Fabricated wall with titanium alloy structure

Abstract

The utility model relates to the field of high-end buildings and special engineering, in particular to a fabricated wall with a titanium alloy structure. The utility model provides an assembly type wall body with a titanium alloy structure, which comprises two wall bodies, titanium alloy, first fixing frames and the like, the titanium alloy is embedded in the two wall bodies, the left side surfaces of the two wall bodies are connected with the first fixing frames, the right side surfaces of the two wall bodies are provided with two mounting holes, and the two mounting holes are connected with the first fixing frames. The fixing rods of the two first fixing frames are matched with the corresponding mounting holes in an inserted mode. The first fixing frame is connected with the adjacent wall body through the precisely designed mounting holes, precise alignment between the wall bodies is ensured through the design of the mounting holes, dislocation and deviation are avoided, the connecting precision between the wall bodies is improved, the stability of the overall structure is further enhanced, the second fixing frame is used in cooperation with the clamping rods, and the fixing effect is good. The connection strength and stability between the wall bodies are further enhanced, and it is ensured that the wall bodies have extremely high stability and anti-interference capacity after being assembled.

Description

Technical Field

[0001] This utility model relates to the fields of high-end buildings and special engineering, and in particular to a prefabricated wall with a titanium alloy structure. Background Technology

[0002] Prefabricated walls with titanium alloy structures are building wall systems made of titanium alloy materials and manufactured through prefabrication and modular design. This type of wall combines the superior material properties of titanium alloy with modern prefabricated building technology, aiming to provide a high-performance, highly durable, and easy-to-construct solution.

[0003] Although prefabricated walls are widely used due to their convenient installation, the commonly used connection methods often experience loosening or failure of the connection points during long-term use, especially under harsh conditions such as vibration and external impact. This seriously affects the stability and safety of the wall. These problems are particularly prominent in walls using titanium alloy structures. When titanium alloy comes into contact with other metal materials (such as steel and aluminum), electrochemical corrosion may occur due to the potential difference. This corrosion not only weakens the strength of the connection points but also accelerates the aging of the materials, further reducing the reliability of the connection points.

[0004] To address the aforementioned issues, a prefabricated wall structure with titanium alloy components needs to be designed. Utility Model Content

[0005] To overcome the shortcomings of loose or failed connections, this utility model provides a prefabricated wall with a titanium alloy structure.

[0006] The technical solution of this utility model is as follows: A prefabricated wall with a titanium alloy structure includes a wall, a titanium alloy, a first fixing frame, a sealing gasket, a hollow wall, a second fixing frame, a clamping rod, a fixing block, an extrusion frame, a magnet, and an anti-slip pad. There are two walls, and titanium alloy is embedded inside each wall. The left side of each wall is connected to a first fixing frame, and two mounting holes are opened on the right side of each wall. The fixing rods of the two first fixing frames are plugged into the corresponding mounting holes. A sealing gasket is connected to the left side of each of the two first fixing frames. A hollow wall is connected to the front side of each wall. A second fixing frame is connected to the upper front side of each wall. A clamping rod is slidably connected to each of the two second fixing frames, and the two clamping rods are clamped into the corresponding second fixing frames. A fixing block is connected to the front side of each wall. An extrusion frame is slidably connected between every two fixing blocks. The two extrusion frames are in contact with the corresponding clamping rods. Magnets are symmetrically provided on the left and right sides of the outer side of each of the two extrusion frames. An anti-slip pad is connected to the lower side of each of the two walls.

[0007] Optionally, it also includes ground spikes, with ground spikes rotatably connected to the underside of both anti-slip pads.

[0008] Optionally, it also includes perforated panels, with perforated panels connected to the front sides of both hollow walls.

[0009] Optionally, it also includes storage baskets, with storage baskets clipped onto both perforated panels.

[0010] Optionally, multiple protrusions are provided on the underside of both anti-slip pads.

[0011] Optionally, it also includes cushioning pads, with cushioning pads attached to the right sides of both walls.

[0012] The beneficial effects of this utility model are as follows: The first fixing frame is connected to the adjacent wall through precisely designed mounting holes. The design of the mounting holes ensures precise alignment between the walls, avoids misalignment and deviation, improves the connection accuracy between the walls, and enhances the stability of the overall structure. The second fixing frame is used in conjunction with the clamp rod to further enhance the connection strength and stability between the walls, ensuring that the wall has extremely high stability and anti-interference ability after assembly. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0014] Figure 2 This is a three-dimensional structural diagram of the titanium alloy, first fixing frame, and sealing gasket components of this utility model.

[0015] Figure 3 This is a cross-sectional view of the wall structure of this utility model.

[0016] Figure 4 This is a three-dimensional structural diagram of the first fixing frame, sealing gasket, and buffer gasket of this utility model.

[0017] Figure 5 This is a three-dimensional structural diagram of the components such as the fixing block, the extrusion frame, and the magnet of this utility model.

[0018] Figure 6 This is a three-dimensional structural diagram of the second fixing frame and the clamping rod of this utility model.

[0019] Figure 7 This is a three-dimensional structural diagram of the anti-slip mat and spikes of this utility model.

[0020] The markings in the diagram are: 1-wall, 2-titanium alloy, 3-first fixing frame, 4-sealing gasket, 5-mounting hole, 6-buffer pad, 7-hollow wall, 8-second fixing frame, 9-clip rod, 10-fixing block, 11-extrusion frame, 12-magnet, 13-anti-slip pad, 14-ground spike, 15-perforated board, 16-storage basket. Detailed Implementation

[0021] The present invention will now be described in detail with reference to the accompanying drawings.

[0022] Example: A prefabricated wall with a titanium alloy structure, such as Figures 1-7 As shown, the system includes a wall 1, a titanium alloy 2, a first fixing bracket 3, a sealing gasket 4, a buffer pad 6, a hollow wall 7, a second fixing bracket 8, a clamping rod 9, a fixing block 10, a pressing bracket 11, a magnet 12, an anti-slip mat 13, a ground spike 14, a perforated plate 15, and a storage basket 16. There are two walls 1, each with a titanium alloy 2 embedded inside. The titanium alloy 2 enhances the overall strength and durability of the walls 1, enabling them to withstand greater loads. The left side of each wall 1 is connected to a first fixing bracket 3, and the right side of each wall 1 has two mounting holes 5. The fixing rod of the first fixing bracket 3 is plugged into the corresponding mounting hole 5. The mounting hole 5 is used to receive the fixing rod of the first fixing bracket 3, realizing the plug-in connection between the wall 1. The left side of both first fixing brackets 3 is connected to a sealing gasket 4, which can provide a sealing effect to prevent external factors (such as moisture and dust) from entering the connection of the wall 1. The right side of both wall 1 is connected to a buffer pad 6, which can provide a buffering effect to reduce the impact force when the wall 1 collides. The front side of both wall 1 is connected to a hollow wall 7, and the upper front side of both wall 1 is connected to a second fixing bracket 8. Each of the two second fixing brackets 8 is slidably connected with a locking rod 9. The two locking rods 9 engage with the corresponding second fixing brackets 8, and the locking rods 9 connect to the second fixing brackets 8 of other wall 1 through the engagement, enhancing the connection between the wall 1s. Each of the two wall 1s has a fixing block 10 connected to its front side, and a pressing bracket 11 is slidably connected between each pair of fixing blocks 10. The two pressing brackets 11 engage with the corresponding locking rods 9. Magnets 12 are symmetrically arranged on the left and right sides of the outer sides of the two pressing brackets 11. The attraction of the magnets 12 enhances the connection stability between the wall 1s. The lower sides of the two wall 1s... Both walls 1 and 7 are connected to anti-slip pads 13. Each anti-slip pad 13 has multiple protrusions on its lower side. The anti-slip pads 13 can increase friction and ensure the stability of the wall 1 in a vertical state. Both anti-slip pads 13 are rotatably connected to ground spikes 14 on their lower sides. The ground spikes 14 can increase the stability of the wall 1 and prevent the wall 1 from shifting in a vertical state. Both hollow walls 7 are connected to perforated boards 15 on their front sides. The perforated boards 15 are convenient for attaching storage baskets 16. Both perforated boards 15 are attached to storage baskets 16. The storage baskets 16 are used to store and manage tools, materials and other items, improving space utilization.

[0023] When assembling the titanium alloy 2 structure wall 1, workers place multiple wall 1s flat on the ground, ready for assembly. First, the workers lift the first wall 1 to a vertical position, ensuring the anti-slip pad 13 beneath it is in full contact with the ground to increase stability. Then, the workers lift the second wall 1 to a vertical position, ensuring its anti-slip pad 13 is in contact with the ground. Next, the first fixing bracket 3 of the second wall 1 is inserted into the two mounting holes 5 on the right side of the first wall 1, achieving multi-point fixing and enhancing the stable connection between the two wall 1s. Simultaneously, the workers ensure the locking rod 9 of the second wall 1 is correctly engaged in the second fixing bracket 8 of the first wall 1, not only enhancing the connection's strength but also effectively resisting vibration and external impact, thus firmly connecting the two wall 1s together. During the connection process, the magnet 12 on the right side of the compression bracket 11 and the magnet 12 on the left side of another compression bracket 11 attract each other, further enhancing the connection's stability and preventing loosening. The above steps are repeated until all wall 1s are assembled, forming a complete structure. The robust wall system provides reliable support and protection. Workers can then attach multiple storage baskets 16 to corresponding perforated panels 15 for easy storage and management of items. When disassembly of the assembled wall 1 is required, workers remove the storage baskets 16 one by one from their corresponding perforated panels 15 to create space for disassembly. Then, workers pull a magnet 12 on one of the wall panels 1 upwards. This magnet 12 drives the connected pressing frame 11 and the magnet 12 on the right side to move upwards along the fixing block 10, thereby... All magnets 12, pressing frames 11, and right-side magnets 12 in all wall sections 1 move synchronously. When all pressing frames 11 move to contact the corresponding clamping rods 9, they push the corresponding clamping rods 9 upward until the corresponding clamping rods 9 disengage, releasing the connection between adjacent wall sections 1, allowing wall sections 1 to move independently. Then, all clamping rods 9 and the first fixing frame 3 are removed to completely release the connection between adjacent wall sections 1, preparing for the subsequent removal of wall sections 1. Finally, each wall section 1 is removed from its vertical position and returned to a horizontal state for subsequent processing or transportation.

[0024] The embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present invention.

Claims

1. A fabricated wall body having a titanium alloy structure, characterized by, The utility model provides a wall body (1), titanium alloy (2), first fixed frame (3), sealing pad (4), hollow wall (7), second fixed frame (8), clamping rod (9), fixed block (10), extrusion frame (11), magnet (12) and antiskid pad (13) are included, two wall bodies (1) are embedded with titanium alloy (2) inside, two wall bodies (1) left side all are fixedly connected with first fixed frame (3), two wall bodies (1) right side all are equipped with two mounting hole (5), the fixed rod of two first fixed frame (3) is inserted with the corresponding mounting hole (5) and is matched, two first fixed frame (3) left side all are equipped with sealing pad (4), two wall bodies (1) front side all are fixedly connected with hollow wall (7), two wall bodies (1) front upper side all are fixedly connected with second fixed frame (8), two second fixed frame (8) all are slidably connected with clamping rod (9), two clamping rod (9) are matched with the corresponding second fixed frame (8) and are connected, two wall bodies (1) front side all are fixedly connected with fixed block (10), and every two fixed block (10) between all are slidably connected with extrusion frame (11), two extrusion frame (11) are matched with the corresponding clamping rod (9) and contact, and the left and right symmetry of two extrusion frame (11) outside all are provided with magnet (12), and two wall bodies (1) lower side all are equipped with antiskid pad (13).

2. The fabricated wall with titanium alloy structure according to claim 1, characterized in that, Still include ground thorn (14), two antiskid pad (13) lower side all are rotatably connected with ground thorn (14).

3. The prefabricated wall with titanium alloy structure according to claim 2, characterized in that, Still include hole plate (15), two hollow wall (7) front side all are equipped with hole plate (15).

4. The prefabricated wall with titanium alloy structure according to claim 3, characterized in that, Still include article basket (16), two hole plate (15) all are clamped with article basket (16).

5. The prefabricated wall with titanium alloy structure according to claim 4, characterized in that, Two antiskid pad (13) lower side all are equipped with a plurality of convex blocks.

6. The prefabricated wall with titanium alloy structure according to claim 5, characterized in that, Still include buffer pad (6), two wall bodies (1) right side all are equipped with buffer pad (6).

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