Concrete wall temperature measuring line hanging installation construction technology

Abstract

The invention relates to the technical field of concrete temperature measurement, in particular to a concrete wall temperature measurement line hanging installation construction process which comprises the following construction steps of staggered arrangement of sensing lines, positioning of measuring points, weight balancing of the sensing lines, height marking of the sensing lines and the wall, centralized placement of sensing line test groups, hanging of the sensing line test groups and reinforcement of the sensing line test groups. According to the invention, mutual interference between measuring points of different sensing lines can be effectively reduced, and the accuracy and reliability of temperature measurement are improved.

Description

Technical Field

[0001] The present application relates to the technical field of concrete temperature measurement, and in particular to a construction process for vertically hanging and installing a temperature measuring line on a concrete wall. Background Art

[0002] During the construction of large-volume concrete, controlling the temperature difference between the inside and outside of the concrete is an effective measure to prevent internal cracking of large-volume concrete, so the accuracy of the temperature measurement results determines the overall quality of the concrete structure.

[0003] Recently, the construction industry has generally adopted the thermocouple method as the main monitoring method. This method requires that the thermocouple be installed in place before the steel bars are tied and the concrete is poured, and the temperature measuring wire is fixed on the steel bars to ensure that the temperature sensing part is located at the predetermined temperature measuring point.

[0004] However, in actual applications, the installation method is often used to hang one by one, and the following problems may be encountered during the installation process: 1. Multiple temperature monitoring points are often arranged at the same measurement location, which means that multiple temperature measuring lines need to be arranged at the same measurement location. In the process of hanging the sensor line probe into the wall, due to too many, too long and dense lines, adjacent lines are prone to fighting and entanglement during measurement, which brings inconvenience to the smooth implementation of the measurement work.

[0005] 2. Hanging one by one takes a long time and the measurement efficiency is low.

[0006] 3. The steel bars in the wall column are dense, and the sensor line may often encounter obstacles formed by the steel bars when hanging. At this time, the operator may mistakenly believe that the probe at the bottom of the sensor line has reached the depth of the point to be measured, but it has not actually reached it, resulting in a large measurement error.

[0007] 4. Since the sensor line is made of a light material, when pouring concrete, the flowing concrete can easily cause a certain offset to the sensor line probe, causing the actual measured point to deviate greatly from the previously planned measured point in the horizontal direction, which will also cause a large measurement error. Summary of the invention

[0008] In order to solve the deficiencies existing in the above-mentioned prior art, the present application provides a construction process for hanging and installing a temperature measuring line on a concrete wall.

[0009] The concrete wall temperature measuring line vertical installation construction process provided in this application adopts the following technical solution: The construction process of hanging and installing the temperature measuring line on the concrete wall includes the following construction steps: S1: Staggered arrangement of sensor lines: According to the spacing of different measuring point depths, the probes of the sensor lines on the same vertical axis are staggered; S2: Positioning of measuring points: Starting from the probe of the longest sensing line, use reinforcements to fix the adjacent sensing lines along the line to fix the two adjacent sensing lines; S3: Sensor line weight: Take the weight and fix it near the probe of the longest sensor line; S4: equal amount marking of sensing line and wall height: measure equal amount points corresponding to the wall height on the longest sensing line, and set bright marks as marks to obtain the sensing line test group; S5: The sensor line test group is placed centrally; S6: Suspension of the sensor line test set: Suspension of the sensor line test set from the steel bars of the wall columns to the bottom of the wall; S7: Reinforcement of the sensor line test group: fix the sensor line group to the steel bars at the top of the wall by means of a locking piece.

[0010] By adopting the above-mentioned technical scheme, the sensor lines are staggered and arranged, so that temperature tests can be performed on measuring points at different depths. Compared with the installation method of sensor lines one by one in the prior art, the present application adopts the method of "bundling first and then installing". The mutual interference between measuring points of different sensor lines can be effectively reduced, thereby improving the accuracy and reliability of temperature measurement.

[0011] In the present application, adjacent sensing lines are fixed by reinforcement pieces to achieve positioning of the measuring points, so that the sensing lines are firmly connected, displacement or shaking of the sensing lines during construction is reduced, and the stability of the temperature measurement data is further improved.

[0012] By setting a counterweight near the longest sensor line probe, the sensor line can remain vertical in a natural state, and the longest sensor line can remain vertical in a weighted scenario, making it less likely for the sensor lines to be entangled, and the probe can reach the preset depth of the wall. At the same time, due to the presence of the counterweight, when concrete is subsequently poured in the wall column steel bars, the sensor line is not easily damaged by the flowing concrete, so that all probes are close to the axis of the vertical axis and do not deviate, which helps to further improve the test accuracy of the temperature measurement data.

[0013] By measuring equal points corresponding to the wall height on the longest sensor line and setting bright marks, fast and accurate positioning and marking are achieved, which helps construction personnel quickly identify the position of the sensor line, simplifies the hanging operation process of the sensor line test group, and provides convenience for subsequent maintenance. It realizes the simultaneous installation of multiple sensor lines, effectively improving construction efficiency. At the same time, the sensor line group is fixed to the steel bar at the top of the wall through locking parts, further enhancing the stability of the overall structure.

[0014] Preferably, in the processing step S2, the plurality of sensing wires are first straightened to keep the spacing between two adjacent probes the same, starting from the probe of the longest wire, the wire is kept in a straightened state, at least two reinforcement points are set, each reinforcement point is provided with a reinforcement piece, ensuring that two adjacent sensing wires are fixed by the reinforcement piece, and the plurality of sensing wires are close to each other without being entangled or crossed.

[0015] By adopting the above technical solution, multiple sensor wires are first straightened and the spacing between two adjacent probes is kept the same, which is conducive to the neat arrangement and orderly management of the wires to avoid the occurrence of chaotic interweaving of the wires; starting from the probe of the longest wire, the wires are kept in a straightened state and at least two reinforcement points are set, which effectively ensures that the wires always remain straightened during the entire construction process, reducing the impact of bending or twisting on the temperature measurement results, that is, reducing signal interference or temperature measurement errors caused by wire crossing, which helps to further improve the performance and stability of the temperature measurement system; each reinforcement point of the present application is provided with a reinforcement piece to ensure that two adjacent sensor wires are fixed by the reinforcement piece, which can enhance the stability and anti-interference ability of the sensor wire structure, making the temperature measurement data more accurate and reliable.

[0016] Preferably, in the processing step S3, the counterweight is a metal part with good thermal conductivity, and the surface of the counterweight is smooth. Its length is greater than three times the length of the probe of the longest sensing line. When the counterweight is assembled on the longest sensing line, it is not allowed to contact its probe.

[0017] By adopting the above technical solution, the counterweight is made of metal with good thermal conductivity and is not in direct contact with the probe, thereby ensuring heat exchange between the sensor line probe and the concrete, so that the counterweight will not affect the data of the probe testing the concrete temperature, thereby ensuring the response speed and accuracy of the temperature measurement.

[0018] Preferably, in the processing step S3, the deadweight of the counterweight is greater than the deadweight of the longest sensing line, and the counterweight and the longest sensing line are not allowed to be free from each other when assembled.

[0019] By adopting the above technical solution, the deadweight of the counterweight is greater than the deadweight of the longest sensing line, so that the sensing line can remain stable and not sway during the hanging process, effectively reducing the shaking of the line caused by external force or other external factors, thereby improving the reliability of the temperature measurement data. When the counterweight and the longest sensing line are assembled, they are not allowed to be free from each other, ensuring the firmness of the assembly to prevent the counterweight from accidentally falling off during the construction process, thereby ensuring the personal safety of the construction workers.

[0020] Preferably, in the processing step S3, the connecting piece for fixing the counterweight and the longest sensing line is a cable tie and / or a rope and / or an adhesive tape and / or a hoop and / or a clamp.

[0021] By adopting the above technical solution and using a variety of connectors such as cable ties, ropes, tapes, hoops or clamps, it is possible to adapt to different environments and needs, thereby enhancing the flexibility and convenience of construction. Moreover, these connectors are usually simple and easy to use, and can quickly fix the counterweight and the longest sensor line together, which helps to improve construction efficiency and reduce overall construction costs.

[0022] Preferably, it includes a seat body, and the reinforcement includes a movable clamp seat. A driving component for driving the movable clamp seat to move along the length direction of the seat body is arranged in the middle of the seat body, and the bottom of the movable clamp seat is assembled with the driving component. A wire groove is opened on the top of the movable clamp seat, and a restraining member is arranged on the top of the movable clamp seat. In the processing step S2, the number of reinforcements corresponds to the number of sensing wires, and each sensing wire is placed in a wire groove. The restraining member covers the sensing wire on the wire groove and is used to constrain the radial direction of the sensing wire. The driving component is used to adjust the specific position of the movable clamp seat on the seat body.

[0023] By adopting the above technical solution, the combination of the wire trough and the restraint can effectively radially constrain the sensor wire to reduce the shaking and displacement of the wire and ensure the accuracy of the measurement. The drive component can adjust the specific position of the mobile clamp on the seat body as needed, which facilitates adjustment and optimization during the construction process and makes the overall structural design reasonable, thereby making the reinforcement work of the wire faster and more precise, facilitating user management and maintenance, and helping to improve construction quality and efficiency.

[0024] Preferably, the reinforcement includes a stop rotating plate and a rotating shaft, the rotating shaft is rotatably connected to the side wall of the movable clamp seat, the stop rotating plate is fixed to the outer wall of the rotating shaft, and a torsion spring is arranged between the stop rotating plate and the rotating shaft, so that one end of the torsion spring is assembled with the stop rotating plate and the other end is assembled with the stop rotating plate. Correspondingly, the driving assembly includes a rack fixed on the top surface of the seat body, and the movement direction of the movable clamp seat is consistent with the extension direction of the rack, and both are perpendicular to the extension direction of the rotating shaft. In the processing step S2, when the movable clamp seat stops moving, the rotating shaft is rotated, and the bottom end of the stop rotating plate is adapted to engage with the teeth of the rack.

[0025] By adopting the above technical scheme, a stable locking mechanism is formed under the cooperation of the stop turn plate, the rotating shaft and the torsion spring. When the mobile clamp stops moving, the stop turn plate can be adapted and engaged with the teeth of the rack, thereby effectively preventing the mobile clamp from accidentally sliding or shifting, greatly improving the stability of the overall structure. At the same time, construction personnel only need to rotate the rotating shaft to achieve rapid engagement and unlocking between the stop turn plate and the rack. The operating structure is simple and easy to implement, which helps to improve construction efficiency, so that it can adapt to different construction environments and needs, can provide a good stop effect, and ensure the accuracy and consistency of the installation position of the temperature measuring line.

[0026] Preferably, the driving assembly includes a connecting shaft and a gear, the gear is assembled in the middle of the movable clamp seat through the connecting shaft, the gear is meshed with the rack, and in the processing step S2, when the movable clamp seat is pushed, the gear moves along the rack.

[0027] By adopting the above technical solution, the connecting shaft, gear and rack in the driving assembly work closely together to achieve precise driving and control of the mobile clamp. When the mobile clamp is pushed, the gear moves smoothly along the rack, and the position of the wire can be accurately adjusted, thereby pushing the mobile clamp to the predetermined position, making the position of the mobile clamp more flexible and meeting the usage requirements.

[0028] Preferably, the restraining member is a magic tape, an elastic band, or a flexible stretch sheet.

[0029] By adopting the above-mentioned technical scheme, the present application uses materials such as magic tape, elastic tape or flexible expansion sheet as the binding parts, which can fix the sensor wire in a more flexible and adaptable manner. At the same time, the binding parts have good elasticity and expansionability, which can easily adapt to sensor wires of different diameters, and quickly and firmly bind the sensor wires in the wire groove, thereby improving construction efficiency. At the same time, the cost of materials such as magic tape, elastic tape and flexible expansion sheet is relatively low, which helps to reduce the overall construction cost.

[0030] Preferably, a hard insert is fixed to one end of the restraining belt, a first slot is provided on the side wall of the movable clamp seat, and a second slot is provided on the top wall thereof, the first slot is connected to the second slot to form an L-shaped slot, and a positioning block is movably provided on the movable clamp seat near the second slot. In the processing step S2, when the sensing wire is placed in the wire groove, the restraining belt covers the sensing wire on the wire groove, the hard insert is inserted into the first slot, and then the positioning block is inserted into the second slot.

[0031] By adopting the above technical solution, a stable locking mechanism is formed by the coordinated use of the hard insert, the first slot, the second slot and the positioning insert. The restraint belt can tightly and stably fix the sensor line, effectively reducing the loosening or falling off of the sensor line due to external force, and helping to enhance the stability and safety of the overall structure.

[0032] In the present application, by first inserting the hard insert into the first slot and then inserting the positioning insert into the second slot, the connection stability between the restraint belt and the movable clamp seat can be further improved.

[0033] In summary, the present application includes at least one of the following beneficial technical effects: 1. Fix the adjacent sensor lines with reinforcements to locate the measuring points, so that the sensor lines are firmly connected, reduce the displacement or shaking of the sensor lines during the construction process, and further improve the stability of the temperature measurement data; 2. By setting a counterweight near the longest sensor line probe, the sensor line can be kept vertical in a natural state, and the longest sensor line can be kept vertical in a weighted scene, so that the sensor lines are not easily entangled, and the probe can reach the preset depth of the wall. At the same time, due to the existence of the counterweight, when pouring concrete in the wall column steel bar later, the sensor line is not easily pulled and damaged by the flowing concrete, so that all probes are close to the axis of the vertical axis and do not deviate, which helps to further improve the test accuracy of the temperature measurement data; 3. By measuring the equal points corresponding to the wall height on the longest sensor line and setting bright marks, fast and accurate positioning and marking are achieved, which helps construction personnel to quickly identify the position of the sensor line, helps to simplify the hanging operation process of the sensor line test group, and provides convenience for subsequent maintenance, realizing the simultaneous installation of multiple sensor lines, effectively improving construction efficiency. At the same time, the sensor line group is fixed to the steel bar at the top of the wall through locking parts, further enhancing the stability of the overall structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] Figure 1 It is a schematic diagram of the structure of the sensor line in the embodiment of the present application.

[0035] Figure 2 It is a plan view of the wall columns of an embodiment of the present application.

[0036] Figure 3 This is a wall column elevation view of an embodiment of the present application.

[0037] Figure 4 It is a structural schematic diagram of the sensor line test group in the embodiment of the present application.

[0038] Figure 5 It is a schematic diagram of the structure of the reinforcement member in the embodiment of the present application.

[0039] Figure 6 It is a schematic diagram of the structure of the driving component in the embodiment of the present application.

[0040] Explanation of the reference numerals: 1. sensing line; 11. probe; 12. plug; 13. temperature reading instrument; 2. reinforcement; 21. movable clamp; 211. wire groove; 212. first slot; 213. second slot; 22. driving assembly; 221. rack; 222. connecting shaft; 223. gear; 23. restraint; 231. hard insert; 24. stop plate; 25. rotating shaft; 26. torsion spring; 27. positioning block; 271. connecting part; 272. plug-in part; 28. sliding block; 3. seat; 31. slide groove; 4. counterweight; 5. bright mark; 6. connecting part; 7. sensing line test group; 8. measuring point; 9. wall. DETAILED DESCRIPTION

[0041] The following is combined with Figure 1-6 This application is described in further detail.

[0042] The embodiment of the present application discloses a construction process for hanging and installing a temperature measuring line on a concrete wall.

[0043] Reference Figure 1-3 The construction process of vertical installation of concrete wall temperature measuring line includes the following construction steps: S1: Staggered arrangement of sensor lines: According to the spacing of different measuring point depths, the probes 11 of the sensor lines 1 on the same vertical axis are staggered. The user can freely adjust the specific number of sensor lines 1 according to the actual height of the wall 9, thereby setting a number of measuring points 8 on the same vertical axis of the wall 9.

[0044] In the present application, three measuring points are arranged for the same measurement position (i.e. the same vertical axis), and the depth interval is two meters. Then, three sufficiently long sensor lines 1 need to be prepared for use, and the lengths of the three lines differ by two meters. Then, according to the spacing of the depths of different measuring points and the length of the sensor lines 1, the probes 11 of all the sensor lines 1 are staggered and arranged from long to short.

[0045] S2: Positioning the measuring point: Starting from the probe 11 of the longest sensing line 1, the adjacent sensing lines 1 are fixed along the line with the reinforcing member 2 to fix the two adjacent sensing lines 1.

[0046] Specifically, refer to Figure 3 and Figure 4First, straighten out the multiple sensor wires 1 and keep the spacing between two adjacent probes 11 the same, which is conducive to the neat arrangement and orderly management of the wires to avoid the occurrence of chaotic interweaving of the wires. Starting from the probe 11 of the longest wire, it is effectively ensured that the wires are always kept straight during the entire construction process. At least two reinforcement points are set, and each reinforcement point is provided with a reinforcement piece 2 to ensure that two adjacent sensor wires 1 are fixed by the reinforcement piece 2, and multiple sensor wires 1 are close to each other without being entangled and crossed, reducing the influence of bending or twisting on the temperature measurement results, that is, reducing the signal interference or temperature measurement error caused by the crossing of wires, further improving the performance and stability of the temperature measurement system, and making the temperature measurement data more accurate and reliable.

[0047] In this application, reference is made to Figure 4 and Figure 5 , including a seat body 3, a reinforcement member 2 including a mobile clamping seat 21, a driving assembly 22 for driving the mobile clamping seat 21 to move along the length direction of the seat body 3 is arranged in the middle of the seat body 3, the bottom of the mobile clamping seat 21 is assembled with the driving assembly 22, a wire groove 211 is opened on the top of the mobile clamping seat 21, and a binding member 23 is arranged on the top of the mobile clamping seat 21. In the processing step S2, the number of reinforcement members 2 corresponds to the number of sensor wires 1, and each sensor wire 1 is placed in a wire groove 211. The wire groove 211 is a U-shaped groove, and its inner wall has a smooth transition , so that the sensing line 1 can be better constrained without mutual interference. The restraining member 23 covers the sensing line 1 on the wire groove 211, and is used to constrain the radial direction of the sensing line 1 to reduce the shaking and displacement of the wire and ensure the accuracy of the measurement. The driving component 22 is used to adjust the specific position of the mobile clamp 21 on the seat body 3, which facilitates the adjustment and optimization of the position of the sensing line 1 during the construction process, makes the overall structural design reasonable, and makes the reinforcement work of the wire faster and more accurate, which is convenient for users to manage and maintain, and is conducive to improving construction quality and efficiency.

[0048] Reference Figure 5 and Figure 6 The driving assembly 22 includes a rack 221 fixed on the top surface of the seat body 3, a connecting shaft 222 and a gear 223. The gear 223 is assembled in the middle of the mobile clamping seat 21 through the connecting shaft 222. The gear 223 is meshed with the rack 221. The movement direction of the mobile clamping seat 21 is consistent with the extension direction of the rack 221, and both are perpendicular to the extension direction of the rotating shaft 25.

[0049] Furthermore, the opposite surfaces of the two long sides of the seat body 3 are respectively provided with sliding grooves 31 , and the opposite back surfaces of the two long sides of the movable clamp seat 21 are respectively fixed with sliding blocks 28 , and the two sliding blocks 28 are respectively slidably connected with the sliding grooves 31 adjacent thereto.

[0050] In the present application, the connecting shaft 222, the gear 223 and the rack 221 work closely together to achieve precise driving and control of the mobile clamp 21. When the mobile clamp 21 is pushed, the gear 223 moves smoothly along the rack 221. At the same time, the sliding block 28 can slide along the slide groove 31, thereby pushing the mobile clamp 21 smoothly to the predetermined position, making the position of the mobile clamp 21 more flexible.

[0051] The reinforcement 2 includes a stop rotating plate 24 and a rotating shaft 25. The rotating shaft 25 is rotatably connected to the side wall of the movable clamp seat 21, and the stop rotating plate 24 is fixed to the outer wall of the rotating shaft 25. In the present application, the stop rotating plate 24 is a telescopic plate with a certain telescopic ability. A torsion spring 26 is arranged between the stop rotating plate 24 and the rotating shaft 25, so that one end of the torsion spring 26 is assembled with the stop rotating plate 24 and the other end is assembled with the stop rotating plate 24. When the movable clamp seat 21 is pushed, the gear 223 moves along the rack 221; when the movable clamp seat 21 stops moving, the rotating shaft 25 is rotated, and the bottom end of the stop rotating plate 24 is adapted to be engaged with the teeth of the rack 221.

[0052] In the present application, a stable locking mechanism is formed by the cooperation of the stop turn plate 24, the rotating shaft 25 and the torsion spring 26. When the mobile clamp seat 21 stops moving, the stop turn plate 24 can be adapted and engaged with the teeth of the rack 221, thereby effectively preventing the mobile clamp seat 21 from accidentally sliding or shifting, greatly improving the stability of the overall structure. At the same time, the construction personnel only need to rotate the rotating shaft 25 to achieve rapid engagement and unlocking between the stop turn plate 24 and the rack 221. The operating structure is simple and easy to implement, which helps to improve construction efficiency, so that it can adapt to different construction environments and needs, and can provide a good stopping effect to ensure the accuracy and consistency of the installation position of the temperature measuring line; on the contrary, the constraint of the stop turn plate 24 on the rotation of the gear 223 is released, and the gear 223 can continue to move smoothly along the rack 221 to achieve the change of the position of the mobile clamp seat 21.

[0053] Reference Figure 4 and Figure 5 The restraint 23 is a magic belt, an elastic belt, or a flexible expansion piece. A hard insert 231 is fixed to one end of the restraint belt. The side wall of the movable clamp seat 21 is provided with a first slot 212, and the top wall is provided with a second slot 213. The first slot 212 and the second slot 213 are connected to form an L-shaped slot. The movable clamp seat 21 is movably provided with a positioning block 27 near the second slot 213. In the processing step S2, when the sensor line 1 is placed in the wire groove 211, the restraint belt covers the sensor line 1 on the wire groove 211, the hard insert 231 is inserted into the first slot 212, and then the positioning block 27 is inserted into the second slot 213.

[0054] Specifically, the positioning plug block 27 includes a connecting portion 271 and an inserting portion 272, wherein the inserting portion 272 is an elastic block, the shape and size of the inserting portion 272 are adapted to the aperture size of the second slot 213, the inserting portion 272 is fixed at one end of the connecting portion 271, and the connecting portion 271 is rotationally connected to the movable clamp seat 21.

[0055] When in use, first insert the hard insert 231 of the restraint 23 into the first slot 212, and then rotate the connecting portion 271 of the positioning plug 27 until the plug-in portion 272 is inserted into the second slot 213. At this time, the portion of the restraint 23 covering the top surface of the movable clamp seat 21 is pressed by the connecting portion 271 at the same time, further improving the connection stability between the restraint belt and the movable clamp seat 21.

[0056] The present application uses materials such as magic tape, elastic tape or flexible expansion sheet as the binding member 23, which can fix the sensor line 1 more flexibly and adaptably. At the same time, the binding member 23 has good elasticity and expansion, which can easily adapt to sensor lines 1 of different diameters, and quickly and firmly bind the sensor line 1 in the line slot 211. In addition, the cost of materials such as magic tape, elastic tape and flexible expansion sheet is relatively low, which helps to reduce the overall construction cost. The hard insert 231, the first slot 212, the second slot 213 and the positioning insert 27 form a stable locking mechanism. The binding tape can tightly and stably fix the sensor line 1, effectively reducing the loosening or falling off of the sensor line 1 caused by external forces.

[0057] S3: Counterweight for sensing line: Take the counterweight 4 and fix it near the probe of the longest sensing line 1.

[0058] Specifically, refer to Figure 4 The counterweight 4 is a metal part with good thermal conductivity. In the present application, the counterweight 4 is a cylindrical steel rod with a smooth surface, and its length is greater than three times the length of the probe 11 of the longest sensing line 1. In addition, its deadweight is greater than the deadweight of the longest sensing line 1, so that the sensing line 1 can remain stable and not sway during the hanging process, effectively reducing the line shaking caused by external force or other external factors. When the counterweight 4 is assembled on the longest sensing line 1, it is not allowed to contact its probe 11, nor is it allowed to be free from each other, thereby ensuring the heat exchange between the probe 11 of the sensing line 1 and the concrete, so that the counterweight 4 will not affect the data of the concrete temperature tested by the probe 11, and at the same time ensure the firmness of the assembly to prevent the counterweight 4 from accidentally falling off during the construction process, thereby ensuring the personal safety of the construction workers.

[0059] In the processing step S3, the connecting piece 6 for fixing the counterweight 4 and the longest sensing line 1 is a cable tie and / or a rope and / or an adhesive tape and / or a hoop and / or a clamp. A variety of connecting pieces 6 are available for users to choose from, which can adapt to different environments and needs, enhance the flexibility and convenience of construction, and these connecting pieces 6 are usually simple and easy to use, and can quickly fix the counterweight 4 and the longest sensing line 1 together, which helps to improve construction efficiency and reduce overall construction costs.

[0060] Reference Figure 1-3 , S4: equal marking of sensing line and wall height: measure equal points corresponding to the wall height on the longest sensing line 1, and set bright mark 5 as a mark to obtain the sensing line test group 7.

[0061] S5: The sensor line test group is placed centrally.

[0062] S6: Suspension of the sensor line test group: Suspension of the sensor line test group 7 in the steel bars of the wall columns on site to the bottom of the wall.

[0063] S7: Reinforcement of the sensor line test group: Fix the sensor line test group 7 to the steel bar at the top of the wall through a locking piece, then electrically connect the plug 12 of the sensor line 1 with the temperature reader 13, and repeat the test data for at least three groups.

[0064] In the present application, the sensor lines 1 are staggered and arranged, and temperature tests can be performed on measuring points at different depths. The "bundling first and then installing" method is adopted. Compared with the installation method of the sensor lines 1 one by one in the prior art, the present application can effectively reduce the mutual interference caused by the measuring points of different sensor lines 1, thereby improving the accuracy and reliability of temperature measurement.

[0065] In the present application, adjacent sensing lines 1 are fixed by reinforcing members 2 to achieve positioning of measuring points 8, so that the sensing lines 1 are firmly connected, displacement or shaking of the sensing lines 1 during construction is reduced, and the stability of temperature measurement data is further improved.

[0066] By setting a counterweight 4 near the probe of the longest sensor line 1, the sensor line 1 can remain vertical in a natural state, and the longest sensor line 1 can remain vertical in a weighted scenario, so that the sensor lines 1 are not easily entangled, and the probe 11 can reach the preset depth of the wall 9. At the same time, due to the presence of the counterweight, when concrete is poured in the wall column steel bars later, the sensor line 1 is not easily damaged by the flowing concrete, so that all probes 11 are close to the axis of the vertical axis without deviation, which helps to further improve the test accuracy of the temperature measurement data.

[0067] By measuring the equal points corresponding to the wall height on the longest sensor line 1 and setting the bright mark 5, fast and accurate positioning and marking are achieved, which helps construction personnel to quickly identify the position of the sensor line 1, helps to simplify the hanging operation process of the sensor line test group 7, and provides convenience for subsequent maintenance, realizing the simultaneous installation of multiple sensor lines 1, effectively improving construction efficiency, and at the same time, the sensor line test group 7 is fixed to the steel bar at the top of the wall by a locking piece, further enhancing the stability of the overall structure.

[0068] The above are all preferred embodiments of the present application. The embodiments are only explanations of the present application and are not intended to limit the protection scope of the present application. Therefore, all equivalent changes made based on the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. The construction process of vertical installation of concrete wall temperature measuring line is characterized by: The construction steps include: S1: staggered arrangement of sensor lines: according to the spacing of different measuring point depths, the probes (11) of the sensor lines (1) on the same vertical axis are staggered; S2: Positioning the measuring point: starting from the probe (11) of the longest sensing line (1), adjacent sensing lines (1) are fixed along the line using a reinforcement member (2) to achieve the fixation of two adjacent sensing lines (1); S3: Counterweight for sensing line: Take the counterweight (4) and fix it near the probe of the longest sensing line (1); S4: equal marking of sensing line and wall height: measure equal points corresponding to the wall height on the longest sensing line (1), and set a bright mark (5) as a mark to obtain a sensing line test group (7); S5: The sensor line test group is placed centrally; S6: Suspension of the sensor line test set: Suspension of the sensor line test set (7) from the steel bars of the wall columns to the bottom of the wall; S7: Reinforcement of the sensor line test group: fix the sensor line test group (7) to the steel bars at the top of the wall by means of a locking piece.

2. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 1 is characterized in that: In the processing step S2, the plurality of sensing wires (1) are first straightened, the spacing between two adjacent probes (11) is kept the same, starting from the probe (11) of the longest wire, the wire is kept in a straightened state, at least two reinforcement points are set, each reinforcement point is provided with a reinforcement piece (2), it is ensured that two adjacent sensing wires (1) are fixed by the reinforcement piece (2), and the plurality of sensing wires (1) are close to each other without being entangled or crossed.

3. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 1 is characterized in that: In the processing step S3, the counterweight (4) is a metal part with good thermal conductivity, and the surface of the counterweight (4) is smooth. Its length is greater than three times the length of the probe (11) of the longest sensing line (1). When the counterweight (4) is assembled on the longest sensing line (1), it is not allowed to contact its probe (11).

4. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 3 is characterized in that: In the processing step S3, the deadweight of the counterweight (4) is greater than the deadweight of the longest sensing line (1), and the counterweight (4) and the longest sensing line (1) are not allowed to be free from each other when they are assembled.

5. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 3 or 4, characterized in that: In the processing step S3, the connecting member (6) for fixing the counterweight (4) and the longest sensing line (1) is a cable tie and / or a rope and / or an adhesive tape and / or a hoop and / or a clamp.

6. The construction process for vertically hanging and installing the temperature measuring line for a concrete wall according to any one of claims 1 to 4, characterized in that: The invention comprises a seat body (3), a reinforcement member (2) comprising a movable clamp seat (21), a driving component (22) for driving the movable clamp seat (21) to move along the length direction of the seat body (3) being arranged in the middle part of the seat body (3), the bottom of the movable clamp seat (21) being assembled with the driving component (22), the top of the movable clamp seat (21) being provided with a wire groove (211), the top of the movable clamp seat (21) being provided with a restraining member (23), in the processing step S2, the number of reinforcement members (2) corresponds to the number of sensing wires (1), each sensing wire (1) is placed in a corresponding wire groove (211), the restraining member (23) covers the sensing wire (1) on the wire groove (211) and is used for restraining the sensing wire (1) in the radial direction, and the driving component (22) is used for adjusting the specific position of the movable clamp seat (21) on the seat body (3).

7. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 6 is characterized in that: The reinforcement member (2) comprises a stop rotating plate (24) and a rotating shaft (25), wherein the rotating shaft (25) is rotatably connected to the side wall of the movable clamping seat (21), the stop rotating plate (24) is fixed to the outer wall of the rotating shaft (25), and a torsion spring (26) is provided between the stop rotating plate (24) and the rotating shaft (25), so that one end of the torsion spring (26) is assembled with the stop rotating plate (24) and the other end is assembled with the stop rotating plate (24), and correspondingly, The driving assembly (22) includes a rack (221) fixed on the top surface of the seat body (3); the movement direction of the movable clamp seat (21) is consistent with the extension direction of the rack (221), and both are perpendicular to the extension direction of the rotating shaft (25); in the processing step S2, when the movable clamp seat (21) stops moving, the rotating shaft (25) is rotated, and the bottom end of the stop rotating plate (24) is adapted to engage with the teeth of the rack (221).

8. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 7 is characterized in that: The driving assembly (22) comprises a connecting shaft (222) and a gear (223); the gear (223) is assembled in the middle of the movable clamping seat (21) via the connecting shaft (222); the gear (223) is meshed with the rack (221); in the processing step S2, when the movable clamping seat (21) is pushed, the gear (223) moves along the rack (221).

9. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 7 is characterized in that: The restraining member (23) is a magic belt, an elastic belt, or a flexible stretch sheet.

10. The construction process for hanging and installing the temperature measuring line for concrete wall according to claim 9 is characterized in that: A hard insert (231) is fixed to one end of the restraining belt, a first slot (212) is provided on the side wall of the movable clamp seat (21), and a second slot (213) is provided on the top wall thereof, the first slot (212) and the second slot (213) are connected to form an L-shaped slot, and a positioning insert (27) is movably provided on the movable clamp seat (21) near the second slot (213). In the processing step S2, when the sensing line (1) is placed in the line slot (211), the restraining belt covers the sensing line (1) on the line slot (211), the hard insert (231) is inserted into the first slot (212), and then the positioning insert (27) is inserted into the second slot (213).

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