Die anti-distortion support device

Abstract

This utility model discloses a metal formwork anti-deformation support device, including a formwork body and a reinforcement mechanism. The reinforcement mechanism is provided at the connection between the formwork bodies. The reinforcement mechanism includes a mating hole, a sleeve, a groove, a screw hole, and a limiting bolt. The mating holes are spaced apart on the side of the formwork body. After the formwork bodies are spliced ​​together, the cross-shaped groove on one side of the sleeve is aligned with the connection of the formwork body and inserted. At the same time, the screw hole inside the sleeve is aligned with the mating hole at the end of the formwork body. The limiting bolt is screwed in to fix the connection between the sleeve and the formwork body together. The sleeve structure can further connect the mating positions of four adjacent formwork bodies, distribute the force, improve the structural strength of the connection, and reduce problems such as grout leakage and deformation at the connection.

Description

Technical Field

[0001] This utility model relates to the field of metal template components, and in particular to a metal template anti-deformation support device. Background Technology

[0002] Metal formwork is a tool-type formwork made of metal materials such as steel plates and aluminum alloys. It is widely used in construction projects, especially large-scale projects and projects that need to be used multiple times. They can withstand the pressure and weight of freshly mixed concrete while maintaining sufficient strength and rigidity to ensure the smooth progress of the pouring process. Due to its lightweight and reusability, it is widely used.

[0003] Existing metal formwork has the following drawbacks during use: During the installation and use of metal formwork, especially in the pouring process, deformation of the formwork must be avoided, otherwise it is easy to cause formwork collapse. In actual use, metal formwork is fixed together with fasteners, and the most vulnerable place to deformation is the joint between the formwork. Under the action of lateral pressure, uneven displacement is easily generated at the joint, resulting in grout leakage or local bulging, which in turn affects the overall quality of the formwork. To address this, we propose a metal formwork anti-deformation support device. Utility Model Content

[0004] The main purpose of this utility model is to provide a metal template anti-deformation support device. Through the reinforcement mechanism, it can further reinforce the docking position between the template bodies, improve the structural strength of the connection position, and effectively solve the problems in the background art.

[0005] To achieve the above objectives, the technical solution adopted by this utility model is as follows:

[0006] A metal template anti-deformation support device includes a template body and a reinforcement mechanism. The reinforcement mechanism is provided at the connection between the template bodies. The reinforcement mechanism includes a mating hole, a sleeve, a groove, a screw hole, and a limiting bolt. The template body has mating holes spaced apart on its side. A sleeve is inserted into the connection between the template bodies. The sleeve has a groove on its side and is engaged with the connection between the template bodies through the groove. The sleeve has symmetrically arranged screw holes inside, and the screw holes are screwed together with a limiting bolt.

[0007] Furthermore, it also includes a support mechanism. A support mechanism is provided between the clamps. The support mechanism includes a square plate, through holes, connecting rods, and positioning plates. Square plates are welded to the side of the template body away from the clamp slot, and through holes are opened inside the square plates. Connecting rods are horizontally inserted between the square plates, and positioning plates are sleeved at both ends of the connecting rods. When clamps are used to connect and limit the connection between the template bodies, clamps at the same horizontal height will be horizontally aligned. Connecting rods can be horizontally inserted between adjacent clamps, and then the clamps are installed in place. After the clamps are installed, positioning plates can be added to both ends of the connecting rods. This process is repeated. The appropriate number of connecting rods and positioning plates are selected according to the laying length of the template. The contact positions between positioning plates and between positioning plates and template end components are all fixed by fasteners passing through the mounting holes. After fixing, the connecting rods cooperate to connect the clamps in the same horizontal direction, further dispersing the force and improving the structural strength. The length of the connecting rods can be cut on-site according to the actual laying requirements to meet the docking requirements of the connecting rods.

[0008] Furthermore, the template body is welded with support ribs at intervals inside, and fastening bolts that pass through the docking holes are inserted at the connection points between the template bodies, with fastening nuts screwed onto the outer periphery of the fastening bolts; the support ribs serve to strengthen the structural strength of the template body. When the template bodies are joined together, the fastening bolts are inserted into the docking holes and the fastening nuts are tightened to fix the adjacent template bodies together.

[0009] Furthermore, the screw hole and the mating hole are positioned correspondingly, and the limiting bolt passes through the mating hole and the screw hole; the limiting bolt fixes the sleeve and the template body together.

[0010] Furthermore, mounting holes are provided at the four corners of the positioning plate; the mounting hole structure facilitates the use of fasteners to fix the positioning plates together and the positioning plates to the end components of the template.

[0011] Furthermore, a sleeve is horizontally welded to the middle of the side of the positioning plate, and an insertion cavity is opened inside the sleeve. The end of the connecting rod is inserted into the insertion cavity. The insertion cavity structure inside the sleeve facilitates the insertion of the end of the connecting rod, thereby connecting the positioning plate and the connecting rod together.

[0012] Compared with the prior art, this utility model has the following advantages: The template body has mating holes on its side connections. During installation, the template bodies are aligned and fasteners are passed through the mating holes to fix them together, forming a complete template structure. After the template bodies are spliced, a retaining sleeve can be installed at the cross-connection points. The cross-shaped slot on one side of the retaining sleeve is aligned with the template body connection point and inserted. After insertion, the template body connection point fits against the inner wall of the slot. Simultaneously, the screw hole inside the retaining sleeve aligns with the mating hole at the end of the template body. A limiting bolt is then screwed in, allowing it to pass through the mating hole and into the screw hole, thus fixing the retaining sleeve to the template body connection point. The retaining sleeve structure can further connect the mating points of four adjacent template bodies, distributing the stress. This improves the structural strength of the connection and reduces problems such as grout leakage and deformation at the connection. When using clamps to limit the connection between the main body of the template, the clamps at the same horizontal height will be horizontally aligned. A connecting rod can be horizontally inserted between adjacent clamps, and then the clamps are installed in place. After the clamps are installed, positioning plates can be added to both ends of the connecting rod. This process is repeated. Select an appropriate number of connecting rods and positioning plates according to the laying length of the template. The contact positions between the positioning plates and between the positioning plates and the end components of the template are all fixed by fasteners passing through the mounting holes. After fixing, the connecting rods cooperate to connect the clamps in the same horizontal direction, further distributing the force and improving the structural strength. The length of the connecting rod can be cut on site according to the actual laying requirements to meet the docking requirements of the connecting rod. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of the overall structure of a metal template anti-deformation support device according to the present invention.

[0014] Figure 2 This is a schematic diagram of the connection between the template bodies of a metal template anti-deformation support device according to this utility model.

[0015] Figure 3 This is a schematic diagram of one side of the square plate on the surface of the sleeve of a metal template anti-deformation support device according to the present invention.

[0016] Figure 4 This is a schematic diagram of the structure of one side of the slot on the surface of the sleeve of the metal template anti-deformation support device of this utility model.

[0017] Figure 5 This is a schematic diagram of the connection between the connecting rod and the positioning plate of a metal template anti-deformation support device according to this utility model.

[0018] In the diagram: 1. Template body; 101. Supporting rib; 102. Fastening bolt; 103. Fastening nut; 2. Reinforcing mechanism; 201. Butt hole; 202. Sleeve; 203. Slot; 204. Screw hole; 205. Limiting bolt; 3. Supporting mechanism; 301. Square plate; 302. Through hole; 303. Connecting rod; 304. Positioning plate; 305. Mounting hole; 306. Sleeve; 307. Insertion cavity. Detailed Implementation

[0019] To make the technical means, creative features, objectives and effects of this utility model easier to understand, the present utility model will be further described below in conjunction with specific embodiments.

[0020] like Figure 1-5 As shown, a metal template anti-deformation support device includes a template body 1 and a reinforcing mechanism 2. The reinforcing mechanism 2 is provided at the connection between the template bodies 1. The reinforcing mechanism 2 includes a mating hole 201, a sleeve 202, a groove 203, a screw hole 204, and a limiting bolt 205. The template body 1 has mating holes 201 spaced apart on its side. The sleeve 202 is inserted into the connection between the template bodies 1. The sleeve 202 has a groove 203 on its side and is clamped to the connection between the template bodies 1 through the groove 203. The sleeve 202 has symmetrically arranged screw holes 204 inside, and the screw holes 204 are screwed together with the limiting bolt 205.

[0021] The system also includes a support mechanism 3, which is provided between the sleeves 202. The support mechanism 3 includes a square plate 301, a through hole 302, a connecting rod 303, and a positioning plate 304. A square plate 301 is welded to each side of the template body 1 away from the slot 203, and each square plate 301 has a through hole 302 inside. A connecting rod 303 is horizontally inserted between the square plates 301, and positioning plates 304 are sleeved at both ends of the connecting rod 303. When the sleeves 202 are used to limit the connection between the template bodies 1, the sleeves 202 at the same horizontal height will be horizontally aligned, and the connecting rod 304 can be horizontally inserted between adjacent sleeves 202. 3. Then, install the clamp 202 into place. After the clamp 202 is installed, positioning plates 304 can be added to both ends of the connecting rod 303. Repeat this process. Select an appropriate number of connecting rods 303 and positioning plates 304 according to the laying length of the template. The contact positions between positioning plates 304 and between positioning plates 304 and template end components are all fixed by fasteners passing through the mounting holes 305. After fixing, the connecting rods 303 cooperate to connect the clamps 202 in the same horizontal direction, further dispersing the force and improving the structural strength. The length of the connecting rod 303 can be cut on site according to the actual laying requirements to meet the docking requirements of the connecting rod 303.

[0022] The template body 1 has support ribs 101 welded at intervals inside. At the connection point between template bodies 1, near the docking hole 201, a fastening bolt 102 is inserted through the docking hole 201, and a fastening nut 103 is screwed onto the outer periphery of the fastening bolt 102. The screw hole 204 corresponds to the docking hole 201. The limiting bolt 205 passes through the docking hole 201 and the screw hole 204. The support ribs 101 serve to strengthen the structural strength of the template body 1. When the template bodies 1 are joined, the fastening bolt 102 is inserted into the docking hole 201 and the fastening nut 103 is tightened to fix adjacent template bodies 1 together. The limiting bolt 205 fixes the ferrule 202 to the template body 1 together.

[0023] The positioning plate 304 has mounting holes 305 at each of its four corners. A sleeve 306 is horizontally welded to the middle of the side of the positioning plate 304, and an insertion cavity 307 is formed inside the sleeve 306. The end of the connecting rod 303 is inserted into the insertion cavity 307. The mounting holes 305 facilitate the use of fasteners to fix the positioning plates 304 together and between the positioning plates 304 and the end components of the template. The insertion cavity 307 inside the sleeve 306 facilitates the insertion of the end of the connecting rod 303, thereby connecting the positioning plate 304 and the connecting rod 303 together.

[0024] It should be noted that this utility model is a metal template anti-deformation support device. In use, the template body 1 has mating holes 201 at its side connection points. During installation, the template bodies 1 are aligned, and fasteners are passed through the mating holes 201 to fix them together, forming a complete template structure. After the template bodies 1 are spliced, a retaining sleeve 202 can be added to the cross-connection points. The cross-shaped groove 203 on one side of the retaining sleeve 202 is aligned with the connection point of the template body 1 and inserted. After insertion, the connection point of the template body 1 fits against the inner wall of the groove 203. Simultaneously, the screw hole 204 inside the retaining sleeve 202 aligns with the mating hole 201 at the end of the template body 1. A limiting bolt 205 is screwed in, passing through the mating hole 201 and into the screw hole 204, thus fixing the retaining sleeve 202 to the connection point of the template body 1. The retaining sleeve 202 structure can further connect the mating points of four adjacent template bodies 1. Distributing stress, improving the structural strength of the connection, and reducing problems such as grout leakage and deformation at the connection; when using the clamp 202 to limit the connection between the template bodies 1, the clamps 202 at the same horizontal height will be horizontally aligned. The connecting rod 303 can be horizontally inserted between adjacent clamps 202, and then the clamps 202 are installed in place. After the clamps 202 are installed, positioning plates 304 can be added to both ends of the connecting rod 303. This process is repeated. According to the laying length of the template, select an appropriate number of connecting rods 303 and positioning plates 304. The contact positions between positioning plates 304 and between positioning plates 304 and template end components are all fixed by fasteners passing through the mounting holes 305. After fixing, the connecting rods 303 cooperate to connect the clamps 202 in the same horizontal direction, further distributing stress and improving structural strength. The length of the connecting rod 303 can be cut on site according to the actual laying requirements to meet the docking requirements of the connecting rod 303.

[0025] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claims. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A die plate anti-distortion support device comprising a die plate main body (1), characterized in that, It also includes a reinforcement mechanism (2), which is provided at the connection between the template bodies (1). The reinforcement mechanism (2) includes a docking hole (201), a sleeve (202), a slot (203), a screw hole (204), and a limiting bolt (205). The template bodies (1) are provided with docking holes (201) at intervals on the side. The sleeve (202) is inserted at the connection between the template bodies (1). The sleeve (202) is provided with a slot (203) on the side and is connected to the connection between the template bodies (1) through the slot (203). The sleeve (202) is provided with screw holes (204) symmetrically inside and the screw holes (204) are connected with the limiting bolt (205).

2. The anti-distortion support device for a metal mold according to claim 1, characterized by: It also includes a support mechanism (3), which is provided between the sleeves (202). The support mechanism (3) includes a square plate (301), a through hole (302), a connecting rod (303), and a positioning plate (304). The side of the template body (1) away from the slot (203) is welded with a square plate (301), and the inside of the square plate (301) is provided with a through hole (302). The square plates (301) are horizontally inserted with a connecting rod (303), and the two ends of the connecting rod (303) are sleeved with positioning plates (304).

3. The metal form anti-distortion support device according to claim 1, characterized in that: The template body (1) has support ribs (101) welded at intervals inside. At the connection between the template bodies (1), a fastening bolt (102) that passes through the docking hole (201) is inserted, and a fastening nut (103) is screwed onto the outer periphery of the fastening bolt (102).

4. The anti-distortion support device for a metal mold according to claim 1, characterized by: The screw hole (204) corresponds to the docking hole (201), and the limiting bolt (205) passes through the docking hole (201) and the screw hole (204).

5. The anti-distortion support device for a metal mold according to claim 2, characterized by: Mounting holes (305) are provided at the four corners of the positioning plate (304).

6. The anti-distortion support device for a metal mold according to claim 2, characterized by: A sleeve (306) is horizontally welded to the middle of the side of the positioning plate (304), and an insertion cavity (307) is opened inside the sleeve (306). The end of the connecting rod (303) is inserted into the insertion cavity (307).

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