air or other media flow through fins 6, the flow state is disturbed, causing the boundary layer to be constantly renewed, reducing thermal resistance and enhancing the heat exchange effect. By fixing fins 6 in the heat exchange tank 4 through the mounting assembly 7, fins 6 can stably perform their heat exchange function, preventing displacement during operation and ensuring the stability of the entire heat exchange system.

[0076] Because fins 6 increase the heat exchange area, the surrounding cold air can absorb heat from fins 6 more quickly. The heated cold air rises and forms convection currents with the indoor air, transferring heat into the room. In summer, after the circulating water absorbs heat from the room in the heat exchange coil 3, the heat is transferred to fins 6. When hot outside air flows through fins 6, heat is transferred to the hot air, which then carries away the heat, thus dissipating heat from the room. Throughout the entire operation, fins 6 remain fixed, continuously and efficiently promoting heat exchange and improving the heat exchange performance of the building's insulation walls.

[0077] like Figure 1 , Figure 4 and Figure 5 As shown, in this embodiment, the optimized installation component 7 includes:

[0078] The limiting frame 71 is located inside the rear side of the heat exchange tank 4;

[0079] Through hole 72 is formed around the limiting frame 71;

[0080] The connecting edge 73 is located in the heat exchange tank 4 and is located in front of the limiting frame 71. The fins 6 are located on the connecting edge 73.

[0081] A fixing hole 74 is provided on the connecting edge 73, and the fixing hole 74 corresponds to the through hole 72;

[0082] Tighten bolt 75 through fixing hole 74 and through hole 72 to mount the connecting plate onto plate limiting frame 71.

[0083] In this technical solution, the limiting frame 71 is located inside the rear side of the heat exchange tank 4, providing a positioning reference for the installation of the fins 6. The connecting edge 73 is located in front of the limiting frame 71, and the fins 6 are installed on the connecting edge 73, allowing the fins 6 to be accurately placed in the optimal heat exchange position outside the heat exchange coil 3, ensuring high efficiency of heat exchange. The through holes 72 around the limiting frame 71 correspond to the fixing holes 74 on the connecting edge 73. The fastening bolts 75 pass through these holes, firmly installing the connecting edge 73 onto the limiting frame 71, thereby stably fixing the fins 6 in the heat exchange tank 4. This fixing method can effectively resist external forces caused by factors such as vibration and temperature changes, preventing the fins 6 from shifting or falling off, and ensuring the stable operation of the entire heat exchange system.

[0084] Workflow: First, install the limiting frame 71 inside the rear of the heat exchange tank 4, ensuring its accurate positioning. Then, place the fins 6 on the connecting edge 73, adjusting their position and angle. Next, move the connecting edge 73 with the fins 6 to the front of the limiting frame 71, aligning the fixing holes 74 and through holes 72 one-to-one. Finally, pass the fastening bolts 75 through the fixing holes 74 and through holes 72, and tighten the bolts using a tool (such as a wrench) to securely fix the connecting edge 73 to the limiting frame 71. After installation, recheck the installation position, angle, and tightness of the fins 6 to ensure they meet design requirements. This ensures the stable installation of the fins 6, guaranteeing that they maintain their accurate position throughout the entire service life of the building insulation wall, stably performing their functions of increasing heat exchange area and enhancing heat exchange effect, thus ensuring the high-efficiency heat exchange performance of the building insulation wall.

[0085] Example 3:

[0086] This embodiment provides a building insulation wall, which, in addition to the technical solutions of the above embodiments, also has the following technical features.

[0087] like Figure 4 , Figure 6 and Figure 7 As shown, in this embodiment, the optimized assembly component 8 includes:

[0088] Card slot 81 is located on the left and right ends of the front side of the building wall 1;

[0089] The locking block 82 is set at the left and right ends of the rear side of the insulation wall panel 2, and the locking block 82 is locked in the locking groove 81;

[0090] The splicing panel 83 is installed on one side of the building wall 1.

[0091] In this technical solution, slots 81 are located at the left and right ends of the front side of the building wall 1, and locking blocks 82 are located at the left and right ends of the rear side of the insulation wall panel 2. Through the interlocking action of the locking blocks 82 and slots 81, the insulation wall panel 2 can be accurately positioned on the building wall 1, achieving a preliminary connection between the two and ensuring the accuracy of the installation position of the insulation wall panel 2, avoiding offset or misalignment, and laying the foundation for subsequent splicing and fixing. A splicing plate 83 is located on one side of the building wall 1. After the insulation wall panel 2 is installed, the splicing plate 83 can be spliced ​​with other building walls 1. The assembly components 8 can fill gaps, prevent external factors such as wind, rain, and dust from eroding the connection points, and also disperse stress caused by structural deformation to a certain extent, ensuring the reliability of the entire insulation wall structure.

[0092] Workflow: First, move the insulation wall panel 2 to the front of the building wall 1, aligning the locking block 82 on the back of the insulation wall panel 2 with the locking groove 81 on the building wall 1. Slowly push the insulation wall panel 2, allowing the locking block 82 to gradually embed into the locking groove 81. During this process, use tools such as a level to ensure the horizontal and vertical alignment of the insulation wall panel 2, avoiding any tilting or unevenness. Once the locking block 82 is fully engaged in the locking groove 81, the initial positioning and connection between the insulation wall panel 2 and the building wall 1 is complete. Next, install the splicing plate 83 at the designated position on the side of the building wall 1, using appropriate fixing methods (such as bolt connection, riveting, etc.) to secure the splicing plate 83 to the building wall 1, ensuring a tight fit between the insulation wall panel 2 and the connection point of the building wall 1, completing the entire installation process. During the use of the building insulation wall, periodically inspect the assembled components 8. Check if the connection between the locking block 82 and the locking slot 81 is loose. If the locking block 82 shows signs of looseness, adjust and reinforce it promptly. Check if the splicing plate 83 is damaged, deformed, or detached. If there are any problems, replace the splicing plate 83 immediately. Simultaneously, pay attention to the sealing between the insulation wall panel 2 and the building wall 1 to ensure that the insulation effect is not affected. This achieves a convenient and stable connection between the insulation wall panel 2 and the building wall 1, ensuring the integrity of the insulation structure, allowing the insulation wall panel 2 to fit tightly against the building wall 1, effectively performing its insulation function, and providing convenience for subsequent maintenance and replacement.

[0093] like Figure 1 , Figure 4 , Figure 6 , Figure 7 , Figure 8 and Figure 9 As shown, in this embodiment, in an optimized manner, positioning components 9 are provided between the upper and lower sides of the building wall 1 and the insulation wall panel 2. The positioning components 9 include:

[0094] Slot 91 is located on the top of building wall 1 and insulation wall panel 2;

[0095] Insert plate 92 is installed at the bottom of building wall 1 and insulation wall panel 2;

[0096] The connecting frame 93 is set at the top and bottom of the building wall 1 and the insulation wall panel 2;

[0097] There are two positioning slots 94, which are respectively located on the lower connecting frame 93. The insert plate 92 is inserted into the positioning slot 94.

[0098] Positioning plate 95 is located at the bottom of the upper connecting frame 93, and positioning plate 95 is plugged into slot 91.

[0099] In this technical solution, the slot 91 is located at the top of the building wall 1 and the insulation wall panel 2, and the insert plate 92 is located at the bottom. Through the insertion of the insert plate 92 into the positioning groove 94 on the lower connecting frame 93, and the insertion of the positioning plate 95 into the slot 91 at the bottom of the upper connecting frame 93, the relative vertical positions of the building wall 1 and the insulation wall panel 2 can be precisely defined, ensuring installation accuracy, avoiding vertical deviations, and ensuring a tight fit between the insulation wall panel 2 and the building wall 1, thus enhancing the insulation effect. The connecting frame 93 is set at the top and bottom of the building wall 1 and the insulation wall panel 2, serving a dual function of connection and reinforcement. It not only organically combines components such as the insert plate 92, positioning groove 94, positioning plate 95, and slot 91 to form a stable positioning structure, but also enhances the strength of the connection between the building wall 1 and the insulation wall panel 2 to a certain extent, resisting the pulling and squeezing caused by external forces (such as wind force, earthquake force, etc.), and ensuring the stability of the entire insulation wall structure. Tight interlocking connections can fill the gaps between the building wall 1 and the insulation wall panel 2 to a certain extent, reduce air infiltration, help improve the airtightness of the insulation wall, further prevent heat loss or intrusion, and improve the building's energy-saving effect.

[0100] Workflow: First, install the lower connecting frame 93 at the corresponding position on the bottom of the building wall 1 or the insulation wall panel 2, ensuring the positioning groove 94 is accurately positioned. Then, install the insert plate 92 at the bottom of the building wall 1 or the insulation wall panel 2, aligning it with the positioning groove 94 on the lower connecting frame 93, and slowly push it until the insert plate 92 is fully inserted into the positioning groove 94, completing the initial positioning at the bottom. Next, install the upper connecting frame 93 at the corresponding position on the top of the building wall 1 or the insulation wall panel 2, and install the positioning plate 95 at the bottom of the upper connecting frame 93. Then, align the slot 91 on the top of the insulation wall panel 2 or the building wall 1 (according to the installation sequence) with the positioning plate 95, and slowly lower it until the positioning plate 95 is inserted into the slot 91, completing the top positioning connection. Throughout the installation process, use tools such as a level and plumb line to check the verticality and horizontality of the insulation wall panel 2 and the building wall 1 in real time to ensure installation accuracy. This further enhances the precision and stability of the connection between the building wall 1 and the insulation wall panel 2, ensuring that the two are accurately positioned in the vertical direction and preventing displacement or misalignment during use. This ensures the integrity of the insulation structure and the continuity of the insulation effect, while also providing clear positioning guidance for the installation of the building insulation wall and improving installation efficiency.

[0101] The embodiments of this application have been described above with reference to the accompanying drawings. Unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other. This application is not limited to the specific embodiments described above. The specific embodiments described above are merely illustrative and not restrictive. Those skilled in the art can make many other forms under the guidance of this application without departing from the spirit and scope of the claims, and all of these forms are within the protection scope of this application.

Claims

1. A building insulation wall, characterised in that, The utility model relates to a building wall (1) is provided with the heat preservation wallboard (2) on it, the heat preservation wallboard (2) is connected with building wall (1) through the assembly component (8), the assembly component (8) is assembled on building wall (1) heat preservation wallboard (2), heat exchange coil (3) is arranged between building wall (1) and heat preservation wallboard (2), and indoor and outdoor heat exchange is realized by circulating water, Heat exchange groove (4) is opened in heat preservation wallboard (2), and heat exchange groove (4) is used for heat exchange coil (3) to realize indoor and outdoor heat exchange, Clamping assembly (5) is arranged on building wall (1) and is used for installing heat exchange coil (3) between building wall (1) and heat preservation wallboard (2), Clamping assembly (5) includes: Fixed plate (51) is arranged on building wall (1), Bolt hole (52) is arranged on both sides of fixed plate (51), Clasp (53) is arranged on fixed plate (51), and clasp (53) has a plurality of and is evenly spaced along the length direction of fixed plate (51). Clasp (53) has elastic deformation capacity, can be elastically deformed when exerting external force, and can rely on the elastic recovery force of itself to form reliable hug constraint to heat exchange coil (3) when cooperating with heat exchange coil (3), thereby stably clamping heat exchange coil (3), and the stability of heat exchange coil (3) under the connection state is ensured. The lower end of heat exchange coil (3) is provided with external connection pipe (31) on both sides, the external connection pipe (31) is provided with adapter cap (32), and the outer end of external connection pipe (31) is connected with micro circulating pump (33) through adapter cap (32).

2. The building thermal insulation wall according to claim 1, wherein, The heat exchange groove (4) is provided with fins (6) for increasing the heat exchange area, the fins (6) are located outside the heat exchange coil (3), and the fins (6) are fixed in the heat exchange groove (4) by the mounting assembly (7).

3. The building thermal insulation wall according to claim 1, wherein, The mounting assembly (7) includes:

4. The building thermal insulation wall according to claim 1, wherein, The limiting frame (71) is arranged inside the rear side of the heat exchange groove (4), 5. The building insulation wall according to claim 4, wherein The through hole (72) is opened around the limiting frame (71), The connecting edge (73) is arranged in the heat exchange groove (4) and located at the front side of the limiting frame (71), and the fins (6) are arranged on the connecting edge (73), The fixing hole (74) is opened on the connecting edge (73), and the fixing hole (74) corresponds to the through hole (72), The fastening bolt (75) passes through the fixing hole (74) and the through hole (72), and the connecting plate mounting plate limiting frame (71) is limited. The assembly component (8) includes: The clamping groove (81) is opened on the left and right ends of the front side of the building wall (1), 6. The building thermal insulation wall according to claim 1, wherein The clamping block (82) is arranged on the left and right ends of the rear side of the heat preservation wallboard (2), and the clamping block (82) is clamped and arranged in the clamping groove (81), The splicing plate (83) is arranged on one side of the side edge of the building wall (1). The positioning assembly (9) is arranged between the upper and lower sides of the building wall (1) and the heat preservation wallboard (2), and the positioning assembly (9) includes: The insertion groove (91) is arranged on the top of the building wall (1) and the heat preservation wallboard (2), 7. The building thermal insulation wall according to claim 1, wherein ​ ​ Plug plate (92), provided at the bottom of the building wall (1) and the thermal insulation wallboard (2); Connecting frame (93), provided at the top and bottom of the building wall (1) and the thermal insulation wallboard (2); Positioning slot (94), two in total, respectively provided on the lower connecting frame (93), and the plug plate (92) is connected with the positioning slot (94) by plug-in connection; Positioning plate (95), provided at the bottom of the upper connecting frame (93), and the positioning plate (95) is connected with the plug-in slot (91) by plug-in connection.

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