CN113373928B - Immersion type reinforcing pile wetland installation device capable of correcting inclination - Google Patents

Abstract

The invention relates to the field of wetlands, in particular to an immersion type reinforcing pile wetland installation device capable of correcting inclination. The technical problem of the invention is that: provides an immersion type reinforced pile wetland installation device capable of correcting inclination. An immersion type reinforced pile wetland installation device capable of correcting inclination comprises a lifting conveying assembly, an inclination correcting assembly, a base flushing assembly, a support table, a left sliding support, a right sliding support, a vibration generating part, a control table and the like; the lifting conveying assembly is connected with the inclination correcting assembly. The invention realizes the installation work of the reinforcing pile on the wetland, softens the soil around the reinforcing pile by flushing high-pressure water, ensures that the reinforcing pile can sink deeper, simultaneously identifies and corrects the state of the reinforcing pile, deeply punches and softens the soil on the other side of the reinforcing pile, and ensures that the reinforcing pile can be installed to a specified position in a balanced state and sinks deeply.

Description

A Wetland Installation Device for Immersion Reinforced Pile That Can Correct Inclination

technical field

The invention relates to the field of wetlands, in particular to a wet installation device for immersed reinforcement piles that can correct inclination.

Background technique

The soft soil of wetland refers to the soft soil layer with low strength and high compressibility. Most contain certain organic substances. Due to the low strength of soft soil and the large amount of subsidence, it often brings great harm to road engineering. If it is not handled properly, it will have a great impact on the construction and use of highways.

In order to stably carry out road laying work on wetlands, a reinforcement pile needs to be inserted into the depths of the soft wetland soil. Dig a deep pit so that most of the reinforcement piles can be placed into the deep pit. Due to the poor hardness of the soft soil in the wetland, the foundation pit on the surface layer can be widened to avoid soil backflow. When the soft soil layer at the bottom of the foundation pit is deeply excavated, the deeper the soft soil is dug, the greater the backflow pressure of the excavated soil, which makes the resistance gradually increased during the deep excavation of the soft soil. , which makes the installation process of the reinforcement pile more complicated and complicated.

In summary, the present invention provides an automatic device that can perform high-pressure water rinsing and softening treatment on the soft soil at the bottom of the foundation pit, and solve the problem by the gravity of the reinforcement pile itself and the application of vibration pressure to the reinforcement pile to sink it into the soft soil. above problem.

SUMMARY OF THE INVENTION

In order to overcome the need for deep excavation of the soft soil during the installation of the reinforcement piles, and the soft soil hardness of the wetland is poor, the deeper the soft soil is excavated, the greater the backflow pressure of the excavated soil will be. Due to the disadvantage of gradually increasing resistance due to the deep excavation of soil, the technical problem of the present invention is to provide a wet installation device for immersed reinforcement piles that can correct the inclination.

An immersed reinforced pile wetland installation device capable of correcting inclination, including a lift transmission component, a tilt correction component, a base flushing component, a bracket table, a left sliding bracket, a right sliding bracket, a vibration generating mechanism, a console, and a high-pressure punch. The water mechanism and the infusion pipe; the lifting transmission component is connected with the tilt correction component; the lifting transmission component is connected with two sets of vibration generating parts; the lifting transmission component is connected with the left sliding bracket; the lifting transmission component is connected with the right sliding bracket; The tilt correction component is connected with the base flushing component; the base flush component is connected with the infusion tube; the tilt correction component is connected with the left sliding bracket; the tilt correction component is connected with the right sliding bracket; the left sliding bracket is connected with the support table; The right sliding support is connected with the support table; the console is connected with the support table; the high-pressure flushing mechanism is connected with the support table; the infusion pipe is connected with the high-pressure flushing mechanism.

Further description, the lifting transmission assembly includes a main motor, a first rotating shaft, a first transmission wheel, a first spur gear, a second spur gear, an electric slider, a second rotating shaft, a third spur gear, a first telescopic arm, a splint, The third rotating shaft, the fourth spur gear, the second telescopic arm, the third telescopic arm, the first sliding bracket, the traction spring, the fourth rotating shaft, the second transmission wheel and the fifth spur gear; the main motor is fixed to the left sliding bracket ; The first rotating shaft is rotatably connected with the left sliding bracket; the output shaft of the main motor is fixedly connected with the first rotating shaft; the first transmission wheel, the first spur gear and the second spur gear are all fixed with the first rotating shaft; On one side of the rotating shaft, the fourth rotating shaft is rotatably connected with the right sliding bracket; the second transmission wheel and the fifth spur gear are fixedly connected with the fourth rotating shaft; the first transmission wheel is connected with the second transmission wheel through a belt; respectively; On one side of the first rotating shaft and the fourth rotating shaft, two sets of electric sliders are respectively slidably connected with the left sliding bracket and the right sliding bracket; each of the two sets of second rotating shafts is rotatably connected with a corresponding set of electric sliders; Each of the third spur gears is fixedly connected with a corresponding set of second rotating shafts; on the side of the third spur gear, two sets of first telescopic arms are fixedly connected with a corresponding set of second rotating shafts; two sets of splints are respectively Each of the rotating shafts is rotatably connected with a corresponding set of first telescopic arms; above the first rotating shaft, the third rotating shaft is rotatably connected with the left sliding bracket; the fourth spur gear and the second telescopic arm are fixed with the third rotating shaft The first spur gear meshes with the fourth spur gear; on the side of the second telescopic arm, the third telescopic arm is rotatably connected to the right sliding bracket through the rotating shaft; the second telescopic arm and the third telescopic arm are both connected to the tilt correction assembly above the second telescopic arm, the two ends of the first sliding bracket are respectively connected to the left sliding bracket and the right sliding bracket in a sliding connection; one end of the two sets of traction springs is respectively fixed to the left sliding bracket and the right sliding bracket; each The other ends of the group of traction springs are both fixedly connected to the first sliding bracket; the two groups of vibration generating parts are both fixedly connected to the first sliding bracket.

Further description, the tilt correction assembly includes a second sliding bracket, an annular frame, a fifth rotating shaft, an auxiliary motor, a sixth spur gear, a first annular slider, a first gear ring, a first fixed frame, a second fixed frame, a wedge A push block, a third sliding bracket, a support plate, a cutting block and a pressure-sensitive spring; two sets of second sliding brackets are respectively slidably connected with the left sliding bracket and the right sliding bracket; each set of second sliding brackets is fixedly connected with the ring frame ;Two sets of fifth rotating shafts are respectively connected with the second telescopic arm and the third telescopic arm; each set of fifth rotating shafts are connected with the ring frame for rotation; the auxiliary motor is fixedly connected to one side of the ring frame; the output shaft of the auxiliary motor It is fixedly connected with the sixth spur gear; the first annular slider is slidably connected to one side of the ring frame; the first ring gear is fixed with the first annular slider; the sixth spur gear is meshed with the first ring gear; Below the first gear ring, the first fixing frame is fixedly connected to one side of the first annular slider; the first fixing frame is connected to the base flushing assembly; the second fixing frame is fixedly connected to the other side of the first annular slider ; The wedge-shaped push block is fixed with the second fixed frame; the four groups of third sliding brackets are all slidingly connected with the top of the ring frame; the four groups of support plates are each fixed with a corresponding group of third sliding brackets; Each of the blocks is fixedly connected with a corresponding group of third sliding brackets; both ends of the four groups of pressure-sensitive springs are respectively fixed with a corresponding group of cutting blocks and the top of the ring frame.

Further description, the base flushing assembly includes a third fixed frame, a limit rod, a screw rod, an electric push rod, a fourth sliding bracket, a bushing, a second gear ring, a sixth rotating shaft, a seventh spur gear, and an eighth straight Gear and flushing unit; the third fixed frame is fixed with the first fixed frame; the limit rod, the screw rod and the electric push rod are fixed with the third fixed frame in turn; the fourth sliding bracket is slid with the third fixed frame connection; the electric push rod is fixedly connected with the fourth sliding bracket; the fourth sliding bracket is connected with the flushing unit; the limit rod is slidably connected with the fourth sliding bracket; the bushing is rotated with the fourth sliding bracket; the bushing It is screwed with the screw rod; the second toothed ring is fixed with the bushing; on the side of the second toothed ring, the sixth rotating shaft is connected with the fourth sliding bracket; the sixth rotating shaft is connected with the flushing unit; the seventh The spur gear and the eighth spur gear are fixedly connected with the sixth rotating shaft; the seventh spur gear is meshed with the second gear ring; the eighth spur gear is connected with the flushing unit; the flushing unit is connected with the infusion pipe.

Further description, the flushing unit includes a fourth fixed frame, a spray head, a second annular slider, a third toothed ring and an arc scraper; the fourth fixed frame is fixed to the fourth sliding bracket; the sixth rotating shaft is connected to the fourth The fixed frame is rotated and connected; the spray head is fixed with the fourth fixed frame; the spray head is connected with the infusion tube; the second annular slider is slidably connected with the fourth fixed frame; the third toothed ring is fixed with the second annular slider ; the third gear ring meshes with the eighth spur gear; under the third gear ring, two sets of arc scrapers are fixedly connected with the second annular slider.

Further description, one side of the clamping plate is provided with a convex block, and the other side of the clamping plate is provided with a slot corresponding to the convex block.

It is further explained that the water outlet of the nozzle is designed with a chamfered surface.

To further explain, the arc-shaped scraper is an inclined design with the bottom end folded toward the nozzle.

The beneficial effects of the present invention are as follows: 1. In order to overcome the need for deep excavation of the soft soil during the installation of the reinforcement pile, and the soft soil hardness of the wetland is poor, the deeper the soft soil is excavated, the more excavated the soft soil. The greater the soil backflow pressure, the disadvantage of gradually increasing the resistance during deep excavation of soft soil;

2. The device of the present invention: when using the device, first place the device and keep the support table stable, control the console adjustment device after connecting the power supply, and then place the reinforcement pile to be installed in the lifting transmission assembly and the inclination correction assembly. The middle support rod of the reinforcement pile is clamped, and the vibration parts of the two sets of vibration generating parts are in contact with the top sides of the reinforcement pile, and then the left sliding bracket and the right sliding bracket drive the lifting transmission assembly to move the reinforcement pile to one side Above the pre-dug foundation pit, then the lifting and conveying components place the reinforcement piles at the bottom of the foundation pit and release them. At the same time, the inclination correction components exert supporting force on the four sides of the reinforcement piles, and then the base flushing components are used to reinforce the piles in turn. The four sides of the contact surface between the pile and the bottom of the foundation pit are sprayed with high-pressure water, so that the soil around the reinforcement pile is punched and softened, and then the reinforcement pile sinks downward under the support of its own gravity and the vibration force of the vibration generating parts. When the tilt correction component detects that the reinforcement pile is inclined to one side, after the reinforcement pile is straightened by the tilt correction component, the base flushing component is driven to move to the other side of the reinforcement pile, and the base flushing component is placed on the other side of the reinforcement pile. A through hole is dug out of the soil of the reinforced pile and inserted into it, and the soil on the other side of the reinforced pile is further punched and softened, so that the soil around the reinforced pile is treated evenly, and the reinforced pile is in a balanced state. sink deep into the designated position;

3. The present invention realizes the installation of the reinforced piles on the wetland, and softens the soil around the reinforced piles by spraying high-pressure water, so that the reinforced piles can sink deeper, and at the same time, the state identification and correction of the reinforced piles are performed. , and perform deep stamping and softening work on the soil inclined to the other side of the reinforcement pile, so that the reinforcement pile can be sunk down and installed to the designated position in a balanced state.

Description of drawings

Fig. 1 is the first three-dimensional structure schematic diagram of the present invention;

2 is a schematic diagram of a second three-dimensional structure of the present invention;

3 is a schematic diagram of a third three-dimensional structure of the present invention;

FIG. 4 is a schematic three-dimensional structure diagram of the lifting and conveying assembly of the present invention;

FIG. 5 is a partial three-dimensional structural schematic diagram of the lifting and conveying assembly of the present invention;

6 is a schematic diagram of the first three-dimensional structure of the splint of the present invention;

7 is a schematic diagram of the first three-dimensional structure of the tilt correction assembly of the present invention;

8 is a schematic diagram of a second three-dimensional structure of the tilt correction assembly of the present invention;

9 is a schematic three-dimensional structure diagram of the base flushing assembly of the present invention;

10 is a schematic diagram of a partial three-dimensional structure of the base flushing assembly of the present invention;

11 is a schematic diagram of the three-dimensional structure of the flushing unit of the present invention;

Figure 12 is a schematic diagram of the three-dimensional structure of the nozzle of the present invention;

FIG. 13 is a schematic diagram of the three-dimensional structure of the arc scraper of the present invention.

Symbols in the drawings: 1: Lifting transmission assembly, 2: Inclination correction assembly, 3: Base flush assembly, 4: Stand table, 5: Left sliding support, 6: Right sliding support, 7: Vibration generating mechanism, 8 : console, 9: high pressure flushing mechanism, 10: infusion tube, 101: main motor, 102: first shaft, 103: first transmission wheel, 104: first spur gear, 105: second spur gear, 106 : Electric slider, 107: The second shaft, 108: The third spur gear, 109: The first telescopic arm, 110: The splint, 111: The third shaft, 112: The fourth spur gear, 113: The second telescopic arm, 114 : The third telescopic arm, 115: The first sliding bracket, 116: The traction spring, 117: The fourth rotating shaft, 118: The second transmission wheel, 119: The fifth spur gear, 201: The second sliding bracket, 202: The ring frame, 203: The fifth shaft, 204: The auxiliary motor, 205: The sixth spur gear, 206: The first annular slider, 207: The first gear ring, 208: The first fixed frame, 209: The second fixed frame, 210: Wedge Push block, 211: Third sliding bracket, 212: Support plate, 213: Cut block, 214: Pressure-sensitive spring, 301: Third fixed frame, 302: Limit rod, 303: Screw rod, 304: Electric push rod, 305: Fourth sliding bracket, 306: Bush, 307: Second ring gear, 308: Sixth shaft, 309: Seventh spur gear, 310: Eighth spur gear, 311: Flushing unit, 31101: Fourth fixing Rack, 31102: Sprinkler, 31103: Second Ring Slider, 31104: Third Gear Ring, 31105: Arc Scraper.

Detailed ways

The present invention will be further described below with reference to specific embodiments. The exemplary embodiments and descriptions of the present invention are used to explain the present invention, but are not intended to limit the present invention.

Example 1

An immersed reinforced pile wetland installation device that can correct the inclination, as shown in Figure 1-13, includes a lifting transmission component 1, a tilt correction component 2, a base flushing component 3, a bracket table 4, a left sliding bracket 5, a right The sliding bracket 6, the vibration generating mechanism 7, the console 8, the high-pressure flushing mechanism 9 and the infusion tube 10; the lifting transmission assembly 1 is connected with the inclination correction assembly 2; Connecting; the lifting transmission assembly 1 is connected with the left sliding bracket 5; the lifting transmission assembly 1 is connected with the right sliding bracket 6; the tilt correction assembly 2 is connected with the base flushing assembly 3; the base flushing assembly 3 is connected with the infusion tube 10 ; The tilt correction component 2 is connected with the left sliding bracket 5; the tilt correction component 2 is connected with the right sliding bracket 6; the left sliding bracket 5 is connected with the support table 4; the right sliding bracket 6 is connected with the support table 4; It is connected with the support table 4 ; the high-pressure flushing mechanism 9 is connected with the support table 4 ; the infusion tube 10 is connected with the high-pressure flushing mechanism 9 .

Working principle: when using the device, first place the device and keep the stand 4 stable, then control the console 8 to adjust the device after connecting the power supply, and then place the reinforcement pile to be installed in the lifting transmission assembly 1 and the tilt correction assembly 2, and the lifting transmission assembly 1. Clamp the middle support rod of the reinforced pile, and make the vibration parts of the two sets of vibration generating parts 7 contact with both sides of the top of the reinforced pile, and then the left sliding bracket 5 and the right sliding bracket 6 drive the lifting transmission assembly 1 The reinforcement piles are moved to the top of the pre-dug foundation pit on one side, and then the lifting and conveying assembly 1 places the reinforcement piles at the bottom of the foundation pit and releases them. The base flushing component 3 sequentially flushes the four sides of the contact surface between the reinforcement pile and the bottom of the foundation pit with high-pressure water, so that the soil around the reinforcement pile is punched and softened. Under the support of the vibration force, it sinks downward. When the tilt correction component 2 detects that the reinforcement pile is inclined to one side, the tilt correction component 2 straightens the reinforcement pile, and drives the base flushing component 3 to move to the other side of the reinforcement pile. , the base flushing component 3 digs a through hole in the soil on the other side of the reinforced pile and extends into it, and the soil on the other side of the reinforced pile is further punched and softened, so that the soil around the reinforced pile is softened. It is evenly treated to ensure that the reinforced pile sinks into the designated position in a balanced state; the invention realizes the installation of the reinforced pile on the wetland, and softens the soil around the reinforced pile by showering high-pressure water with it, so that the reinforcement can be reinforced. The pile can be sunk deeper, and the state identification and correction of the reinforced pile can be carried out at the same time, and the deep stamping and softening work of the soil inclined to the other side of the reinforced pile can be carried out, so that the reinforced pile can be deeply sunk in a balanced state and installed to the specified position. Location.

The lift transmission assembly 1 includes a main motor 101, a first rotating shaft 102, a first transmission wheel 103, a first spur gear 104, a second spur gear 105, an electric slider 106, a second rotating shaft 107, a third spur gear 108, A telescopic arm 109, a splint 110, a third rotating shaft 111, a fourth spur gear 112, a second telescopic arm 113, a third telescopic arm 114, a first sliding bracket 115, a traction spring 116, a fourth rotating shaft 117, a second transmission wheel 118 and the fifth spur gear 119; the main motor 101 is fixedly connected to the left sliding bracket 5; the first rotating shaft 102 is rotatably connected to the left sliding bracket 5; the output shaft of the main motor 101 is fixedly connected to the first rotating shaft 102; The transmission wheel 103, the first spur gear 104 and the second spur gear 105 are all fixedly connected to the first shaft 102; on the side of the first shaft 102, the fourth shaft 117 is rotatably connected to the right sliding bracket 6; the second transmission wheel 118 and the fifth spur gear 119 are fixedly connected to the fourth shaft 117; the first transmission wheel 103 is connected to the second transmission wheel 118 through a belt; The electric sliders 106 are respectively slidably connected with the left sliding bracket 5 and the right sliding bracket 6; the two sets of second shafts 107 are respectively connected with a corresponding set of electric sliders 106 for rotation; the two sets of third spur gears 108 are respectively connected with the phase A corresponding set of second rotating shafts 107 are fixedly connected; on the side of the third spur gear 108 , two sets of first telescopic arms 109 are respectively fixed to a corresponding set of second rotating shafts 107 ; two sets of splints 110 pass through the rotating shafts respectively Each is rotatably connected with a corresponding set of first telescopic arms 109; above the first rotating shaft 102, the third rotating shaft 111 is rotatably connected with the left sliding bracket 5; the fourth spur gear 112 and the second telescopic arm 113 are both connected with the first The three rotating shafts 111 are fixedly connected; the first spur gear 104 meshes with the fourth spur gear 112; on the side of the second telescopic arm 113, the third telescopic arm 114 is rotatably connected to the right sliding bracket 6 through the rotating shaft; the second telescopic arm 113 and the third telescopic arm 114 are connected with the tilt correction assembly 2; above the second telescopic arm 113, the two ends of the first sliding bracket 115 are respectively slidably connected with the left sliding bracket 5 and the right sliding bracket 6; two sets of traction One end of the spring 116 is respectively fixed to the left sliding bracket 5 and the right sliding bracket 6; the other end of each group of traction springs 116 is fixed to the first sliding bracket 115; The bracket 115 is fixed.

First, place the reinforcement piles between the two sets of splints 110, and pull up the first sliding bracket 115, so that the vibration parts of the two sets of vibration generating parts 7 are in contact with the top sides of the reinforcement piles, and the traction springs 116 are After stretching, the two sets of electric sliders 106 drive the connected components to move toward each other, so that the two sets of splints 110 form a complete set of annular fixing frames to clamp the middle support rod of the reinforcement pile, and make the two sets of third The spur gear 108 meshes with the second spur gear 105 and the fifth spur gear 119 respectively, and then the left sliding bracket 5 and the right sliding bracket 6 drive the lift transmission assembly 1 to move the reinforcement pile to the top of the pre-dug foundation pit on one side, and then The output shaft of the main motor 101 drives the first rotating shaft 102 to rotate, the first rotating shaft 102 drives the first transmission wheel 103, the first spur gear 104 and the second spur gear 105 to rotate at the same time, and the first transmission wheel 103 drives the second transmission wheel through the belt 118 drives the fourth rotating shaft 117 to rotate, the fourth rotating shaft 117 drives the fifth spur gear 119 to rotate, and at the same time the second spur gear 105 and the fifth spur gear 119 respectively mesh with the third spur gear 108 they are connected to drive the second rotating shaft 107 to rotate, The second rotating shaft 107 drives the first telescopic arm 109 and its connected splint 110 to rotate downward, so that the splint 110 places the reinforcement pile at the bottom of the foundation pit, and the first spur gear 104 meshes with the fourth spur gear 112 to drive the third rotating shaft 111 Rotating, the third rotating shaft 111 drives the second telescopic arm 113 to rotate downward, and at the same time, the second telescopic arm 113 drives the third telescopic arm 114 to rotate downward through the tilt correction component 2, so that the tilt correction component 2 follows the splint 110 to move downward and adjusts The four sides of the reinforcement pile exert supporting force, and at the same time, the traction spring 116 drives the first sliding bracket 115 and its connected parts to move downward, so that the vibration part of the vibration generating mechanism 7 is kept in contact with the top of the reinforcement pile. The electric slider 106 drives the connected components to reset and move, so that the splint 110 loosens the reinforcement piles; the assembly completes the placement of the reinforcement piles on the bottom of the foundation pit.

The tilt correction assembly 2 includes a second sliding bracket 201, an annular frame 202, a fifth rotating shaft 203, an auxiliary motor 204, a sixth spur gear 205, a first annular slider 206, a first gear ring 207, a first fixed frame 208, The second fixed frame 209 , the wedge-shaped push block 210 , the third sliding frame 211 , the support plate 212 , the cutting block 213 and the pressure-sensitive spring 214 ; the two sets of second sliding frames 201 slide with the left sliding frame 5 and the right sliding frame 6 respectively Each group of second sliding brackets 201 is fixedly connected to the ring frame 202; The frame 202 is rotationally connected; the auxiliary motor 204 is fixedly connected to one side of the ring frame 202; the output shaft of the auxiliary motor 204 is fixedly connected to the sixth spur gear 205; ; The first ring gear 207 is fixedly connected with the first annular slider 206; the sixth spur gear 205 is engaged with the first ring gear 207; 206 is fixed on one side; the first fixing frame 208 is connected with the base flushing assembly 3; the second fixing frame 209 is fixed on the other side of the first annular slider 206; the wedge-shaped push block 210 is connected with the second fixing frame 209 The four groups of third sliding brackets 211 are all slidably connected with the top of the ring frame 202; A corresponding group of third sliding brackets 211 are fixedly connected; both ends of the four groups of pressure-sensitive springs 214 are respectively fixedly connected to a corresponding group of cutting blocks 213 and the top end of the ring frame 202 .

First, the second telescopic arm 113 drives the annular frame 202 and its connected components to move downward through a set of fifth rotating shafts 203 , while the annular frame 202 drives the third telescopic arm 114 to rotate downward through another set of fifth rotating shafts 203 . The two sets of second sliding brackets 201 move down along the left sliding bracket 5 and the right sliding bracket 6 respectively, so that the tilt correction assembly 2 moves down with the splint 110, and at the same time, the four sets of support plates 212 are closely attached to the four sides of the reinforcement piles. Then, the output shaft of the auxiliary motor 204 drives the sixth spur gear 205 to reciprocate, and the sixth spur gear 205 meshes with the first gear ring 207 to drive the first annular slider 206 and its connected components along the annular frame 202 Perform reciprocating sliding, so that the first annular slider 206 drives the base flushing assembly 3 to reciprocate around the periphery of the reinforcement pile through the first fixing frame 208, and at the same time, the base flushing assembly 3 sequentially adjusts the contact surface between the reinforcement pile and the bottom of the foundation pit. The high-pressure water is sprayed on the four sides, so that the soil around the reinforcement pile is softened by punching, and then the reinforcement pile sinks downward under the support of its own gravity and the vibration force of the vibration generating mechanism 7. When the reinforcement pile moves and tilts, the reinforcement The pile pushes the support plate 212 on the opposite side to drive the third sliding bracket 211 and its connected cutout 213 to slide outward along the ring frame 202 , while the pressure-sensitive spring 214 connected to the set of cutouts 213 is stretched. Feedback to the console 8, then the first annular slider 206 drives the connected second fixed frame 209 and the wedge-shaped push block 210 to move through the set of third sliding supports 211, and at the same time the wedge-shaped push block 210 pushes the set of cutting blocks 213 Drive the third sliding bracket 211 and the support plate 212 to align the reinforcement pile to the other side, and at the same time the first annular slider 206 drives the first fixed frame 208 connected to it to move the base flushing assembly 3 to the other side of the reinforcement pile , and then the base flushing component 3 digs a through hole in the soil on the other side of the reinforced pile and extends into it, and the soil on the other side of the reinforced pile is further punched and softened, so that the surrounding area of the reinforced pile is softened. The soil is evenly processed to ensure that the reinforced pile sinks into the designated position in a balanced state; this component completes the state identification and correction of the reinforced pile.

The base flushing assembly 3 includes a third fixing frame 301, a limit rod 302, a screw rod 303, an electric push rod 304, a fourth sliding bracket 305, a bushing 306, a second gear ring 307, a sixth rotating shaft 308, a seventh The spur gear 309, the eighth spur gear 310 and the flushing unit 311; the third fixing frame 301 is fixed with the first fixing frame 208; the limit rod 302, the screw rod 303 and the electric push rod 304 are connected with the third fixing frame 301 in sequence The fourth sliding bracket 305 is slidably connected with the third fixing bracket 301; the electric push rod 304 is fixedly connected with the fourth sliding bracket 305; the fourth sliding bracket 305 is connected with the flushing unit 311; the limit rod 302 It is slidingly connected with the fourth sliding bracket 305; the bushing 306 is rotationally connected with the fourth sliding bracket 305; the bushing 306 is screwed with the screw rod 303; the second toothed ring 307 is fixed with the bushing 306; On the side of the gear ring 307, the sixth rotating shaft 308 is rotatably connected with the fourth sliding bracket 305; the sixth rotating shaft 308 is connected with the flushing unit 311; the seventh spur gear 309 and the eighth spur gear 310 are both connected with the sixth rotating shaft 308 Fixed connection; the seventh spur gear 309 meshes with the second gear ring 307 ; the eighth spur gear 310 is connected with the flushing unit 311 ; the flushing unit 311 is connected with the infusion tube 10 .

First, the first annular slider 206 drives the third fixing frame 301 and its connected components to reciprocate around the periphery of the reinforcement pile through the first fixing frame 208, and at the same time, the flushing unit 311 sequentially adjusts the contact surface between the reinforcement pile and the bottom of the foundation pit. The four sides are flushed with high-pressure water. When the reinforcement pile is inclined, the first annular slider 206 drives the first fixed frame 208 connected to it to move the base flushing assembly 3 to the other side of the reinforcement pile, and then the electric push rod 304 pushes the fourth sliding bracket 305 to drive its connected components to move down along the limit rod 302, and at the same time, the screw rod 303 drives the bushing 306 to rotate, the bushing 306 drives the second gear ring 307 to rotate, and the second gear ring 307 meshes with the second gear ring 307. The seventh spur gear 309 drives the sixth rotating shaft 308 to rotate, the sixth rotating shaft 308 drives the eighth spur gear 310 to rotate, and the eighth spur gear 310 drives the flushing unit 311 to dig a through hole in the soil during the downward movement. Reach into it for deeper punch softening; this assembly does the punch softening of the dirt.

The flushing unit 311 includes a fourth fixing frame 31101, a spray head 31102, a second annular slider 31103, a third toothed ring 31104 and an arc-shaped scraper 31105; the fourth fixing frame 31101 is fixedly connected with the fourth sliding bracket 305; The six rotating shafts 308 are rotatably connected with the fourth fixing frame 31101; the spray head 31102 is fixedly connected with the fourth fixing frame 31101; the spray head 31102 is connected with the infusion tube 10; the second annular slider 31103 is slidably connected with the fourth fixing frame 31101; The third ring gear 31104 is fixedly connected with the second annular slider 31103; the third ring gear 31104 meshes with the eighth spur gear 310; under the third ring gear 31104, two sets of arc scrapers 31105 are both connected with the second ring gear 31104. The slider 31103 is fixed.

First, the infusion pipe 10 inputs the showering high-pressure water into the sprinkler head 31102, and the sprinkler head 31102 performs stamping and softening work on the soil showering high-pressure water, and then the fourth sliding bracket 305 drives the fourth fixing frame 31101 and its connected components along the limit The rod 302 moves downward, and at the same time the eighth spur gear 310 meshes with the third gear ring 31104 to drive the second annular slider 31103 to rotate, and the second annular slider 31103 drives the two sets of arc scrapers 31105 to rotate, so that the rotating arc scrapers 31105 rotate. 31105 digs out a through hole in the soil below the nozzle 31102 to prevent the soil from blocking the nozzle 31102, and then the nozzle 31102 performs a deeper stamping and softening process on the soil.

One side of the clamping plate 110 is provided with a convex block, and the other side of the clamping plate 110 is provided with a slot corresponding to the convex block.

The two sets of splints 110 can be inserted into a set of complete annular fixing frames.

The water outlet of the nozzle 31102 is designed with a beveled surface.

The sprayed high-pressure water can be sprayed at an oblique angle.

The arc-shaped scraper 31105 is an inclined design with the bottom end converging toward the spray head 31102 .

The soil under the spray head 31102 can be clawed outwards.

Although the present disclosure has been shown and described with reference to specific exemplary embodiments of the present disclosure, those skilled in the art will appreciate that, without departing from the spirit and scope of the present disclosure as defined by the appended claims and their equivalents, Various changes in form and detail have been made in the present disclosure. Therefore, the scope of the present disclosure should not be limited to the above-described embodiments, but should be determined not only by the appended claims, but also by their equivalents.

Claims (5)

1. An immersed reinforced pile wetland installation device capable of correcting inclination, comprising a left sliding bracket (5), a right sliding bracket (6), a vibration generating mechanism (7), a console (8), and a high-pressure water flusher The part (9) and the infusion tube (10) are characterized in that: it also includes a lift transmission assembly (1), a tilt correction assembly (2), a base flushing assembly (3) and a support table (4); the lift transmission assembly ( 1) Connect with the tilt correction assembly (2); the lift transmission assembly (1) is connected with two sets of vibration generating parts (7); the lift transmission assembly (1) is connected with the left sliding bracket (5); the lift transmission assembly (1) is connected with the right sliding bracket (6); the tilt correction component (2) is connected with the base flushing component (3); the base flushing component (3) is connected with the infusion tube (10); the tilt correction component ( 2) is connected with the left sliding bracket (5); the tilt correction component (2) is connected with the right sliding bracket (6); the left sliding bracket (5) is connected with the support table (4); the right sliding bracket (6) is connected with The support table (4) is connected; the console (8) is connected with the support table (4); the high-pressure flushing mechanism (9) is connected with the support table (4); the infusion pipe (10) is connected with the high-pressure flushing mechanism (9) connected; The lift transmission assembly (1) includes a main motor (101), a first rotating shaft (102), a first transmission wheel (103), a first spur gear (104), a second spur gear (105), and an electric slider (106) ), the second shaft (107), the third spur gear (108), the first telescopic arm (109), the splint (110), the third shaft (111), the fourth spur gear (112), the second telescopic arm ( 113), the third telescopic arm (114), the first sliding bracket (115), the traction spring (116), the fourth rotating shaft (117), the second transmission wheel (118) and the fifth spur gear (119); the main motor (101) is fixedly connected with the left sliding bracket (5); the first rotating shaft (102) is rotatably connected with the left sliding support (5); the output shaft of the main motor (101) is fixedly connected with the first rotating shaft (102); The first transmission wheel (103), the first spur gear (104) and the second spur gear (105) are all fixedly connected to the first rotating shaft (102); on the side of the first rotating shaft (102), the fourth rotating shaft (117 ) is rotatably connected with the right sliding bracket (6); the second transmission wheel (118) and the fifth spur gear (119) are fixedly connected with the fourth rotating shaft (117); the first transmission wheel (103) is connected to the first transmission wheel (103) through a belt Two transmission wheels (118) are connected for transmission; on one side of the first rotating shaft (102) and the fourth rotating shaft (117), two sets of electric sliders (106) are respectively connected with the left sliding bracket (5) and the right sliding bracket (6). ) for sliding connection; two sets of second rotating shafts (107) are respectively connected with a corresponding set of electric sliders (106) for rotation; two sets of third spur gears (108) are respectively connected with a corresponding set of second rotating shafts ( 107) to be fixed; on the side of the third spur gear (108), two sets of first telescopic arms (109) are respectively fixed to a corresponding set of second rotating shafts (107); the two sets of splints (110) are respectively Each of the rotating shafts is rotatably connected with a corresponding set of first telescopic arms (109); above the first rotating shaft (102), the third rotating shaft (111) is rotatably connected with the left sliding bracket (5); the fourth spur gear (112) and the second telescopic arm (113) are fixedly connected to the third shaft (111); the first spur gear (104) meshes with the fourth spur gear (112); side, the third telescopic arm (114) is rotatably connected with the right sliding bracket (6) through the rotating shaft; the second telescopic arm (113) and the third telescopic arm (114) are both connected with the tilt correction assembly (2); Above the two telescopic arms (113), the two ends of the first sliding bracket (115) are respectively slidably connected with the left sliding bracket (5) and the right sliding bracket (6); one end of the two sets of traction springs (116) are respectively slidable with the left sliding bracket (5) and the right sliding bracket (6). The bracket (5) and the right sliding bracket (6) are fixedly connected; the other end of each group of traction springs (116) is fixedly connected to the first sliding bracket (115); A sliding bracket (115) is fixed; The tilt correction assembly (2) includes a second sliding bracket (201), an annular frame (202), a fifth rotating shaft (203), an auxiliary motor (204), a sixth spur gear (205), and a first annular slider (206) ), the first gear ring (207), the first fixing frame (208), the second fixing frame (209), the wedge-shaped push block (210), the third sliding bracket (211), the support plate (212), the cutting block ( 213) and a pressure-sensitive spring (214); two sets of second sliding brackets (201) are respectively slidably connected with the left sliding bracket (5) and the right sliding bracket (6); The frame (202) is fixedly connected; the two sets of fifth rotating shafts (203) are respectively connected with the second telescopic arm (113) and the third telescopic arm (114) by transmission; each set of fifth rotating shafts (203) is connected to the ring frame ( 202) for rotational connection; the auxiliary motor (204) is fixedly connected to one side of the ring frame (202); the output shaft of the auxiliary motor (204) is fixedly connected to the sixth spur gear (205); the first annular slider (206) ) is slidably connected to one side of the ring frame (202); the first gear ring (207) is fixedly connected with the first ring slider (206); the sixth spur gear (205) meshes with the first gear ring (207) ; Below the first toothed ring (207), the first fixing frame (208) is fixedly connected with one side of the first annular slider (206); the first fixing frame (208) is connected with the base flushing assembly (3) ; the second fixing frame (209) is fixed with the other side of the first annular slider (206); the wedge-shaped push block (210) is fixed with the second fixing frame (209); four groups of third sliding brackets (211) ) are slidably connected with the top end of the ring frame (202); the four groups of support plates (212) are respectively fixed with a corresponding group of third sliding brackets (211); the four groups of cutting blocks (213) are respectively A group of third sliding brackets (211) are fixedly connected; both ends of the four groups of pressure-sensitive springs (214) are respectively fixedly connected to a corresponding group of cutting blocks (213) and the top ends of the ring frame (202); The base flushing assembly (3) includes a third fixing frame (301), a limit rod (302), a screw rod (303), an electric push rod (304), a fourth sliding bracket (305), and a bushing (306) , the second gear ring (307), the sixth rotating shaft (308), the seventh spur gear (309), the eighth spur gear (310) and the flushing unit (311); the third fixing frame (301) is fixed to the first The frame (208) is fixed; the limit rod (302), the screw rod (303) and the electric push rod (304) are fixed with the third fixing frame (301) in turn; the fourth sliding frame (305) is connected with the third The fixing frame (301) is slidably connected; the electric push rod (304) is fixedly connected with the fourth sliding bracket (305); the fourth sliding bracket (305) is connected with the flushing unit (311); the limit rod (302) The fourth sliding bracket (305) is slidably connected; the bushing (306) is rotatably connected with the fourth sliding bracket (305); the bushing (306) is screwed with the screw (303); the second toothed ring (307) ) is fixedly connected with the bushing (306); on the side of the second gear ring (307), the sixth rotating shaft (308) is rotatably connected with the fourth sliding bracket (305); the sixth rotating shaft (308) is connected with the flushing unit (311) are connected; the seventh spur gear (309) and the eighth spur gear (310) are fixedly connected with the sixth shaft (308); the seventh spur gear (309) is meshed with the second ring gear (307) ; The eighth spur gear (310) is connected with the flushing unit (311); the flushing unit (311) is connected with the infusion pipe (10). 2 . The wet installation device for submerged reinforcement piles capable of correcting inclination according to claim 1 , wherein the flushing unit ( 311 ) comprises a fourth fixing frame ( 31101 ), a spray head ( 31102 ), a second fixing frame ( 31101 ), a second The annular slider (31103), the third toothed ring (31104) and the arc scraper (31105); the fourth fixed frame (31101) is fixed with the fourth sliding bracket (305); the sixth shaft (308) is connected with the fourth The four fixing frames (31101) are connected in rotation; the spray head (31102) is fixedly connected with the fourth fixing frame (31101); the spray head (31102) is connected with the infusion tube (10); the second annular slider (31103) is connected with the fourth fixing frame (31101). The fixed frame (31101) is slidably connected; the third toothed ring (31104) is fixedly connected with the second annular slider (31103); the third toothed ring (31104) is engaged with the eighth spur gear (310); Below the toothed ring (31104), two sets of arc-shaped scrapers (31105) are fixedly connected with the second annular slider (31103). 3. The wet installation device for immersed reinforcement piles capable of correcting inclination according to claim 1, characterized in that: one side of the splint (110) is provided with a convex block, and the other side of the splint (110) is provided with a convex block The corresponding slot of the block. 4 . The wet installation device for immersed reinforcement piles that can correct the inclination according to claim 1 , wherein the water outlet of the spray head ( 31102 ) is designed with a chamfered surface. 5 . 5. The wet installation device for immersed reinforcement piles capable of correcting inclination according to claim 1, characterized in that: the arc-shaped scraper (31105) is an inclined design with the bottom end folded toward the spray head (31102).

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