Guide pipe capable of automatically monitoring underwater concrete burial depth

Abstract

The utility model provides a guide pipe capable of automatically monitoring the burial depth of underwater concrete, relates to the technical field of measuring guide pipes, and solves the problems that when the burial depth of the concrete is measured by using a traditional measuring mode, the measuring mode is too tedious and needs to be calculated, and the measuring efficiency is high. The buried depth of the guide pipe needs to be estimated according to the working experience of workers, so that the problems that the guide pipe cannot be pulled out due to the fact that the guide pipe is buried too deep and concrete is initially set and a pile is broken when the guide pipe is pulled out of a concrete surface exist and measurement is inconvenient. The utility model discloses a guide pipe capable of automatically monitoring underwater concrete burial depth. The guide pipe is characterized in that two groups of measuring shells are symmetrically mounted on one side of a measuring guide pipe in an embedded manner; the measuring shells are arranged at the positions, 2 meters and 6 meters away from the bottom, of the measuring guide pipe; a pressure sensor and a signal generator are arranged in the measuring shell, so that a worker is reminded to pull up the catheter according to the standard requirement in time.

Description

Technical Field

[0001] The utility model belongs to the technical field of measuring conduits, and more specifically, particularly relates to a conduit capable of automatically monitoring the buried depth of underwater concrete. Background Art

[0002] The specification requires that the buried depth of underwater concrete conduits is generally 2 to 6 meters. At present, the buried depth of conduits in the underwater concrete pouring process is measured by workers using measuring ropes or estimated based on construction experience.

[0003] When measuring the buried depth of concrete, the traditional measurement method is used for measurement. However, this measurement method is too cumbersome and requires calculation. It is necessary to rely on the work experience of the staff to estimate the buried depth of the conduit. In this way, there is a phenomenon that the conduit is buried too deep and the concrete begins to set and the conduit cannot be pulled out. The conduit is pulled out of the concrete surface and the pile is broken, which causes inconvenience in measurement. Utility Model Content

[0004] The disclosed embodiments relate to a conduit capable of automatically monitoring the buried depth of underwater concrete, so as to solve the problem raised in the above-mentioned background technology that when measuring the buried depth of concrete, the traditional measurement method is used for measurement, but such a measurement method is too cumbersome and requires calculation, and the buried depth of the conduit needs to be estimated based on the work experience of the staff. In this way, there are phenomena that the conduit is buried too deep and the concrete begins to set and the conduit cannot be pulled out, and the conduit is pulled out of the concrete surface, resulting in broken piles, causing inconvenience in measurement.

[0005] The purpose and effect of the utility model, which is a conduit capable of automatically monitoring the buried depth of underwater concrete, are achieved by the following specific technical means:

[0006] According to a first aspect of the present disclosure, a conduit for automatically monitoring the buried depth of underwater concrete is provided, comprising: a measuring conduit, the measuring conduit being in the shape of a circular tube structure; two sets of measuring shells being symmetrically embedded and installed on one side of the measuring conduit; the measuring shells being arranged at positions two meters and six meters away from the bottom of the measuring conduit; a pressure sensor and a signal generator being installed inside the measuring shell, and the signal generator inside the measuring shell is connected to an external signal receiver via radio; the measuring conduit further comprises: a hopper, the hopper being in the shape of a semicircular structure and being fixedly arranged on the top of the measuring conduit; a measuring casing, the measuring casing being in the shape of a circular tube structure and being installed outside the measuring conduit.

[0007] As a preferred solution of the utility model, the measuring catheter also includes: a mounting plate, the mounting plate is shaped like a square plate structure, and the mounting plate is installed on one side of the measuring catheter; the position of the measuring catheter is set at a position two meters and six meters away from the bottom of the measuring catheter, and the measuring shell is set on one side of the mounting plate.

[0008] As a preferred solution of the utility model, the measuring shell also includes: a fixed block, which is shaped like a square block structure design, and the fixed block is integrally arranged in the middle of the top of the measuring shell; a fixed groove, which is shaped like an arc groove structure design, and the number of the fixed grooves is set to two groups, and the fixed grooves are symmetrically opened on both sides of the fixed block.

[0009] As a preferred solution of the utility model, the measuring housing also includes: a fixed side block, which is shaped like a square block structure, and the number of the fixed side blocks is set to two, and the fixed side blocks are symmetrically and integrally arranged on both sides of the fixed block; the fixed side blocks are fixedly connected to the mounting plate by fixing screws; fixing holes are opened in the middle of the fixed side blocks; and sealing strips, the number of the sealing strips is set to two groups, and the sealing strips are installed on the outside and front end of the fixed side blocks.

[0010] As a preferred solution of the utility model, the measuring shell also includes: a protective shell, the shape of the protective shell is a square shell structure design, and the number of the protective shells is set to two, and the protective shells are symmetrically slidably arranged on both sides of the fixed block; a protective baffle, the shape of the protective baffle is a rectangular plate structure design, and the protective baffle is integrally arranged at one end of the top of the protective shell.

[0011] As a preferred solution of the utility model, the measuring shell also includes: a protective groove, which is designed in the shape of an arc-shaped groove structure and is opened on the inner side of the protective shell; a sealing groove, the number of the sealing grooves is set to two, and the sealing groove is opened on the inner side of the protective groove.

[0012] Compared with the prior art, the utility model has the following beneficial effects:

[0013] Through the setting of the measuring tube, a measuring shell is provided on the outer wall of the measuring tube at two meters and six meters away from the bottom of the measuring tube. A pressure sensor and a signal generator are provided inside the measuring shell. The pressure of the concrete on the pressure sensor inside the measuring shell is used to feedback the buried depth of the tube in the concrete, so as to promptly remind the workers to pull out the tube according to the specifications, to avoid the situation where the tube is buried too deep in the concrete, making it impossible to pull out the tube, and to blindly pull the tube out of the concrete surface to form a broken pile.

[0014] By setting up the protective shell, the connection between the measuring shell and the measuring tube can be protected. During each use, the contact between the concrete and the connection between the measuring shell and the measuring tube is reduced, thereby effectively reducing the occurrence of rust at the connection between the measuring shell and the measuring tube, and facilitating the subsequent maintenance and repair of the components inside the measuring shell. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1It is a schematic diagram of the structure of the measuring catheter of the utility model.

[0016] Figure 2 It is a schematic diagram of the mounting plate structure of the utility model.

[0017] Figure 3 It is a schematic diagram of the measurement housing structure of the utility model.

[0018] Figure 4 It is a structural schematic diagram of the fixed side block of the utility model.

[0019] Figure 5 It is a schematic diagram of the protective shell structure of the utility model.

[0020] Figure 6 It is a schematic diagram of the structure of the measuring catheter of the utility model when performing measurement.

[0021] In the figure, the corresponding relationship between the component names and the figure numbers is as follows:

[0022] 1. Measuring catheter; 101. Material hopper; 102. Measuring casing; 103. Mounting plate; 2. Measuring housing; 201. Fixing block; 202. Fixing groove; 203. Fixing side block; 204. Sealing strip; 205. Protective housing; 206. Protective baffle; 207. Protective groove; 208. Sealing groove. DETAILED DESCRIPTION

[0023] The following is a detailed description of the implementation of the present utility model in conjunction with the accompanying drawings and embodiments.

[0024] Embodiment 1: As shown in the attached Figure 1 To Attachment Figure 6 As shown:

[0025] The utility model provides a conduit capable of automatically monitoring the buried depth of underwater concrete, comprising: a measuring conduit 1, the measuring conduit 1 is in the shape of a circular tube structure; one side of the measuring conduit 1 is symmetrically embedded with two groups of measuring shells 2; the measuring shells 2 are arranged at positions where the measuring conduit 1 is two meters and six meters away from the bottom; a pressure sensor and a signal generator are arranged inside the measuring shell 2, and the signal generator inside the measuring shell 2 is connected to an external signal receiver through a radio; the measuring conduit 1 also comprises: a hopper 101, the hopper 101 is in the shape of a semicircular structure design, and the hopper 101 is fixedly arranged on the top of the measuring conduit 1; a measuring casing 102, the measuring casing 102 is in the shape of a circular tube structure design, and the measuring casing 102 is installed and arranged outside the measuring conduit 1; a mounting plate 103, the mounting plate 103 is in the shape of a square plate structure design, and the mounting plate 103 is installed and arranged on one side of the measuring conduit 1; the measuring conduit 1 is arranged at positions where the measuring conduit 1 is two meters and six meters away from the bottom, and the measuring shell 2 is arranged on one side of the mounting plate 103.

[0026] Among them, the measuring shell 2 also includes: a fixed block 201, which is shaped like a square block structure design, and the fixed block 201 is integrally arranged in the middle of the top of the measuring shell 2; a fixed groove 202, which is shaped like an arc groove structure design, and the number of the fixed grooves 202 is set to two groups, and the fixed grooves 202 are symmetrically opened on both sides of the fixed block 201; a fixed side block 203, which is shaped like a square block structure design, and the number of the fixed side blocks 203 is set to two, and the fixed side blocks 203 are symmetrically arranged on both sides of the fixed block 201; the fixed side blocks 203 are fixedly connected to the mounting plate 103 by fixing screws; a fixing hole is opened in the middle of the fixed side blocks 203; a sealing strip 204, the number of the sealing strip 204 is set to two groups, and the sealing strip 204 is installed on the outside and front end of the fixed side block 203.

[0027] The specific usage and function of this embodiment are as follows: during the use of the measuring catheter 1, a measuring shell 2 is provided on the outer wall of the measuring catheter 1 at two meters and six meters away from the bottom of the measuring catheter 1, and a pressure sensor and a signal generator are provided inside the measuring shell 2. When the pressure sensor inside the measuring shell 2 at six meters feels the concrete pressure, a signal is transmitted through the signal generator inside the measuring shell 2 to remind the construction personnel to pull out the measuring catheter 1. When the buried depth of the measuring catheter 1 is less than two meters during the process of pulling out the measuring catheter 1, the pressure sensor inside the measuring shell 2 at two meters away from the bottom of the measuring catheter 1 cannot feel the concrete pressure, and immediately transmits a signal to the external signal receiver to remind the construction personnel to stop pulling out the measuring catheter 1.

[0028] Embodiment 2, based on embodiment 1, as Figure 3 - Figure 6 As shown, on the basis of Example 1, a catheter that can automatically monitor the buried depth of underwater concrete also includes: the measuring shell 2 also includes: a protective shell 205, the shape of the protective shell 205 is a square shell structure design, and the number of the protective shells 205 is set to two, and the protective shells 205 are symmetrically slidably arranged on both sides of the fixed block 201; a protective baffle 206, the shape of the protective baffle 206 is a rectangular plate structure design, and the protective baffle 206 is integrally arranged at one end of the top of the protective shell 205; a protective groove 207, the shape of the protective groove 207 is an arc groove structure design, and the protective groove 207 is opened on the inner side of the protective shell 205; a sealing groove 208, the number of the sealing groove 208 is set to two, and the sealing groove 208 is opened on the inner side of the protective groove 207.

[0029] The working principle of this embodiment is as follows: after each measurement is completed, when the measuring catheter 1 needs to be regularly maintained, the protection of the fixed side block 203 can be released by pulling the protective shell 205, and then the fixing screws between the fixed side block 203 and the mounting plate 103 can be removed, and then the measuring shell 2 can be disassembled to perform maintenance and repair on the components inside the measuring shell 2.

Claims

1. A conduit capable of automatically monitoring the buried depth of underwater concrete, comprising: A measuring conduit (1) is provided, wherein the measuring conduit (1) is in the shape of a circular tube structure; it is characterized in that two sets of measuring housings (2) are symmetrically embedded and installed on one side of the measuring conduit (1); the measuring housings (2) are arranged at positions two meters and six meters away from the bottom of the measuring conduit (1); a pressure sensor and a signal generator are installed inside the measuring housing (2), and the signal generator inside the measuring housing (2) is connected to an external signal receiver via radio; the measuring conduit (1) further comprises: a hopper (101), wherein the hopper (101) is in the shape of a semicircular structure design, and the hopper (101) is fixedly arranged on the top of the measuring conduit (1); and a measuring casing (102), wherein the measuring casing (102) is in the shape of a circular tube structure design, and the measuring casing (102) is installed outside the measuring conduit (1).

2. A conduit capable of automatically monitoring the buried depth of underwater concrete as claimed in claim 1, characterized in that: The measuring conduit (1) further comprises: a mounting plate (103), the mounting plate (103) being in the shape of a square plate structure, and the mounting plate (103) being mounted on one side of the measuring conduit (1); the measuring conduit (1) is arranged at positions two meters and six meters from the bottom of the measuring conduit (1), and the measuring housing (2) is arranged on one side of the mounting plate (103).

3. A conduit capable of automatically monitoring the buried depth of underwater concrete as claimed in claim 1, characterized in that: The measuring housing (2) further comprises: a fixing block (201), the fixing block (201) being in the shape of a square block structure design, and the fixing block (201) being integrally arranged in the middle of the top of the measuring housing (2); and fixing grooves (202), the fixing grooves (202) being in the shape of an arc-shaped groove structure design, and the number of the fixing grooves (202) being arranged in two groups, and the fixing grooves (202) being symmetrically arranged on both sides of the fixing block (201).

4. A conduit capable of automatically monitoring the buried depth of underwater concrete as claimed in claim 3, characterized in that: The measuring housing (2) further comprises: a fixed side block (203), the fixed side block (203) being in the shape of a square block structure, the number of the fixed side blocks (203) being set to two, the fixed side blocks (203) being symmetrically arranged in one piece on both sides of the fixed block (201); the fixed side blocks (203) being fixedly connected to the mounting plate (103) by fixing screws; a fixing hole being provided in the middle of the fixed side blocks (203); and a sealing strip (204), the number of the sealing strips (204) being set to two groups, the sealing strips (204) being installed on the outer side and front end of the fixed side block (203).

5. A conduit capable of automatically monitoring the buried depth of underwater concrete as claimed in claim 4, characterized in that: The measuring housing (2) further comprises: a protective housing (205), the protective housing (205) being shaped like a square shell structure, the number of the protective housings (205) being two, the protective housings (205) being symmetrically slidably arranged on both sides of the fixed block (201); and a protective baffle (206), the protective baffle (206) being shaped like a rectangular plate structure, and the protective baffle (206) being integrally arranged at one end of the top of the protective housing (205).

6. A conduit capable of automatically monitoring the buried depth of underwater concrete as claimed in claim 5, characterized in that: The measuring housing (2) further comprises: a protection groove (207), the shape of the protection groove (207) being an arc-shaped groove structure design, and the protection groove (207) being opened on the inner side of the protection housing (205); and a sealing groove (208), the number of the sealing grooves (208) being set to two, and the sealing grooves (208) being opened on the inner side of the protection groove (207).

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