Tunnel lining detection device

Abstract

The utility model discloses a tunnel lining detection device which comprises a tunnel lining detector and a data transmission connector, the top surface of the tunnel lining detector is provided with a storage square groove and a combined square groove, the combined square groove is located above the storage square groove, two sides of the top surface of the tunnel lining detector are provided with positioning strip grooves, and the positioning strip grooves are located above the storage square groove. A positioning strip groove is formed in the top surface of the storage square groove, a magnetic suction plate is mounted in the positioning strip groove, a data transmission connector is mounted in the storage square groove, the data transmission connector is embedded and fixedly mounted on the tunnel lining detector, and handheld rods are symmetrically and fixedly mounted on the top surface of the tunnel lining detector. According to the tunnel lining detection device, the sealing partition plate can stably slide on the outer side of the connecting square plate through the limiting block, the shaking phenomenon is avoided, stability is kept, meanwhile, the sealing partition plate drives the positioning block to slide in the positioning strip groove, and the stability of the sealing or opening position can be kept according to magnetic attraction of the magnetic column on the positioning block and the magnetic attraction plate.

Description

Technical Field

[0001] This utility model relates to the field of tunnel inspection technology, specifically a tunnel lining inspection device. Background Technology

[0002] Tunnel inspection is used to evaluate the quality of tunnel engineering projects and to promptly identify potential defects and hazards. This includes the inspection of tunnel lining quality, which is typically carried out using tunnel lining inspection instruments. However, current tunnel lining inspection devices on the market still have the following problems:

[0003] During use, the joints on a typical tunnel lining testing instrument are often directly exposed, which can lead to dust from the outside entering the joint and causing a short circuit, affecting the subsequent wiring connection.

[0004] To address the aforementioned issues, an innovative design was developed based on the existing tunnel lining detection device. Utility Model Content

[0005] The purpose of this utility model is to provide a tunnel lining inspection device to solve the problem mentioned in the background art that the joints on the commonly used tunnel lining inspection devices on the market are easily exposed during use, which leads to dust from the outside entering the joint and causing short circuits, affecting the subsequent wiring connection work.

[0006] To achieve the above objectives, this utility model provides the following technical solution:

[0007] A tunnel lining inspection device includes a tunnel lining inspector and a data transmission connector. The top surface of the tunnel lining inspector has a square groove. The square groove is a stepped groove with openings at one end and the top. The square groove includes a receiving square groove and a combined square groove located on the top of both side walls of the receiving square groove and communicating with it. The combined square groove is larger than the receiving square groove. Multiple data transmission connectors are installed inside the receiving square groove. A connecting square plate is installed inside the square groove and supported on the bottom surface of the combined square groove. Multiple first through holes for mates with the data transmission connectors are provided on the connecting square plate. A central hole is located near the non-open end of the connecting square plate. The device includes a sliding groove with a limiting rod fixed to a connecting square plate inside the groove. A sealing partition is provided on the top of the connecting square plate for sliding cooperation. A second through hole is provided on the sealing partition for cooperation with a data transmission connector. The end of the sealing partition near the opening of the groove is bent downwards into an L-shaped plate structure. The other end of the sealing partition has a limiting block that cooperates with the limiting rod on the connecting square plate. Both sides of the sealing partition are magnetically attracted to a magnetic suction plate within the combined square groove via magnetic columns. The top surface of the sealing partition is flush with the top surface of the tunnel lining detector. Handheld grips are also provided on both sides of the square groove and mounted on the top surface of the tunnel lining detector.

[0008] The top surface of the sealing partition is provided with an anti-slip strip; the anti-slip strip is located on one side of the sealing partition near the opening end of the square groove.

[0009] The combined square groove has a positioning groove for mounting a magnetic suction plate; a positioning block is provided on the sealing partition inside the positioning groove, and the magnetic column is disposed inside the positioning block.

[0010] The magnetic suction plates are symmetrically distributed inside the positioning groove, and the magnetic suction plates are connected to the tunnel lining detector by embedding and fixing, and the magnetic suction plates are connected to the magnetic column by magnetic adsorption.

[0011] The connection method between the connecting square plate and the combined square groove is embedding and fixing.

[0012] The limiting block and the sealing partition are integrated into one structure, and the limiting block is connected to the translational slide and the limiting rod by a sliding connection.

[0013] The sealing partition and the positioning block are integrated into one structure, and the positioning block is connected to the magnetic column by embedding and fixing, while the positioning block is connected to the positioning groove by sliding connection.

[0014] The centerline of the second through hole is aligned with the centerline of the first through hole, and the second through hole and the first through hole are equally spaced on the sealing partition and the connecting square plate, respectively. The diameters of the second through hole and the first through hole are larger than the diameter of the data transmission connector.

[0015] The anti-slip strip and the sealing partition are integrated into one structure, and the anti-slip strip is evenly distributed on the sealing partition.

[0016] Compared with the prior art, the beneficial effects of this utility model are: this tunnel lining detection device,

[0017] 1. Manual testing can be performed using the handheld handle on the tunnel lining testing instrument, ensuring that the bottom of the instrument fits snugly against the tunnel lining. Simultaneously, the terminal data cable is passed through the second through hole on the sealing partition and the first through hole on the connecting square plate, allowing it to connect with the data transmission connector for real-time data transmission. Furthermore, the second through hole can be misaligned with the first through hole by pushing the sealing partition, thus sealing and preserving the data.

[0018] 2. The sealing partition can slide smoothly on the outside of the connecting square plate through the limiting block to avoid shaking and maintain stability. At the same time, the sealing partition drives the positioning block to slide inside the positioning groove. According to the magnetic attraction between the magnetic column on the positioning block and the magnetic suction plate, the stability of the sealed or open position can be maintained. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall sealed three-dimensional structure of this utility model;

[0020] Figure 2 This is a schematic diagram of the overall unfolded three-dimensional structure of this utility model;

[0021] Figure 3 This is a three-dimensional structural diagram of the tunnel lining testing instrument of this utility model;

[0022] Figure 4 This is a three-dimensional structural diagram of the sealing partition and connecting square plate of this utility model;

[0023] Figure 5 This is a three-dimensional structural diagram of the sealing partition and connecting square plate of this utility model from an upward perspective.

[0024] In the diagram: 1. Tunnel lining testing instrument; 2. Storage groove; 3. Combined groove; 4. Positioning groove; 5. Magnetic suction plate; 6. Data transmission connector; 7. Handheld grip; 8. Connecting plate; 9. First through hole; 10. Translational slide; 11. Limiting rod; 12. Sealing partition; 13. Limiting block; 14. Positioning block; 15. Magnetic column; 16. Second through hole; 17. Anti-slip strip. Detailed Implementation

[0025] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0026] Please see Figure 1-5 This utility model provides a technical solution: a tunnel lining detection device, including a tunnel lining detector 1 and a data transmission connector 6. The top surface of the tunnel lining detector 1 has a receiving square groove 2 and a combined square groove 3, with the combined square groove 3 located above the receiving square groove 2. Positioning grooves 4 are formed on both sides of the top surface of the tunnel lining detector 1, and magnetic suction plates 5 are installed inside the positioning grooves 4. The data transmission connector 6 is installed inside the receiving square groove 2 and is embedded and fixedly installed on the tunnel lining detector 1. A hand-held grip 7 is symmetrically fixedly installed on the top surface of the tunnel lining detector 1. A connecting square plate 8 is installed inside the combined square groove 3, and a first through hole 9 is formed on the connecting square plate 8. A translational slide groove 10 is provided at the center of the right end of the connecting square plate 8, and a limiting rod 11 is provided inside the translational slide groove 10. The limiting rod 11 is fixedly installed on the connecting square plate 8. A sealing partition 12 is installed on the outside of the hand grip 7, and a limiting block 13 is provided on the bottom right end of the sealing partition 12. The limiting block 13 is located inside the translational slide groove 10, and the limiting block 13 is connected to the limiting rod 11. Positioning blocks 14 are provided on both sides of the right end frame of the sealing partition 12, and the positioning blocks 14 are located inside the positioning groove 4. A magnetic column 15 is provided at the center of the positioning block 14. A second through hole 16 is provided on the sealing partition 12, and an anti-slip strip 17 is provided on the top left end of the sealing partition 12.

[0027] The magnetic suction plates 5 are symmetrically distributed inside the positioning groove 4, and the magnetic suction plates 5 are connected to the tunnel lining detector 1 by embedding and fixing. The magnetic suction plates 5 are connected to the magnetic column 15 by magnetic adsorption. Through the magnetic adsorption between the magnetic suction plates 5 and the magnetic column 15, the position of the subsequent sealing partition 12 after sliding displacement can be stabilized.

[0028] The connection between the connecting square plate 8 and the combined square groove 3 is by embedding and fixing, and the connection between the connecting square plate 8 and the sealing partition 12 is by sliding and fitting. The sealing partition 12 is set with an "L" shaped structure, which makes it easy for the connecting square plate 8 to be fixed inside the combined square groove 3. At the same time, the sealing partition 12 can move on the connecting square plate 8, which facilitates sealing and unsealing.

[0029] The limiting block 13 and the sealing partition 12 are integrated into one structure. The limiting block 13 is connected to the translation slide 10 and the limiting rod 11 by sliding connection. The top surface of the sealing partition 12 is flush with the top surface of the tunnel lining detector 1. The sealing partition 12 can maintain the stability of translation by sliding the limiting block 13, and avoid loosening and falling off.

[0030] The sealing partition 12 and the positioning block 14 are integrated into one structure. The positioning block 14 is connected to the magnetic column 15 by embedding and fixing. The positioning block 14 is connected to the positioning groove 4 by sliding connection. The sealing partition 12 can drive the positioning block 14 to slide and move, so that the sealing partition 12 can drive the magnetic column 15 in the center of the positioning block 14 to magnetically attract the magnetic plates 5 in different positions.

[0031] The axis of the second through hole 16 is aligned with the axis of the first through hole 9. The second through hole 16 and the first through hole 9 are evenly distributed on the sealing partition 12 and the connecting square plate 8, respectively. The diameters of the second through hole 16 and the first through hole 9 are larger than the diameter of the data transmission connector 6. This allows the external data cable interface to be combined with the data transmission connector 6 after the second through hole 16 and the first through hole 9 are aligned, enabling real-time data transmission.

[0032] The anti-slip strip 17 and the sealing partition 12 are integrated into one structure, and the anti-slip strip 17 is evenly distributed on the sealing partition 12. Based on the anti-slip strip 17 on the sealing partition 12, it is convenient to manually move the sealing partition 12.

[0033] Working principle: According to Figure 1-5 First, staff can move the tunnel lining inspection instrument 1 by hand using the handle 7. When the tunnel lining inspection instrument 1 needs to be used, the sealing partition 12 can be moved by the anti-slip strip 17. The sealing partition 12 slides on the outside of the connecting square plate 8. The sealing partition 12 drives the limiting block 13 to slide and move within the translation groove 10 and on the outside of the limiting rod 11. At the same time, the sealing partition 12 drives the positioning block 14 to move inside the positioning groove 4. After the positioning block 14 drives the magnetic column 15 to separate from the magnetic suction plate 5, the positioning block 14 drives the magnetic column 15 to... On the other side, the magnetic suction plate 5 magnetically attracts the sealing partition 12, facilitating its unfolding. Simultaneously, the second through hole 16 on the sealing partition 12 aligns with the first through hole 9 on the connecting square plate 8. Then, the external data cable interface can be connected to the data transmission connector 6 for real-time data transmission. The tunnel lining detector 1 is then pressed against the outer surface of the tunnel lining by the hand grip 7 for testing. This is the entire working process of the device. Any content not described in detail in this specification is existing technology known to those skilled in the art.

[0034] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A tunnel lining inspection device, comprising a tunnel lining inspection instrument and a data transmission connector; characterized in that: The tunnel lining inspection instrument has a square groove on its top surface; the square groove is a stepped groove with openings at one end and the top; the square groove has a receiving square groove and a combined square groove located on the top of the two side walls of the receiving square groove and communicating with the receiving square groove; the size of the combined square groove is larger than the size of the receiving square groove; multiple data transmission connectors are installed in the receiving square groove; a connecting square plate is installed in the square groove, and the connecting square plate is supported on the bottom surface of the combined square groove; multiple first through holes are opened on the connecting square plate for cooperating with the data transmission connectors; a translational sliding groove is opened at the center of the end of the connecting square plate near the non-open end of the square groove, and a translational sliding groove is provided in the translational sliding groove. The internal part is equipped with a limiting rod fixed to the connecting square plate; the top of the connecting square plate is equipped with a sealing partition that slides with it; the sealing partition has a second through hole for cooperating with the data transmission connector; the end of the sealing partition near the opening of the square groove is bent downward into an L-shaped plate structure; the other end of the sealing partition has a limiting block that cooperates with the limiting rod on the connecting square plate; the two sides of the sealing partition are magnetically attracted to the magnetic suction plate in the combined square groove through magnetic columns; the top surface of the sealing partition is flush with the top surface of the tunnel lining detector; the two sides of the square groove are also equipped with hand grips installed on the top surface of the tunnel lining detector.

2. The tunnel lining detection device according to claim 1, characterized in that: The top surface of the sealing partition is provided with an anti-slip strip; the anti-slip strip is located on one side of the sealing partition near the opening end of the square groove.

3. The tunnel lining detection device according to claim 1, characterized in that: The combined square groove has a positioning groove for mounting a magnetic suction plate; a positioning block is provided on the sealing partition inside the positioning groove, and the magnetic column is disposed inside the positioning block.

4. The tunnel lining detection device according to claim 1, characterized in that: The magnetic suction plates are symmetrically distributed inside the positioning groove, and the magnetic suction plates are connected to the tunnel lining detector by embedding and fixing, and the magnetic suction plates are connected to the magnetic column by magnetic adsorption.

5. A tunnel lining detection device according to claim 1, characterized in that: The connection method between the connecting square plate and the combined square groove is embedding and fixing.

6. The tunnel lining detection device according to claim 1, characterized in that: The limiting block and the sealing partition are integrated into one structure, and the limiting block is connected to the translational slide and the limiting rod by a sliding connection.

7. The tunnel lining detection device according to claim 1, characterized in that: The sealing partition and the positioning block are integrated into one structure, and the positioning block is connected to the magnetic column by embedding and fixing, while the positioning block is connected to the positioning groove by sliding connection.

8. A tunnel lining detection device according to claim 1, characterized in that: The centerline of the second through hole is aligned with the centerline of the first through hole, and the second through hole and the first through hole are equally spaced on the sealing partition and the connecting square plate, respectively. The diameters of the second through hole and the first through hole are larger than the diameter of the data transmission connector.

9. A tunnel lining detection device according to claim 2, characterized in that: The anti-slip strip and the sealing partition are integrated into one structure, and the anti-slip strip is evenly distributed on the sealing partition.

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