A composite earthquake-resistant heating wall panel structure and its installation method

Abstract

This invention relates to the field of building wall panels, specifically a composite earthquake-resistant and heating wall panel structure and its installation method. The composite wall structure is formed by sequentially splicing a heating layer, a shock-absorbing layer, and a stabilizing layer. Each of the heating layer, shock-absorbing layer, and stabilizing layer includes a base plate, side plates, and a top plate, which together form a hollow box structure. The wall is formed by splicing the individual wall panels, improving the wall's recyclability. Simultaneously, the shock-absorbing layer is connected to the heating layer and stabilizing layer via several tenoned steel frames, improving the overall earthquake resistance of the wall panel. A heating pipe is installed within the heating layer to supply heat to the area within the heating layer.

Description

Technical Field

[0001] This invention relates to the field of building wall panels, specifically to a composite earthquake-resistant heating wall panel structure and its installation method. Background Technology

[0002] During the construction process, the transportation of raw materials, the source of heating energy, and the reuse rate of project resources all affect the degree of carbon emissions, making the control of carbon content in engineering projects quite important.

[0003] During the construction process, local workers need to move with the construction site, which also changes their living locations. Building houses using traditional methods is time-consuming and has a low recycling rate. In the event of an earthquake, the walls of their houses often lack rigidity and have poor seismic resistance, resulting in deformation and cracking, rendering them unusable. When the temperature is low, the workers' heating needs cannot be met, and the wall panels often become damaged due to the low temperature. Summary of the Invention

[0004] In order to overcome the defects of the prior art, the present invention aims to provide a composite earthquake-resistant heating wall panel structure and its installation method, so as to solve the technical problems of low recycling rate, poor earthquake resistance and inability to meet the heating needs of personnel in the prior art.

[0005] This invention is achieved through the following technical solution:

[0006] A composite earthquake-resistant heating wall panel structure includes a heating layer, a shock-absorbing layer, a stabilizing layer, heating pipes, and a hot water source system. Each of the heating layer, shock-absorbing layer, and stabilizing layer includes a base plate, side plates, and a top plate, forming a hollow box structure. One side of the heating layer has several vertically parallel first grooves; one side of the stabilizing layer has several vertically parallel second grooves. Several tenoned steel frames are vertically parallel on both sides of the shock-absorbing layer, with one side of the shock-absorbing layer connected to the heating layer via these tenoned steel frames being embedded in the corresponding first grooves; the other side of the shock-absorbing layer is connected to the stabilizing layer via these tenoned steel frames being embedded in the corresponding second grooves. The heating pipes are installed inside the heating layer, with both their inlet and outlet ends extending out of the heating layer and connecting to the hot water source system.

[0007] Preferably, the tenon steel frame includes a tenon and a side plate. One side of the tenon is fixed to the side plate, and the other side is inserted into a first groove or a second groove. The side plate is fixed to the side wall of the shock-absorbing layer by bolts. The top of the tenon has an open structure for filling with sand and gravel.

[0008] Preferably, the widths of the side plate, the first groove, and the second groove are all greater than the width of the tenon.

[0009] Preferably, several filler blocks are stacked inside the shock-absorbing layer, and rubber is bonded to the surface of the filler blocks, with an anti-corrosion coating on the rubber surface.

[0010] Preferably, the heating layer is filled with foam board or sand and gravel, and the heating pipes are fixed by the foam board or sand and gravel.

[0011] Preferably, the heating pipeline has a corrugated structure, with one end being an outlet pipe and the other end being a delivery pipe. The outlet pipe is connected to the inlet of the hot water source system, and the outlet of the hot water source system is connected to the delivery pipe, forming a hot water source circulation structure.

[0012] Furthermore, the hot water source system includes a water storage tank, an inlet pipe, a circulating water pump, and a heating rod; the heating rod is installed inside the water storage tank, the inlet of the water storage tank is connected to the outlet pipe, the outlet of the water storage tank is connected to the circulating water pump via the inlet pipe, and the output end of the circulating water pump is connected to the water delivery pipe.

[0013] Preferably, the top of the stabilizing layer is provided with a filling hole for filling with sand and gravel.

[0014] Preferably, the heating layer, the shock-absorbing layer, and the stabilizing layer are detachable structures, wherein the space between the heating layer, the shock-absorbing layer, and the stabilizing layer is filled with inflatable rubber, and the inflatable rubber is provided with an inflation valve.

[0015] An installation method for a composite earthquake-resistant heating wall panel structure, based on the aforementioned composite earthquake-resistant heating wall panel structure, includes the following steps:

[0016] The base plate, side plates, and top plate are assembled into a heating layer, a shock-absorbing layer, and a stabilizing layer, respectively. Heating pipes are placed within the heating layer, with their input and output ends exposed outside the heating layer and connected to the hot water source system. The heating layer is filled with foam board or sand. Several tenoned steel frames are vertically installed on both sides of the shock-absorbing layer, and several filling blocks are stacked sequentially within the shock-absorbing layer. The stabilizing layer is filled with sand. One side of the shock-absorbing layer is connected to the heating layer via several tenoned steel frames embedded into several first grooves. The other side of the shock-absorbing layer is connected to the stabilizing layer via several tenoned steel frames embedded into several second grooves, forming a composite earthquake-resistant heating wall panel structure.

[0017] Compared with the prior art, the present invention has the following beneficial technical effects:

[0018] This invention provides a composite earthquake-resistant heating wall panel structure, which is formed by sequentially splicing a heating layer, a shock-absorbing layer, and a stabilizing layer to form a composite structural wall. Each of the heating layer, shock-absorbing layer, and stabilizing layer includes a bottom plate, side plates, and a top plate, and the bottom plate, side plates, and top plate form a hollow box structure. The wall is formed by splicing the individual wall panels, which improves the wall's recyclability. At the same time, the shock-absorbing layer is connected to the heating layer and the stabilizing layer by several tenon steel frames, which improves the overall earthquake resistance of the wall panel. The heating layer is equipped with heating pipes to supply heat to the heating layer.

[0019] Furthermore, the tenon steel frame includes a tenon and a side plate. One side of the tenon is fixed to the side plate, and the other side is inserted into the first or second groove. The tenon steel frame can move within the groove to mitigate some of the energy brought by the earthquake. The side plate is fixed to the side wall of the shock-absorbing layer by bolts, which improves stability. The top of the tenon is an open structure for filling with sand and gravel, which increases the weight of the shock-absorbing layer and achieves a shock-absorbing effect.

[0020] Furthermore, the width of the side plates is greater than the width of the tenon. When an earthquake occurs, the steel frame of the tenon is easily damaged at the connection with the groove. After the damage, only the steel frame of the tenon needs to be replaced, and other components do not need to be replaced. The width of the first groove and the second groove is greater than the width of the tenon. The steel frame of the tenon can move within the groove, which can mitigate some of the energy brought by the earthquake.

[0021] Furthermore, several infill blocks are stacked within the damping layer. The high density of the infill blocks allows them to remain stable within the damping layer and prevents them from moving. Rubber is bonded to the surface of the infill blocks. When the rubber on the surface of the infill blocks is compressed, it deforms. During the repeated deformation process, some seismic energy can be dissipated, improving the overall seismic performance of the wall panel. The rubber on the surface of the infill blocks can play a certain role in damping, and the anti-corrosion agent on the surface of the rubber can protect the rubber and prevent it from needing to be replaced due to corrosion.

[0022] Furthermore, the heating layer is filled with foam boards or sand and gravel, and the heating pipes are fixed by the foam boards or sand and gravel, which improves the stability of the heating layer.

[0023] Furthermore, the heating pipeline has a corrugated structure, with one end being an outlet pipe and the other end a delivery pipe. The outlet pipe connects to the inlet of the hot water source system, and the outlet of the hot water source system connects to the delivery pipe, forming a hot water source circulation structure. The hot water source system includes a storage tank, an inlet pipe, a circulating water pump, and heating rods. The heating rods are installed inside the storage tank. The inlet of the storage tank connects to the outlet pipe, and the outlet of the storage tank connects to the circulating water pump via the inlet pipe. The output of the circulating water pump connects to the delivery pipe. The heating rods heat the water in the storage tank, and the circulating water pump pressurizes the hot water into the heating pipeline. The water circulates within the heating pipeline to heat the walls, ensuring the heating needs of the workers. The water flowing into the storage tank from the heating pipeline, through the action of the heating rods and the high-pressure water pump, achieves water circulation and stable heating.

[0024] Furthermore, the top of the stabilizing layer is equipped with filling holes for filling with sand and gravel, which can effectively increase the weight of the wall, prevent the wall from collapsing due to vibration, and provide insulation. The sand and gravel can be prepared on the construction site, reducing unnecessary transportation and achieving a green and environmentally friendly construction process.

[0025] Furthermore, the heating layer, shock-absorbing layer, and stabilizing layer are detachable structures. Each layer is filled with inflatable rubber, which has an inflation valve. Because of the large gaps at the joints after the panels are connected, the joints are unstable and prone to shaking. Inflatable rubber, made of synthetic rubber and a fiber-reinforced layer vulcanized together, is placed within the contact surfaces of the panels. This inflatable rubber expands and deforms freely. During inflation, the gaps between the panels are filled, and they are tightly connected by the inflatable rubber, increasing overall rigidity. When disassembling the composite wall panel, the inflation valve is opened to expel the air from the inflatable rubber, creating gaps at the joints and allowing for easy removal of the panels.

[0026] An installation method for a composite earthquake-resistant heating wall panel structure is disclosed. By assembling the bottom plate, side plates, and top plate into a heating layer, a shock-absorbing layer, and a stabilizing layer respectively, the utilization rate can be improved, and the phenomenon of non-recyclable buildings can be reduced. The wall panel is composed of a stabilizing layer, a shock-absorbing layer, and a heating layer connected by assembly plates. In case of damage, only the corresponding assembly plate needs to be replaced. Simultaneously, the shock-absorbing layer is connected to the heating layer and the stabilizing layer through several tenoned steel frames, improving the overall earthquake resistance of the wall panel. Heating pipes are installed within the heating layer to supply heat to the area, addressing the problems of low recycling rate, poor earthquake resistance, and the heating needs of personnel in existing wall panels. Attached Figure Description

[0027] Figure 1 A schematic diagram of a composite earthquake-resistant heating wall panel structure provided by the present invention;

[0028] Figure 2A schematic diagram of a heating layer structure provided by the present invention;

[0029] Figure 3 A schematic diagram of a damping layer structure provided by the present invention;

[0030] Figure 4 A schematic diagram of a stabilizing layer structure provided by the present invention;

[0031] Figure 5 This is a schematic diagram of a steel frame structure with a tenon joint provided by the present invention;

[0032] Figure 6 A schematic diagram of a heating pipeline structure provided by the present invention;

[0033] Figure 7 A schematic diagram of a water storage tank structure provided by the present invention;

[0034] Figure 8 A schematic diagram of a circulating water pump structure provided by the present invention;

[0035] Figure 9 This is a schematic diagram of a filling block structure provided by the present invention.

[0036] In the diagram: 1-Heating layer; 2-Shock-absorbing layer; 3-Stabilizing layer; 4-Heating pipe; 5-Outlet pipe; 6-Inlet pipe; 7-Water storage tank; 8-Circulating water pump; 9-Water delivery pipe; 10-First groove; 11-Tenon steel frame; 12-Second groove; 13-Filling hole; 14-Side plate; 15-Tenon; 16-Heating rod; 17-Filling block. Detailed Implementation

[0037] To enable those skilled in the art to better understand the present invention, the technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort should fall within the scope of protection of the present invention.

[0038] It should be noted that the terms "first," "second," etc., in the specification, claims, and accompanying drawings of this invention are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate so that the embodiments of the invention described herein can be implemented in orders other than those illustrated or described herein. Furthermore, the terms "comprising" and "having," and any variations thereof, are intended to cover a non-exclusive inclusion; for example, a process, method, system, product, or apparatus that comprises a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to such processes, methods, products, or apparatus.

[0039] The present invention will now be described in further detail with reference to the accompanying drawings:

[0040] The purpose of this invention is to provide a composite earthquake-resistant heating wall panel structure and its installation method to solve the technical problems of low recycling rate, poor earthquake resistance, and inability to meet the heating needs of personnel in the prior art.

[0041] Specifically, according to Figure 1 As shown, the composite earthquake-resistant heating wall panel structure includes a heating layer 1, a shock-absorbing layer 2, a stabilizing layer 3, heating pipes 4, and a hot water source system; the heating layer 1, the shock-absorbing layer 2, and the stabilizing layer 3 each include a bottom plate, side plates, and a top plate, which together form a hollow box structure. Figure 2 , Figure 3 and Figure 4 As shown, a plurality of first grooves 10 are vertically parallel on one side of the heating layer 1; a plurality of second grooves 12 are vertically parallel on one side of the stabilizing layer 3; a plurality of tenon steel frames 11 are vertically parallel on both sides of the shock-absorbing layer 2, wherein one side of the shock-absorbing layer 2 is connected to the heating layer 1 by the plurality of tenon steel frames 11 being embedded in the plurality of first grooves 10; the other side of the shock-absorbing layer 2 is connected to the stabilizing layer 3 by the plurality of tenon steel frames 11 being embedded in the plurality of second grooves 12; the heating pipe 4 is installed inside the heating layer 1, and both the input and output ends of the heating pipe 4 extend out of the heating layer 1 and are connected to the hot water source system.

[0042] This invention allows for the assembly and disassembly of wall panels as needed, improving utilization and reducing the likelihood of buildings being unrecyclable. The wall panels consist of a stabilizing layer, a shock-absorbing layer, and a heating layer connected by assembly plates; in case of damage, only the corresponding assembly plate needs to be replaced.

[0043] Specifically, according to Figure 5As shown, the tenon steel frame 11 includes a tenon 15 and a side plate 14. One side of the tenon 15 is fixed to the side plate 14, and the other side is inserted into the first groove 10 or the second groove 12. The side plate 14 is fixed to the side wall of the shock-absorbing layer 2 by bolts. The top of the tenon 15 is an open structure for filling with sand and gravel.

[0044] Specifically, the width of the side panels is greater than the width of the tenon. During an earthquake, the steel frame of the tenon is easily damaged at the junction with the groove. If damaged, only the steel frame of the tenon needs to be replaced; other components do not need to be replaced. The width of both the first and second grooves is greater than the width of the tenon, allowing the steel frame of the tenon to move within the grooves, mitigating some of the energy from the earthquake. Slight collisions between the steel frame of the tenon and the tenon structure will not affect the stability of the wall, but will produce an impact sound, serving as a warning to workers. Boron nitride is coated on the contact surface between the steel frame of the tenon and the groove. Boron nitride does not react with any metal at room temperature, has good insulation properties, reduces friction on the contact surface, reduces wear, and plays a role in weakening vibrations.

[0045] Specifically, according to Figure 3 As shown, several filler blocks 17 are stacked inside the shock-absorbing layer 2. Rubber is adhered to the surface of each filler block 17, and the rubber surface is coated with an anti-corrosion layer. Figure 9 As shown, the infill blocks are independent cubes that are stacked to fill the damping layer. If damaged or lost, they can be replaced promptly without requiring overall replacement. The high density of the infill blocks ensures stability within the damping layer, preventing movement. During an earthquake, the tenoned steel frame can move within its grooves, mitigating some of the earthquake's energy. The rubber surface of the infill blocks deforms under pressure; this repeated deformation process dissipates some seismic energy, improving the overall seismic performance of the wall panel.

[0046] In this invention, the wall panel filler block casting material comprises water, silicate cement, fly ash ceramsite, air-entraining agent, early-strength agent, and polypropylene fiber. The air-entraining agent improves the durability of concrete, allowing the filler block to be used for a longer period; the early-strength agent regulates the setting time of concrete, accelerating the construction progress; when polypropylene fiber is mixed with cement and fly ash ceramsite at high speed, the elastic characteristics of the polypropylene fiber can be utilized, giving the filler block a certain degree of elasticity.

[0047] In the preparation of the castable refractory, the mass ratio of each raw material is as follows: water 15: cement 30, fly ash ceramsite 20, polypropylene fiber 2, air-entraining agent 0.5, and early-strength agent 0.6. The preparation method is as follows: Place the fly ash ceramsite and cement into a mixing bowl, spray in half the total amount of water, and stir continuously at 300 rpm for 3 minutes. Then add the polypropylene fiber and the remaining water, and continue stirring at 700 rpm for 15 minutes. Finally, add the air-entraining agent and early-strength agent, and stir at 300 rpm for 30 minutes to obtain the filler block. After applying lubricating oil to the mold surface, pour the castable material into the filler block mold. After approximately 5 days, remove the filler block and bond rubber to the surface of the formed filler block. Apply an anti-corrosion agent to the rubber surface to prevent corrosion.

[0048] After the filler block has gained sufficient strength, its surface is coated with an adhesive substance, and rubber is then fully wrapped around the surface of the filler block. Once stabilized, it is immersed in an anti-corrosion solvent, and the rubber surface is coated with a preservative. The rubber on the surface of the filler block provides some cushioning, and the preservative on the rubber surface protects the rubber, preventing it from needing replacement due to corrosion.

[0049] Specifically, the heating layer 1 is filled with foam board or sand and gravel, and the heating pipe 4 is fixed by the foam board or sand and gravel.

[0050] Specifically, according to Figure 6 As shown, the heating pipe 4 has a corrugated pipe structure, with one end being a water outlet pipe 5 and the other end being a water supply pipe 9. The water outlet pipe 5 is connected to the input port of the hot water source system, and the output port of the hot water source system is connected to the water supply pipe 9, forming a hot water source circulation structure.

[0051] Specifically, the hot water source system includes a water storage tank 7, an inlet pipe 6, a circulating water pump 8, and a heating rod 16; the heating rod 16 is installed inside the water storage tank 7, the inlet of the water storage tank 7 is connected to the outlet pipe 5, the outlet of the water storage tank 7 is connected to the circulating water pump 8 via the inlet pipe 6, and the output end of the circulating water pump 8 is connected to the water delivery pipe 9, such as... Figure 7 and Figure 8 As shown in the diagram. One end of the heating rod is connected to a battery via a wire. One end of the battery is connected to a solar panel, and the other end is connected to a circulating water pump. The solar panel converts solar energy into electrical energy, which is stored in the battery. The battery then transmits this electrical energy to the heating rod via the wire. The heating rod heats the water in the storage tank 7 and also powers the circulating water pump, propelling water from the storage tank 7 into the heating pipe 4.

[0052] Specifically, according to Figure 4As shown, the top of the stabilizing layer 3 is provided with a filling hole 13 for filling with sand and gravel. The stabilizing layer mainly functions to maintain the stability of the wall. Pouring sand and gravel into the cavity can effectively increase the weight of the wall, preventing the wall from collapsing due to vibration and providing insulation. The sand and gravel can be prepared on the construction site, reducing unnecessary transportation and achieving a green and environmentally friendly construction process.

[0053] Specifically, the heating layer 1, the shock-absorbing layer 2, and the stabilizing layer 3 are detachable structures, with air-filled rubber filling between them, and air-filled valves provided on the air-filled rubber.

[0054] The assembled panels, due to the large gaps at the joints, are relatively unstable and prone to wobbling. To address this, inflatable rubber is installed within the contact surfaces of the panels. This rubber is made of synthetic rubber and a fiber reinforcement layer, vulcanized together. When inflated, it can deform freely. During inflation, the gaps between the panels are filled, and they are tightly connected by the inflatable rubber, increasing overall rigidity. When disassembling the composite wall panel, the inflation valve must be opened to expel the air from the inflatable rubber, creating gaps at the joints and allowing the panels to be easily removed.

[0055] This invention also provides an installation method for a composite earthquake-resistant heating wall panel structure, based on the aforementioned composite earthquake-resistant heating wall panel structure, comprising the following steps:

[0056] The bottom plate, side plates, and top plate are assembled into a heating layer 1, a shock-absorbing layer 2, and a stabilizing layer 3, respectively. A heating pipe 4 is placed inside the heating layer 1, with its input and output ends exposed outside the heating layer 1 and connected to the hot water source system. The heating layer 1 is filled with foam board or sand. Several tenoned steel frames 11 are vertically installed on both sides of the shock-absorbing layer 2, and several filling blocks 17 are stacked sequentially inside the shock-absorbing layer 2. The stabilizing layer 3 is filled with sand. One side of the shock-absorbing layer 2 is connected to the heating layer 1 by several tenoned steel frames 11 correspondingly embedded in several first grooves 10. The other side of the shock-absorbing layer 2 is connected to the stabilizing layer 3 by several tenoned steel frames 11 correspondingly embedded in several second grooves 12, forming a composite earthquake-resistant heating wall panel structure.

[0057] In summary, this invention provides a composite earthquake-resistant heating wall panel structure and its installation method. A composite structural wall is formed by sequentially splicing a heating layer, a shock-absorbing layer, and a stabilizing layer. Each of the heating layer, shock-absorbing layer, and stabilizing layer includes a base plate, side plates, and a top plate, which together form a hollow box structure. The wall is formed by splicing the individual wall panels, improving the wall's recyclability. Simultaneously, the shock-absorbing layer is connected to the heating layer and stabilizing layer via several tenoned steel frames, improving the overall earthquake resistance of the wall panel. A heating pipe is installed within the heating layer to supply heat to the area within the heating layer.

[0058] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and not to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that modifications or equivalent substitutions can still be made to the specific implementation of the present invention. Any modifications or equivalent substitutions that do not depart from the spirit and scope of the present invention should be covered within the protection scope of the claims of the present invention.

Claims

1. A composite earthquake-resistant heating wall panel structure, characterized in that, It includes a heating layer (1), a shock-absorbing layer (2), a stabilizing layer (3), a heating pipe (4), and a hot water source system; the heating layer (1), the shock-absorbing layer (2), and the stabilizing layer (3) each include a bottom plate, a side plate, and a top plate, and are connected by the bottom plate, the side plate, and the top plate to form a hollow box structure. A number of first grooves (10) are vertically parallel on one side of the heating layer (1); a number of second grooves (12) are vertically parallel on one side of the stabilizing layer (3); a number of... A steel frame with tenons (11) is provided, wherein one side of the shock-absorbing layer (2) is connected to the heating layer (1) by a number of tenons (11) embedded in a number of first grooves (10); the other side of the shock-absorbing layer (2) is connected to the stabilizing layer (3) by a number of tenons (11) embedded in a number of second grooves (12); the heating pipe (4) is installed inside the heating layer (1), and the input and output ends of the heating pipe (4) extend out of the heating layer (1) and are connected to the hot water source system; The heating layer (1), the shock-absorbing layer (2) and the stabilizing layer (3) are detachable structures, and the space between the heating layer (1), the shock-absorbing layer (2) and the stabilizing layer (3) is filled with inflatable rubber, and the inflatable rubber is provided with an inflation valve.

2. The composite earthquake-resistant heating wall panel structure according to claim 1, characterized in that, The tenon steel frame (11) includes a tenon (15) and a side plate (14). One side of the tenon (15) is fixed to the side plate (14), and the other side is inserted into the first groove (10) or the second groove (12). The side plate (14) is fixed to the side wall of the shock-absorbing layer (2) by bolts. The top of the tenon (15) is an open structure for filling with sand and gravel.

3. The composite earthquake-resistant heating wall panel structure according to claim 1, characterized in that, The widths of the side plate (14), the first groove (10), and the second groove (12) are all greater than the width of the tenon (15).

4. The composite earthquake-resistant heating wall panel structure according to claim 1, characterized in that, Several filler blocks (17) are stacked inside the shock-absorbing layer (2), and rubber is bonded to the surface of the filler blocks (17), with an anti-corrosion layer coated on the rubber surface.

5. A composite earthquake-resistant heating wall panel structure according to claim 1, characterized in that, The heating layer (1) is filled with foam board or sand and gravel, and the heating pipe (4) is fixed by foam board or sand and gravel.

6. A composite earthquake-resistant heating wall panel structure according to claim 1, characterized in that, The structure of the heating pipe (4) is a corrugated pipe, with one end being a water outlet pipe (5) and the other end being a water supply pipe (9). The water outlet pipe (5) is connected to the input port of the hot water source system, and the output port of the hot water source system is connected to the water supply pipe (9), forming a hot water source circulation structure.

7. A composite earthquake-resistant heating wall panel structure according to claim 6, characterized in that, The hot water source system includes a water storage tank (7), an inlet pipe (6), a circulating water pump (8), and a heating rod (16); the heating rod (16) is installed in the water storage tank (7), the inlet of the water storage tank (7) is connected to the outlet pipe (5), the outlet of the water storage tank (7) is connected to the circulating water pump (8) via the inlet pipe (6), and the outlet of the circulating water pump (8) is connected to the water delivery pipe (9).

8. A composite earthquake-resistant heating wall panel structure according to claim 1, characterized in that, The top of the stabilizing layer (3) is provided with a filling hole (13) for filling with sand and gravel.

9. An installation method for a composite earthquake-resistant heating wall panel structure, based on the composite earthquake-resistant heating wall panel structure according to any one of claims 1-8, characterized in that, Includes the following steps: The bottom plate, side plate and top plate are assembled into a heating layer (1), a shock-absorbing layer (2) and a stabilizing layer (3) respectively; a heating pipe (4) is placed in the heating layer (1), and the input end and output end of the heating pipe (4) are exposed outside the heating layer (1) and connected to the hot water source system, and the heating layer (1) is filled with foam board or sand and gravel; several tenon steel frames (11) are vertically installed on both sides of the shock-absorbing layer (2), and several filling blocks (17) are stacked in sequence in the shock-absorbing layer (2); sand and gravel are filled in the stabilizing layer (3); one side of the shock-absorbing layer (2) is connected to the heating layer (1) by several tenon steel frames (11) correspondingly embedded in several first grooves (10); the other side of the shock-absorbing layer (2) is connected to the stabilizing layer (3) by several tenon steel frames (11) correspondingly embedded in several second grooves (12) to form a composite earthquake-resistant heating wall panel structure.

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