Bearing platform foundation pit excavation well point dewatering detection equipment

Abstract

The utility model relates to the technical field of well point dewatering detection equipment, in particular to bearing platform foundation pit excavation well point dewatering detection equipment which comprises a control box, a plurality of liquid level sensors, a plurality of sliding rods and a synchronizing mechanism, the synchronizing mechanism comprises a main cylinder, a secondary cylinder, a tail cylinder and a driving assembly, and the driving assembly comprises a driving shaft, a plurality of driving shells and a plurality of driving parts. During detection, the tail cylinder is pulled until the tail cylinder, the secondary cylinder and the driving shaft completely extend out, the equipment is placed at a detection position, the control box is rotated, the rotating shaft is driven to rotate, the driving pieces are driven to work, the sliding rods synchronously extend out along the driving shell until the sliding rods abut against the well wall, and at the moment, detection can be conducted through the liquid level sensors; the problems that sliding rods need to be debugged one by one before an existing monitoring device for bearing platform foundation pit excavation well point dewatering is used, operation is complex, and the detection efficiency can be reduced are solved, and the effects of rapidly adjusting the sliding rods and improving the detection efficiency are achieved.

Description

Technical Field

[0001] This utility model relates to the technical field of wellpoint dewatering detection equipment, and in particular to a wellpoint dewatering detection equipment for foundation pit excavation. Background Technology

[0002] When carrying out wellpoint dewatering, wellpoint dewatering detection equipment is required to detect water levels and other parameters in the foundation pit. The existing wellpoint dewatering detection equipment for foundation pit excavation is integrated and cannot adapt to wells of different depths.

[0003] The prior art CN212320837U discloses a monitoring device for well point dewatering in foundation pit excavation, including multiple connecting rods, multiple fixing blocks, multiple sliding rods, liquid level sensors, and a control box. The multiple connecting rods are detachably connected and each is equipped with a support mechanism. Each fixing block is fixedly connected to the bottom of each connecting rod and is equipped with multiple fixing mechanisms. The multiple sliding rods are slidably connected to the perimeter of the multiple fixing blocks through the multiple fixing mechanisms. The control box is fixedly connected to one connecting rod and located above the multiple connecting rods. During detection, the number of connecting rods is selected according to the depth of the well. The multiple connecting rods are interconnected through the multiple fixing blocks and their connecting mechanisms, and the multiple supporting mechanisms keep the multiple connecting rods vertical. The device is then placed at the detection point, and detection is performed using the multiple liquid level sensors to obtain the effect of detecting wells at different depths.

[0004] However, the existing monitoring devices for dewatering at well points during foundation pit excavation require individual adjustment of the sliding rods before use, which is complex and reduces detection efficiency. Utility Model Content

[0005] The purpose of this utility model is to provide a wellpoint dewatering detection device for foundation pit excavation, which solves the problem that existing monitoring devices for wellpoint dewatering in foundation pit excavation require individual adjustment of sliding rods before use, which is complicated and reduces detection efficiency.

[0006] To achieve the above objectives, this utility model provides a wellpoint dewatering detection device for foundation pit excavation, including a control box, multiple liquid level sensors, multiple sliding rods, and a synchronization mechanism. The synchronization mechanism includes a main cylinder, a secondary cylinder, a tail cylinder, and a drive assembly. The multiple liquid level sensors are located below the control box, and the multiple sliding rods are located below the control box. The main cylinder is rotatably connected to the lower part of the control box, the secondary cylinder is slidably connected to the main cylinder, and the tail cylinder is slidably connected to the secondary cylinder. The drive assembly is located below the control box and includes a drive shaft, multiple drive housings, and multiple drive components. The drive shaft is located inside the tail cylinder. The multiple drive housings are respectively fixedly connected to the bottom of the main cylinder, the secondary cylinder, and the tail cylinder. Each liquid level sensor is fixedly connected to the upper part of each drive housing. The multiple sliding rods are respectively slidably connected to the multiple drive housings, and each drive component is located inside each drive housing.

[0007] The drive shaft includes a main shaft, a secondary shaft, and a tail shaft. The main shaft is fixedly connected to the control box and rotatably connected to the main cylinder. The secondary shaft is slidably connected to the main shaft. The tail shaft is rotatably connected to the tail cylinder and slidably connected to the secondary shaft. Multiple drive components are respectively disposed on the surfaces of the main shaft, the secondary shaft, and the tail shaft.

[0008] The driving component includes a driving disk and a limiting disk. The driving disk is disposed on the surface of the driving shaft and has multiple arc grooves. The limiting disk is fixedly connected to the driving housing and rotatably connected inside the driving disk, and has multiple straight grooves. Multiple sliding rods are located around the limiting disk.

[0009] The driving component further includes multiple push-pull rods and multiple drive shafts. The multiple push-pull rods are slidably connected to the drive housing, and the multiple drive shafts are rotatably connected to the push-pull rods and pass through multiple arc grooves and multiple straight grooves respectively.

[0010] Finally, the synchronization mechanism also includes a chassis and a base pad, the chassis being fixedly connected to the bottom of the tail cylinder, and the base pad being fixedly connected to the bottom of the chassis.

[0011] This utility model discloses a wellpoint dewatering detection device for foundation pit excavation. During detection, the tail cylinder is pulled until the tail cylinder, the secondary cylinder, and the drive shaft are fully extended. The device is then placed at the detection point. The control box is rotated, causing the rotating shaft to rotate and multiple drive components to work. This causes multiple sliding rods to extend synchronously along the drive housing until they abut against the well wall. At this point, detection can be performed using multiple liquid level sensors. This avoids the problem of some foundation pit excavation wellpoint dewatering monitoring devices requiring individual adjustment of sliding rods before use, which is complex and reduces detection efficiency. This device achieves the effect of quickly adjusting sliding rods and improving detection efficiency. Attached Figure Description

[0012] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below.

[0013] Figure 1 This is a schematic diagram of the overall structure of this utility model.

[0014] Figure 2 This is a front view of the entire utility model.

[0015] Figure 3 yes Figure 2 A cross-sectional view along line AA.

[0016] Figure 4 yes Figure 3 Enlarged view of point B in the middle.

[0017] Figure 5 This is a structural schematic diagram of the arc-shaped groove of this utility model.

[0018] 101-Control box, 102-Level sensor, 103-Main cylinder, 104-Secondary cylinder, 105-Tail cylinder, 106-Drive assembly, 107-Drive shaft, 108-Drive housing, 109-Drive component, 110-Main shaft, 111-Secondary shaft, 112-Tail shaft, 113-Drive disc, 114-Limit disc, 115-Arc groove, 116-Straight groove, 117-Slide rod, 118-Push-pull rod, 119-Drive shaft, 120-Chassis, 121-Bottom pad. Detailed Implementation

[0019] The embodiments of the present invention are described in detail below. Examples of the embodiments are shown in the accompanying drawings. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, but should not be construed as limiting the present invention.

[0020] Please see Figures 1-5 ,in Figure 1 This is a schematic diagram of the overall structure of this utility model; Figure 2This is a front view of the entire utility model; Figure 3 yes Figure 2 Sectional view along line AA; Figure 4 yes Figure 3 Enlarged view of point B in the middle; Figure 5 This is a structural schematic diagram of the arc-shaped groove of this utility model.

[0021] This utility model provides a wellpoint dewatering detection device for foundation pit excavation: it includes a control box 101, multiple liquid level sensors 102, multiple sliding rods 117, and a synchronization mechanism. The synchronization mechanism includes a main cylinder 103, a secondary cylinder 104, a tail cylinder 105, a drive assembly 106, a chassis 120, and a bottom pad 121. The drive assembly 106 includes a drive shaft 107, multiple drive housings 108, and multiple drive components 109. The drive shaft 107 includes a main shaft 110, a secondary shaft 111, and a tail shaft 112. The drive components 109 include a drive disc 113, a limit disc 114, multiple push-pull rods 118, and multiple drive shafts 119. The aforementioned solution solves the problem that existing wellpoint dewatering monitoring devices for foundation pit excavation require individual adjustment of each sliding rod 117 before use, which is complex and reduces detection efficiency.

[0022] In this specific embodiment, multiple liquid level sensors 102 are located below the control box 101, multiple slide rods 117 are located below the control box 101, the main cylinder 103 is rotatably connected to the lower part of the control box 101, the secondary cylinder 104 is slidably connected to the main cylinder 103, the tail cylinder 105 is slidably connected to the secondary cylinder 104, the drive assembly 106 is disposed below the control box 101, the drive shaft 107 is disposed within the tail cylinder 105, and multiple drive housings 108 are respectively fixedly connected to the bottom of the main cylinder 103, the secondary cylinder 104, and the tail cylinder 105. Each liquid level sensor 102... 2. Fixedly connected above each of the drive housings 108, multiple sliding rods 117 are slidably connected within the multiple drive housings 108 respectively, and each drive component 109 is located within each drive housing 108. During detection, the tail cylinder 105 is pulled until the tail cylinder 105, the secondary cylinder 104, and the drive shaft 107 are fully extended. The device is placed at the detection point, and the control box 101 is rotated, causing the rotating shaft to rotate and the multiple drive components 109 to work, so that the multiple sliding rods 117 extend synchronously along the drive housing 108 until they abut against the well wall. At this time, detection can be performed by multiple liquid level sensors 102. The specific structure and working principle of the liquid level sensor 102 and the control box 101 are described in the patent document with publication number CN212320837U, which is not within the scope of protection of this application and will not be elaborated here.

[0023] The main shaft 110 is fixedly connected to the control box 101 and rotatably connected to the main cylinder 103. The secondary shaft 111 is slidably connected to the main shaft 110. The tail shaft 112 is rotatably connected to the tail cylinder 105 and slidably connected to the secondary shaft 111. Multiple driving components 109 are respectively disposed on the surfaces of the main shaft 110, the secondary shaft 111, and the tail shaft 112. When the tail cylinder 105 is pulled, under the action of the multiple driving components 109, the relative positions of the tail shaft 112 and the tail cylinder 105 remain unchanged, the relative positions of the secondary shaft 111 and the secondary cylinder 104 remain unchanged, and the relative positions of the main shaft 110 and the main cylinder 103 remain unchanged. When the control box 101 is rotated, the main shaft 110 drives the secondary shaft 111 and the tail shaft 112 to rotate, so that the multiple driving components 109 work synchronously, thereby driving the multiple sliding rods 117 to extend and retract synchronously.

[0024] Secondly, the drive disk 113 is disposed on the surface of the drive shaft 107 and is provided with multiple arc grooves 115. The limiting disk 114 is fixedly connected to the drive housing 108 and rotatably connected to the drive disk 113, and is provided with multiple straight grooves 116. Multiple sliding rods 117 are located around the limiting disk 114. When the drive disk 113 is rotated, the main shaft 110, the secondary shaft 111 and the tail shaft 112 rotate, driving the multiple drive disks 113 to rotate and transmitting power. At the same time, the multiple limiting disks 114 restrict the position of the multiple drive disks 113, so that the position of the tail shaft 112 and the tail cylinder 105 remains relatively unchanged, the position of the secondary shaft 111 and the secondary cylinder 104 remains relatively unchanged, and the position of the main shaft 110 and the main cylinder 103 remains relatively unchanged.

[0025] Meanwhile, multiple push-pull rods 118 are slidably connected within the drive housing 108, and multiple drive shafts 119 are rotatably connected within the push-pull rods 118, respectively passing through multiple arc grooves 115 and multiple straight grooves 116. When the drive disc 113 rotates, the drive disc 113 squeezes multiple drive shafts 119 through multiple arc grooves 115, and under the restriction of multiple straight grooves 116, the multiple drive shafts 119 move along the arc grooves 115 and along the straight grooves 116, driving the multiple push-pull rods 118 to extend and retract, thereby controlling the extension and retraction of multiple slide rods 117 through the multiple push-pull rods 118.

[0026] Finally, the chassis 120 is fixedly connected to the bottom of the tail cylinder 105, and the bottom pad 121 is fixedly connected to the bottom of the chassis 120. When the equipment is placed in the testing area, the chassis 120 can make the equipment more stable, and the bottom pad 121 can prevent debris from scratching the chassis 120 and extend the service life of the equipment.

[0027] During testing, pull the tail cylinder 105 until it and the secondary cylinder 104 are fully extended. Because the multiple limiting discs 114 restrict the positions of the multiple drive discs 113, the relative positions of the tail shaft 112 and the tail cylinder 105, the relative positions of the secondary shaft 111 and the secondary cylinder 104, and the relative positions of the main shaft 110 and the main cylinder 103 remain unchanged. At this time, the secondary shaft 111 and the tail shaft 112 are fully extended. Place the equipment in the testing area. The chassis 120 ensures stable placement, and the base pad 121 prevents debris from scratching the chassis 120, extending the equipment's service life. Rotate the control box 101, causing the main shaft 110, secondary shaft 111, and tail shaft 112 to rotate, driving the multiple drive discs 113 to rotate, thereby enabling the drive discs to rotate. When component 109 operates, multiple sliding rods 117 extend synchronously along the drive housing 108 until they abut against the well wall. At this time, multiple liquid level sensors 102 can detect the liquid level. When the drive disc 113 rotates, the drive disc 113 squeezes multiple drive shafts 119 through multiple arc grooves 115. Under the constraint of multiple straight grooves 116, multiple drive shafts 119 move along the arc grooves 115 and along the straight grooves 116, driving multiple push-pull rods 118 to extend and retract. Thus, the extension and retraction of multiple sliding rods 117 are controlled by multiple push-pull rods 118. This avoids the problem that some well point dewatering monitoring devices for foundation pit excavation require individual adjustment of sliding rods 117 before use, which is complicated and reduces detection efficiency. This achieves the effect of quickly adjusting sliding rods 117 and improving detection efficiency.

[0028] The above-disclosed embodiments are merely one or more preferred embodiments of this application and should not be construed as limiting the scope of this application. Those skilled in the art can understand that all or part of the processes for implementing the above embodiments and equivalent changes made in accordance with the claims of this application still fall within the scope of this application.

Claims

1. A wellpoint dewatering detection device for foundation pit excavation, comprising a control box, multiple liquid level sensors, and multiple sliding rods, wherein the multiple liquid level sensors are located below the control box, and the multiple sliding rods are located below the control box, characterized in that, It also includes synchronization mechanisms; The synchronization mechanism includes a main cylinder, a secondary cylinder, a tail cylinder, and a drive assembly. The main cylinder is rotatably connected to the lower part of the control box. The secondary cylinder is slidably connected to the main cylinder. The tail cylinder is slidably connected to the secondary cylinder. The drive assembly is located below the control box. The drive assembly includes a drive shaft, multiple drive housings, and multiple drive components. The drive shaft is located inside the tail cylinder. The multiple drive housings are respectively fixedly connected to the bottom of the main cylinder, the secondary cylinder, and the tail cylinder. Each liquid level sensor is fixedly connected to the top of each drive housing. Multiple slide rods are respectively slidably connected to the multiple drive housings. Each drive component is located inside each drive housing.

2. The wellpoint dewatering detection equipment for foundation pit excavation as described in claim 1, characterized in that, The drive shaft includes a main shaft, a secondary shaft, and a tail shaft. The main shaft is fixedly connected to the control box and rotatably connected to the main cylinder. The secondary shaft is slidably connected to the main shaft. The tail shaft is rotatably connected to the tail cylinder and slidably connected to the secondary shaft. A plurality of drive components are respectively disposed on the surfaces of the main shaft, the secondary shaft, and the tail shaft.

3. The wellpoint dewatering detection equipment for foundation pit excavation as described in claim 1, characterized in that, The driving component includes a driving disk and a limiting disk. The driving disk is disposed on the surface of the driving shaft and has multiple arc grooves. The limiting disk is fixedly connected to the driving housing and rotatably connected inside the driving disk, and has multiple straight grooves. Multiple sliding rods are located around the limiting disk.

4. The wellpoint dewatering detection equipment for foundation pit excavation as described in claim 3, characterized in that, The driving component also includes multiple push-pull rods and multiple drive shafts. The multiple push-pull rods are slidably connected to the drive housing, and the multiple drive shafts are rotatably connected to the push-pull rods and pass through the multiple arc grooves and multiple straight grooves respectively.

5. The wellpoint dewatering detection equipment for foundation pit excavation as described in claim 1, characterized in that, The synchronization mechanism also includes a chassis and a base pad, the chassis being fixedly connected to the bottom of the tail cylinder, and the base pad being fixedly connected to the bottom of the chassis.

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