An automated deformation monitoring device for a building construction process

Abstract

The utility model discloses a kind of automatic deformation monitoring devices of building structure construction process, relate to building engineering surveying technical field, comprising: firm base frame, monitoring base frame, suspension adjustment mechanism and resist touch monitoring mechanism.Suspension adjustment mechanism includes multiple groups of rope adjusting assembly, guide rope adjusting assembly and gyroscopic stable component.Rope adjusting assembly drives rope winch by high-precision rotary drive, realizes the high-precision suspension positioning of monitoring base frame;Guide rope adjusting assembly is constrained transversely and perpendicularity is adjusted to monitoring base frame by upper and lower sling;Gyroscopic stable component is used to resist environmental disturbance, significantly improve the dynamic attitude stability of monitoring base frame.Resist touch monitoring mechanism uses modular design, angle measurement type or displacement monitoring type structure can be selected, realize the accurate, digital measurement of building structure deformation.The device has the advantages of high positioning accuracy, strong dynamic stability, functional modularization.

Description

Technical Field

[0001] This utility model relates to the field of building engineering measurement technology, and in particular to an automated deformation monitoring device for the construction process of building structures. Background Technology

[0002] In modern building engineering, civil structure maintenance, and large equipment installation, high-precision, real-time monitoring and measurement of the position, verticality, horizontality, and minute deformations of structures or reference surfaces are crucial for ensuring project quality and structural safety. Especially during the construction and operation of super high-rise buildings, large bridges, rail transit infrastructure, and precision industrial plants, even minor deviations can accumulate into significant safety hazards or affect equipment performance.

[0003] Traditional measurement methods typically rely on manually operated optical measuring instruments (such as theodolites, total stations, and levels) or simple plumb lines and laser vertical instruments. While these methods are feasible within a certain range of accuracy, they have significant limitations. First, their accuracy is often easily affected by environmental factors (such as wind, temperature changes, and air disturbances), especially at high altitudes or in open environments, where the stability and reliability of the measurement results are difficult to guarantee. Second, traditional methods are mostly discrete measurements or point sampling, which cannot achieve continuous and dynamic monitoring of the structural condition.

[0004] Solving the aforementioned technical problems is the challenge facing this utility model. Utility Model Content

[0005] To address the shortcomings of existing technologies, this utility model provides a reasonably designed, safe and reliable automated deformation monitoring device for the construction process of building structures. Through modular design, it improves the convenience of on-site layout and maintenance, has high overall structural stability, is easy to operate, and can meet the needs of high-precision, multi-point synchronous monitoring of building structure deformation in complex construction environments.

[0006] The technical solution adopted by this utility model to solve its technical problem is: an automated deformation monitoring device for building structure construction process, including: a stable base frame, which is set vertically and has a stable base at its bottom end, a suspended base groove is opened on it, and a suspended through groove connected to the suspended base groove is opened on one side of it facing the building structure. The monitoring base frame is located in the suspended foundation trench, and a level is installed on it; A suspension adjustment mechanism is installed on the stable base frame and works in conjunction with the level to serve as a horizontal adjustment component for monitoring the base frame's suspension in the suspension trench. And a collision monitoring mechanism, which is installed on the monitoring base and in conflict with the building structure.

[0007] More preferably, the suspension adjustment mechanism includes: At least two sets of suspension base frames are detachably installed in the suspension base trench; At least two sets of suspension rope adjustment assemblies are respectively installed on the suspension base frame and connected to the monitoring base frame via adjustment ropes; A guide rope adjustment assembly is installed in the suspension base groove and cooperates with the monitoring base frame; And a gyroscope stabilization component, which is mounted on the suspension base and cooperates with the monitoring base.

[0008] Furthermore, the suspension base frame includes: The suspension frame has a U-shaped cross-section and is equipped with connectors that connect to the stable base frame. Two mounting bases are symmetrically arranged on the suspension frame, located on both sides of the monitoring base, and each mounting base is provided with one or more suspension rope adjustment components.

[0009] Furthermore, the suspension rope adjustment assembly includes: The base frame can be adjusted and detachably installed on the mounting base. A stable base frame is mounted on the adjustable base frame and is detachably connected to the suspension frame; A hoisting winch is mounted on the adjustment base frame, and the adjustment hoisting rope is coiled on it; And a rotary drive component, which is disposed on the hoisting rope winch and cooperates with the hoisting rope winch.

[0010] Furthermore, the guide rope adjustment assembly includes: The first suspension point is located at the top of the monitoring base frame; The second lifting point is located at the bottom end of the monitoring base frame; Two sets of steering wheels are respectively installed at the top and bottom ends of the stable base frame; The first sling unit is detachably installed on the stable base frame and is connected to the first lifting point via a set of steering wheels; And a second sling unit, which is detachably mounted on the stable base frame and is connected to the second lifting point via a set of steering wheels.

[0011] The structures of the first sling unit and the second sling unit are basically the same as those of the sling adjustment assembly.

[0012] Furthermore, the gyroscope stabilization component includes: The first U-shaped frame has a smooth connecting shaft at its closed end that is rotatably connected to the stable base frame, and a first rotating shaft at both ends of its opening. A stable frame has symmetrically formed first rotating grooves that rotatably engage with the first rotating shaft, and a second rotating shaft is symmetrically arranged on it, with the axis of the second rotating shaft perpendicular to the axis of the first rotating shaft. A stable inner frame has symmetrically opened second rotating grooves that rotatably cooperate with the second rotating shaft. And a stable contact frame, located in the stable inner frame, and connected to the stable inner frame by several stable springs, and cooperating with the monitoring base frame.

[0013] Preferably, the number of the gyroscope stabilization components is set to one, and the bottom end of the monitoring base is provided with an abutting cylinder that cooperates with the stabilization abutting frame.

[0014] Two structural designs for conflict monitoring mechanisms are further preferred, as follows: Firstly, the conflict monitoring agency includes: The contact frame is detachably mounted on the monitoring base frame; A contact monitoring arm, one end of which is rotatably connected to the contact rotating frame; An angle measuring instrument is mounted on the contact rotating frame and cooperates with the contact monitoring arm; And an abutting substrate, which is rotatably connected to the other end of the abutting monitoring arm, and is provided with connecting screws for connection to the building structure.

[0015] Secondly, the conflict monitoring agency includes: A horizontal base frame is detachably installed on the monitoring base frame, and a mounting bracket is provided on it; The sleeve is fixedly installed in the placement bracket; The sliding column is slidably installed in the sliding sleeve, and its front end is provided with a contact head that abuts against the building structure; The monitoring sleeve is fixedly installed in the placement frame, and a monitoring groove is provided on it, and a contact scale is provided on it; A monitoring slide column is slidably installed in the monitoring sleeve and connected to the abutting slide column. It is provided with a scale slide seat that cooperates with the monitoring slide groove and the abutting scale, and a reset base is provided on it. A reset spring is sleeved on the monitoring slide and cooperates with the reset base; And a displacement monitor, which is mounted on the monitoring sleeve and cooperates with the monitoring slide.

[0016] This invention utilizes at least two sets of suspension rope adjustment components and guide rope adjustment components, combined with the micron-level adjustment resolution of the rotary drive, to achieve precise suspension and positioning of the monitoring base frame at multiple points and in multiple dimensions. Through real-time feedback from the level instrument, closed-loop control and automatic leveling of the base frame's attitude can be achieved, ensuring extremely high measurement accuracy.

[0017] This invention introduces a gyroscope stabilization component, which utilizes the inertial axis-fixed property of the gyroscope to actively resist and absorb external environmental disturbances such as wind and slight vibrations. This solves the problem of easy swaying of traditional suspension devices, greatly improves the attitude stability of the monitoring base in dynamic environments, and thus ensures the reliability of measurement data.

[0018] This invention introduces a guide rope adjustment assembly with upper and lower dual suspension points. By stabilizing the steering wheel sets at both ends of the base frame and using adjustable upper and lower suspension ropes, precise constraints and guidance are applied to the top and bottom of the monitoring base frame. This dual-point constraint mechanism greatly limits the lateral sway and torsion of the monitoring base frame during suspension, ensuring its stability and controllability in the vertical direction. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of the overall structure of this utility model; Figure 2 This is a half-sectional schematic diagram of the present invention; Figure 3 This is a schematic diagram showing the cooperation between the monitoring base, suspension adjustment mechanism, and contact monitoring mechanism of this utility model; Figure 4 This is a partial structural diagram of the guide rope adjustment assembly of this utility model; Figure 5 This is a diagram showing the assembly of the suspension base frame and suspension rope adjustment assembly of this utility model; Figure 6 This is an exploded view of the gyroscope stabilizing component of this utility model; Figure 7 This is a schematic diagram of a portion of the structure of this utility model; The attached diagrams are labeled as follows: 100, stable base frame; 110, stable base; 120, suspension trench; 130, suspension through-slot; 200, monitoring base frame; 210, level; 300, suspension adjustment mechanism; 310, suspension base frame; 311, suspension connecting frame; 312, connector; 313, mounting base; 320, suspension rope adjustment assembly; 321, adjustment base frame; 322, suspension rope winch; 323, adjustment suspension rope; 324, rotation drive component; 330, guide rope adjustment assembly; 331, first suspension point; 332, second suspension point; 333, steering wheel assembly; 334, first suspension cable unit; 335, second suspension cable unit; 340, gyro stabilization assembly; 341, first U-shaped frame; 342, stabilizing coupling; 3 43. First rotating shaft; 344. Stable frame; 345. First rotating groove; 346. Second rotating shaft; 347. Stable inner frame; 348. Second rotating groove; 349. Stable contact frame; 350. Stable spring; 400. Contact monitoring mechanism; 411. Contact rotating frame; 412. Contact monitoring arm; 413. Angle measuring instrument; 414. Contact base plate; 415. Connecting screw; 421. Horizontal base frame; 422. Placement bracket; 423. Contact sleeve; 424. Contact slide column; 425. Contact head; 426. Monitoring sleeve; 427. Monitoring slide column; 428. Contact scale; 429. Monitoring slide column; 430. Scale slide; 431. Reset base; 432. Reset spring; 433. Displacement monitor. Detailed Implementation

[0020] See Figures 1 to 7 As shown, an automated deformation monitoring device for building structure construction includes: a stabilizing base frame 100, which is vertically arranged and has a stabilizing base 110 at its bottom end. The stabilizing base 110 is used to provide stable support and achieves initial fixation and positioning of the entire device through its own weight or anchors; a suspension base groove 120 is opened on it, and a suspension through groove 130 connected to the suspension base frame 310 is opened on the side facing the building structure. The monitoring base frame 200 is located in the suspension base groove, and a level 210 is installed on it. The level 210 is used to monitor the attitude of the monitoring base frame 200 in real time during the suspension process, especially its horizontality or verticality, so as to provide data input for subsequent precise adjustment. The suspension adjustment mechanism 300 is mounted on the stable base frame 100 and works in conjunction with the level 210 to serve as a horizontal adjustment component for suspending the monitoring base frame 200 in the suspension groove. This mechanism is the core for achieving high-precision positioning and fine-tuning of the monitoring base frame 200. By receiving feedback signals from the level 210, it drives each suspension rope or cable unit to extend or retract, thereby enabling the monitoring base frame 200 to reach a preset vertical state. And a contact monitoring mechanism 400 is installed on the monitoring base 200 and in contact with the building structure. After the monitoring base 200 is accurately positioned, the mechanism is used to contact the building structure to be measured and monitor the distance, displacement or angle changes between the two in real time or at fixed points, thereby realizing the accurate measurement of the deformation, deviation or relative position of the building structure.

[0021] More preferably, the suspension adjustment mechanism 300 includes: At least two sets of suspension base frames 310 are detachably installed in the suspension base groove. Their number and distribution determine the ability to provide multi-point or multi-dimensional support and adjustment for the monitoring base frame 200. At least two sets of suspension rope adjustment components 320 are respectively installed on the suspension base 310 and connected to the monitoring base 200 through adjustment suspension ropes 323. They are used to provide the main vertical suspension force and to achieve coarse or fine adjustment of the monitoring base 200 by adjusting the length of the suspension ropes 323. The guide rope adjustment assembly 330 is disposed in the suspension base groove 120 and cooperates with the monitoring base frame 200. It is used to guide and constrain the lateral or deflection movement of the monitoring base frame 200 during the suspension adjustment process, so as to ensure the stability and directionality of its movement and avoid unnecessary shaking. And a gyroscope stabilization component 340, which is mounted on the suspension base 310 and cooperates with the monitoring base 200, is designed to use the gyroscope's fixed axis or a preset damping mechanism to resist the instantaneous displacement or shaking of the monitoring base 200 caused by environmental disturbances (such as wind or slight vibrations), so as to improve the dynamic stability of the entire measurement system.

[0022] Furthermore, the suspension base 310 includes: The suspension frame 311 has a U-shaped cross-section and is provided with a connector 312 that connects to the stable base frame 100. The U-shaped structure helps to disperse stress and provides space for installing other components. The connector 312 can be a bolt, quick-release pin, etc., to ensure quick installation and disassembly. Two mounting bases 313 are symmetrically arranged on the suspension frame 311, located on both sides of the monitoring base frame 200, and each mounting base 313 is provided with one or more suspension rope adjustment components 320. This symmetrical arrangement is conducive to achieving balanced support and adjustment of the monitoring base frame 200.

[0023] Furthermore, the suspension rope adjustment assembly 320 includes: The adjustable base frame 321 is detachably installed on the mounting base 313 to provide a stable mounting platform; A stabilizing base frame 100 is mounted on the adjusting base frame 321 and is detachably connected to the suspension link 311 to ensure a reliable connection between the entire adjusting assembly and the suspension link 311. The hoisting rope winch 322 is mounted on the adjustment base 321, and the adjustment hoisting rope 323 is coiled on it. The winch is the core component for adjusting the length of the hoisting rope, and its rotation angle directly determines the suspension height. And a rotary drive 324 is disposed on the rope winch 322 and cooperates with the rope winch 322. The rotary drive 324 can be a stepper motor, a servo motor or a worm gear mechanism, but preferably a servo motor with a high-precision encoder is used. Its stepping accuracy can achieve a resolution of micrometer-level or lower for adjusting the length of the rope, so as to meet the requirements of high-precision attitude adjustment.

[0024] Furthermore, the guide rope adjustment assembly 330 includes: The first suspension point 331 is located at the top of the monitoring base frame 200 and serves as the connection point for the upper suspension cable; The second suspension point 332 is located at the bottom of the monitoring base 200 and serves as the lower suspension cable connection point. This multi-point connection method is beneficial to improving the attitude control capability of the monitoring base 200. Two sets of steering wheel sets 333 are respectively set at the top and bottom ends of the stable base frame 100; the steering wheel set 333 can be a pulley or a guide groove wheel, used to change the force direction of the sling and guide the sling to smoothly enter or leave the adjustment assembly; The first sling unit 334 is detachably installed on the stable base frame 100, and it is connected to the first lifting point 331 through the steering wheel set 333, for guiding and adjusting the upper part of the monitoring base frame 200. The second sling unit 335 is detachably mounted on the stable base frame 100 and is connected to the second lifting point 332 via a steering wheel set 333. It is used to guide and constrain the monitoring base frame 200 from below, especially when it is necessary to resist lateral forces or make vertical adjustments.

[0025] The structures of the first sling unit 334 and the second sling unit 335 are basically the same as those of the sling adjustment assembly 320, which means that they also include a winch and a drive unit, thereby enabling precise length adjustment and tension control.

[0026] Furthermore, the gyroscope stabilization component 340 includes: The first U-shaped frame 341 has a closed end with a smooth connecting shaft 342 that is rotatably connected to the stable base frame 100, and the two open ends are provided with first rotating shafts 343; the first U-shaped frame 341 and the first rotating shafts 343 constitute the mounting base for the outer ring of the gyroscope. The stabilizing frame 344 has symmetrically provided first rotating grooves 345 that rotatably engage with the first rotating shaft 343, and symmetrically provided second rotating shafts 346, with the axis of the second rotating shaft 346 being perpendicular to the axis of the first rotating shaft 343; the stabilizing frame 344 serves as a central ring, and achieves rotation around the first axis through the first rotating shaft 343; A stable inner frame 347 has symmetrically formed second rotating grooves 348 that rotatably engage with the second rotating shaft 346; the stable inner frame 347 serves as an inner ring, and its rotation around a second axis is achieved via the second rotating shaft 346. A stabilizing contact frame 349 is located within the stabilizing inner frame 347 and is connected to the stabilizing inner frame 347 via several stabilizing springs 350, and cooperates with the monitoring base 200. The spring connection provides a certain buffering and damping effect. When the monitoring base 200 experiences slight shaking, this mechanism utilizes the inertial stability of the gyroscope to resist and absorb the shaking, thereby maintaining the attitude stability of the monitoring base 200.

[0027] Preferably, the number of the gyroscope stabilization components 340 is set to one, and the bottom end of the monitoring base 200 is provided with an abutting cylinder that cooperates with the stabilization abutting frame 349.

[0028] Preferably, the number of the gyroscope stabilization components 340 is set to two, and the top and bottom ends of the monitoring base frame 200 are provided with abutment base columns that cooperate with the stabilization abutment frame 349.

[0029] Preferably, the number of the gyroscope stabilization components 340 is set to three or more, wherein the stabilization contact frame 349 in the gyroscope stabilization component 340 cooperates with the monitoring base frame 200.

[0030] More preferably, a hydraulic damper or a magnetorheological damper is provided around the plurality of stabilizing springs 350. The damper is connected to the stabilizing inner frame 347 and the stabilizing contact frame 349, and is used to provide controllable resistance when the stabilizing contact frame 349 moves relative to the stabilizing inner frame 347, so as to quickly dissipate vibration energy, avoid system resonance, and thus significantly improve dynamic stability.

[0031] Two structural designs for conflict monitoring mechanisms are further preferred, as follows: Firstly, the conflict monitoring agency includes: The contact frame 411 is detachably installed on the monitoring base frame 200, serving as the main connection and support structure for the entire mechanism. The contact monitoring arm 412 is rotatably connected at one end to the contact rotating frame 411. This monitoring arm is the main contact and transmission component, and its rotation reflects the displacement of the contact point with the building structure. An angle measuring instrument 413 is mounted on the contact rotating frame 411 and cooperates with the contact monitoring arm 412. The angle measuring instrument 413 can be an encoder or a high-precision potentiometer, used to convert the rotation angle of the contact monitoring arm 412 into an electrical signal output, thereby indirectly measuring the position or deformation of the building structure surface. And an abutment substrate 414, which is rotatably connected to the other end of the abutment monitoring arm 412, and is provided with a connecting screw 415 for connecting to the building structure. The abutment substrate 414 is the interface that directly contacts the building structure, and the connecting screw 415 can achieve non-destructive or semi-destructive fixing to ensure the reliability of the contact.

[0032] Secondly, the conflict monitoring mechanism 400 includes: A horizontal base frame 421 is detachably installed on the monitoring base frame 200, and a mounting bracket 422 is provided on it to provide horizontal installation and support; The abutting sleeve 423 is fixedly installed in the placement bracket 422; The sliding column 424 is slidably installed in the sliding sleeve 423. Its front end is provided with a contact head 425 that abuts against the building structure. The contact head 425 is used to provide a precise contact point. The sliding of the sliding column 424 is a direct displacement feedback. The monitoring sleeve 426 is fixedly installed in the placement bracket 422. It has a monitoring groove 427 and a contact scale 428, which is used to provide visual or rough displacement indication. The monitoring slide column 429 is slidably installed in the monitoring sleeve 426 and connected to the abutting slide column 424. It is provided with a scale slide 430 that cooperates with the monitoring slide groove 427 and the abutting scale 428, and a reset base 431 is provided on it. A reset spring 432 is sleeved on the monitoring slide 429 and cooperates with the reset base 431; the reset spring 432 is used to push the slide back to the initial position when the contact is released, and provides a preload to ensure the reliability of the contact. And a displacement monitor 433 is disposed on the monitoring sleeve 426 and cooperates with the monitoring slide 429. The displacement monitor 433 can be an LVDT linear variable differential transformer, a grating ruler or a high-precision inductive sensor, used to perform high-precision, digital real-time measurement of the small displacement generated by the contact slide 424.

[0033] More preferably, the monitoring base frame 200 is further provided with a core control module, the core control module including: The central processing unit (CPU) is used to receive and process the sensor signals from the level 210 and the contact monitoring mechanism 400. The drive control unit is used to control the rotation direction and rotation angle of the rotary drive component 324 in the suspension adjustment mechanism 300 in real time according to the calculation results of the central processing unit, so as to realize the closed-loop attitude adjustment of the monitoring base frame 200. The wireless communication module is used to transmit the measurement data processed by the central processing unit to an external terminal, and to receive control commands issued by the external terminal. And a power supply module, used to provide stable power to all the above electronic components and rotary drive 324, the power supply module is preferably a rechargeable lithium battery pack and is provided with an external power interface.

[0034] The technical features of this utility model not described can be implemented by or by using existing technology, and will not be repeated here. Of course, the above description is not a limitation of this utility model, and this utility model is not limited to the examples above. Any changes, modifications, additions or substitutions made by those skilled in the art within the scope of this utility model should also be within the protection scope of this utility model.

Claims

1. An apparatus for automated deformation monitoring of a construction process of a building structure, characterized in that include: A stable base frame (100) is set vertically, and a stable base (110) is set at its bottom end. A suspension base groove (120) is opened on it, and a suspension through groove (130) connected to the suspension base groove (120) is opened on the side facing the building structure. The monitoring base frame (200) is located in the suspended base trench (120) and a level (210) is installed on it. A suspension adjustment mechanism (300) is provided on the stable base frame (100) and cooperates with the level (210) to serve as a level adjustment component for monitoring the base frame (200) suspended in the suspension base groove (120); And a collision monitoring device (400), which is installed on the monitoring base (200) and in conflict with the building structure.

2. A device for automated deformation monitoring of a building construction process according to claim 1, characterized in that The suspension adjustment mechanism (300) includes: At least two sets of suspension base frames (310) are detachably installed in the suspension base groove (120); At least two sets of suspension rope adjustment assemblies (320) are respectively installed on the suspension base (310) and connected to the monitoring base (200) through adjustment ropes (323); A guide rope adjustment assembly (330) is disposed in the suspension base groove (120) and cooperates with the monitoring base frame (200); And a gyroscope stabilization component (340) is disposed on the suspension base (310) and cooperates with the monitoring base (200).

3. An automated deformation monitoring apparatus for a building construction process according to claim 2, wherein The suspension base frame (310) includes: The suspension frame (311) has a U-shaped cross-section and is provided with a connector (312) that is connected to the stable base frame (100). Two mounting bases (313) are symmetrically arranged on the suspension frame (311) and located on both sides of the monitoring base (200), and each mounting base (313) is provided with one or more suspension rope adjustment components (320).

4. The automated deformation monitoring device for building structure construction process as described in claim 3, characterized in that, The suspension rope adjustment assembly (320) includes: The adjustment base frame (321) is detachably installed on the mounting base (313); A stabilizing base frame (100) is mounted on the adjusting base frame (321) and is detachably connected to the suspension link (311); A hoisting winch (322) is mounted on the adjusting base frame (321), and the adjusting hoisting rope (323) is coiled on it; And a rotary drive (324) is disposed on the hoisting rope winch (322) and cooperates with the hoisting rope winch (322).

5. The apparatus for automated deformation monitoring of a building construction process according to claim 2, wherein The guide rope adjustment assembly (330) includes: The first suspension point (331) is located at the top of the monitoring base frame (200); The second suspension point (332) is located at the bottom end of the monitoring base frame (200); Two sets of steering wheel sets (333) are respectively installed at the top and bottom ends of the stable base frame (100); The first sling unit (334) is detachably installed on the stable base frame (100) and is connected to the first lifting point (331) through the steering wheel set (333); And a second sling unit (335), which is detachably mounted on the stable base frame (100) and is connected to the second lifting point (332) via a steering wheel set (333).

6. The apparatus for automated deformation monitoring of a building construction process according to claim 2, wherein The gyro stabilization component (340) includes: The first U-shaped frame (341) has a smooth connecting shaft (342) at its closed end that is rotatably connected to the stable base frame (100), and a first rotating shaft (343) at both ends of its opening. A stable frame (344) has a first rotating groove (345) symmetrically provided on it to rotate with the first rotating shaft (343), and a second rotating shaft (346) symmetrically provided on it, and the axis of the second rotating shaft (346) is perpendicular to the axis of the first rotating shaft (343). A stable inner frame (347) has a second rotating groove (348) symmetrically provided on it, which is in rotatable cooperation with the second rotating shaft (346). And a smooth contact frame (349), located in the smooth inner frame (347), and connected to the smooth inner frame (347) by a number of smooth springs (350), and cooperating with the monitoring base frame (200).

7. A device for automated deformation monitoring of a building construction process according to claim 6, characterized in that The number of the gyroscope stabilizing components (340) is set to one, and the bottom end of the monitoring base (200) is provided with an abutting cylinder that cooperates with the stabilizing abutting frame (349).

8. An automated deformation monitoring device for building structure construction process as described in claim 1, characterized in that, The conflict monitoring agencies include: The contact frame (411) is detachably mounted on the monitoring base frame (200); A contact monitoring arm (412) is rotatably connected at one end to the contact rotating frame (411); An angle measuring instrument (413) is mounted on the contact rotating frame (411) and cooperates with the contact monitoring arm (412); And an abutting substrate (414), which is rotatably connected to the other end of the abutting monitoring arm (412), and is provided with a connecting screw (415) for connection to the building structure.

9. The device for automated deformation monitoring of a construction process of a building structure according to claim 1, characterized in that The conflict monitoring agency (400) includes: A horizontal base frame (421) is detachably installed on the monitoring base frame (200), and a placement bracket (422) is provided on it. The abutting sleeve (423) is fixedly installed in the placement bracket (422); The abutting slide column (424) is slidably installed in the abutting sleeve (423), and its front end is provided with an abutting head (425) that abuts against the building structure. The monitoring sleeve (426) is fixedly installed in the placement bracket (422), and a monitoring groove (427) is provided on it, and a contact scale (428) is provided on it. The monitoring slide column (429) is slidably installed in the monitoring sleeve (426) and connected to the abutting slide column (424). It is provided with a scale slide (430) that cooperates with the monitoring slide groove (427) and the abutting scale (428), and a reset base (431) is provided on it. A reset spring (432) is sleeved on the monitoring slide (429) and cooperates with the reset base (431); And a displacement monitor (433) is disposed on the monitoring sleeve (426) and cooperates with the monitoring slide (429).

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