Adjustable embedded part positioning device easy to disassemble and assemble

Abstract

The adjustable embedded part positioning device easy to disassemble and assemble comprises a side formwork assembly, a longitudinal adjusting assembly, transverse adjusting assemblies and an embedded part positioning assembly, a concrete pouring cavity is formed in the side formwork assembly, the longitudinal adjusting assembly is fixedly arranged on the side formwork assembly, and the transverse adjusting assemblies are distributed on the longitudinal adjusting assembly in a sliding mode; the transverse adjusting assembly is arranged on the longitudinal adjusting assembly in a sliding mode and can longitudinally move and be fixed on the longitudinal adjusting assembly, and the pre-embedded positioning assemblies are distributed on the transverse adjusting assembly in a sliding mode, can transversely move and be fixed on the transverse adjusting assembly, can be detachably connected with the pre-embedded part and adjust the connecting height of the pre-embedded part. The relative position of the positioning device and the edge mold assembly is kept unchanged all the time, so that the positioning of the embedded part is effectively improved, meanwhile, the production process of the prefabricated part is not affected, the embedded part is driven to rapidly and randomly move within the range of the edge mold assembly, and the positioning precision of the embedded part is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of prefabricated buildings, and particularly to a positioning device for embedded parts of prefabricated buildings. Background Art

[0002] In recent years, prefabricated buildings have developed rapidly due to advantages such as high construction efficiency, energy conservation and environmental protection, and controllable quality. They have been vigorously promoted nationwide, and the production scale of precast components has also continued to expand. The positioning of embedded parts will directly affect the production quality of precast components. Most of the existing positioning devices for embedded parts are designed for specific components, with poor versatility, resulting in low reuse rate of the positioning device and serious waste of resources. At the same time, the overall positioning accuracy of the existing embedded parts is relatively poor, affecting the production quality and installation effect of precast components.

[0003] Chinese Patent with Publication No. CN 119801241 A discloses a connector positioning device and a construction method. The installation platform, longitudinal positioning components and several transverse positioning components cooperate. Construction workers can walk on the installation platform, which is convenient for construction operations and quality inspections of the thermal insulation exterior wall. At the same time, the longitudinal positioning components can drive the transverse positioning components to move longitudinally on the installation platform, and the transverse positioning components can move horizontally and vertically on the longitudinal positioning components to precisely adjust the position of the transverse positioning components, so that the transverse positioning components can accurately position the connector at the installation position and control the anchoring depth of the connector, thereby improving the positioning accuracy and construction quality of the connector.

[0004] However, the existing positioning device needs to be erected above the side form of the precast component and separated from the side form of the precast component, making it easy to produce misalignment between the positioning device and the side form during the installation process, resulting in inaccurate positioning of the embedded parts. At the same time, it will interfere with the installation heights of other production processes of the precast component, such as concrete placing machines, pre-curing kilns, etc., affecting the production efficiency and quality of the precast component.

[0005] Therefore, how to effectively improve the positioning adjustment accuracy of the embedded parts and improve the production quality of the precast components has become an urgent problem to be solved in this field. Summary of the Invention

[0006] Aiming at the defects of the existing technology, the purpose of the present invention is to provide an easily disassembled and adjustable positioning device for embedded parts that is convenient to adjust and has relatively high positioning accuracy.

[0007] To achieve the above purpose, the easily disassembled and adjustable positioning device for embedded parts provided by the present invention is used to cooperate with the embedded parts and includes

[0008] a side form assembly, in which a concrete pouring cavity is formed.

[0009] A longitudinal adjustment component, which is fixedly arranged on the side form component.

[0010] A transverse adjustment component, and a plurality of transverse adjustment components are slidably distributed on the longitudinal adjustment component, configured to be longitudinally movable and fixed on the longitudinal adjustment component.

[0011] A pre-embedded part positioning component, and a plurality of pre-embedded positioning components are slidably distributed on the transverse adjustment component, configured to be laterally movable and fixed on the transverse adjustment component, and can also be detachably connected to the pre-embedded part and adjust the connection height of the pre-embedded part.

[0012] Further, the longitudinal adjustment component includes a longitudinal beam, the longitudinal beam is arranged on the side form component through a longitudinal fixing component, longitudinal sliding grooves are distributed on the longitudinal beam, and a longitudinal connection cavity for cooperating with the transverse adjustment component is formed inside.

[0013] Further, the longitudinal fixing component includes a longitudinal beam fixing box body, a longitudinal beam fixing strong magnetic core and a longitudinal beam magnetic button, the longitudinal beam fixing strong magnetic core is built in the longitudinal beam fixing box body, and is slidably connected and cooperated with the longitudinal beam fixing box body through the longitudinal beam magnetic button.

[0014] Further, a longitudinal beam fixing steel plate adapted to the longitudinal beam is provided at the end of the longitudinal beam fixing box body.

[0015] Further, the transverse adjustment component includes a cross beam, the cross beam is slidably arranged in the longitudinal sliding groove through a transverse sliding component, and transverse sliding grooves are respectively distributed on both sides of the cross beam.

[0016] Further, the transverse sliding component includes a cross beam fixing box body, a cross beam fixing strong magnetic core and a cross beam magnetic button, the cross beam fixing strong magnetic core is built in the cross beam fixing box body, and is slidably connected and cooperated with the cross beam fixing box body through the cross beam magnetic button.

[0017] Further, a cross beam fixing pressing plate is provided at the end of the cross beam fixing box body, the cross beam fixing pressing plate is distributed in an L shape, an installation spacing adapted to the cross beam is formed between the cross beam fixing pressing plate and the cross beam fixing box body, and is slidably cooperated with the longitudinal connection cavity through a cross beam fixing bolt.

[0018] Further, the pre-embedded part positioning component includes a pre-embedded part fixing box body, a pre-embedded part fixing strong magnetic core and a pre-embedded part magnetic button, the pre-embedded part fixing strong magnetic core is built in the pre-embedded part fixing box body, and is slidably connected and cooperated with the pre-embedded part fixing box body through the pre-embedded part magnetic button.

[0019] Furthermore, the embedded part positioning assembly further includes an embedded part adjusting screw rod. One end of the embedded part adjusting screw rod is in threaded cooperation with the fixed box body of the embedded part, and the other end passes through the horizontal chute of the cross beam and is detachably connected to the embedded part.

[0020] Furthermore, a positioning sleeve is provided at the end of the embedded part adjusting screw rod that cooperates with the embedded part.

[0021] The easily disassembled and adjustable embedded part positioning device provided by the present invention directly sets the positioning device on the side form assembly of the precast member, ensuring that the relative position between the positioning device and the side form assembly always remains unchanged, so as to effectively improve the positioning of the embedded part, and at the same time does not affect the production process of the precast member. Furthermore, by cooperating with the longitudinal adjustment assembly, the transverse adjustment assembly and the embedded part positioning assembly, the embedded part can be driven to move quickly and arbitrarily within the concrete pouring cavity of the side form assembly, and the height of the embedded part can be adjusted, thereby improving the positioning accuracy of the embedded part. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] The present invention will be further described below in conjunction with the drawings and specific embodiments.

[0023] Figure 1 It is a schematic diagram of the overall structure of the easily disassembled and adjustable embedded part positioning device provided by the present invention;

[0024] Figure 2 It is a plan view of the easily disassembled and adjustable embedded part positioning device in the present invention;

[0025] Figure 3 It is Figure 1 a partial enlarged schematic diagram;

[0026] Figure 4 It is a schematic diagram of the structure of the longitudinal fixing assembly in the present invention;

[0027] Figure 5 It is a connection schematic diagram of the longitudinal fixing assembly in the present invention;

[0028] Figure 6 It is a schematic diagram of the structure of the transverse sliding assembly in the present invention;

[0029] Figure 7 It is a connection schematic diagram of the transverse sliding assembly in the present invention;

[0030] Figure 8 It is a schematic diagram of the structure of the embedded part positioning assembly in the present invention;

[0031] Figure 9 It is a connection schematic diagram of the embedded part positioning assembly in the present invention.

[0032] Reference Signs:

[0033] 1. Side formwork assembly; 11. Longitudinal side formwork; 12. Transverse side formwork; 13. Concrete pouring cavity;

[0034] 2. Longitudinal adjustment assembly; 21. Longitudinal beam; 22. Longitudinal chute; 23. Longitudinal fixing assembly; 231. Longitudinal beam fixing box body; 232. Longitudinal beam fixing strong magnetic core; 233. Longitudinal beam magnetic button; 234. Longitudinal beam fixing bolt; 235. Longitudinal beam fixing steel plate; 24. Longitudinal connection cavity;

[0035] 3. Transverse adjustment assembly; 31. Cross beam; 32. Transverse chute; 33. Transverse fixing assembly; 331. Cross beam fixing box body; 332. Cross beam fixing strong magnetic core; 333. Cross beam magnetic button; 334. Cross beam fixing pressure plate; 335. Cross beam fixing bolt;

[0036] 4. Embedded part adjustment assembly; 41. Embedded part fixing member; 411. Embedded part fixing box body; 412. Embedded part fixing strong magnetic core; 413. Embedded part magnetic button; 42. Embedded part connecting member; 421. Embedded part adjusting nut; 422. Embedded part adjusting screw rod; 423. Embedded part fixing nut; 424. Positioning sleeve;

[0037] 5. Embedded part. Detailed implementation mode

[0038] In order to make the technical means, creative features, achieved purposes and functions of the present invention easy to understand, the present invention will be further described below with reference to specific drawings.

[0039] Combined with Figure 1 and Figure 2 , an example of the easily disassembled and adjustable embedded positioning device provided by the present invention is shown.

[0040] As can be seen from the figure, the easily disassembled and adjustable embedded positioning device of this example mainly includes a side formwork assembly 1, a longitudinal adjustment assembly 2, a transverse adjustment assembly 3 and an embedded positioning assembly 4.

[0041] A concrete pouring cavity 13 is formed in the side formwork assembly 1; the longitudinal adjustment assembly 2 is fixedly arranged on the side formwork assembly 1; a plurality of transverse adjustment assemblies 3 are slidably distributed on the longitudinal adjustment assembly 2 and configured to be longitudinally movable on the longitudinal adjustment assembly 2; a plurality of embedded positioning assemblies 4 are slidably distributed on the transverse adjustment assembly 3 and configured to be laterally movable on the transverse adjustment assembly 3, and can also be detachably connected to the embedded part 5 and adjust the connection height of the embedded part 5, so as to set the positioning device on the side formwork assembly 1, ensure that the relative position of the positioning device and the side formwork assembly 1 remains unchanged, does not affect the production process of precast components, and drives the embedded part 5 to move quickly and arbitrarily within the range of the concrete pouring cavity of the side formwork assembly 1 to adjust the height of the embedded part 5, thereby improving the positioning accuracy of the embedded part 5.

[0042] Combination Figure 1 and Figure 2 The side mold assembly 1 includes a longitudinal side mold 11 and a transverse side mold 12, which are vertically connected to each other to form a frame, and a concrete pouring cavity 13 is formed inside the side mold assembly 1, so that prefabricated components, such as prefabricated assembled wall panels, can be produced in the concrete pouring cavity 13 of the side mold assembly 1.

[0043] Furthermore, distributing the embedded parts 5 in the concrete pouring cavity 13 can improve the anchoring strength between the concrete and the embedded parts 5, thereby improving the production quality of the prefabricated components. In order to accurately position the embedded parts 5 to adapt to the structural requirements of the prefabricated components, the side mold assembly 1 is respectively provided with a longitudinal adjustment assembly 2, a transverse adjustment assembly 3 and an embedded positioning assembly 4, so that the longitudinal adjustment assembly 2, the transverse adjustment assembly 3 and the embedded positioning assembly 4 cooperate with each other to arbitrarily adjust the distribution position and connection height of the embedded parts 5 in the concrete pouring cavity 13.

[0044] Preferably, the side mold assembly 1 is made of a steel side mold, which is convenient for quick connection and fixation with the longitudinal adjustment assembly 2.

[0045] Specifically, the longitudinal adjustment component 2 includes a longitudinal beam 21 and a longitudinal fixing component 23 . The longitudinal beam 21 is arranged on the side mold component 1 through the longitudinal fixing component 23 to provide a sliding space for the movement of the lateral adjustment component 3 and the embedded positioning component 4 .

[0046] Combination Figure 1 and Figure 3 Furthermore, the longitudinal beams 21 are respectively arranged on the longitudinal side molds 11 through the longitudinal fixing components 23. At the same time, longitudinal slide grooves 22 are distributed on the longitudinal beams 21, and the longitudinal slide grooves 22 cover the longitudinal length of the concrete pouring cavity 13, so that the longitudinal slide grooves 22 are distributed in the length direction of the longitudinal side mold 11, which is convenient for the longitudinal movement of the lateral adjustment component 3.

[0047] Combination Figure 4 and Figure 5 , wherein the longitudinal fixing component 23 includes a longitudinal beam fixing box body 231, a longitudinal beam fixing strong magnetic core 232 and a longitudinal beam magnetic button 233. A placement groove capable of accommodating the longitudinal beam fixing strong magnetic core 232 is formed in the longitudinal beam fixing box body 231, so that the longitudinal beam fixing strong magnetic core 232 can be built into the longitudinal beam fixing box body 231. The longitudinal beam magnetic button 233 is arranged above the longitudinal beam fixing box body 231, and passes through the longitudinal beam fixing box body 231 to connect the longitudinal beam fixing strong magnetic core 232, so that the longitudinal beam magnetic button 233 can drive the longitudinal beam fixing strong magnetic core 232 to move vertically in the longitudinal beam fixing box body 231.

[0048] Furthermore, an end of the longitudinal beam fixing box body 231 extends to form a longitudinal beam fixing steel plate 235 for cooperating with the longitudinal beam 21. Preferably, the longitudinal beam fixing steel plate 235 is adapted to the inner diameter of the longitudinal beam 21, and the width of the longitudinal beam fixing box body 231 is slightly larger than the inner diameter of the longitudinal beam 21.

[0049] Combined Figure 4 with Figure 5 this, the longitudinal beams 21 are distributed on the longitudinal side form 11, and the longitudinal fixing assemblies 23 are respectively arranged at both ends of the longitudinal beams 21. The longitudinal beam fixing steel plates 235 can be embedded in the longitudinal beams 21, and the longitudinal beam fixing box bodies 231 are placed at the outer ends of the longitudinal beams 21 and extend to cooperate with the transverse side form 12. By connecting the longitudinal beam 21 and the longitudinal beam fixing steel plate 235 through the longitudinal beam fixing bolts 234, the longitudinal beam fixing steel plate 235 can be pressed against the longitudinal beam 21, so that the longitudinal fixing assembly 23 is fixedly connected to the longitudinal beam 21.

[0050] At this time, the longitudinal beam fixing box body 231 is placed at the outer end of the longitudinal beam 21 to cooperate with the transverse side form 12. Pressing the longitudinal beam magnetic button 233 can drive the longitudinal beam fixing strong magnetic core 232 to move vertically in the longitudinal beam fixing box body 231 facing the transverse side form 12, so that the longitudinal beam fixing strong magnetic core 232 contacts the transverse side form 12. Under the magnetic force of the longitudinal beam fixing strong magnetic core 232, a vertical pressure is generated on the transverse side form 12, thereby realizing the stable connection between the longitudinal beam 21 and the side form assembly 1, and the longitudinal beams 21 are fixedly distributed on the longitudinal side form 11.

[0051] Here, the longitudinal beam fixing strong magnetic core 232 can be composed of an existing strong magnet, such as an Alnico magnet, so that the longitudinal beam fixing strong magnetic core 232 can generate a large vertical pressure on the transverse side form 12 to ensure the connection stability between the longitudinal beam 21 and the longitudinal side form 11.

[0052] The longitudinal fixing assembly 23 thus formed realizes the one-key installation and disassembly of the longitudinal beam 21 through the pressing and lifting of the longitudinal beam magnetic button 233. The side form assembly 1 does not need to be provided with slots, ensuring the production quality of the precast component and improving the installation efficiency of the longitudinal adjusting assembly 2 at the same time.

[0053] In order to enable the transverse adjusting assembly 3 to longitudinally move on the longitudinal side form 11 along the longitudinal chute 22 and adjust the longitudinal distribution position of the embedded part 5, a longitudinal connection cavity 24 for cooperating with the transverse adjusting assembly 3 is formed inside the longitudinal beam 21, and the longitudinal connection cavity 24 communicates with the longitudinal chute 22 and is correspondingly distributed, so that the transverse adjusting assembly 3 can be slidably connected to the longitudinal adjusting assembly 2 through the cooperation of the longitudinal chute 22 and the longitudinal connection cavity 24.

[0054] Combined Figure 1 with Figure 3, correspondingly, the lateral adjustment assembly 3 includes a cross beam 31 and a lateral sliding assembly 33. The two ends of the cross beam 31 are respectively placed on the longitudinal beams 21 of the longitudinal adjustment assembly 2 and are slidably connected to the longitudinal sliding grooves 22 through the lateral sliding assembly 33, so that the lateral adjustment assembly 3 can longitudinally move along the longitudinal sliding grooves 22 on the longitudinal side form 11.

[0055] Combined with Figure 6 and Figure 7 , specifically, the lateral sliding assembly 33 includes a cross beam fixing box body 331, a cross beam fixing strong magnetic core 332 and a cross beam magnetic button 333. An accommodation groove capable of accommodating the cross beam fixing strong magnetic core 332 is formed in the cross beam fixing box body 331, so that the cross beam fixing strong magnetic core 332 can be built in the cross beam fixing box body 331. The cross beam magnetic button 333 is arranged above the cross beam fixing box body 331 and is connected to the cross beam fixing strong magnetic core 332 through the cross beam fixing box body 331, so that the cross beam magnetic button 333 can drive the cross beam fixing strong magnetic core 332 to vertically move in the cross beam fixing box body 331.

[0056] Furthermore, one end of the cross beam fixing box body 331 is provided with a cross beam fixing pressing plate 334 for cooperating with the cross beam 31. The cross beam fixing pressing plate 334 is distributed in an L shape, and a vertical spacing adapted to the cross beam 31 is formed between the cross beam fixing pressing plate 334 and the cross beam fixing box body 331.

[0057] Combined with Figure 6 and Figure 7 , in this way, the lateral fixing assemblies 33 are respectively arranged at both ends of the cross beam 31. The cross beam fixing pressing plates 334 can be distributed on the top of the cross beam 31, and the cross beam fixing box bodies 331 are placed on the longitudinal beams 21. One end of a cross beam fixing bolt 335 passes through the cross beam fixing pressing plate 334 and the cross beam 31, and the other end passes through the longitudinal sliding groove 22 of the longitudinal beam 21 and is built in the longitudinal connection cavity 24, so that the cross beam 31 is slidably connected to the longitudinal beam 21. The cross beam 31 can longitudinally move in the longitudinal sliding groove 22 through the cross beam fixing pressing plate 334 and the cross beam fixing bolt 335 to drive the embedded part 5 to longitudinally move.

[0058] Since the longitudinal sliding groove 22 covers the longitudinal length of the concrete pouring cavity 13, the cross beam 31 longitudinally moves along the longitudinal sliding groove 22 on the longitudinal side form 11, and the longitudinal distribution position of the embedded part 5 in the concrete pouring cavity 13 can be arbitrarily adjusted.

[0059] When the adjustment of the longitudinal distribution position of the embedded part 5 is completed, press the crossbeam magnetic button 333, so that the crossbeam magnetic button 333 drives the crossbeam fixed strong magnetic core 332 to move vertically in the crossbeam fixed box body 331 facing the longitudinal beam 21, so that the crossbeam fixed strong magnetic core 332 contacts the longitudinal beam 21. Under the magnetic force of the crossbeam fixed strong magnetic core 332, a vertical pressure is generated on the longitudinal beam 21, thereby fixing the crossbeam 31 on the longitudinal beam 21 to fix the longitudinal distribution position of the embedded part 5, preventing the displacement of the embedded part 5 during the manufacturing process of the precast component, and ensuring the precise positioning of the embedded part 5.

[0060] Here, the crossbeam fixed strong magnetic core 332 can be composed of an existing strong magnet, such as an Alnico magnet, so that the crossbeam fixed strong magnetic core 332 can generate a large vertical pressure on the longitudinal side form 11, ensuring the connection stability between the crossbeam 31 and the longitudinal beam 21.

[0061] During this process, the L-shaped distribution of the crossbeam fixed pressing plate 334 and the crossbeam fixed box body 331 can ensure that the crossbeam 31 and the longitudinal beam 21 are fixed at a right angle, and ensure that several crossbeams 31 distributed on the longitudinal beam 21 are relatively parallel to each other, so as to ensure the positioning accuracy of the embedded part 5.

[0062] The thus formed transverse fixing assembly 33 can realize any longitudinal movement of the crossbeam 31 in the longitudinal chute 22 through the cooperation of the crossbeam fixed pressing plate 334 and the crossbeam fixed bolt 335333. At the same time, through the pressing and lifting of the transverse crossbeam magnetic button 333, the one-key fixing of the crossbeam 31 is realized to ensure the positioning accuracy and positioning efficiency of the longitudinal distribution position of the embedded part 5.

[0063] Combined with Figures 1 to 3 , in order to adjust the transverse distribution position of the embedded part 5 in the concrete pouring cavity 13, transverse chutes 32 are distributed on the crossbeam 31, and the transverse chutes 32 cover the transverse length of the concrete pouring cavity 13, so that the embedded part positioning assembly 4 can be slidably connected with the transverse adjustment assembly 3 and move horizontally along the transverse chute 32 of the transverse adjustment assembly 3. At the same time, the transverse chutes 32 are respectively distributed on both sides of the crossbeam 31, and can also make the embedded part positioning assembly 4 be detachably connected with the embedded part 5 through the transverse chute 32 and adjust the connection height of the embedded part 5.

[0064] Combined with Figure 8 and Figure 9 , further, the embedded part positioning assembly 4 includes an embedded part fixing member 41 for cooperating with the embedded part 5 and an embedded part connecting member 42 for cooperating with the transverse adjustment assembly 3, so that the embedded part fixing member 41 and the embedded part connecting member 42 can cooperate with each other to adjust the transverse distribution position and connection height of the embedded part 5.

[0065] Specifically, the embedded part fixing member 41 includes an embedded part fixing box body 411, an embedded part fixing strong magnetic core 412, and an embedded part magnetic button 413. An installation groove capable of accommodating the embedded part fixing strong magnetic core 412 therein is formed in the embedded part fixing box body 411, so that the embedded part fixing strong magnetic core 412 can be built in the embedded part fixing box body 411. The embedded part magnetic button 413 is arranged above the embedded part fixing box body 411 and is connected to the embedded part fixing strong magnetic core 412 through the embedded part fixing box body 411, so that the embedded part magnetic button 413 can drive the embedded part fixing strong magnetic core 412 to move vertically in the embedded part fixing box body 411.

[0066] Furthermore, the embedded part connecting member 42 is arranged at the end of the embedded part fixing box body 411 and includes an embedded part adjusting nut 421, an embedded part adjusting screw rod 422, and an embedded part fixing nut 423.

[0067] Combined with Figure 8 and Figure 9 , wherein, the embedded part adjusting screw rod 422 is arranged in the embedded part fixing box body 411, one end is placed at the top end of the embedded part fixing box body 411 and is threadedly connected to the embedded part adjusting nut 421, and the other end sequentially passes through the transverse sliding grooves 32 on both sides of the cross beam 31 and is detachably connected to the embedded part 5, so that the embedded part adjusting screw rod 422 can move horizontally in the cross beam 31 to adjust the horizontal distribution position of the embedded part 5.

[0068] At the same time, the embedded part fixing nut 423 is sleeved on the end area where the embedded part adjusting screw rod 422 cooperates with the embedded part fixing box body 411 and is threadedly connected and matched with the embedded part adjusting screw rod 422, so that the embedded part adjusting screw rod 422 moves vertically in the embedded part fixing box body 411 through the embedded part adjusting nut 421 to adjust the connection height of the embedded part 5, and is fixed by the embedded part fixing nut 423.

[0069] In this way, the embedded part adjusting screw rod 422 of the embedded part connecting member 42 is inserted into the transverse sliding groove 32 of the cross beam 31, and the embedded part fixing member 41 is placed on the cross beam 31. The embedded part adjusting screw rod 422 moves horizontally in the transverse sliding groove 32 to arbitrarily adjust the horizontal distribution position of the embedded part 5 in the concrete pouring cavity 13.

[0070] When the adjustment of the horizontal distribution position of the embedded part 5 is completed, press the magnetic button 413 of the embedded part, so that the magnetic button 413 of the embedded part drives the strong magnetic core 412 of the embedded part fixing to move vertically towards the cross beam 31 in the embedded part fixing box body 411, so that the strong magnetic core 412 of the embedded part fixing contacts the cross beam 31, and a vertical pressure is generated on the cross beam 31 under the magnetic force of the strong magnetic core 412 of the embedded part fixing, thereby fixing the embedded part fixing member 41 on the cross beam 31 to fix the horizontal distribution position of the embedded part 5 and prevent the displacement of the embedded part 5 caused during the manufacturing process of the precast member, ensuring the precise positioning of the embedded part 5.

[0071] Correspondingly, turn the adjusting nut 421 of the embedded part, so that the adjusting nut 421 of the embedded part drives the adjusting screw rod 422 of the embedded part to move vertically in the embedded part fixing box body 411 through thread cooperation to arbitrarily adjust the connection height of the embedded part 5 in the concrete pouring cavity 13.

[0072] When the adjustment of the connection height of the embedded part 5 is completed, turn the fixing nut 423 of the embedded part, so that the fixing nut 423 of the embedded part applies a pre-tightening force to the adjusting screw rod 422 of the embedded part, and fixedly connects the adjusting screw rod 422 of the embedded part to the embedded part fixing box body 411, thereby fixing the connection height of the embedded part 5 and ensuring the precise positioning of the embedded part 5.

[0073] In order to ensure that the adjusting screw rod 422 of the embedded part can be detachably connected to the embedded part 5, so that the embedded part 5 can be quickly disassembled and assembled from the adjusting screw rod 422 of the embedded part, the adjusting screw rod 422 of the embedded part can be adaptively adjusted according to the specific structure of the embedded part 5.

[0074] In some embodiments, the embedded part 5 is composed of a screw rod connecting member. Correspondingly, a positioning sleeve 424 is provided at the matching end of the adjusting screw rod 422 of the embedded part and the embedded part 5, so that the screw rod connecting member can pass through the positioning sleeve 424 and realize quick disassembly and assembly with the positioning sleeve 424 through screw cooperation.

[0075] In some embodiments, the embedded part 5 is composed of a straight thread sleeve connecting member. Correspondingly, the helix of the adjusting screw rod 422 of the embedded part needs to be adapted to the internal thread of the straight thread sleeve connecting member, and quick disassembly and assembly of the embedded part 5 are realized through thread cooperation.

[0076] The longitudinally adjusting assembly 2, the horizontally adjusting assembly 3 and the embedded part positioning assembly 4 thus constituted cooperate with the embedded part 5 to realize arbitrary adjustment of the longitudinal, horizontal and connection height of the embedded part 5 within the range of the concrete pouring cavity 13.

[0077] Furthermore, several transverse adjustment components 3 are distributed on the longitudinal adjustment component 2, and several embedded positioning components 4 are distributed on the transverse adjustment component 3, enabling several embedded parts 5 to be distributed in the concrete pouring cavity 13, and the distribution positions of several embedded parts 5 can be adjusted arbitrarily respectively, thereby improving the construction efficiency and the production quality of precast components.

[0078] The following is an example to illustrate the working process of the present invention in specific applications. It should be noted here that the content described is only a specific application example of this solution and does not limit this solution.

[0079] Place the longitudinal adjustment component 2 on the side form component 1, and press the longitudinal beam magnetic button 233 to quickly fix the longitudinal adjustment component 2 on the side form component 1 with one key.

[0080] The embedded part 5 is arranged in the concrete pouring cavity 13 of the side form component 1 through the embedded part adjustment component 42 of the embedded positioning component 4.

[0081] The cross beam 31 of the transverse adjustment component 3 longitudinally moves along the longitudinal chute 22 of the longitudinal adjustment component 2 through the transverse sliding component 33, driving the embedded positioning component 4 and the embedded part 5 to move longitudinally synchronously in the concrete pouring cavity 13 until the longitudinal distribution position of the embedded part 5 is determined. Then press the cross beam magnetic button 333 to quickly fix the transverse sliding component 33 on the longitudinal beam 21 with one key to ensure the fixed longitudinal distribution position of the embedded part 5.

[0082] Furthermore, the embedded part adjustment screw rod 422 of the embedded positioning component 4 transversely moves along the transverse chute 32 of the transverse adjustment component 3, driving the embedded part 5 to move transversely synchronously in the concrete pouring cavity 13 until the transverse distribution position of the embedded part 5 is determined. Then press the embedded part magnetic button 413 to quickly fix the embedded part fixing component 41 on the cross beam 31 with one key to ensure the fixed transverse distribution position of the embedded part 5.

[0083] At the same time, turn the embedded part adjustment nut 421 to make the embedded part adjustment screw rod 422 vertically move in the transverse chute 32, driving the embedded part 5 to move vertically synchronously until the connection height of the embedded part 5 is determined. Then turn the embedded part fixing nut 423 to apply a pre-tightening force to the embedded part adjustment screw rod 422 to fix the embedded part adjustment component 42 on the cross beam 31, ensuring the fixed connection height of the embedded part 5, preventing the displacement of the embedded part 5 during the manufacturing process of the precast component, and improving the precise positioning of the embedded part 5.

[0084] The easily disassembled and adjustable embedded part positioning device provided by the present invention realizes the arbitrary adjustment of the longitudinal, transverse and connection height of the embedded part 5 within the range of the concrete pouring cavity 13 of the side form component 1 through the cooperation of the longitudinal adjustment component 2, the transverse adjustment component 3 and the embedded positioning component 4, and ensures the precise positioning and one-key quick fixing of the embedded part 5.

[0085] Meanwhile, a positioning device is arranged on the side formwork assembly 1 to ensure that the relative positions of the positioning device and the side formwork assembly 1 are always consistent, ensuring accurate positioning and not affecting the production process of precast components, and ensuring production quality and efficiency.

[0086] The foregoing has shown and described the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments, and what is described in the above embodiments and the specification is only to illustrate the principle of the present invention. Without departing from the spirit and scope of the present invention, the present invention will also have various changes and improvements, and these changes and improvements fall within the scope of the present invention claimed. The scope of the present invention claimed is defined by the appended claims and their equivalents.

Claims

1. An easily detachable and adjustable embedded part positioning device, used to cooperate with the embedded part, characterized in that: include A side mold assembly, wherein a concrete pouring cavity is formed in the side mold assembly, A longitudinal adjustment component, wherein the longitudinal adjustment component is fixedly arranged on the side mold component, A transverse adjustment component, wherein a plurality of transverse adjustment components are slidably distributed on the longitudinal adjustment component and are configured to be able to move longitudinally and be fixed on the longitudinal adjustment component, Embedded part positioning components, a plurality of embedded positioning components are slidably distributed on the lateral adjustment component, configured to be able to move laterally and be fixed on the lateral adjustment component, and also to be detachably connected to the embedded part and to adjust the connection height of the embedded part.

2. The easily detachable and adjustable embedded part positioning device according to claim 1 is characterized in that: The longitudinal adjustment component includes a longitudinal beam, which is arranged on the side mold component through a longitudinal fixing component. The longitudinal beam is provided with longitudinal sliding grooves and forms a longitudinal connecting cavity inside for cooperating with the transverse adjustment component.

3. The easily detachable and adjustable embedded part positioning device according to claim 2 is characterized in that: The longitudinal fixing assembly comprises a longitudinal beam fixing box body, a longitudinal beam fixing strong magnetic core and a longitudinal beam magnetic button. The longitudinal beam fixing strong magnetic core is built in the longitudinal beam fixing box body and is slidably connected and cooperated with the longitudinal beam fixing box body through the longitudinal beam magnetic button.

4. The easily detachable and adjustable embedded part positioning device according to claim 3 is characterized in that: A longitudinal beam fixing steel plate matched with the longitudinal beam is provided at the end of the longitudinal beam fixing box body.

5. The easily detachable and adjustable embedded part positioning device according to claim 2, characterized in that: The transverse adjustment assembly comprises a transverse beam, and the transverse beam is slidably arranged in the longitudinal slide groove through a transverse sliding assembly, and transverse slide grooves are respectively distributed on both sides of the transverse beam.

6. The easily detachable and adjustable embedded component positioning device according to claim 5, characterized in that: The transverse sliding assembly includes a beam fixing box body, a beam fixing strong magnetic core and a beam magnetic button. The beam fixing strong magnetic core is built in the beam fixing box body and is slidably connected and cooperated with the beam fixing box body through the beam magnetic button.

7. The easily detachable and adjustable embedded component positioning device according to claim 6, characterized in that: A beam fixing pressure plate is provided at the end of the beam fixing box body. The beam fixing pressure plate is distributed in an L shape, and an installation spacing adapted to the beam is formed between the beam fixing box body, and slidingly cooperates with the longitudinal connecting cavity through a beam fixing bolt.

8. The easily detachable and adjustable embedded component positioning device according to claim 5, characterized in that: The embedded part positioning assembly comprises an embedded part fixing box body, an embedded part fixing strong magnetic core and an embedded part magnetic button. The embedded part fixing strong magnetic core is built in the embedded part fixing box body and is slidably connected and cooperated with the embedded part fixing box body through the embedded part magnetic button.

9. The easily detachable and adjustable embedded component positioning device according to claim 6, characterized in that: The embedded part positioning assembly also includes an embedded part adjusting screw rod, one end of which is threadedly engaged with the embedded part fixing box body, and the other end of which passes through the transverse sliding groove of the crossbeam and is detachably connected to the embedded part.

10. The easily detachable and adjustable embedded component positioning device according to claim 9, characterized in that: The end of the embedded part adjusting screw rod that cooperates with the embedded part is provided with a positioning sleeve.

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