Green building energy-saving wall structure

Abstract

The application discloses a kind of green building energy-saving wall structure, foam concrete layer is provided with support uniform component, dovetail groove inside bottom end is bonded with reinforcing plate, silicon calcium plate is opened vibration groove at corresponding reinforcing vibration plate, stud is connected in screw groove inside by thread, stud movable penetrates reinforcing vibration plate, decorative plate is installed extrusion block near bonding hole, foam concrete layer both sides are provided with baffle support component, the application movable column pulls damping vibration plate and support plate close to reinforcing plate, vibration spring is constantly contracted and restored, prevent that larger hole appears in foam concrete, ensure that foam concrete is evenly distributed, silicon calcium plate has the function of mould, without disassembly, as a part of wall, prevent that wall outer side is damaged when demoulding, movable column, damping vibration plate, vibration spring and support plate are used as the skeleton of foam concrete layer and support, improve the strength of foam concrete layer, and then improve the overall strength of wall.

Description

Technical Field

[0001] This invention relates to the field of prefabricated building technology, specifically to a green building energy-saving wall structure. Background Technology

[0002] Foamed concrete is a versatile building material with a simple production method and relatively low cost compared to autoclaved aerated concrete. Foamed concrete mixtures can be poured or pumped into molds or directly injected into structural components. Due to the thixotropic behavior of foam bubbles, the foam allows the slurry to flow freely, making it easy to pour into selected shapes or molds. Because of its superior performance, it is also extremely common in prefabricated buildings.

[0003] However, the lower the density of foamed concrete on the market, the better its thermal insulation performance, but the worse its mechanical properties and stability. During the production process, large gaps are likely to appear between the molds after the foamed concrete is poured in, which reduces its strength. Moreover, the outside of the foamed concrete is easily damaged after the mold is easily disassembled. Summary of the Invention

[0004] This invention provides a green building energy-saving wall structure that can effectively solve the problems mentioned in the background art: the lower the density of foamed concrete, the better its thermal insulation performance, but the worse its mechanical properties and stability. In the production process, large gaps are easily formed between the molds after the foamed concrete is poured in, which reduces its strength. Furthermore, the molds are easy to disassemble and the outer side of the foamed concrete is easily damaged.

[0005] To achieve the above objectives, the present invention provides the following technical solution: including a foamed concrete layer, wherein the foamed concrete layer is provided with a uniform support component, wherein the uniform support component includes a calcium silicate board;

[0006] Calcium silicate boards are symmetrically arranged on the outer side of the foamed concrete layer. Dovetail grooves are formed on the side of the calcium silicate boards near the foamed concrete layer. A butt joint strip is provided on the foamed concrete layer corresponding to the dovetail groove. A reinforcing plate is bonded to the bottom of the dovetail groove. A movable column is movably installed through the middle of the reinforcing plate. One end of each movable column located inside the same dovetail groove is connected to a damping vibration plate. A vibration spring is sleeved between the damping vibration plate and the reinforcing plate on the movable column. The other end of each movable column passes through the calcium silicate board and is welded to the reinforcing vibration plate. A snap-fit ​​groove is formed in the middle of the reinforcing vibration plate. A motor is movably snapped into the snap-fit ​​groove. A cam is fixedly sleeved on the output shaft end of the motor. A vibration groove is formed on the calcium silicate board corresponding to the reinforcing vibration plate.

[0007] Each corner of the vibration groove is provided with a threaded groove, and a stud is threadedly connected inside the threaded groove. A hexagonal rotating block is welded to one end of the stud. The stud moves through the reinforced vibration plate. The reinforced vibration plate is provided with adhesive holes evenly distributed. A glue bag is placed inside the adhesive holes. A glue groove is provided on the edge of the adhesive holes near the vibration groove. A decorative plate is movably embedded inside the vibration groove. An extrusion block is installed on the decorative plate near the adhesive hole. A reinforcing ring is embedded in the decorative plate near the stud.

[0008] Preferably, the motor input terminal and the external power supply output terminal are electrically connected, and one side of the cam is attached to the vibration groove.

[0009] Preferably, a support plate is bonded to one side of the damping vibration plate, the damping vibration plate and the support plate are the same size, and the tops of the foamed concrete layer, calcium silicate board, reinforcing plate and support plate are all flush.

[0010] Preferably, the glue bag is a cylindrical plastic bag filled with adhesive, and the two sides of the glue bag are aligned with the two sides of the reinforcing vibration plate, and the extrusion block and the bonding hole are clearance fit.

[0011] Preferably, the reinforcing ring and the stud are in a transition fit, the inner side of the reinforcing ring is a smooth curved surface, and the corner of the hexagonal rotating block is aligned with the outer edge of the stud.

[0012] Preferably, the edge of the reinforced vibration plate is aligned with the edge of the vibration groove, and weight reduction holes are uniformly formed in the middle of the reinforced vibration plate.

[0013] Preferably, the foamed concrete layer is provided with side retaining support components on both sides, and the side retaining support components include side retaining plates;

[0014] Side plates are symmetrically installed on both sides of the foamed concrete layer. A pouring hole is opened in the middle of the side plate. A disassembly plate is embedded inside the pouring hole. A first fixing strip is symmetrically welded to the bottom end of one of the side plates. A first movable strip is hinged to the top end of the first fixing strip. A first welding strip is embedded in the top end of the side plate near the first movable strip. A guide tube is welded to the side plate near the first movable strip. A damping block is bonded to the bottom end of the guide tube. A guide post is slidably installed inside the guide tube. A wheel groove is opened on one side of the guide post. A roller is rotatably installed inside the wheel groove. A buffer spring is installed inside the guide tube between the damping block and the guide post.

[0015] Another side plate has a second fixing strip symmetrically welded to its bottom end. The top of the second fixing strip is hinged to a second movable strip. A second welding strip is embedded at the top of the side plate near the second movable strip. The tops of the first and second movable strips are both provided with fixing holes.

[0016] Preferably, the edge of the baffle plate is connected to the calcium silicate board by screws, and the edge of the baffle plate and the edge of the calcium silicate board are aligned.

[0017] Preferably, the edge guard and the disassembly plate have the same thickness, and the side of the first fixing strip is aligned with the outer side of the calcium silicate board.

[0018] Preferably, the first fixed clip and the first movable clip have the same cross-sectional shape, the second fixed clip and the second movable clip have the same cross-sectional shape, and the slots of the first fixed clip and the second fixed clip fit together.

[0019] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0020] 1. A uniform support component is provided. The mixed foamed concrete slurry is poured into the gaps between the calcium silicate boards. The motor is started, and the motor drives the cam to rotate. The cam pushes the inner side of the vibration groove, which in turn drives the reinforced vibration plate and the motor to move simultaneously. The movable column pulls the damping vibration plate and the support plate closer to the reinforced plate. The vibration spring continuously contracts and recovers to prevent large holes from appearing in the foamed concrete and to ensure that the foamed concrete is evenly distributed. The motor speed is controlled to prevent the reinforced plate from vibrating too much, which would cause the air bubbles in the foamed concrete to burst and affect its quality. The foamed concrete layer is formed between two calcium silicate boards. The calcium silicate boards also function as molds and do not need to be disassembled. As part of the wall, they prevent damage when the outer side of the wall is demolded.

[0021] The motor is disassembled for reuse. The reinforcing ring is embedded into the stud, and the decorative panel is pushed fully into the vibration groove. At this time, the extrusion block squeezes the glue bag to break, and the adhesive flows out and flows along the glue groove to bond and fix the reinforcing vibration plate and the decorative panel. Then the stud is removed, and the foamed concrete is allowed to dry and solidify into a foamed concrete layer. At the same time, the glue dries, and the prefabrication is completed. The reinforcing plate reinforces the dovetail groove to ensure the shape of the dovetail groove and prevent cracking. The movable column, damping vibration plate, vibration spring and support plate serve as the skeleton of the foamed concrete layer to support it and improve the strength of the foamed concrete layer. The reinforcing vibration plate serves as the skeleton to support the calcium silicate board, improve the strength of the calcium silicate board, and thus improve the overall strength of the wall.

[0022] 2. An edge support assembly is provided, which raises the two calcium silicate boards upright on one side of the dovetail groove. The calcium silicate boards are easy to install edge plates, which close the two sides. Rotate the first and second movable clips until the bottom ends of the first and second movable clips contact the ground. The steel bars pass through the fixing holes and are inserted into the ground for fixation, which facilitates the support of the calcium silicate boards used as molds.

[0023] After the wall is formed, the first and second movable clips rotate and reset, and the second movable clip and the second welding strip become a whole. The first movable clip and the first welding strip become a whole. Remove the disassembly plate in the pouring hole, and bring the first and second fixed clips of the adjacent walls close to each other. The first and second fixed clips engage with each other. At this time, the roller slides along one side of the side plate, and the buffer spring pushes the guide column to slide along the guide tube. The first and second movable clips engage tightly with each other. Pour concrete into the gap between the adjacent side plates to connect the walls and eliminate the gaps at the same time, ensuring the stability of the wall connection.

[0024] In summary, the edge support component serves as a support for the calcium silicate board in the uniform support component, facilitating support and fixation during casting. During the assembly and construction process, the edge support component acts as a connector, linking the wall structure, with the uniform support component as the main body, into a whole, improving operational convenience and making the overall wall structure more stable. Attached Figure Description

[0025] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof.

[0026] In the attached diagram:

[0027] Figure 1 This is a schematic diagram of the structure of the present invention;

[0028] Figure 2 This is a schematic diagram of the structure of the supporting uniform component of the present invention;

[0029] Figure 3 This is a schematic diagram of the installation structure of the reinforcing plate of the present invention;

[0030] Figure 4 This is the present invention. Figure 3 A schematic diagram of the structure of region A;

[0031] Figure 5 This is a schematic diagram of the installation structure of the reinforcing ring of the present invention;

[0032] Figure 6 This is a schematic diagram of the structure of the edge support assembly of the present invention;

[0033] Figure 7 This is a schematic diagram of the installation structure of the disassembly plate of the present invention;

[0034] Figure 8 This is the present invention. Figure 7 A schematic diagram of the structure of region B;

[0035] Labels in the diagram: 1. Foamed concrete layer;

[0036] 2. Supporting uniform components; 201. Calcium silicate board; 202. Dovetail groove; 203. Butt joint strip; 204. Reinforcing plate; 205. Movable column; 206. Damping vibration plate; 207. Vibration spring; 208. Reinforced vibration plate; 209. Snap-fit ​​groove; 210. Motor; 211. Cam; 212. Vibration groove; 213. Threaded groove; 214. Stud; 215. Hexagonal rotating block; 216. Adhesive hole; 217. Glue bag; 218. Glue tank; 219. Decorative panel; 220. Extrusion block; 221. Reinforcing ring; 222. Support plate;

[0037] 3. Sidewall support assembly; 301. Sidewall plate; 302. Casting hole; 303. Disassembly plate; 304. First fixing strip; 305. First movable strip; 306. First welding strip; 307. Guide tube; 308. Damping block; 309. Guide post; 310. Wheel groove; 311. Roller; 312. Buffer spring; 313. Second fixing strip; 314. Second movable strip; 315. Second welding strip; 316. Fixing hole. Detailed Implementation

[0038] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0039] Example: Figure 1-8 As shown, the present invention provides a green building energy-saving wall structure technical solution, including a foamed concrete layer 1, the foamed concrete layer 1 is provided with a uniform support component 2, the uniform support component 2 includes a calcium silicate board 201, a dovetail groove 202, a butt joint strip 203, a reinforcing plate 204, a movable column 205, a damping vibration plate 206, a vibration spring 207, a reinforced vibration plate 208, a snap-fit ​​groove 209, a motor 210, a cam 211, a vibration groove 212, a threaded groove 213, a stud 214, a hexagonal rotating block 215, an adhesive hole 216, an adhesive bag 217, an adhesive tank 218, a decorative panel 219, an extrusion block 220, a reinforcing ring 221, and a support plate 222;

[0040] A calcium silicate board 201 is symmetrically arranged on the outer side of the foamed concrete layer 1. A dovetail groove 202 is formed on the side of the calcium silicate board 201 near the foamed concrete layer 1. A butt joint strip 203 is provided on the foamed concrete layer 1 corresponding to the dovetail groove 202. A reinforcing plate 204 is bonded to the bottom of the inside of the dovetail groove 202. A movable column 205 is movably installed through the middle of the reinforcing plate 204. One end of each movable column 205 located inside the same dovetail groove 202 is connected to a damping vibration plate 206. A support plate 222 is bonded to one side of the damping vibration plate 206. The damping vibration plate 206 and the support plate 222 are of the same size. The tops of the foamed concrete layer 1, calcium silicate board 201, reinforcing plate 204, and support plate 222 are all flush to ensure alignment of the top and bottom of the wall. A vibrating spring is sleeved between the damping vibration plate 206 and the reinforcing plate 204 at the position of the movable column 205. The spring 207 and the movable column 205 both pass through the calcium silicate plate 201 and are welded to the reinforced vibration plate 208. The reinforced vibration plate 208 has a snap-fit ​​groove 209 in the middle, and a motor 210 is movably snapped inside the snap-fit ​​groove 209. A cam 211 is fixedly sleeved on the output shaft end of the motor 210. The calcium silicate plate 201 has a vibration groove 212 corresponding to the reinforced vibration plate 208. The edge of the reinforced vibration plate 208 is aligned with the edge of the vibration groove 212. Weight reduction holes are evenly opened in the middle of the reinforced vibration plate 208 to facilitate the movement of the reinforced vibration plate 208 in the vibration groove 212, ensuring its support strength while reducing the overall weight of the wall. The input end of the motor 210 is electrically connected to the output end of the external power supply. One side of the cam 211 is attached to the vibration groove 212 to ensure that the motor 210 can drive the cam 211 to push the inside of the vibration groove 212.

[0041] Each corner of the vibration groove 212 is provided with a threaded groove 213, and a stud 214 is threadedly connected inside the threaded groove 213. A hexagonal rotating block 215 is welded to one end of the stud 214. The stud 214 movably passes through the reinforced vibration plate 208. The reinforced vibration plate 208 is provided with adhesive holes 216 evenly distributed. A glue bag 217 is placed inside the adhesive hole 216. An adhesive groove 218 is provided on the edge of the adhesive hole 216 near the vibration groove 212. A decorative plate 219 is movably embedded inside the vibration groove 212. An extrusion block 2 is installed on the decorative plate 219 near the adhesive hole 216. 20. The glue bag 217 is a cylindrical plastic bag filled with adhesive. The two sides of the glue bag 217 are aligned with the two sides of the reinforcing vibration plate 208. The extrusion block 220 and the bonding hole 216 are in clearance fit to facilitate the glue bag 217 to break and fill the gap. The decorative plate 219 is inlaid with a reinforcing ring 221 near the stud 214. The reinforcing ring 221 and the stud 214 are in transition fit. The inner side of the reinforcing ring 221 is a smooth curved surface. The corner of the hexagonal rotating block 215 is aligned with the outer edge of the stud 214 to facilitate the reinforcing ring 221 to pass through the reinforcing ring 221 and the stud 214.

[0042] The foamed concrete layer 1 is provided with edge support components 3 on both sides. The edge support components 3 include edge plate 301, pouring hole 302, disassembly plate 303, first fixing strip 304, first movable strip 305, first welding strip 306, guide tube 307, damping block 308, guide post 309, wheel groove 310, roller 311, buffer spring 312, second fixing strip 313, second movable strip 314, second welding strip 315 and fixing hole 316.

[0043] Side plates 301 are symmetrically installed on both sides of the foamed concrete layer 1. A pouring hole 302 is provided in the middle of each side plate 301, and a disassembly plate 303 is embedded inside the pouring hole 302. A first fixing strip 304 is symmetrically welded to the bottom end of each side plate 301. The side plates 301 and the disassembly plate 303 have the same thickness. The side of the first fixing strip 304 is aligned with the outer side of the calcium silicate board 201 to facilitate the insertion of the disassembly plate 303 into the side plate 301. A first movable strip 305 is hinged to the top of the first fixing strip 304. A first welding strip 306 is embedded at the top of the 301 near the first movable retaining strip 305. A guide tube 307 is welded to the side plate 301 near the first movable retaining strip 305. A damping block 308 is bonded to the bottom of the guide tube 307. A guide post 309 is slidably installed inside the guide tube 307. A wheel groove 310 is opened on one side of the guide post 309. A roller 311 is rotatably installed inside the wheel groove 310. A buffer spring 312 is installed inside the guide tube 307 between the damping block 308 and the guide post 309.

[0044] Another edge plate 301 has a second fixing strip 313 symmetrically welded to its bottom end. The edge of the edge plate 301 is connected to the calcium silicate board 201 by screws. The edge of the edge plate 301 and the edge of the calcium silicate board 201 are aligned to ensure that the wall edge is aligned and flat. The top of the second fixing strip 313 is hinged to a second movable strip 314. The first fixing strip 304 and the first movable strip 305 have the same cross-sectional shape. The second fixing strip 313 and the second movable strip 314 have the same cross-sectional shape. The slots of the first fixing strip 304 and the second fixing strip 313 fit together to facilitate the combination and splicing of the first fixing strip 304, the first movable strip 305, the second fixing strip 313, and the second movable strip 314. The top of the edge plate 301 near the second movable strip 314 is inlaid with a second welding strip 315. The top of the first movable strip 305 and the second movable strip 314 are both provided with fixing holes 316.

[0045] The working principle and usage process of this invention are as follows: The dovetail grooves 202 of two calcium silicate boards 201 are erected facing each other, facilitating the installation of the edge plate 301 on the calcium silicate boards 201 and sealing both sides. The first movable retaining strip 305 and the second movable retaining strip 314 are rotated until their bottom ends contact the ground. A reinforcing bar passes through the fixing hole 316 and is driven into the ground for fixation. The above is as described above. Figure 7 As shown;

[0046] A stud 214 is embedded in the threaded groove 213. The hexagonal rotating block 215 rotates to fix the stud 214. A motor 210 is embedded in the snap-fit ​​groove 209 and fixed with screws. The mixed foamed concrete slurry is poured into the gap between the calcium silicate boards 201. The motor 210 is started, and the motor 210 drives the cam 211 to rotate. The cam 211 pushes the inner surface of the vibration groove 212, thereby driving the reinforced vibration plate 208 and the motor 210 to move simultaneously. The movable column 205 pulls the damping vibration plate 206 and the support plate 222 closer to the reinforced plate 204. The vibration spring 207 continuously contracts and recovers to prevent large holes from appearing in the foamed concrete and to ensure that the foamed concrete is evenly distributed. At this time, the speed of the motor 210 is controlled to prevent the reinforced plate 204 from vibrating too much, which would cause the air bubbles in the foamed concrete to burst and affect its quality. The foamed concrete layer 1 is formed between the two calcium silicate boards 201. The calcium silicate boards 201 also function as molds and do not need to be disassembled. As part of the wall, they prevent the outer side of the wall from demolding. If damaged, the motor 210 is disassembled for reuse. The decorative panel 219 is then placed near the vibration groove 212, and the reinforcing ring 221 is embedded into the stud 214. The decorative panel 219 is pushed fully into the vibration groove 212. At this point, the extrusion block 220 squeezes the glue bag 217, causing it to rupture. The adhesive flows out and along the glue groove 218, bonding and fixing the reinforcing vibration plate 208 and the decorative panel 219. The stud 214 is then removed, and the foamed concrete is allowed to dry and solidify into foamed concrete layer 1. Simultaneously, the glue dries, and the prefabrication is completed. The reinforcing plate 204 reinforces the dovetail groove 202, ensuring the shape of the dovetail groove 202 and preventing cracking. The movable column 205, the damping vibration plate 206, the vibration spring 207 and the support plate 222 serve as the skeleton of the foamed concrete layer 1 to support it and improve the strength of the foamed concrete layer 1. The reinforcing vibration plate 208 and the calcium silicate board 201 are combined into one to serve as the skeleton to support the calcium silicate board 201, improve the strength of the calcium silicate board 201, and thus improve the overall strength of the wall.

[0047] Foamed concrete with a density grade of 400 is used, with 1% latex powder added to enhance the adhesion to calcium silicate board 201. Under the premise of determining the mix proportion of foamed concrete base, silica fume is used to increase the consistency of foam and extend its half-life. Through a series of reactions of cellulose ether and the synthesis of cellulose derivatives after etherification, the setting and flowability of foamed concrete can be improved to a certain extent, becoming a water-retaining agent and thickener. Through the random support and overlapping effect of fibers, the cells are tightly connected, which not only improves the flowability of foamed concrete, refines the cells, and enhances the stability of foam, but also significantly increases the strength of foamed concrete and reduces the shrinkage and cracking of foamed concrete.

[0048] After the wall is formed, the first movable retaining strip 305 and the second movable retaining strip 314 rotate and reset, the first fixed retaining strip 304 and the first movable retaining strip 305 are aligned, the second movable retaining strip 314 and the second welding strip 315 are welded together, the second movable retaining strip 314 and the second welding strip 315 become a whole, the first movable retaining strip 305 and the first welding strip 306 are welded together, the first movable retaining strip 305 and the first welding strip 306 become a whole, the disassembly plate 303 in the pouring hole 302 is removed, and the adjacent wall is... The first fixing strip 304 and the second fixing strip 313 approach each other and engage with each other. At this time, the roller 311 slides along one side of the side plate 301, the buffer spring 312 pushes the guide post 309 to slide along the guide tube 307, and the first movable strip 305 and the second movable strip 314 engage tightly with each other. Concrete is poured into the gap between the adjacent side plates 301 to connect the walls and eliminate the gaps, ensuring the stability of the wall connection.

[0049] In summary, the edge support component 3 serves as a support for the calcium silicate board 201 in the uniform support component 2, facilitating support and fixation during casting. During the assembly and construction process, the edge support component 3 acts as a connector, linking the wall structure, with the uniform support component 2 as the main body, into a whole, improving operational convenience and making the overall wall structure more stable.

[0050] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A green building energy-saving wall structure, comprising a foamed concrete layer (1), characterized in that: The foamed concrete layer (1) is provided with a uniform support component (2), which includes a calcium silicate board (201); A calcium silicate board (201) is symmetrically arranged on the outside of the foamed concrete layer (1). A dovetail groove (202) is formed on the side of the calcium silicate board (201) near the foamed concrete layer (1). A butt joint strip (203) is provided on the foamed concrete layer (1) corresponding to the dovetail groove (202). A reinforcing plate (204) is bonded to the bottom of the dovetail groove (202). A movable column (205) is movably installed through the middle of the reinforcing plate (204). One end of each movable column (205) located within the same dovetail groove (202) is connected to a damping vibration plate (206). A vibration spring (207) is sleeved between the damping vibration plate (206) and the reinforcing plate (204) of the column (205). The other end of the movable column (205) passes through the calcium silicate plate (201) and is welded to the reinforcing vibration plate (208). A snap-fit ​​groove (209) is opened in the middle of the reinforcing vibration plate (208). A motor (210) is movably snapped into the snap-fit ​​groove (209). A cam (211) is fixedly sleeved at the output shaft end of the motor (210). A vibration groove (212) is opened on the calcium silicate plate (201) corresponding to the reinforcing vibration plate (208). The vibration groove (212) is provided with threaded grooves (213) at each corner. A stud (214) is connected to the inside of the threaded groove (213) by a thread. A hexagonal rotating block (215) is welded to one end of the stud (214). The stud (214) moves through the reinforced vibration plate (208). The reinforced vibration plate (208) is provided with adhesive holes (216) evenly. A glue bag (217) is placed inside the adhesive hole (216). A glue groove (218) is provided on the side of the adhesive hole (216) near the vibration groove (212). A decorative plate (219) is movably embedded inside the vibration groove (212). An extrusion block (220) is installed on the decorative plate (219) near the adhesive hole (216). A reinforcing ring (221) is embedded on the decorative plate (219) near the stud (214).

2. The green building energy-saving wall structure according to claim 1, characterized in that, The input end of the motor (210) is electrically connected to the output end of the external power supply, and one side of the cam (211) is attached to the vibration groove (212).

3. The green building energy-saving wall structure according to claim 1, characterized in that, A support plate (222) is bonded to one side of the damping vibration plate (206). The damping vibration plate (206) and the support plate (222) are the same size. The tops of the foamed concrete layer (1), the calcium silicate board (201), the reinforcing board (204) and the support plate (222) are all flush.

4. The green building energy-saving wall structure according to claim 1, characterized in that, The glue bag (217) is a cylindrical plastic bag filled with adhesive. The two sides of the glue bag (217) are aligned with the two sides of the reinforcing vibration plate (208). The extrusion block (220) and the bonding hole (216) are in clearance fit.

5. A green building energy-saving wall structure according to claim 1, characterized in that, The reinforcing ring (221) and the stud (214) are in a transition fit. The inner side of the reinforcing ring (221) is a smooth curved surface. The corner of the hexagonal rotating block (215) is aligned with the outer edge of the stud (214).

6. A green building energy-saving wall structure according to claim 1, characterized in that, The edge of the reinforced vibration plate (208) is aligned with the edge of the vibration groove (212), and weight reduction holes are uniformly opened in the middle of the reinforced vibration plate (208).

7. A green building energy-saving wall structure according to claim 1, characterized in that, The foamed concrete layer (1) is provided with edge support components (3) on both sides, and the edge support components (3) include edge plates (301); Side plates (301) are symmetrically installed on both sides of the foamed concrete layer (1). A pouring hole (302) is provided in the middle of each side plate (301). A disassembly plate (303) is embedded inside the pouring hole (302). A first fixing strip (304) is symmetrically welded to the bottom end of one side plate (301). A first movable strip (305) is hinged to the top of the first fixing strip (304). A first welding strip (306) is embedded at the top of the side plate (301) near the first movable strip (305). A guide tube (307) is welded to the side plate (301) near the first movable retaining strip (305). A damping block (308) is bonded to the bottom of the guide tube (307). A guide post (309) is slidably installed inside the guide tube (307). A wheel groove (310) is opened on one side of the guide post (309). A roller (311) is rotatably installed inside the wheel groove (310). A buffer spring (312) is installed inside the guide tube (307) between the damping block (308) and the guide post (309). Another side plate (301) is symmetrically welded with a second fixing strip (313) at its bottom end. The top end of the second fixing strip (313) is hinged with a second movable strip (314). The top end of the side plate (301) near the second movable strip (314) is inlaid with a second welding strip (315). The top ends of the first movable strip (305) and the second movable strip (314) are both provided with fixing holes (316).

8. A green building energy-saving wall structure according to claim 7, characterized in that, The edge of the baffle plate (301) is connected to the calcium silicate plate (201) by screws, and the edge of the baffle plate (301) and the edge of the calcium silicate plate (201) are aligned.

9. A green building energy-saving wall structure according to claim 7, characterized in that, The side plate (301) and the disassembly plate (303) have the same thickness, and the side of the first fixing strip (304) is aligned with the outer side of the calcium silicate plate (201).

10. A green building energy-saving wall structure according to claim 7, characterized in that, The first fixed clip (304) and the first movable clip (305) have the same cross-sectional shape, and the second fixed clip (313) and the second movable clip (314) have the same cross-sectional shape. The slots of the first fixed clip (304) and the second fixed clip (313) fit together.

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