A green building with a green building fabricated wall structure

Abstract

The application provides a green building with a green building assembly wall structure, and a butt joint assembly includes a fixing piece, a protruding block, a push rod and a track, the fixing piece is installed in the inside of a connecting piece, the protruding block is slidably nested at one end of the fixing piece, the push rod is slidably arranged at one end of the protruding block close to the fixing piece, and the track penetrates the outside of the push rod, the extension tooth at the lower end of the second sawtooth can form horizontal extrusion above the side of the tooth piece, so that the end of the connecting piece inside the cross beam close to the clamping frame is connected through the deformation layer and the push rod, since the deformation layer is in the inside of the fixing piece, and the other side of the fixing piece is connected with the cross beam on the other side in the connecting piece, therefore, the connecting piece and the cross beams on the two sides can be quickly butt jointed and fixed, and the problem that the existing cross beam is thick and the bolt cannot be quickly penetrated is avoided.

Description

Technical Field

[0001] This invention relates to the field of green building technology, and in particular to a green building with a green building prefabricated wall structure. Background Technology

[0002] Green buildings are formed through prefabricated installation. Prefabricated buildings transfer a large amount of on-site work in traditional construction methods to factories. Building components and accessories are processed and manufactured in factories and transported to the construction site. They are then assembled on-site using reliable connection methods. After assembly, green buildings can be installed quickly, shortening the construction period. This provides technical insights for green buildings. Research on green building has revealed the following issues: When assembling the walls of green buildings, it is necessary to assemble the beams. Because the beams are thick, and bolts usually need to penetrate the interior of two connected objects at the same time, it is difficult to quickly install and fix the beams together. As a result, the beams of green buildings cannot be quickly installed and connected. Currently, the existing technology CN202210341724.7 discloses a green and energy-saving prefabricated building wall component, which is a prefabricated wall. This invention can realize the corresponding connection relationship between left and right sides through the first sliding groove and T-shaped sliding rail, and can realize the corresponding connection relationship between left and right corners through the T-shaped structure on the bridging column. Furthermore, it can also realize the stacked connection relationship through the cooperation of guide groove and guide rod to achieve diversified use effect. In addition, the sliding sound insulation plate can be easily disassembled and assembled. This invention primarily addresses the problem of the inability to quickly install and connect beams in green buildings. Summary of the Invention

[0003] To address the aforementioned technical problems, this invention provides a green building with a prefabricated wall structure, thereby resolving the issues described in the background section.

[0004] The purpose and effect of the present invention, which provides a green building with a green building prefabricated wall structure, are achieved by the following specific technical means: A green building with a green building prefabricated wall structure includes a wall panel, a crossbeam is nested and connected to the top of the wall panel, connectors are slidably nested and connected to both sides of the crossbeam, and a frame is embedded in one side of the crossbeam.

[0005] Furthermore, a groove is provided at the lower end of the crossbeam, and the upper end of the wall panel is embedded in the groove at the lower end of the crossbeam.

[0006] Furthermore, the end of the crossbeam furthest from the frame is L-shaped, and the edge of that end of the crossbeam is serrated. The two ends of the crossbeam are slidably embedded into the interior of the connector.

[0007] Furthermore, the connector is located at the connection end between the crossbeams, and the interior of the connector is hollow. The interior of the connector is equipped with a docking component for quickly assembling the crossbeams.

[0008] Furthermore, the card frame is matched with the crossbeam, and the card frame is concave.

[0009] Furthermore, the docking assembly includes a fixing member, a protrusion, a push rod, and a track. The fixing member is installed inside the connector, the protrusion is slidably nested at one end of the fixing member, the push rod slides at the end of the protrusion near the fixing member, and the track passes through the outside of the push rod.

[0010] Furthermore, the interior of the fastener is hollow, and one end of the fastener has serrations. These serrations are slidably nested with the serrations at one end of the crossbeam. The side of the fastener away from the serrations slides and fits against the card frame. The fastener is arranged in a horizontal "7" shape and is located at the upper end of the connector.

[0011] Furthermore, when the crossbeam is not embedded inside the fastener, the protrusion extends to the outside of the fastener. After one end of the crossbeam is embedded inside the fastener, the protrusion slides into the fastener.

[0012] Furthermore, the push rod is arranged in a horizontal "L" shape, and the "L"-shaped bend of the push rod is arranged in a semi-circular arc shape. The track is located at the bend of the push rod, and the track is installed inside the fixing member and is arranged in a concave shape.

[0013] Furthermore, the docking assembly also includes a deformation layer, a toothed plate, a first saw tooth, a second saw tooth, an extension tooth, and a locking block. The deformation layer is embedded in the side of the fixing member near the locking frame, the toothed plate is located at the end of the deformation layer away from the locking frame, the first saw tooth and the second saw tooth are arranged sequentially at the end of the push rod near the locking frame, the locking block slides inside the second saw tooth, and the extension tooth is located on the inner side of the locking block.

[0014] Furthermore, when the card frame is inside the fixing member, one side of the deformable layer is horizontally attached to the card frame, the toothed plate is spaced less than 1 cm from the first and second saw teeth, and the deformable layer is made of a deformable material, such as rubber.

[0015] Furthermore, both the first and second saw teeth are located at the end of the push rod near the toothed plate. Both the second and first saw teeth are triangular in shape. The length of the second saw tooth is 1-3 cm longer than the length of the first saw tooth. The interior of the second saw tooth is concave, and grooves are provided on both sides of the second saw tooth. The locking block slides vertically inside the grooves.

[0016] Furthermore, the extension tooth is located at the lower end of the second saw tooth, and the extension tooth is vertically slidably nested at the lower end of the second saw tooth by a locking block.

[0017] Beneficial effects: 1. After the serrated end of the crossbeam is embedded inside the connector, the serrated end of the crossbeam is nested with one side of the fastener. The fastener also has serrations at this end, so that the serrations at the fastener limit the serrated end of the crossbeam. Since the fastener is inside the connector, the crossbeam and the connector can be interlocked by the serrations, preventing the crossbeam and the connector from swaying left and right inside. 2. At the same time, when the crossbeam is embedded in one side of the fastener, one end of the crossbeam is pressed against one side of the protrusion, and the protrusion slides into the inside of the fastener. When the protrusion slides, it pushes one end of the push rod. Since the track is at the bend of the push rod and the push rod is set in a horizontal "L" shape, when the protrusion slides and presses against one end of the push rod, the end of the push rod away from the protrusion can slide in a 90° direction. 3. When the push rod slides inside the fixed part, since the fixed part is located at the upper end inside the connecting part, when the serrated end of the crossbeam is embedded in one side of the fixed part, the end of the push rod away from the protrusion can slide horizontally inside the fixed part. At this time, the first and second serrations at the lower end of the push rod slide horizontally inside the fixed part simultaneously. 4. During the sliding process, the first and second saw teeth are sequentially pressed against one end of the toothed piece, and the toothed piece is pressed against one end of the deformation layer. Since one side of the deformation layer is horizontally attached to the card frame, the deformation layer bends and deforms inward toward the card frame. At this time, the extended teeth at the lower end of the second saw tooth can form a horizontal compression on the upper side of the toothed piece, so that the end of the crossbeam inside the connector near the card frame is connected to the push rod through the deformation layer. Since the deformation layer is inside the fixing part, and the other side of the fixing part is connected to the crossbeam on the other side of the connector, the connector and the crossbeams on both sides inside can form a quick docking and fixing, avoiding the situation where the existing crossbeam is too thick and the bolt cannot be quickly penetrated. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0019] Figure 2 This is a schematic diagram of the beam structure of the present invention.

[0020] Figure 3 This is a top view of a partial cross-sectional structure of the connector of the present invention.

[0021] Figure 4 This is a top view cross-sectional structural diagram of the connector of the present invention.

[0022] Figure 5 This is a schematic diagram of the beam structure of the present invention.

[0023] Figure 6 For the present invention Figure 3Enlarged structural diagram at point A in the middle.

[0024] Figure 7 For the present invention Figure 6 A schematic diagram showing the sliding of the central convex block.

[0025] Figure 8 This is a schematic diagram of the push rod and protrusion structure of the present invention.

[0026] Figure 1-8 In the diagram, the correspondence between component names and drawing numbers is as follows: 1-Wall panel, 101-Connector, 102-Beam, 103-Frame, 2-Fixer, 201-Protrusion, 202-Push rod, 203-Rail, 3-Deformation layer, 301-Toothed piece, 4-First saw tooth, 401-Second saw tooth, 402-Extension tooth, 403-Clocking block. Detailed Implementation

[0027] 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. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0028] Example: As attached Figure 1 To be continued Figure 8 As shown: Example 1: A green building with a green building prefabricated wall structure includes a wall panel 1, a crossbeam 102 is nested on the top of the wall panel 1, connectors 101 are slidably nested on both sides of the crossbeam 102, and a frame 103 is embedded on one side of the crossbeam 102. Wherein: the lower end of the wall panel 1 and the crossbeam 102 are provided with a groove, and the upper end of the wall panel 1 is embedded in the groove at the lower end of the crossbeam 102; The upper end of the wall panel 1 is snapped into the lower end of the crossbeam 102. By embedding bolts inside the upper end of the wall panel 1, it is convenient to connect and fix the wall panel 1 and the crossbeam 102. The crossbeam 102 has an "L"-shaped end away from the frame 103, and the edge of that end of the crossbeam 102 is serrated. The two ends of the crossbeam 102 are slidably embedded into the interior of the connector 101. Two crossbeams 102 are embedded inside the connector 101, with their mating ends facing opposite directions. For example, one end of crossbeam 102 near the frame 103 is embedded inside the connector 101, while the serrated end of crossbeam 102 is embedded inside the same connector 101. Because this end of crossbeam 102 is L-shaped, crossbeam 102 and crossbeam 102 can be quickly engaged, preventing crossbeam 102 from shaking inside the connector 101. (Refer to the attached instruction manual.) Figure 4 As shown; Connector 101 is located at the connection end between crossbeams 102. The interior of connector 101 is hollow and has a docking assembly for quickly assembling crossbeams 102. The card frame 103 is matched with the crossbeam 102, and the card frame 103 is concave. The crossbeams 102 are respectively embedded inside the connectors 101. At this time, the upper end of the wall panel 1 is snapped into the lower end of the crossbeam 102. By embedding bolts inside the upper end of the wall panel 1, it is convenient to connect and fix the wall panel 1 and the crossbeam 102. Then, other components required for the prefabricated building are installed on the upper end of the crossbeam 102 and the lower end of the wall panel 1 in sequence to complete the assembly process of this green building. Example 2: Refer to the attached instruction manual Figure 1-6 It can be seen that the difference between Embodiment 2 and Embodiment 1 is that the docking assembly includes a fixing member 2, a protrusion 201, a push rod 202 and a track 203. The fixing member 2 is installed inside the connector 101, the protrusion 201 is slidably nested in one end of the fixing member 2, the push rod 202 slides in one end of the protrusion 201 near the fixing member 2, and the track 203 passes through the outside of the push rod 202. Among them: the fixing part 2 has a hollow interior and a serrated end. The serrated end is slidably nested with the serrated end of the crossbeam 102. The side of the fixing part 2 away from the serrated end is slidably attached to the card frame 103. The fixing part 2 is arranged in a horizontal "7" shape and is located at the upper end of the inside of the connecting part 101. The fastener 2 is arranged in a horizontal "7" shape. The shape of the fastener 2 is used to make the frame 103 embedded in the inside of the connector 101 through the crossbeam 102, so as to avoid one end of the crossbeam 102 being squeezed to the side of the protrusion 201. The fixing member 2 is located between the crossbeams 102 on both sides of the connector 101. After the crossbeams 102 on both sides of the connector 101 are embedded inside the connector 101, the serrated end of one end of the fixing member 2 limits the crossbeam 102. The fixing member 2 and the crossbeams 102 on both sides of the connector 101 form a connection assembly. (Refer to the attached instruction manual.) Figure 4 As shown; When the protrusion 201 and the crossbeam 102 are not embedded inside the fastener 2, the protrusion 201 extends to the outside of the fastener 2. After one end of the crossbeam 102 is embedded inside the fastener 2, the protrusion 201 slides into the fastener 2. Push rod 202 and track 203. Push rod 202 is arranged in a horizontal "L" shape. The "L"-shaped bend of push rod 202 is arranged in a semi-circular arc shape. Track 203 is located at the bend of push rod 202. Track 203 is installed inside the fixing member 2 and is arranged in a concave shape. Since the track 203 is located at the bend of the push rod 202, and the push rod 202 is arranged in a horizontal "L" shape, when the protrusion 201 slides and presses against one end of the push rod 202, the end of the push rod 202 away from the protrusion 201 can slide in a 90° direction. Wherein: After the serrated end of the crossbeam 102 is embedded inside the connector 101, the serrated end of the crossbeam 102 is nested with one side of the fixing member 2. The fixing member 2 is also provided with serrations at this end, so that the serrations at one end of the fixing member 2 limit the serrated end of the crossbeam 102. Since the fixing member 2 is inside the connector 101, the crossbeam 102 and the connector 101 can be connected by the serrations, so as to avoid the crossbeam 102 and the connector 101 from swaying left and right inside. At the same time, when the crossbeam 102 is embedded in one side of the fixing member 2, one end of the crossbeam 102 is pressed against one side of the protrusion 201, and the protrusion 201 slides into the fixing member 2. When the protrusion 201 slides, it pushes one end of the push rod 202. Since the track 203 is located at the bend of the push rod 202, and the push rod 202 is set in a horizontal "L" shape, when the protrusion 201 slides and presses against one end of the push rod 202, the end of the push rod 202 away from the protrusion 201 can slide in a 90° direction. Example 3: Refer to the appendix of the instruction manual Figure 2-7 It can be seen that the difference between Embodiment 3 and Embodiments 1 and 2 is that the docking assembly further includes a deformation layer 3, a toothed piece 301, a first saw tooth 4, a second saw tooth 401, an extension tooth 402, and a locking block 403. The deformation layer 3 is embedded in the side of the fixing member 2 near the locking frame 103. The toothed piece 301 is located at the end of the deformation layer 3 away from the locking frame 103. The first saw tooth 4 and the second saw tooth 401 are arranged sequentially at the end of the push rod 202 near the locking frame 103. The locking block 403 slides inside the second saw tooth 401. The extension tooth 402 is located on the inner side of the locking block 403. Wherein: the deformable layer 3 and the toothed piece 301, when the card frame 103 is inside the fixing member 2, one side of the deformable layer 3 is horizontally attached to the card frame 103, the toothed piece 301 is spaced less than 1cm apart from the first saw tooth 4 and the second saw tooth 401, and the deformable layer 3 is made of a deformable material, such as rubber. When one end of the push rod 202 slides horizontally inside the fixing member 2, the first sawtooth 4 and the second sawtooth 401 gradually press against one end of the toothed plate 301. At this time, the toothed plate 301 is pressed against one end of the deformable layer 3. Since one side of the deformable layer 3 is horizontally attached to the frame 103, the deformable layer 3 bends and deforms inward toward the frame 103. Please refer to the attached instruction manual. Figure 7 As shown; The first saw tooth 4 and the second saw tooth 401 are both located at the end of the push rod 202 near the toothed plate 301. The second saw tooth 401 and the first saw tooth 4 are both triangular. The length of the second saw tooth 401 is 1-3 cm longer than the length of the first saw tooth 4. The interior of the second saw tooth 401 is concave. Grooves are provided on both sides of the second saw tooth 401. The locking block 403 slides vertically inside the groove. Since the fixing member 2 is located at the upper end inside the connector 101, when the serrated end of the crossbeam 102 is embedded in one side of the fixing member 2, the end of the push rod 202 away from the protrusion 201 can slide horizontally inside the fixing member 2. The extension tooth 402 and the locking block 403 are located at the lower end of the second saw tooth 401. The extension tooth 402 is vertically slidably nested with the lower end of the second saw tooth 401 through the locking block 403. Wherein: When the push rod 202 slides inside the fixing member 2, since the fixing member 2 is located at the upper end inside the connecting member 101, when the serrated end of the crossbeam 102 is embedded in one side of the fixing member 2, the end of the push rod 202 away from the protrusion 201 can slide horizontally inside the fixing member 2. At this time, the first serration 4 and the second serration 401 at the lower end of the push rod 202 slide horizontally simultaneously inside the fixing member 2. During the sliding process, the first saw tooth 4 and the second saw tooth 401 are pressed against one end of the toothed piece 301 in sequence. The toothed piece 301 is pressed against one end of the deformable layer 3. Since one side of the deformable layer 3 is horizontally attached to the frame 103, the deformable layer 3 bends and deforms inward toward the frame 103. At this time, the extended tooth 402 at the lower end of the second saw tooth 401 can form a horizontal compression on the upper side of the toothed piece 301, so that the end of the crossbeam 102 inside the connector 101 near the frame 103 is connected to the push rod 202 through the deformable layer 3. Since the deformable layer 3 is inside the fixing member 2, and the other side of the fixing member 2 is connected to the crossbeam 102 on the other side inside the connector 101, the connector 101 and the crossbeams 102 on both sides inside can form a quick docking and fixing, avoiding the situation where the existing crossbeam 102 is too thick and the bolt cannot be quickly penetrated.

Claims

1. A green building with a green building prefabricated wall structure, comprising wall panels (1), characterized in that: The top of the wall panel (1) is nested with a crossbeam (102), and the two sides of the crossbeam (102) are slidably nested with connectors (101). A card frame (103) is embedded in one side of the crossbeam (102). The connector (101) is located at the connection end between the crossbeams (102). The interior of the connector (101) is hollow. The interior of the connector (101) is provided with a docking assembly for quickly assembling the crossbeams (102). The card frame (103) is matched with the crossbeam (102), and the card frame (103) is concave. The docking assembly includes a fixing member (2), a protrusion (201), a push rod (202), and a track (203). The fixing member (2) is installed inside the connector (101). The protrusion (201) is slidably nested in one end of the fixing member (2). The push rod (202) slides in one end of the protrusion (201) near the fixing member (2). The track (203) passes through the outside of the push rod (202). The interior of the fastener (2) is hollow. One end of the fastener (2) is provided with a serration. The serration is slidably nested with the serration at one end of the crossbeam (102). The side of the fastener (2) away from the serration is slidably attached to the card frame (103). The fastener (2) is arranged in a horizontal "7" shape. The fastener (2) is located at the upper end inside the connector (101). When the protrusion (201) and the crossbeam (102) are not embedded inside the fastener (2), the protrusion (201) extends to the outside of the fastener (2). After one end of the crossbeam (102) is embedded inside the fastener (2), the protrusion (201) slides into the fastener (2). The push rod (202) is arranged in a horizontal "L" shape, and the "L"-shaped bend of the push rod (202) is arranged in a semi-circular arc shape. The track (203) is located at the bend of the push rod (202), and the track (203) is installed inside the fixing member (2). The track (203) is arranged in a concave shape. The docking assembly further includes a deformation layer (3), a toothed piece (301), a first sawtooth (4), a second sawtooth (401), an extension tooth (402), and a locking block (403). The deformation layer (3) is embedded in the side of the fixing member (2) near the locking frame (103). The toothed piece (301) is located at the end of the deformation layer (3) away from the locking frame (103). The first sawtooth (4) and the second sawtooth (401) are arranged in sequence at the end of the push rod (202) near the locking frame (103). The locking block (403) slides inside the second sawtooth (401). The extension tooth (402) is located on the inner side of the locking block (403).

2. The green building with prefabricated wall structure according to claim 1, characterized in that: The lower end of the crossbeam (102) is provided with a groove, and the upper end of the wall panel (1) is embedded in the groove at the lower end of the crossbeam (102); The crossbeam (102) is L-shaped at one end away from the frame (103), and the edge of the crossbeam (102) at that end is serrated. The two ends of the crossbeam (102) are slidably embedded into the interior of the connector (101).

3. The green building with prefabricated wall structure according to claim 1, characterized in that: When the card frame (103) is inside the fixing member (2), one side of the deformation layer (3) is horizontally attached to the card frame (103), and the toothed piece (301) is spaced less than 1 cm apart from the first saw tooth (4) and the second saw tooth (401).

4. The green building with prefabricated wall structure according to claim 1, characterized in that: The first saw tooth (4) and the second saw tooth (401) are both located at one end of the push rod (202) near the tooth plate (301). The second saw tooth (401) and the first saw tooth (4) are both triangular. The length of the second saw tooth (401) is 1-3 cm longer than the length of the first saw tooth (4). The interior of the second saw tooth (401) is concave. Grooves are provided on both sides of the second saw tooth (401). The locking block (403) slides vertically inside the groove.

5. The green building with prefabricated wall structure according to claim 1, characterized in that: The extension tooth (402) is located at the lower end of the second saw tooth (401), and the extension tooth (402) is vertically slidably nested at the lower end of the second saw tooth (401) by means of a locking block (403).

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