A quick-joined ALC wall panel and construction method

Abstract

The present invention relates to the technical field of ALC wall panels, and in particular to a quick-joined ALC wall panel and a construction method. It is aimed at the shortcomings of existing ALC wall panels during installation. It includes: a wall body; a steel bar frame, which is embedded in the wall body; a first connecting shell, which has a plurality of pieces and is fixed to one side of the wall body, and the first connecting shell is provided with a threaded rod; a second connecting shell, the number of which is the same as that of the first connecting shell, is embedded in the other side of the wall body, and the second connecting shell is provided with a threaded sleeve, and the threaded sleeve is flush with the adjacent threaded rod, and the first connecting shell and the second connecting shell are both provided with blind holes, and the diameter of the blind holes on the two is the same as the diameter of the threaded sleeve. The present invention positions the second wall body by threaded connection between the threaded rod on the first wall body and the adjacent threaded sleeve on the second wall body, so that the two adjacent walls are quickly aligned, thereby improving the installation efficiency of the wall body.

Description

Technical Field

[0001] The invention relates to the technical field of ALC wall panels, and in particular to a quick-joined ALC wall panel and a construction method. Background Art

[0002] ALC wall panels are a lightweight and porous building material made of cement, lime, silica sand (quartz sand) as the main ingredients and aluminum powder. They have the characteristics of light weight, good thermal insulation, good sound insulation and high fire resistance, and are therefore used in industrial and civil construction fields.

[0003] When installing ALC wall panels, it is usually necessary to lift the wall panels and align them with the upper and lower baselines, then use tools such as crowbars to move the ALC wall panels so that two adjacent ALC wall panels are plugged together, and use mortar to fill the gaps between the ALC wall panels and between the ALC wall panels and the base wall. However, in the construction site, the two adjacent ALC wall panels cannot be guaranteed to be flush due to the uneven ground, which will affect the bonding effect of the mortar between the two and the overall aesthetics of the wall after construction. Therefore, the position of the ALC wall panels needs to be adjusted multiple times so that the two adjacent ALC wall panels can fit tightly, which will not only increase the workload of the construction workers, but also extend the overall construction period and reduce the assembly efficiency on site. Summary of the invention

[0004] In order to overcome the shortcomings of the existing ALC wall panels during the installation process, the present invention provides a quick-joined ALC wall panel and a construction method.

[0005] The technical solution of the present invention is: a quick-joined ALC wall panel, comprising:

[0006] Wall;

[0007] A steel frame, embedded in the wall;

[0008] A plurality of first connection shells are fixed to one side of the wall, and the first connection shells are provided with threaded rods;

[0009] The number of second connection shells is the same as that of the first connection shells, and both are embedded in the other side of the wall. The second connection shells are provided with threaded sleeves, and the threaded sleeves are flush with the adjacent threaded rods. The first connection shells and the second connection shells are both provided with blind holes, and the diameters of the blind holes on the two are the same as the diameter of the threaded sleeves;

[0010] First connection components, the number of which is consistent with the specific number of the first connection shells, are respectively arranged on adjacent first connection shells and are used to change the positions of adjacent threaded rods;

[0011] The number of the second connection components is the same as the number of the second connection shells, and they are respectively arranged on adjacent second connection shells to change the positions of adjacent threaded sleeves.

[0012] Further, the first connection component includes:

[0013] A first connecting rod, slidably connected to the adjacent first connecting shell, the first connecting rod is used to drive the adjacent threaded rod to move, and a first toothed groove is provided on the first connecting rod;

[0014] The first driving rod is rotatably connected to the first connecting shell, and one end of the first driving rod is fixedly connected to a gear meshing with the first toothed groove.

[0015] Further, the second connection component includes:

[0016] A second connecting rod, slidably connected to the adjacent second connecting shell, the second connecting rod is used to drive the adjacent threaded sleeve to move, and a second toothed groove is provided on the second connecting rod;

[0017] The second driving rod is rotatably connected to the second connecting shell, and one end of the second driving rod is fixedly connected to a gear meshing with the second toothed groove.

[0018] Furthermore, the first connecting shell and the second connecting shell are both rotatably connected to a third driving rod, and the third driving rod is provided with an external thread. The first connecting shell and the second connecting shell are both slidably connected to an extrusion block, and the third driving rod is threadably connected to the adjacent extrusion block through the external thread thereon, and the first connecting rod and the second connecting rod are respectively squeezed by the adjacent extrusion blocks.

[0019] Furthermore, the first connecting rod, the second connecting rod and the extrusion block are all provided with inclined surfaces, and the inclined surfaces on the first connecting rod and the second connecting rod are respectively matched with the inclined surfaces on the adjacent extrusion blocks.

[0020] Furthermore, it also includes:

[0021] The first universal joints, the number of which is consistent with the specific number of the first connecting shells, are respectively arranged between adjacent first connecting rods and adjacent threaded rods, the first universal joints have a first transmission fork and a second transmission fork, and the two are connected by a cross shaft, the first transmission fork is rotatably connected to the adjacent first connecting rod, and the second transmission fork is rotatably connected to the adjacent threaded rod, and the diameters of the projections of the first transmission fork and the second transmission fork on the adjacent first connecting rod are both equal to the diameters of the blind holes on the adjacent first connecting shells;

[0022] The number of the second universal joints is consistent with the specific number of the second connecting shells, and they are respectively arranged between adjacent second connecting rods and adjacent threaded sleeves. The second universal joint has a third transmission fork and a fourth transmission fork, and the two are connected by a cross shaft. The third transmission fork is rotationally connected to the adjacent second connecting rod, and the fourth transmission fork is fixedly connected to the adjacent threaded sleeve. The diameters of the projections of the third transmission fork and the fourth transmission fork on the adjacent second connecting rod are equal to the diameter of the blind hole on the adjacent second connecting shell.

[0023] Furthermore, the first connecting shell and the second connecting shell are both provided with inclined annular surfaces on one side away from each other, and the inclined annular surfaces on the two are respectively used to squeeze the adjacent second transmission fork and the adjacent fourth transmission fork.

[0024] Furthermore, it also includes:

[0025] The number of fixing components is consistent with the specific number of the first universal joints, and they are respectively arranged on adjacent first universal joints. The fixing components are used to fix the adjacent threaded rods. The fixing components include:

[0026] An extrusion ring, slidably connected to the second transmission fork;

[0027] A spring is arranged between the extrusion ring and the second transmission fork. The second transmission fork is provided with a plurality of sliding grooves at one end away from the adjacent first connecting rod. A limiting ball is slidably connected in the sliding groove. The extrusion ring is used to limit the limiting ball. The threaded rod is provided with limiting grooves with the same number as the limiting balls, and the limiting grooves are used to limit the position of the limiting balls.

[0028] Furthermore, the extrusion ring is provided with an inclined annular surface for extruding the limiting ball, and the depth of the limiting groove is smaller than the radius of the limiting ball.

[0029] A construction method of a quick-joined ALC wall panel, based on the quick-joined ALC wall panel, comprises the following steps:

[0030] S1: When installing the wall, the first wall is moved to the installation position and erected and fixed, and then the second wall is moved to the installation position and erected;

[0031] S2: moving the extrusion ring on the first wall so that the spring is compressed and force is stored, releasing the limit of the extrusion ring on the limit ball, so that the threaded rod on the first wall can rotate relative to the first universal joint adjacent thereto, and during the rotation of the threaded rod, the limit ball can be separated from the threaded rod;

[0032] S3: respectively adjusting the positions of the two threaded rods on the first wall and the two threaded sleeves on the second wall, so that the threaded rod drives the adjacent second transmission fork to rotate relative to the adjacent first transmission fork, and the threaded sleeve drives the adjacent fourth transmission fork to rotate relative to the adjacent third transmission fork, so that the threaded rod is aligned with the adjacent threaded sleeve;

[0033] S4: rotating the threaded rod on the first wall to connect it with the threaded sleeve on the second wall, loosening the extrusion ring, so that the extrusion ring is reset relative to the threaded rod under the action of the spring, and the threaded rod on the first wall is locked again by the limit ball;

[0034] S5: rotating the first driving rod on the first wall, the first driving rod drives the first connecting rod to move through the cooperation between the gear on the first driving rod and the adjacent first toothed groove, thereby driving the second wall to move;

[0035] S6: After the first driving rod on the first wall stops rotating, the second driving rod on the second wall is rotated, and the second driving rod drives the second connecting rod to move through the cooperation between the gear on the second driving rod and the adjacent second toothed groove, thereby driving the second wall to move. After the first wall and the second wall are tightly fitted, the second driving rod on the second wall stops rotating;

[0036] S7: Rotate the third driving rod on the first connecting shell on the first wall and the second connecting shell on the second wall, and the third driving rod drives the adjacent extrusion blocks to move, and the first connecting rod and the second connecting rod are respectively limited by the adjacent extrusion blocks and cannot move, thereby completing the splicing of the second wall and the first wall.

[0037] The present invention has the following advantages: the present invention positions the second wall through the threaded connection between the threaded rod on the first wall and the adjacent threaded sleeve on the second wall, so that the two adjacent walls are quickly aligned, thereby improving the installation efficiency of the wall.

[0038] By arranging a first universal joint between the first connecting rod and the adjacent threaded rod and a second universal joint between the second connecting rod and the adjacent threaded sleeve, the threaded sleeve can still be connected to the adjacent threaded rod when a deviation occurs between the first wall and the second wall, thereby further accelerating the installation speed of the second wall.

[0039] The limiting ball is squeezed by the squeezing ring so that the limiting ball is embedded in the adjacent limiting groove, limiting the threaded rod so that the threaded rod cannot rotate, thereby ensuring the stability of the position of the threaded rod during the movement of the first connecting rod, thereby ensuring the stability of the position relationship between the first wall and the second wall. BRIEF DESCRIPTION OF THE DRAWINGS

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

[0041] Figure 2 It is a three-dimensional structural cross-sectional view of the wall of the present invention;

[0042] Figure 3 It is a schematic diagram of the three-dimensional structure of the first connecting shell and the second connecting shell of the present invention;

[0043] Figure 4 It is a schematic diagram of the three-dimensional structure of the first connecting shell and the threaded rod of the present invention;

[0044] Figure 5 It is a three-dimensional structural cross-sectional view of the first connecting shell of the present invention;

[0045] Figure 6 is a three-dimensional structural cross-sectional view of the second connecting shell of the present invention;

[0046] Figure 7 It is a three-dimensional structural cross-sectional view of the extrusion block of the present invention;

[0047] Figure 8 It is a schematic diagram of the three-dimensional structure of the first universal joint and the extrusion ring of the present invention;

[0048] Fig. 9 It is a schematic diagram of the three-dimensional structure of the extrusion ring and the spring of the present invention;

[0049] Fig.10 It is a three-dimensional structural cross-sectional view of the extrusion ring of the present invention;

[0050] Fig.11 It is a three-dimensional structural cross-sectional view of the first universal joint of the present invention.

[0051] Names and serial numbers of parts in the figure: 1-wall, 2-steel frame, 3-first connecting shell, 4-threaded rod, 5-second connecting shell, 6-threaded sleeve, 7-first connecting rod, 8-first toothed groove, 9-first driving rod, 71-second connecting rod, 81-second toothed groove, 91-second driving rod, 10-third driving rod, 11-extrusion block, 12-first universal joint, 121-second universal joint, 1201-first transmission fork, 1202-second transmission fork, 1203-third transmission fork, 1204-fourth transmission fork, 13-extrusion ring, 14-spring, 15-slide, 16-limiting ball, 17-limiting groove. DETAILED DESCRIPTION

[0052] The preferred technical solutions of the present invention are described in detail below with reference to the accompanying drawings.

[0053] Example 1: A quick-joined ALC wall panel, such as Figure 1-Figure 6As shown, it includes: a wall 1; a steel bar frame 2, which is embedded in the wall 1; a first connecting shell 3, which has a plurality of them and is fixed to one side of the wall 1, and the first connecting shell 3 is provided with a threaded rod 4; a second connecting shell 5, the number of which is consistent with the number of the first connecting shells 3, and is embedded in the other side of the wall 1, and the second connecting shell 5 is provided with a threaded sleeve 6, and the threaded sleeve 6 is flush with the adjacent threaded rod 4, and the first connecting shell 3 and the second connecting shell 5 are both provided with blind holes, and the diameter of the blind holes on the two is the same as the diameter of the threaded sleeve 6; the number of first connecting components is consistent with the specific number of the first connecting shells 3, and they are respectively arranged on adjacent first connecting shells 3, and are used to change the positions of adjacent threaded rods 4; the number of second connecting components is consistent with the number of the second connecting shells 5, and they are respectively arranged on adjacent second connecting shells 5, and are used to change the positions of adjacent threaded sleeves 6.

[0054] In the above scheme, the wall 1 is made of cement, lime, sand, aluminum powder and water, and the specific formula and ratio can be changed as needed; the steel frame 2 is used to increase the strength and durability of the overall structure of the wall 1; the specific number of the first connecting shell 3 and the second connecting shell 5 can be selected by the staff according to actual usage. The text and the figures all take two as an example, and the first connecting shell 3 is located on the right side of the wall 1, and the second connecting shell 5 is located on the left side of the wall 1; the first connecting shell 3 and the second connecting shell 5 are both composed of a cylindrical part and a rectangular part, and the cylindrical parts of the two are embedded in the wall 1.

[0055] The specific workflow of the above scheme is as follows:

[0056] When it is necessary to install the wall 1, the staff uses the existing device to move the first wall 1 to the installation position and erect it, and applies mortar on the foundation wall to fix the first wall 1 on the foundation wall (the second connecting shell 5 and other parts connected to it are not set on the first wall 1), and then uses the existing device to move the second wall 1 to the installation position and erect it, so that the two threaded sleeves 6 on the second wall 1 are respectively aligned with the adjacent threaded rods 4 on the first wall 1, and then the staff rotates the two threaded rods 4 in turn, so that the two threaded sleeves 6 are respectively threadedly connected with the adjacent threaded rods 4 on the first wall 1, and the second wall 1 is positioned, so that the two adjacent walls 1 are quickly aligned, thereby improving the installation efficiency of the wall 1.

[0057] After the two threaded sleeves 6 on the second wall 1 and the two threaded rods 4 on the first wall 1 are installed, the staff applies mortar on the right side of the first wall 1 and the left side of the second wall 1, and then operates the first connecting component and the second connecting component to drive the threaded rod 4 to move left, and the threaded sleeve 6 moves right relative to the second wall 1, and the threaded sleeve 6 reacts to the second wall 1 during the movement, so that the second wall 1 is close to the first wall 1 (moves to the left), and when the mortar on the left side of the second wall 1 contacts the mortar on the right side of the first wall 1, the mortar between the two fixes the two, that is, the installation of the second wall 1 is completed, and then the staff installs the remaining walls 1 in turn according to the above operations.

[0058] like Figure 4 and Figure 5 As shown, the first connecting assembly includes: a first connecting rod 7, which is slidably connected to the adjacent first connecting shell 3, and is used to drive the adjacent threaded rod 4 to move. The first connecting rod 7 is provided with a first toothed groove 8; a first driving rod 9, which is rotatably connected to the first connecting shell 3, and one end of the first driving rod 9 is fixedly connected to a gear meshing with the first toothed groove 8.

[0059] In the above solution, the first connecting rod 7 is located in the blind hole of the adjacent first connecting shell 3. Initially, the first connecting rod 7 is at the far right, so that the first connecting rod 7 can only move to the left. A hexagonal groove is provided at the front end of the first driving rod 9.

[0060] like Figure 4 and Figure 6 As shown, the second connecting assembly includes: a second connecting rod 71, which is slidably connected to the adjacent second connecting shell 5, and the second connecting rod 71 is used to drive the adjacent threaded sleeve 6 to move. The second connecting rod 71 is provided with a second toothed groove 81; a second driving rod 91, which is rotatably connected to the second connecting shell 5, and one end of the second driving rod 91 is fixedly connected to a gear meshing with the second toothed groove 81.

[0061] In the above solution, the second connecting rod 71 is located in the blind hole of the adjacent second connecting shell 5. Initially, the second connecting rod 71 is at the far left, that is, the second connecting rod 71 can only move to the right. The front end of the second driving rod 91 is provided with a hexagonal groove.

[0062] In this embodiment, the first connecting rod 7 is rotatably connected to the threaded rod 4 , and the second connecting rod 71 is fixedly connected to the threaded sleeve 6 .

[0063] The specific workflow of the above scheme is as follows:

[0064] When the first connecting component is required to work as mentioned above, the staff uses a hexagonal wrench to synchronously rotate the two first driving rods 9 on the first wall 1, and drives the adjacent first connecting rod 7 to move left through the gear on the first driving rod 9, thereby driving the threaded rod 4 connected to the first connecting rod 7 and the threaded sleeve 6 adjacent to the threaded rod 4 to move left synchronously (so that the two threaded sleeves 6 on the second wall 1 respectively enter the blind holes of the adjacent first connecting shells 3 on the first wall 1), thereby driving the second wall 1 to move left as a whole.

[0065] When the depth of the threaded sleeve 6 entering the blind hole of the adjacent first connecting shell 3 reaches half of its total length, stop rotating the two first driving rods 9 on the first wall 1, and rotate the second driving rod 91. The gear on the second driving rod 91 drives the adjacent second connecting rod 71 to move rightward relative to the second wall 1 (so that the two threaded sleeves 6 on the second wall 1 respectively enter the blind holes of the adjacent second connecting shells 5 on the second wall 1). During this process, the second connecting rod 71 reacts on the second wall 1, causing the second wall 1 to move leftward again, and finally completing the installation of the second wall 1.

[0066] like Figure 5-Figure 7 As shown, the first connecting shell 3 and the second connecting shell 5 are both rotatably connected to the third driving rod 10, the front side of the third driving rod 10 is provided with a hexagonal groove, the third driving rod 10 is provided with an external thread, the first connecting shell 3 and the second connecting shell 5 are both slidably connected to the extrusion block 11, the third driving rod 10 is threadedly connected to the adjacent extrusion block 11 through the external thread thereon, and the first connecting rod 7 and the second connecting rod 71 are respectively squeezed by the adjacent extrusion blocks 11.

[0067] like Figure 5-Figure 7 As shown, the first connecting rod 7 , the second connecting rod 71 and the extrusion block 11 are all provided with inclined surfaces, and the inclined surfaces on the first connecting rod 7 and the second connecting rod 71 are respectively fitted with the inclined surfaces on the adjacent extrusion blocks 11 .

[0068] In the above scheme, the inclined surfaces on the first connecting rod 7 and the second connecting rod 71 are respectively located on the front sides of the two, and the inclined surface on the extrusion block 11 is located on the rear side thereof, and the distance between the inclined surfaces on the first connecting rod 7 and the second connecting rod 71 on the same wall 1 and the rear side of the wall 1 increases as the distance between the inclined surfaces on the first connecting rod 7 and the second connecting rod 71 decreases. Through the combined action of the inclined surface on the first connecting rod 7 and the inclined surface on the adjacent extrusion block 11, the extrusion block 11 limits the adjacent first connecting rod 7, and the inclined surface on the second connecting rod 71 has the same purpose.

[0069] The specific workflow of the above scheme is as follows:

[0070] After the above-mentioned staff stops rotating the two first driving rods 9 on the first wall 1, the staff synchronously rotates the two third driving rods 10 on the right side of the first wall 1 through a hexagonal wrench, and the third driving rod 10 drives the adjacent extrusion block 11 to move backward through the external thread thereon during the rotation process, so that the inclined surface on the extrusion block 11 is tightly fitted with the inclined surface on the adjacent first connecting rod 7, thereby limiting the adjacent first connecting rod 7, and then the staff stops rotating the two third driving rods 10 on the right side of the first wall 1, and controls the second connecting assembly to work according to the above-mentioned operation, and after stopping rotating the two second driving rods 91 on the second wall 1, the staff rotates the two third driving rods 10 on the left side of the second wall 1 to change the positions of the two extrusion blocks 11 on the left side of the second wall 1, and the two extrusion blocks 11 on the left side of the second wall 1 respectively limit the adjacent second connecting rods 71 ​​on the second wall 1 (the movement process of the two extrusion blocks 11 on the left side of the second wall 1 can refer to the movement process of the two extrusion blocks 11 on the right side of the first wall 1), ensuring the tightness of the connection between the first wall 1 and the second wall 1.

[0071] Embodiment 2: Based on embodiment 1, Figure 5 and Figure 6 As shown, it also includes: first universal joints 12, the number of which is consistent with the specific number of the first connecting shells 3, and are respectively arranged between adjacent first connecting rods 7 and adjacent threaded rods 4, the first universal joints 12 have a first transmission fork 1201 and a second transmission fork 1202, and the two are connected by a cross shaft, the first transmission fork 1201 is rotatably connected to the adjacent first connecting rod 7, and the second transmission fork 1202 is rotatably connected to the adjacent threaded rod 4, and the diameters of the first transmission fork 1201 and the second transmission fork 1202 projected on the adjacent first connecting rod 7 are both the same as the diameters of the blind holes on the adjacent first connecting shells 3. etc.; the number of the second universal joints 121 is consistent with the specific number of the second connecting shells 5, and they are respectively arranged between the adjacent second connecting rods 71 ​​and the adjacent threaded sleeves 6. The second universal joints 121 have a third transmission fork 1203 and a fourth transmission fork 1204, and the two are connected by a cross shaft. The third transmission fork 1203 is rotationally connected to the adjacent second connecting rod 71, and the fourth transmission fork 1204 is fixedly connected to the adjacent threaded sleeve 6. The diameters of the projections of the third transmission fork 1203 and the fourth transmission fork 1204 on the adjacent second connecting rod 71 are equal to the diameter of the blind hole on the adjacent second connecting shell 5.

[0072] In the above scheme, initially, the first universal joint 12 and the second universal joint 121 on the same wall 1 are at the farthest distance; through the first universal joint 12 and the second universal joint 121, the relative position between the first connecting rod 7 and the adjacent threaded rod 4 and the relative position between the second connecting rod 71 and the adjacent threaded sleeve 6 can be freely adjusted.

[0073] like Figure 5 and Figure 6 As shown, the first connecting shell 3 and the second connecting shell 5 are both provided with inclined annular surfaces on their sides away from each other, and the inclined annular surfaces on the two are used to squeeze the adjacent second transmission fork 1202 and the adjacent fourth transmission fork 1204 respectively.

[0074] In the above scheme, the inclined annular surface on the first connecting shell 3 is located on its right side, and the inclined surface of the second connecting shell 5 is located on its left side, which are respectively used to squeeze the adjacent first universal joint 12 and the adjacent second universal joint 121, so that the first universal joint 12 and the second universal joint 121 are in a horizontal state during the movement.

[0075] The specific workflow in the above scheme is as follows:

[0076] When the second wall 1 needs to be installed, if it is skewed relative to the first wall 1, for example, the overall height of the second wall 1 is lower than that of the first wall 1 (there is a height difference between the two), in order to connect the two threaded rods 4 on the first wall 1 with the two threaded sleeves 6 on the second wall 1, it is necessary to constantly adjust the position of the second wall 1 so that the two threaded rods 4 on the first wall 1 are flush with the two threaded sleeves 6 on the second wall 1 before they can be connected according to the above operation. The overall process is relatively cumbersome. In this regard, the present invention solves this problem through the following measures:

[0077] When the second wall 1 is tilted compared to the first wall 1, the staff rotates the two threaded rods 4 on the first wall 1 and the two threaded sleeves 6 on the second wall 1, so that the two threaded rods 4 on the first wall 1 face downward (in this process, the second transmission fork 1202 rotates downward relative to the adjacent first transmission fork 1201), and the two threaded sleeves 6 on the second wall 1 face upward (in this process, the fourth transmission fork 1204 rotates upward relative to the adjacent third transmission fork 1203), so that the two threaded rods 4 on the first wall 1 are quickly aligned with the two threaded sleeves 6 on the second wall 1, so that the two threaded rods 4 on the first wall 1 can be quickly connected with the two threaded sleeves 6 on the second wall 1.

[0078] After the two threaded rods 4 on the first wall 1 are connected with the two threaded sleeves 6 on the second wall 1, the second wall 1 as a whole is still biased toward the lower side relative to the first wall 1. Then, the staff moves the two first connecting rods 7 on the first wall 1 to the left according to the above operation, so that the first connecting rods 7 drive the first universal joint 12 thereon to move to the left synchronously, and the second transmission fork 1202 on the first universal joint 12 is squeezed by the inclined annular surface on the adjacent first connecting shell 3 during the movement and gradually swings to a horizontal state. After the above-mentioned stopping of the movement of the two first connecting rods 7 (the two first universal joints 12 on the first wall 1 have been completely moved into the blind hole of the adjacent first connecting shell 3), the second transmission fork 1202 on the first universal joint 12 is gradually swung to a horizontal state. ), the staff moves the two second connecting rods 71 ​​on the second wall 1 according to the above operations, so that the two second connecting rods 71 ​​respectively drive the adjacent second universal joints 121 to move rightward relative to the second wall 1, and the fourth transmission fork 1204 on the second universal joint 121 is squeezed by the inclined annular surface on the adjacent second connecting shell 5 and gradually swings to a horizontal state, and the two second universal joints 121 react on the second wall 1, so that the second wall 1 moves upward to a position flush with the first wall 1, and a support block is set on the lower side of the second wall 1 to maintain the stability of the position of the second wall 1, and then mortar is laid on the lower side of the second wall 1 to complete the installation of the second wall 1.

[0079] like Figure 8-Figure 10 As shown, it also includes: a fixing component, the number of which is consistent with the specific number of the first universal joints 12, and is respectively arranged on adjacent first universal joints 12, the fixing component is used to fix the adjacent threaded rod 4, the fixing component includes: an extrusion ring 13, which is slidably connected to the second transmission fork 1202; a spring 14, which is arranged between the extrusion ring 13 and the second transmission fork 1202, and the second transmission fork 1202 is provided with a plurality of slide grooves 15 at one end away from the adjacent first connecting rod 7, and a limiting ball 16 is slidably connected in the slide groove 15, the extrusion ring 13 is used to limit the limiting ball 16, and the threaded rod 4 is provided with limiting grooves 17 with the same number as the limiting ball 16, and the limiting grooves 17 are used to limit the position of the limiting ball 16.

[0080] In the above scheme, the spring 14 is in a compressed state at the initial stage, and is used to continuously apply axial thrust to the extrusion ring 13 to increase the stability of the extrusion ring 13; a plurality of slide grooves 15, a plurality of limiting balls 16 and a plurality of limiting grooves 17 are uniformly distributed circumferentially, and their number is specifically selected by the staff in actual use; the number of slide grooves 15, limiting balls 16 and limiting grooves 17 is described as three in the figure and the text, and after the threaded rod 4 is connected to the adjacent threaded sleeve 6, the three limiting balls 16 correspond one by one to the three adjacent limiting grooves 17.

[0081] like Fig.10 and Fig.11As shown, the extrusion ring 13 is provided with an inclined annular surface for extruding the limiting ball 16. When the extrusion ring 13 moves to the right, its inclined annular surface constrains the radial movement of the limiting ball 16, so that the ball part is embedded in the limiting groove 17 of the threaded rod 4. The depth of the limiting groove 17 is smaller than the radius of the limiting ball 16, so that the threaded rod 4 can drive the three limiting grooves 17 thereon to rotate, and the three limiting balls 16 can be squeezed out from the adjacent limiting grooves 17.

[0082] The specific working process of the above scheme is as follows (the moving process of the upper threaded rod 4 on the first wall 1 is taken as an example):

[0083] When it is necessary to connect the threaded rod 4 with the adjacent threaded sleeve 6, the staff moves the extrusion ring 13 to the left, so that the extrusion ring 13 gradually loses contact with the limiting ball 16 (at the same time, the spring 14 is compressed and stored in the process of the extrusion ring 13 moving to the left). After the extrusion ring 13 completely loses contact with the limiting ball 16, the extrusion ring 13 no longer limits the limiting ball 16, so that the limiting ball 16 can be squeezed by the limiting groove 17 during the rotation of the threaded rod 4 and move in the direction away from the central axis of the threaded rod 4, thereby no longer limiting the threaded rod 4, even if the threaded rod 4 can rotate freely.

[0084] After the threaded rod 4 is connected to the threaded sleeve 6, the staff loosens the extrusion ring 13, so that the extrusion ring 13 returns to the initial position under the action of the spring 14. At the same time, the extrusion ring 13 squeezes the limiting ball 16 through the inclined ring groove thereon during the movement, so that the limiting ball 16 moves back to the adjacent limiting groove 17, and the threaded rod 4 is limited again, so that the threaded rod 4 can no longer rotate, thereby ensuring the stability of the position of the threaded rod 4 during the subsequent movement of the first connecting rod 7, thereby ensuring the stability of the position relationship between the first wall 1 and the second wall 1.

[0085] Embodiment 3: Based on embodiment 2, Figure 1-Figure 11 As shown, a construction method of a quick-joined ALC wall panel, based on the above-mentioned quick-joined ALC wall panel, comprises the following steps:

[0086] S1: When installing the wall 1, the first wall 1 is moved to the installation position and erected and fixed, and then the second wall 1 is moved to the installation position and erected;

[0087] S2: Move the extrusion ring 13 on the first wall 1 to compress the spring 14 and release the limit of the extrusion ring 13 on the limit ball 16, so that the threaded rod 4 on the first wall 1 can rotate relative to the first universal joint 12 adjacent thereto, and during the rotation of the threaded rod 4, the limit ball 16 can be separated from the threaded rod 4;

[0088] S3: respectively adjusting the positions of the two threaded rods 4 on the first wall 1 and the two threaded sleeves 6 on the second wall 1, so that the threaded rods 4 drive the adjacent second transmission forks 1202 to rotate relative to the adjacent first transmission forks 1201, and the threaded sleeves 6 drive the adjacent fourth transmission forks 1204 to rotate relative to the adjacent third transmission forks 1203, so that the threaded rods 4 are aligned with the adjacent threaded sleeves 6;

[0089] S4: Rotate the threaded rod 4 on the first wall 1 to connect it with the threaded sleeve 6 on the second wall 1, loosen the extrusion ring 13, and reset the extrusion ring 13 relative to the threaded rod 4 under the action of the spring 14, and lock the threaded rod 4 on the first wall 1 again by the stop ball 16;

[0090] S5: rotating the first driving rod 9 on the first wall 1, the first driving rod 9 drives the first connecting rod 7 to move through the cooperation between the gear thereon and the adjacent first toothed groove 8, thereby driving the second wall 1 to move;

[0091] S6: After the first driving rod 9 on the first wall 1 stops rotating, the second driving rod 91 on the second wall 1 rotates. The second driving rod 91 drives the second connecting rod 71 to move through the cooperation between the gear thereon and the adjacent second toothed groove 81, thereby driving the second wall 1 to move. After the first wall 1 and the second wall 1 are tightly fitted, the second driving rod 91 on the second wall 1 stops rotating.

[0092] S7: Rotate the third driving rod 10 on the first connecting shell 3 on the first wall 1 and the second connecting shell 5 on the second wall 1, and the third driving rod 10 drives the adjacent extrusion block 11 to move, and the first connecting rod 7 and the second connecting rod 71 are respectively limited by the adjacent extrusion blocks 11 and cannot move, thereby completing the splicing of the second wall 1 and the first wall 1.

[0093] The above is a detailed introduction to the present application. Specific examples are used in this article to illustrate the principles and implementation methods of the present application. The description of the above embodiments is only used to help understand the method of the present application and its core idea. At the same time, for general technical personnel in this field, according to the idea of ​​the present application, there will be changes in the specific implementation methods and application scope. In summary, the content of this specification should not be understood as a limitation on the present application.

Claims

1. A quick-joined ALC wall panel, characterized in that: include: Wall (1); A steel frame (2) embedded in the wall (1); A plurality of first connection shells (3) are fixedly connected to one side of the wall (1); the first connection shells (3) are provided with threaded rods (4); The number of second connecting shells (5) is the same as that of the first connecting shells (3), and both are embedded in the other side of the wall (1); the second connecting shell (5) is provided with a threaded sleeve (6), and the threaded sleeve (6) is flush with the adjacent threaded rod (4); the first connecting shell (3) and the second connecting shell (5) are both provided with blind holes, and the diameters of the blind holes on the two are the same as the diameter of the threaded sleeve (6); First connection components, the number of which is consistent with the specific number of the first connection shells (3), are respectively arranged on adjacent first connection shells (3) and are used to change the positions of adjacent threaded rods (4); Second connection components, the number of which is the same as the number of the second connection shells (5), are respectively arranged on adjacent second connection shells (5) and are used to change the position of adjacent threaded sleeves (6); The first connection component comprises: a first connecting rod (7) slidably connected to the adjacent first connecting shell (3), the first connecting rod (7) being used to drive the adjacent threaded rod (4) to move, and a first toothed groove (8) being provided on the first connecting rod (7); a first driving rod (9) rotatably connected to the first connecting shell (3), one end of the first driving rod (9) being fixedly connected to a gear meshing with the first toothed groove (8); The second connection component comprises: a second connecting rod (71) slidably connected to the adjacent second connecting shell (5), the second connecting rod (71) being used to drive the adjacent threaded sleeve (6) to move, and a second toothed groove (81) being provided on the second connecting rod (71); a second driving rod (91) rotatably connected to the second connecting shell (5), one end of the second driving rod (91) being fixedly connected to a gear meshing with the second toothed groove (81); The first connecting shell (3) and the second connecting shell (5) are both rotatably connected to a third driving rod (10), the third driving rod (10) being provided with an external thread, the first connecting shell (3) and the second connecting shell (5) are both slidably connected to an extrusion block (11), the third driving rod (10) being threadedly connected to an adjacent extrusion block (11) via the external thread thereon, and the first connecting rod (7) and the second connecting rod (71) are respectively extruded by the adjacent extrusion blocks (11).

2. A quick-joined ALC wall panel according to claim 1, characterized in that: The first connecting rod (7), the second connecting rod (71) and the extrusion block (11) are all provided with inclined surfaces, and the inclined surfaces on the first connecting rod (7) and the second connecting rod (71) are respectively fitted with the inclined surfaces on the adjacent extrusion blocks (11).

3. A quick-joined ALC wall panel according to claim 2, characterized in that: Also includes: a first universal joint (12), the number of which is consistent with the specific number of the first connecting shells (3), and which is respectively arranged between adjacent first connecting rods (7) and adjacent threaded rods (4); the first universal joint (12) has a first transmission fork (1201) and a second transmission fork (1202), and the two are connected via a cross shaft; the first transmission fork (1201) is rotationally connected to the adjacent first connecting rod (7), and the second transmission fork (1202) is rotationally connected to the adjacent threaded rod (4); the diameters of the projections of the first transmission fork (1201) and the second transmission fork (1202) on the adjacent first connecting rod (7) are both equal to the diameter of the blind hole on the adjacent first connecting shell (3); The number of second universal joints (121) is consistent with the specific number of the second connecting shells (5), and they are respectively arranged between adjacent second connecting rods (71) and adjacent threaded sleeves (6). The second universal joint (121) has a third transmission fork (1203) and a fourth transmission fork (1204), and the two are connected via a cross shaft. The third transmission fork (1203) is rotationally connected to the adjacent second connecting rod (71), and the fourth transmission fork (1204) is fixedly connected to the adjacent threaded sleeve (6). The diameters of the projections of the third transmission fork (1203) and the fourth transmission fork (1204) on the adjacent second connecting rod (71) are both equal to the diameter of the blind hole on the adjacent second connecting shell (5).

4. A quick-joined ALC wall panel according to claim 3, characterized in that: The first connecting shell (3) and the second connecting shell (5) are both provided with inclined annular surfaces on the sides away from each other, and the inclined annular surfaces on the two are respectively used to squeeze the adjacent second transmission fork (1202) and the adjacent fourth transmission fork (1204).

5. A quick-joined ALC wall panel according to claim 4, characterized in that: Also includes: The number of fixing components is consistent with the specific number of the first universal joints (12), and they are respectively arranged on adjacent first universal joints (12), and the fixing components are used to fix adjacent threaded rods (4), and the fixing components include: An extrusion ring (13) slidably connected to the second transmission fork (1202); A spring (14) is arranged between the extrusion ring (13) and the second transmission fork (1202); a plurality of slide grooves (15) are arranged at one end of the second transmission fork (1202) away from the adjacent first connecting rod (7); a limiting ball (16) is slidably connected in the slide groove (15); the extrusion ring (13) is used to limit the position of the limiting ball (16); the threaded rod (4) is provided with limiting grooves (17) having the same number as the limiting balls (16); and the limiting grooves (17) are used to limit the position of the limiting balls (16).

6. A quick-joined ALC wall panel according to claim 5, characterized in that: The extrusion ring (13) is provided with an inclined annular surface for extruding the limiting ball (16), and the depth of the limiting groove (17) is smaller than the radius of the limiting ball (16).

7. A construction method for a quick-joined ALC wall panel, characterized in that: A quick-joined ALC wall panel as claimed in claim 6 comprises the following steps: S1: When installing the wall (1), the first wall (1) is moved to the installation position and erected and fixed, and then the second wall (1) is moved to the installation position and erected; S2: moving the extrusion ring (13) on the first wall (1) so that the spring (14) is compressed and force is accumulated, releasing the limit of the extrusion ring (13) on the limit ball (16), so that the threaded rod (4) on the first wall (1) can rotate relative to the first universal joint (12) adjacent thereto, and during the rotation of the threaded rod (4), the limit ball (16) can be separated from the threaded rod (4); S3: respectively adjusting the positions of the two threaded rods (4) on the first wall (1) and the two threaded sleeves (6) on the second wall (1), so that the threaded rod (4) drives the adjacent second transmission fork (1202) to rotate relative to the adjacent first transmission fork (1201), and the threaded sleeve (6) drives the adjacent fourth transmission fork (1204) to rotate relative to the adjacent third transmission fork (1203), thereby aligning the threaded rod (4) with the adjacent threaded sleeve (6); S4: rotating the threaded rod (4) on the first wall (1) so as to connect it with the threaded sleeve (6) on the second wall (1), loosening the extrusion ring (13), causing the extrusion ring (13) to be reset relative to the threaded rod (4) under the action of the spring (14), and locking the threaded rod (4) on the first wall (1) again by the stop ball (16); S5: rotating the first driving rod (9) on the first wall (1); the first driving rod (9) drives the first connecting rod (7) to move through the cooperation between the gear on the first driving rod (9) and the adjacent first toothed groove (8), thereby driving the second wall (1) to move; S6: After the first driving rod (9) on the first wall (1) stops rotating, the second driving rod (91) on the second wall (1) is rotated, and the second driving rod (91) drives the second connecting rod (71) to move through the cooperation between the gear on the second driving rod (91) and the adjacent second toothed groove (81), thereby driving the second wall (1) to move. After the first wall (1) and the second wall (1) are tightly fitted, the second driving rod (91) on the second wall (1) stops rotating; S7: Rotate the third driving rod (10) on the first connecting shell (3) on the first wall (1) and the second connecting shell (5) on the second wall (1), so that the third driving rod (10) drives the adjacent extrusion blocks (11) to move, and the first connecting rod (7) and the second connecting rod (71) are respectively limited by the adjacent extrusion blocks (11) and cannot move, thereby completing the splicing of the second wall (1) and the first wall (1).

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