Concrete pier pouring and vibrating device

Abstract

The application provides a concrete pier pouring and vibrating device, and belongs to the technical field of pier construction. The concrete pier pouring and vibrating device is installed on the top of a pier steel membrane. The concrete pier pouring and vibrating device comprises a mounting plate, a rotary support, a rotating plate, a first lifting mechanism, a first lifting plate, a second lifting mechanism, a second lifting plate, a sliding groove, a sliding block, a connecting rod and a vibrating rod. The sliding groove is arranged in the first lifting plate, the sliding block is embedded in the sliding groove, and the vibrating rod is installed on the sliding block. The sliding block can move in the sliding groove, so that the position of the vibrating rod is adjusted, and the rotating diameter of the vibrating rod is adjusted, so that the vibrating range of the vibrating rod is increased. The rotating plate drives the first lifting mechanism to rotate, and the first lifting mechanism is connected with the first lifting plate, so that the vibrating rod is driven to rotate, and the vibrating rod can vibrate at different positions, so that the vibrating range of the vibrating rod is further increased.

Description

Technical Field

[0001] This invention belongs to the field of pier construction technology, specifically relating to a concrete pier pouring vibration device. Background Technology

[0002] In related technologies, when pouring concrete for pier columns, in order to avoid air bubbles in the concrete and improve the pouring effect, it is necessary to vibrate the concrete with a vibrator.

[0003] Existing technology (authorization announcement number: CN218596941U) discloses a large-diameter pier column vibration device, belonging to the field of engineering construction. It includes a template body, a fixing mechanism set on the outside of the template body, a support plate rotatably connected to the outside of the fixing mechanism, a support platform fixedly connected to the top of the support plate, and a telescopic mechanism fixedly connected inside the support platform. This application has a novel design and ingenious structure. The large-diameter pier column vibration device, by setting up a support plate, a support platform, a telescopic mechanism, a push rod motor, a connecting rod, a stabilizing rod, a vibrating rod, a vibrating pipe, and a vibration device body, can better limit the movement of the vibrating rod. This avoids the situation in most large-diameter pier column vibration devices where the vibrating rod cannot be limited during vibration, resulting in the vibrating rod's direction being unstable and easily vibrating the template, causing the template to loosen. This brings convenience to the use of the large-diameter pier column vibration device.

[0004] In this prior art, since the position of the vibrator cannot be adjusted, the vibrator can only vibrate at a single position, thereby reducing the vibration range of the vibrator. Summary of the Invention

[0005] To address the problem in existing technologies where the position of the vibrator cannot be adjusted, limiting its vibration range to a single location, this invention provides a concrete pier pouring vibration device. This device employs a chute positioned within a first lifting plate, with a slider embedded within the chute. The vibrator is then mounted on the slider, allowing the slider to move within it. This movement enables adjustment of the vibrator's position and, consequently, its rotation diameter, thereby increasing the vibration range. The specific technical solution is as follows:

[0006] A concrete pier column pouring vibration device is installed on top of a pier column steel formwork. The device includes: a mounting plate, a slewing bearing, a rotating plate, a first lifting mechanism, a first lifting plate, a second lifting mechanism, a second lifting plate, chute, slider, connecting rods, and vibrating rods. The mounting plate is fastened to the top of the pier column steel formwork. The slewing bearing is installed on top of the mounting plate. The rotating plate is installed on top of the slewing bearing. The first lifting mechanism is installed on the rotating plate. The first lifting plate is located inside the pier column steel formwork and is connected to the first lifting mechanism. The second lifting mechanism is installed on the first lifting plate and is located above the first lifting plate, connected to the second lifting mechanism. Two chutes are respectively disposed within the first lifting plate and located on both sides of the second lifting mechanism. Two sliders are respectively embedded in the two chutes. One end of at least two connecting rods is rotatably connected to both ends of the second lifting plate, and the other end of at least two connecting rods is rotatably connected to the top of the two sliders. Two vibrating rods are respectively installed on the two sliders.

[0007] In addition, the concrete pier column pouring vibration device in the above-mentioned technical solution provided by the present invention may also have the following additional technical features:

[0008] In the above technical solution, the concrete pier column pouring vibration device further includes: a first guide rod, a first reel, cables, and a first motor; at least part of the first guide rod is located in the chute, both ends of the first guide rod are connected to the first lifting plate, and the first guide rod passes through the slider; two first reels are installed on the rotating plate, and the two first reels are respectively located above the two sliders; one end of the two cables is electrically connected to the two vibrating rods, the two cables pass through the mounting plate, the slewing bearing, and the rotating plate in sequence, the two cables are respectively wound around the outside of the two first reels, and the other end of the two cables is respectively electrically connected to two power sources; two first motors are installed on the rotating plate, and the two first motors are respectively connected to the two first reels.

[0009] In the above technical solution, the first lifting mechanism includes: a second spool, a first wire rope, a first synchronous shaft, a second motor, a third spool, a second wire rope, a second synchronous shaft, and a third motor; two second spools are mounted on a rotating plate, arranged opposite to each other, and located on one side of two first spools; one end of the first wire rope is connected to the second spool, the first wire rope is wound around the outside of the second spool, and the first wire rope passes sequentially through the rotating plate, the slewing bearing, and the mounting plate, and both first wire ropes are simultaneously connected to the first lifting plate; both ends of the first synchronous shaft are respectively connected to the two second spools. The first and second drums are connected; the second motor is mounted on the rotating plate and connected to the second drum; two third drums are mounted on the rotating plate, arranged opposite each other, and located on the other side of the two first drums; one end of the second wire rope is connected to the third drum, the second wire rope is wound around the outside of the third drum, and the second wire rope passes through the rotating plate, the slewing bearing and the mounting plate in sequence, and the two second wire ropes are simultaneously connected to the first lifting plate; both ends of the second synchronous shaft are connected to the two third drums respectively; the third motor is mounted on the rotating plate and connected to the third drum.

[0010] In the above technical solution, the second lifting mechanism includes: a first support frame, a second support frame, a first threaded hole, a fourth motor, a first lead screw, and a first guide rod; the first support frame is mounted on the first lifting plate and is arranged around the outside of the second lifting plate; the second support frame is mounted on the first lifting plate and is located inside the first support frame; the first threaded hole is provided with a first internal thread and is located inside the second lifting plate; the fourth motor is mounted on the first support frame; the outer wall of the first lead screw has a first external thread, one end of the first lead screw is connected to the fourth motor, the other end of the first lead screw is rotatably connected to the second support frame, and the first lead screw passes through the first threaded hole; one end of the first guide rod is connected to the second support frame, the other end of the first guide rod is connected to the first support frame, and the first guide rod passes through the second lifting plate; wherein, the first external thread and the first internal thread are adapted to each other.

[0011] In the above technical solution, the concrete pier column pouring vibration device further includes: a symmetrical adjustment mechanism, a first adjustment plate, a first adjustment rod, a first limiting plate, a first support roller assembly, a first moving mechanism, a first moving plate, a first moving rod, a second limiting plate, a second support roller assembly, a second moving mechanism, a second moving plate, a second moving rod, a third limiting plate, and a third support roller assembly; the symmetrical adjustment mechanism is installed on the first lifting plate, and the symmetrical adjustment mechanism passes through the first support frame and the second support frame in sequence; two first adjustment plates are simultaneously connected to the symmetrical adjustment mechanism, and the two first adjustment plates are symmetrically arranged; one end of each of the four first adjustment rods is connected to the two first adjustment plates, and the other end of each of the four first adjustment rods extends away from the direction of the first support frame; two first limiting plates are connected to the other ends of the four first adjustment rods; at least two first support roller assemblies are installed on the first limiting plate; two first... The moving mechanism is installed on the first lifting plate, and two first moving mechanisms are located on both sides of a slide groove; two first moving plates are respectively connected to the two first moving mechanisms; one end of four first moving rods is respectively connected to the two first moving plates, and the other end of the four first moving rods extends away from the direction of the first support frame; two second limiting plates are respectively connected to the other end of the four first moving rods; a second support roller assembly is installed on the second limiting plate; two second moving mechanisms are installed on the second lifting plate, and two second moving mechanisms are located on both sides of another slide groove; two second moving plates are respectively connected to the two second moving mechanisms; one end of four second moving rods is respectively connected to the two second moving plates, and the other end of the four second moving rods extends away from the direction of the second support frame; two third limiting plates are respectively connected to the other end of the four second moving rods; a third support roller assembly is installed on the third limiting plate.

[0012] In the above technical solution, the symmetrical adjustment mechanism includes: a first support plate, a second threaded hole, a second lead screw, and a second guide rod; two first support plates are mounted on a first lifting plate, with a gap between them, and the two first support plates are located on both sides of a first support frame; two second threaded holes are respectively provided with second internal threads in opposite directions, and the two second threaded holes are respectively located in two first adjustment plates; the outer wall of the second lead screw is symmetrically provided with second external threads in opposite directions, and the two ends of the second lead screw are respectively rotatably connected to the two first support plates, the second lead screw passes through the two second threaded holes in sequence, and the second lead screw passes through the first support frame and the second support frame in sequence; the two ends of the second guide rod are respectively connected to the two first support plates, and the second guide rod passes through the two first adjustment plates in sequence; wherein, the second internal thread and the second external thread are adapted to each other.

[0013] In the above technical solution, the first moving mechanism includes: a second support plate, a third threaded hole, a third lead screw, and a third guide rod; two second support plates are mounted on a first lifting plate, and there is a gap between the two second support plates; a third internal thread is provided in the third threaded hole, and the third threaded hole is located in the first moving plate; the two ends of the third lead screw are respectively rotatably connected to the two second support plates, and the third lead screw passes through the third threaded hole; the two ends of the third guide rod are respectively connected to the two second support plates, and the third guide rod passes through the first moving plate; wherein, the third internal thread and the third external thread are adapted to each other.

[0014] In the above technical solution, the second moving mechanism includes: a third support plate, a fourth threaded hole, a fourth lead screw, and a fourth guide rod; two third support plates are mounted on the first lifting plate, and there is a gap between the two third support plates; a fourth internal thread is provided in the fourth threaded hole, and the fourth threaded hole is located in the second moving plate; the two ends of the fourth lead screw are respectively rotatably connected to the two third support plates, and the fourth lead screw passes through the fourth threaded hole; the two ends of the fourth guide rod are respectively connected to the two third support plates, and the fourth guide rod passes through the first moving plate; wherein, the fourth internal thread and the fourth external thread are adapted to each other.

[0015] In the above technical solution, the concrete pier column pouring vibration device further includes: a fixed frame, clamping plates, first springs, clamping seats, clamping wheels, guide rods, limiting plates, pull rods, and handles; the fixed frame is L-shaped, with two fixed frames installed at the bottom of the first lifting plate and arranged opposite to each other; two clamping plates are located between the two fixed frames; at least two first springs have one end connected to the fixed frame, and at least two first springs have the other end connected to the clamping plate; the clamping seat is provided with a clamping groove, and the two clamping seats are respectively clamped to two clamping plates. The plates are connected, and the two clamping seats are arranged opposite each other; the clamping wheel is embedded in the clamping groove of the clamping seat, and the clamping wheel is rotatably connected to the clamping seat; one end of at least two guide rods is connected to the fixed frame, and the other end of at least two guide rods passes through at least two first springs and clamping plates in sequence; at least two limiting plates are connected to the other end of at least two guide rods, and at least two limiting plates are in contact with the clamping plate; one end of the pull rod is connected to the clamping plate, and the other end of the pull rod passes through the fixed frame; the handle is connected to the other end of the pull rod.

[0016] In the above technical solution, the concrete pier column pouring vibration device also includes: positioning frame, electric push rod and positioning plate; the positioning frame is L-shaped, and the four positioning frames are respectively connected to the four side walls of the mounting plate; the four electric push rods are respectively installed on the four positioning frames; the four positioning plates are respectively connected to the four electric push rods, and the four positioning plates are simultaneously in contact with the outer wall of the pier column steel formwork.

[0017] The concrete pier column pouring vibration device of the present invention has the following advantages compared with the prior art:

[0018] 1. By setting a chute within the first lifting plate, embedding a slider within the chute, and mounting a vibrator on the slider, the slider can move within the slider, thereby adjusting the position of the vibrator and thus adjusting the rotation diameter of the vibrator to increase its vibration range. By rotating a plate to drive the first lifting plate mechanism to rotate, and connecting the first lifting mechanism to the first lifting plate, the vibrator can be driven to rotate, allowing the vibrator to vibrate at different positions, further increasing its vibration range.

[0019] 2. By electrically connecting one end of the cable to the vibrator and winding the cable around the outside of the first spool, and electrically connecting the other end of the cable to the power source, the power source supplies power to the vibrator through the cable, thereby rotating the first spool to wind up and unwind the cable, thus adapting the cable to the height of the vibrator and improving the user experience; by mounting the first motor on the rotating plate and connecting the first motor to the first spool, the first motor can drive the first spool to rotate, thereby providing power for rotating the first spool.

[0020] 3. By using two first steel wire ropes and two second steel wire ropes to move the first lifting plate up and down, four-point hoisting of the first lifting plate can be achieved, thereby improving the stability of the up and down movement of the first lifting plate and improving the vibration effect of the product.

[0021] 4. By connecting one end of the first lead screw to the fourth motor and rotatably connecting the other end of the first lead screw to the second support frame, the fourth motor and the second support frame cooperate to support the first lead screw, thereby enabling the fourth motor to drive the first lead screw to rotate; by setting the first threaded hole in the second lifting plate and passing the first lead screw through the first threaded hole, the first lead screw is threadedly connected to the second lifting plate, thereby enabling the first lead screw to rotate and drive the second lifting plate to move up and down.

[0022] 5. Activate the symmetrical adjustment mechanism, causing it to move the two first adjustment plates in opposite directions. This, in turn, causes the first adjustment plates to move the first limiting plate via the two first adjustment rods, thereby bringing the first limiting plate and the first support roller assembly into contact with the inner wall of the pier steel formwork. Then, simultaneously activate the first and second moving mechanisms, causing them to move the first and second moving plates respectively. This, in turn, moves the second and third limiting plates, bringing the second and third support roller assemblies into contact with the inner wall of the column steel formwork. This mechanism allows for the positioning of the first lifting plate, ensuring that its center coincides with the centerline of the pier steel mold, thereby improving the accuracy of the first lifting plate's position. Furthermore, it prevents the vibrator from shifting during concrete compaction, improving the compaction effect. Additionally, when the first lifting mechanism moves the first lifting plate up and down or the rotating plate rotates the first lifting plate, the first, second, and third support roller assemblies can move along the inner wall of the pier steel mold, enhancing the stability of the first lifting plate's movement.

[0023] 6. By setting two second threaded holes in the two first adjusting plates respectively, and setting the two second threaded holes with second internal threads in opposite directions, and passing the second lead screw through the two second threaded holes in sequence, the second lead screw is simultaneously threadedly connected to the two first adjusting plates, thereby rotating the second lead screw and causing the two first adjusting plates to move in opposite or opposite directions, thereby adjusting the distance between the two first adjusting plates.

[0024] 7. By setting the third threaded hole inside the first moving plate and passing the third lead screw through the third threaded hole, the third lead screw is threadedly connected to the first moving plate, thereby rotating the third lead screw to drive the first moving plate to move, and thus adjusting the position of the first moving plate.

[0025] 8. By setting the fourth threaded hole inside the second movable plate and passing the fourth lead screw through the fourth threaded hole, the fourth lead screw is threadedly connected to the second movable plate, thereby rotating the fourth lead screw to drive the second movable plate to move, and thus adjusting the position of the second movable plate.

[0026] 9. When preparing to clamp the feed pump pipe, pass the feed pump pipe between the two clamping wheels, so that the feed pump pipe will press the clamping seat and clamping plate towards the fixed frame. At this time, the first spring is in a compressed state, thereby using the elastic force of the first spring to clamp the feed pump pipe, so as to improve the stability of the feed pump pipe.

[0027] 10. By connecting four positioning plates to four electric push rods respectively, and making the four positioning plates simultaneously fit against the outer wall of the pier steel formwork, the electric push rods can drive the positioning plates to move, thereby achieving simultaneous fitment of the four positioning plates against the outer wall of the pier steel formwork. This not only positions the mounting plate so that its centerline coincides with the centerline of the pier steel formwork, but also prevents the mounting plate from shifting, thus improving the stability of the product. Attached Figure Description

[0028] Figure 1 This is a top view of a concrete pier column pouring vibration device according to the present invention;

[0029] Figure 2 This is a cross-sectional view of a concrete pier column pouring vibration device according to the present invention;

[0030] Figure 3 for Figure 2 A magnified view of part A;

[0031] Figure 4 for Figure 2 A magnified view of section B;

[0032] Figure 5 for Figure 2 A magnified view of a portion at point C;

[0033] Figure 6 for Figure 2 Sectional view at DD;

[0034] Figure 7 for Figure 6 A magnified view of a portion at point E;

[0035] Figure 8 for Figure 6 A magnified view of a portion at point F;

[0036] Figure 9 for Figure 6 A magnified view of a portion of point G;

[0037] in, Figures 1 to 9 The correspondence between the reference numerals and component names in the attached drawings is as follows:

[0038] 10. Pier column steel formwork; 11. Mounting plate; 12. Slewing bearing; 13. Rotating plate; 14. First lifting mechanism; 141. Second reel; 142. First wire rope; 143. First synchronous shaft; 144. Second motor; 145. Third reel; 146. Second wire rope; 147. Second synchronous shaft; 148. Third motor; 15. First lifting plate; 16. Second lifting mechanism; 161. First support frame; 162. Second support frame; 163. Fourth motor; 164. First lead screw; 165. First guide rod; 17. Second lifting plate; 18. Slide groove; 19. Sliding block; 20. Connecting rod; 21. Vibrating rod; 22. First guide rod; 23. First reel; 24. Cable; 25. First motor; 26. Symmetrical adjustment mechanism; 261. First support plate; 262. Second lead screw; 263. First... 27 First adjusting plate, 28 First adjusting rod, 29 First limiting plate, 30 First support roller assembly, 31 First moving mechanism, 311 Second support plate, 312 Third lead screw, 313 Third optical bar, 32 First moving plate, 33 First moving rod, 34 Second limiting plate, 35 Second support roller assembly, 36 Second moving mechanism, 361 Third support plate, 362 Fourth lead screw, 363 Fourth optical bar, 37 Second moving plate, 38 Second moving rod, 39 Third limiting plate, 40 Third support roller assembly, 41 Fixed frame, 42 Clamping plate, 43 First spring, 44 Clamping seat, 45 Clamping wheel, 46 Second guide rod, 47 Fourth limiting plate, 48 Pull rod, 49 Handle, 50 Positioning frame, 51 Electric push rod, 52 Positioning plate. Detailed Implementation

[0039] The following are specific implementation cases and appendices. Figures 1 to 9 The present invention will be further described, but the present invention is not limited to these embodiments.

[0040] A vibratory compaction device for concrete pier pouring, such as Figures 1 to 9As shown, the concrete pier column pouring vibration device is installed on top of the pier column steel formwork 10. The concrete pier column pouring vibration device includes: a mounting plate 11, a slewing bearing 12, a rotating plate 13, a first lifting mechanism 14, a first lifting plate 15, a second lifting mechanism 16, a second lifting plate 17, a slide 18, a slider 19, a connecting rod 20, and a vibrating rod 21; the mounting plate 11 is fastened to the top of the pier column steel formwork 10; the slewing bearing 12 is installed on top of the mounting plate 11; the rotating plate 13 is installed on top of the slewing bearing 12; the first lifting mechanism 14 is installed on the rotating plate 13; the first lifting plate 15 is located inside the pier column steel formwork 10, and the first lifting plate 15... The first lifting mechanism 14 is connected to the second lifting mechanism 16, which is mounted on the first lifting plate 15. The second lifting plate 17 is located above the first lifting plate 15 and is connected to the second lifting mechanism 16. Two sliding grooves 18 are respectively disposed in the first lifting plate 15 and are located on both sides of the second lifting mechanism 16. Two sliders 19 are respectively embedded in the two sliding grooves 18. One end of at least two connecting rods 20 is rotatably connected to both ends of the second lifting plate 17, and the other end of at least two connecting rods 20 is rotatably connected to the top of the two sliders 19. Two vibrating rods 21 are respectively mounted on the two sliders 19.

[0041] By fastening the mounting plate 11 to the top of the pier steel formwork 10, the pier steel formwork 10 supports the mounting plate 11, thereby improving the stability of the mounting plate 11. By installing the slewing bearing 12 at the bottom of the mounting plate 11 and installing the rotating plate 13 at the top of the slewing bearing 12, the mounting plate 11 is supported by the slewing bearing 12, thereby enabling the rotating plate 13 to rotate relative to the mounting plate 11. By installing the first lifting mechanism 14 on the rotating plate 13, placing the first lifting plate 15 inside the pier steel formwork 10, and connecting the first lifting mechanism 14 to the first lifting plate 15, the rotating plate 13 can support the first lifting mechanism 14. Simultaneously, the rotating plate 13 can drive the first lifting mechanism 14 to rotate, thereby enabling the first lifting mechanism 14 to move the first lifting plate 15 up and down within the pier steel formwork 10, thus adjusting the height of the first lifting plate 15. Similarly, by installing the second lifting mechanism 16 on the first lifting plate 15, placing the second lifting plate 17 above the first lifting plate 15, and connecting the second lifting plate 17 to the second lifting mechanism 16, the first lifting plate 15 supports the second lifting mechanism 16, thereby enabling the second lifting mechanism 16 to move the second lifting plate 17 up and down, thus adjusting the distance between the second lifting plate 17 and the first lifting plate 15. By setting two sliding grooves 18 respectively within the first lifting plate 15, placing the two sliding grooves 18 on both sides of the second lifting mechanism 16, and embedding two sliders 19 into the two sliding grooves 18 respectively, the sliders 19 can move within the sliding grooves 18, thereby adjusting the distance between the sliders 19 and the second lifting mechanism 16. By rotatably connecting one end of at least two connecting rods 20 to both ends of the second lifting plate 17, and rotatably connecting the other end of at least two connecting rods 20 to the top of the two sliders 19 respectively, when the second lifting mechanism 16 drives the second lifting plate 17 to move up and down, the second lifting plate 17 drives the sliders 19 to move within the sliding grooves 18 via the connecting rods 20, thereby adjusting the distance between the sliders 19 and the second lifting mechanism 16. By installing two vibrating rods 21 on the two sliders 19 respectively, the sliders 19 can drive the vibrating rods 21 to move, thereby adjusting the position of the vibrating rods 21, and thus enabling the vibrating rods 21 to vibrate at different locations, thereby improving the effect of concrete vibration.

[0042] In practical use, first, the pump pipe passes through the first lifting plate 15 and connects it to the first lifting plate 15; then, the first lifting mechanism 14 is activated, causing it to move the first lifting plate 15 and the pump pipe downwards; next, the pump truck is activated, allowing it to inject concrete into the pier steel formwork 10 through the pump pipe; when the concrete has reached the predetermined height, the vibrator 21 is activated to vibrate the concrete; when the vibrator 21 has completed vibrating a certain part of the concrete, the rotating plate 13 is rotated, causing it to rotate the first lifting plate 15 and the first lifting plate 15, thus allowing the vibrator 21 to vibrate different parts. The first layer of concrete is vibrated. Then, the second lifting mechanism 16 is activated, which moves the second lifting plate 17 downward. This causes the second lifting plate 17 to move the slider 19 and the vibrator 21 within the groove 18 via the connecting rod 20, thereby adjusting the rotation radius of the vibrator 21 and further increasing its vibration range. After the first layer of concrete is vibrated, the first lifting mechanism 14 is activated, which moves the first lifting plate 15 and the pump pipe upward. This allows the pump pipe to inject material at different heights of the pier steel formwork 10, while the vibrator 21 vibrates the concrete at different heights.

[0043] With the above structure, by setting the slide groove 18 inside the first lifting plate 15, embedding the slider 19 inside the slide groove 18, and mounting the vibrating rod 21 on the slider 19, the slider 19 can move within the slider 19, thereby adjusting the position of the vibrating rod 21 and thus adjusting the rotation diameter of the vibrating rod 21 to increase the vibration range of the vibrating rod 21. By rotating the rotating plate 13 to drive the first lifting plate 15 mechanism to rotate, and connecting the first lifting mechanism 14 to the first lifting plate 15, the vibrating rod 21 can be driven to rotate, thereby enabling the vibrating rod 21 to vibrate at different positions, further increasing the vibration range of the vibrating rod 21.

[0044] In embodiments of the present invention, such as Figures 1 to 9As shown, the concrete pier column pouring vibration device also includes: a first guide rod 22, a first reel 23, a cable 24, and a first motor 25; at least part of the first guide rod 22 is located in the slide groove 18, both ends of the first guide rod 22 are connected to the first lifting plate 15, and the first guide rod 22 passes through the slider 19; two first reels 23 are installed on the rotating plate 13, and the two first reels 23 are respectively located above the two sliders 19; one end of the two cables 24 is electrically connected to the two vibrating rods 21, and the two cables 24 pass through the mounting plate 11, the slewing bearing 12, and the rotating plate 13 in sequence, and the two cables 24 are respectively wound around the outside of the two first reels 23, and the other end of the two cables 24 are respectively electrically connected to two power sources; two first motors 25 are installed on the rotating plate 13, and the two first motors 25 are respectively connected to the two first reels 23.

[0045] By placing at least a portion of the first guide rod 22 within the slide groove 18, connecting both ends of the first guide rod 22 to the first lifting plate 15, and allowing the first guide rod 22 to pass through the slider 19, the first lifting plate 15 supports the first guide rod 22, thereby enabling the slider 19 to slide along the first guide rod 22 and improving the stability of the slider 19's movement. By mounting the first spool 23 on the rotating plate 13, the rotating plate 13 supports the first spool 23. One end of the cable 24 is electrically connected to the vibrator 21, and the cable 24 is wound around the outside of the first spool 23. The other end of the cable 24 is electrically connected to the power source, so that the power source supplies power to the vibrator 21 through the cable 24. This allows the first spool 23 to rotate, enabling it to take in and unwind the cable 24, thus adapting the cable 24 to the height of the vibrator 21 and improving the user experience. By mounting the first motor 25 on the rotating plate 13 and connecting the first motor 25 to the first spool 23, the first motor 25 can drive the first spool 23 to rotate, thereby providing power for rotating the first spool 23.

[0046] In embodiments of the present invention, such as Figures 1 to 9As shown, the first lifting mechanism 14 includes: a second spool 141, a first wire rope 142, a first synchronous shaft 143, a second motor 144, a third spool 145, a second wire rope 146, a second synchronous shaft 147, and a third motor 148; two second spools 141 are mounted on the rotating plate 13, the two second spools 141 are arranged opposite each other, and the two second spools 141 are located on one side of the two first spools 23; one end of the first wire rope 142 is connected to the second spool 141, the first wire rope 142 is wound around the outside of the second spool 141, the first wire rope 142 passes through the rotating plate 13, the slewing bearing 12, and the mounting plate 11 in sequence, and both first wire ropes 142 are simultaneously connected to the first lifting plate 15; both ends of the first synchronous shaft 143 are respectively connected to the two second spools 141. The first two first coils 141 are connected to the second coil 145. The second motor 144 is mounted on the rotating plate 13 and connected to the second coil 141. Two third coils 145 are mounted on the rotating plate 13, facing each other, and located on the other side of the two first coils 23. One end of the second wire rope 146 is connected to the third coil 145, and the second wire rope 146 is wound around the outside of the third coil 145. The second wire rope 146 passes sequentially through the rotating plate 13, the slewing bearing 12, and the mounting plate 11, and both second wire ropes 146 are simultaneously connected to the first lifting plate 15. Both ends of the second synchronous shaft 147 are connected to the two third coils 145 respectively. The third motor 148 is mounted on the rotating plate 13 and connected to the third coil 145.

[0047] By connecting one end of the first wire rope 142 to the second spool 141, the first wire rope 142 is wound around the groove of the second spool 141. Both first wire ropes 142 are simultaneously connected to the first lifting plate 15, so that the second spool 141 can drive the first wire rope 142 to take in or unwind the wire, thereby enabling the first lifting plate 15 to move up and down through the two first wire ropes 142. By connecting both ends of the first synchronous shaft 143 to the two second spools 141 respectively, and connecting the second motor 144 to one of the second spools 141, when the second motor 144 drives one of the second spools 141 to rotate, that second spool 141 drives the other second spool 141 to rotate through the first synchronous shaft 143, thereby enabling the two second spools 141 to rotate synchronously, and thus enabling the two first wire ropes 142 to simultaneously drive the first lifting plate 15 to move up and down. By connecting one end of the second wire rope 146 to the third spool 145, the second wire rope 146 is wound around the groove of the third spool 145. Both second wire ropes 146 are simultaneously connected to the first lifting plate 15, enabling the third spool 145 to drive the second wire rope 146 to take in or release the wire, thus allowing the first lifting plate 15 to move up and down via the two second wire ropes 146. Similarly, by connecting both ends of the second synchronous shaft 147 to the two third spools 145 respectively, and connecting the third motor 148 to one of the third spools 145, when the third motor 148 drives one third spool 145 to rotate, that third spool 145 drives the other third spool 145 to rotate via the second synchronous shaft 147, thus achieving synchronous rotation of the two third spools 145, and consequently, enabling the two second wire ropes 146 to simultaneously drive the first lifting plate 15 to move up and down.

[0048] By adopting the above structure, the first lifting plate 15 is moved up and down by the two first steel wire ropes 142 and the two second steel wire ropes 146, so as to realize the four-point hoisting of the first lifting plate 15, thereby improving the stability of the up and down movement of the first lifting plate 15 and improving the vibration effect of the product.

[0049] In embodiments of the present invention, such as Figures 1 to 9As shown, the second lifting mechanism 16 includes: a first support frame 161, a second support frame 162, a first threaded hole, a fourth motor 163, a first lead screw 164, and a first guide rod 165; the first support frame 161 is mounted on the first lifting plate 15 and is arranged around the outside of the second lifting plate 17; the second support frame 162 is mounted on the first lifting plate 15 and is located inside the first support frame 161; the first threaded hole is provided with a first internal thread and is located inside the second lifting plate 17; the fourth... Motor 163 is mounted on first support frame 161; first lead screw 164 has a first external thread on its outer wall, one end of first lead screw 164 is connected to fourth motor 163, the other end of first lead screw 164 is rotatably connected to second support frame 162, and first lead screw 164 passes through first threaded hole; one end of first guide rod 165 is connected to second support frame 162, the other end of first guide rod 165 is connected to first support frame 161, and first guide rod 165 passes through second lifting plate 17; wherein, the first external thread is adapted to the first internal thread.

[0050] By mounting the first support frame 161 on the first lifting plate 15 and the second support frame 162 on the first lifting plate 15, the first lifting plate 15 can support the first support frame 161 and the second support frame 162. By mounting the fourth motor 163 on the first support frame 161, the first support frame 161 supports the fourth motor 163, thereby improving the stability of the fourth motor 163. By connecting one end of the first lead screw 164 to the fourth motor 163 and rotatably connecting the other end of the first lead screw 164 to the second support frame 162, the fourth motor 163 and the second support frame 162 cooperate to support the first lead screw 164, thereby enabling the fourth motor 163 to drive the first lead screw 164 to rotate. By setting the first threaded hole in the second lifting plate 17 and passing the first lead screw 164 through the first threaded hole, the first lead screw 164 is threadedly connected to the second lifting plate 17, thereby enabling the rotation of the first lead screw 164 to drive the second lifting plate 17 to move up and down. By connecting one end of the first light bar 165 to the second support frame 162 and the other end of the first light bar 165 to the first support frame 161, and allowing the first light bar 165 to pass through the second lifting plate 17, the first support frame 161 and the second support frame 162 cooperate to support the first light bar 165, thereby enabling the second lifting plate 17 to move up and down along the first light bar 165, thus improving the stability of the up and down movement of the second lifting plate 17.

[0051] In embodiments of the present invention, such as Figures 1 to 9As shown, the concrete pier column pouring vibration device also includes: a symmetrical adjustment mechanism 26, a first adjustment plate 27, a first adjustment rod 28, a first limiting plate 29, a first support roller assembly 30, a first moving mechanism 31, a first moving plate 32, a first moving rod 33, a second limiting plate 34, a second support roller assembly 35, a second moving mechanism 36, a second moving plate 37, a second moving rod 38, a third limiting plate 39, and a third support roller assembly 40; the symmetrical adjustment mechanism 26 is installed on the first lifting plate 15, and the symmetrical adjustment mechanism 26... 6 passes sequentially through the first support frame 161 and the second support frame 162; two first adjusting plates 27 are simultaneously connected to the symmetrical adjusting mechanism 26, and the two first adjusting plates 27 are symmetrically arranged; one end of each of the four first adjusting rods 28 is connected to the two first adjusting plates 27, and the other end of each of the four first adjusting rods 28 extends away from the direction of the first support frame 161; two first limiting plates 29 are respectively connected to the other ends of the four first adjusting rods 28; at least two first support roller assemblies 30 are installed on the first limiting plates 29; two first... The moving mechanism 31 is installed on the first lifting plate 15, and the two first moving mechanisms 31 are located on both sides of a slide 18; the two first moving plates 32 are respectively connected to the two first moving mechanisms 31; one end of the four first moving rods 33 is respectively connected to the two first moving plates 32, and the other end of the four first moving rods 33 extends away from the first support frame 161; the two second limiting plates 34 are respectively connected to the other end of the four first moving rods 33; the second support roller assembly 35 is installed on the second limiting plate 34; the two second moving mechanisms 36 are installed on the second lifting plate 17, and the two second moving mechanisms 36 are located on both sides of another slide 18; the two second moving plates 37 are respectively connected to the two second moving mechanisms 36; one end of the four second moving rods 38 is respectively connected to the two second moving plates 37, and the other end of the four second moving rods 38 extends away from the second support frame 162; the two third limiting plates 39 are respectively connected to the other end of the four second moving rods 38; the third support roller assembly 40 is installed on the third limiting plate 39.

[0052] By installing the symmetrical adjustment mechanism 26 on the first lifting plate 15, connecting two first adjustment plates 27 to the symmetrical adjustment mechanism 26 simultaneously, and symmetrically arranging the two first adjustment plates 27, the symmetrical adjustment mechanism 26 can drive the two first adjustment plates 27 to move in opposite or opposite directions, thereby adjusting the distance between the two first adjustment plates 27. By connecting one end of each of the four first adjustment rods 28 to the first adjustment plate 27, connecting the two first limiting plates 29 to the other ends of the four first adjustment rods 28 respectively, and installing at least two first support roller assemblies 30 on the first limiting plate 29, the first adjustment plate 27 can drive the first limiting plate 29 to move through the two first adjustment rods 28, thereby enabling the first limiting plate 29 to drive the first support roller assembly 30 to move, so that the first support roller assembly 30 can fit against the inner wall of the pier steel mold 10, thereby positioning the first lifting plate 15 to ensure that the center of the first lifting plate 15 coincides with the centerline of the pier steel mold, thus improving the accuracy of the position of the first lifting plate 15. By connecting the two first moving plates 32 to the two first moving mechanisms 31 respectively, connecting one end of the four first moving rods 33 to the two first moving plates 32 respectively, and connecting the two second limiting plates 34 to the other ends of the four first moving rods 33 respectively, the two first moving mechanisms 31 can drive the two first moving plates 32 to move respectively, thereby enabling the first moving plates 32 to drive the second limiting plates 34 to move through the two first moving rods 33; by installing the second support roller assembly 35 on the second limiting plate 34, the second limiting plate 34 can drive the second support roller assembly 35 to move, thereby enabling the second support roller assembly 35 to fit against the inner wall of the pier steel formwork 10. By connecting the two second moving plates 37 to the two second moving mechanisms 36 respectively, connecting one end of the four second moving rods 38 to the two second moving plates 37 respectively, and connecting the two third limiting plates 39 to the other ends of the four second moving rods 38 respectively, the two second moving mechanisms 36 can drive the two second moving plates 37 to move, thereby enabling the second moving plates 37 to drive the third limiting plates 39 to move through the two second moving rods 38; by installing the third support roller assembly 40 on the third limiting plate 39, the third limiting plate 39 can drive the third support roller assembly 40 to move, thereby enabling the third support roller assembly 40 to fit against the inner wall of the pier steel formwork 10.

[0053] Using the above structure, activating the symmetrical adjustment mechanism 26 causes the two first adjustment plates 27 to move in opposite directions. This causes the first adjustment plates 27 to move the first limiting plate 29 via the two first adjustment rods 28, thereby causing the first limiting plate 29 to bring the first support roller assembly 30 into contact with the inner wall of the pier steel formwork 10. Then, simultaneously activating the first moving mechanism 31 and the second moving mechanism 36 causes the first moving plate 32 and the second moving plate 37 to move, respectively. This, in turn, moves the second limiting plate 34 and the third limiting plate 39, causing the second support roller assembly 35 and the third support roller assembly 40 to contact the column. The inner walls of the steel mold fit together, thereby positioning the first lifting plate 15 to ensure that the center of the first lifting plate 15 coincides with the centerline of the pier steel mold, thus improving the accuracy of the position of the first lifting plate 15. Moreover, it can also prevent the vibrator 21 from shifting when vibrating the concrete, thereby improving the vibration effect of the product. At the same time, it can also enable the first support roller assembly 30, the second support roller assembly 35 and the third support roller assembly 40 to move along the inner wall of the pier steel mold 10 when the first lifting mechanism 14 moves the first lifting plate 15 up and down or the rotating plate 13 moves the first lifting plate 15 to rotate, thereby improving the stability of the movement of the first lifting plate 15.

[0054] Specifically, the first support roller assembly 30 includes a first support roller body, a first mounting rod, a first snap-fit ​​plate, and a second spring. The first mounting rod passes through the first limiting plate 29, with one end connected to the first support roller body and the first snap-fit ​​plate connected to the other end of the first mounting rod. The second spring is fitted on the outside of the first mounting rod, with one end connected to the first support roller and the other end connected to the first limiting plate 29. This allows the first support roller body to move within the first limiting plate 29 when it is in contact with the inner wall of the pier steel mold 10, thereby compensating for the position of the first support roller body and ensuring that multiple first support roller bodies can simultaneously be in contact with the inner wall of the pier steel mold 10.

[0055] Specifically, the second support roller assembly 35 includes a second support roller body, a second mounting rod, a second snap-fit ​​plate, and a third spring. The second mounting rod passes through the second limiting plate 34, with one end connected to the second support roller body and the second snap-fit ​​plate connected to the other end of the second mounting rod. The third spring is fitted on the outside of the second mounting rod, with one end connected to the second support roller and the other end connected to the second limiting plate 34. This allows the second support roller body to move within the second limiting plate 34 when it is in contact with the inner wall of the pier steel mold 10, thereby compensating for the position of the second support roller body and ensuring that multiple second support roller bodies can simultaneously be in contact with the inner wall of the pier steel mold 10.

[0056] Specifically, the third support roller assembly 40 includes a third support roller body, a third mounting rod, a third snap-fit ​​plate, and a fourth spring. The third mounting rod passes through the third limiting plate 39, with one end connected to the third support roller body and the third snap-fit ​​plate connected to the other end of the third mounting rod. The fourth spring is fitted on the outside of the third mounting rod, with one end connected to the third support roller and the other end connected to the third limiting plate 39. This allows the third support roller body to move within the third limiting plate 39 when it is in contact with the inner wall of the pier steel mold 10, thereby compensating for the position of the third support roller body and ensuring that multiple third support roller bodies can simultaneously contact the inner wall of the pier steel mold 10.

[0057] In embodiments of the present invention, such as Figures 1 to 9 As shown, the symmetrical adjustment mechanism 26 includes: a first support plate 261, a second threaded hole, a second lead screw 262, and a second guide rod 263; the two first support plates 261 are mounted on the first lifting plate 15, with a gap between them, and are located on both sides of the first support frame 161; the two second threaded holes are respectively provided with second internal threads in opposite directions, and are respectively located in the two first adjustment plates 27; the outer wall of the second lead screw 262 is symmetrically provided with second external threads in opposite directions, and the two ends of the second lead screw 262 are rotatably connected to the two first support plates 261, the second lead screw 262 passes through the two second threaded holes in sequence, and passes through the first support frame 161 and the second support frame 162 in sequence; the two ends of the second guide rod 263 are respectively connected to the two first support plates 261, and pass through the two first adjustment plates 27 in sequence; wherein, the second internal thread and the second external thread are adapted to each other.

[0058] By mounting two first support plates 261 on the first lifting plate 15, and rotatably connecting the two ends of the second lead screw 262 to the two first support plates 261 respectively, the two first support plates 261 cooperate to support the second lead screw 262, thereby enabling the second lead screw 262 to rotate between the two first support plates 261. By setting two second threaded holes in the two first adjusting plates 27 respectively, and setting second internal threads with opposite helical directions in the two second threaded holes, and passing the second lead screw 262 through the two second threaded holes in sequence, the second lead screw 262 is simultaneously threadedly connected to the two first adjusting plates 27, thereby enabling the rotation of the second lead screw 262 to drive the two first adjusting plates 27 to move in opposite or opposite directions, thereby adjusting the distance between the two first adjusting plates 27. By connecting the two ends of the second light bar 263 to the two first support plates 261 respectively, and allowing the second light bar 263 to pass through the two first adjustment plates 27 in sequence, the two first support plates 261 cooperate to support the second light bar 263, thereby enabling the two first adjustment plates 27 to move along the second light bar 263, thus improving the stability of the movement of the two first adjustment plates 27.

[0059] Specifically, the fifth motor is installed at the bottom of the first lifting plate 15, the fifth motor is connected to the first pulley, the second pulley is connected to the second lead screw 262, and the belt is simultaneously fitted on the outside of the first pulley and the second pulley.

[0060] In embodiments of the present invention, such as Figures 1 to 9 As shown, the first moving mechanism 31 includes: a second support plate 311, a third threaded hole, a third lead screw 312, and a third guide rod 313; the two second support plates 311 are mounted on the first lifting plate 15, and there is a gap between the two second support plates 311; the third threaded hole is provided with a third internal thread, and the third threaded hole is located in the first moving plate 32; the two ends of the third lead screw 312 are respectively rotatably connected to the two second support plates 311, and the third lead screw 312 passes through the third threaded hole; the two ends of the third guide rod 313 are respectively connected to the two second support plates 311, and the third guide rod 313 passes through the first moving plate 32; wherein, the third internal thread is adapted to the third external thread.

[0061] By mounting two second support plates 311 on the first lifting plate 15 and rotatably connecting both ends of the third lead screw 312 to the two second support plates 311 respectively, the two second support plates 311 cooperate to support the third lead screw 312, thereby enabling the third lead screw 312 to rotate between the two second support plates 311. By setting the third threaded hole in the first moving plate 32 and allowing the third lead screw 312 to pass through the third threaded hole, the third lead screw 312 is threadedly connected to the first moving plate 32, thereby enabling the third lead screw 312 to rotate and drive the first moving plate 32 to move, thus adjusting the position of the first moving plate 32. By connecting both ends of the third optical rod 313 to the two second support plates 311 respectively and allowing the third optical rod 313 to pass through the first moving plate 32, the two second support plates 311 cooperate to support the third optical rod 313, thereby enabling the first moving plate 32 to move along the third optical rod 313, thus improving the stability of the movement of the first moving plate 32.

[0062] In embodiments of the present invention, such as Figures 1 to 9 As shown, the second moving mechanism 36 includes: a third support plate 361, a fourth threaded hole, a fourth lead screw 362, and a fourth guide rod 363; the two third support plates 361 are mounted on the first lifting plate 15, and there is a gap between the two third support plates 361; the fourth threaded hole is provided with a fourth internal thread, and the fourth threaded hole is located in the second moving plate 37; the two ends of the fourth lead screw 362 are respectively rotatably connected to the two third support plates 361, and the fourth lead screw 362 passes through the fourth threaded hole; the two ends of the fourth guide rod 363 are respectively connected to the two third support plates 361, and the fourth guide rod 363 passes through the first moving plate 32; wherein, the fourth internal thread is adapted to the fourth external thread.

[0063] By installing two third support plates 361 on the first lifting plate 15 and rotatably connecting the two ends of the fourth lead screw 362 to the two third support plates 361 respectively, the two third support plates 361 cooperate to support the fourth lead screw 362, thereby enabling the fourth lead screw 362 to rotate between the two third support plates 361. By setting the fourth threaded hole in the second moving plate 37 and allowing the fourth lead screw 362 to pass through the fourth threaded hole, the fourth lead screw 362 is threadedly connected to the second moving plate 37, thereby enabling the fourth lead screw 362 to rotate and drive the second moving plate 37 to move, thus adjusting the position of the second moving plate 37. By connecting the two ends of the fourth guide rod 363 to the two third support plates 361 respectively and allowing the fourth guide rod 363 to pass through the second moving plate 37, the two third support plates 361 cooperate to support the fourth guide rod 363, thereby enabling the second moving plate 37 to move along the fourth guide rod 363, thus improving the stability of the movement of the second moving plate 37.

[0064] In embodiments of the present invention, such as Figures 1 to 9 As shown, the concrete pier column pouring vibration device also includes: a fixed frame 41, a clamping plate 42, a first spring 43, a clamping seat 44, a clamping wheel 45, a second guide rod 46, a fourth limiting plate 47, a pull rod 48, and a handle 49; the fixed frame 41 is L-shaped, and two fixed frames 41 are installed at the bottom of the first lifting plate 15, and the two fixed frames 41 are arranged opposite to each other; two clamping plates 42 are located between the two fixed frames 41; one end of at least two first springs 43 is connected to the fixed frame 41, and the other end of at least two first springs 43 is connected to the clamping plate 42; the clamping seat 44 is provided with a clamping groove, and the two clamping seats 44 are respectively connected to the two clamping plates 42. The two clamping seats 44 are arranged opposite each other; the clamping wheel 45 is embedded in the clamping groove of the clamping seat 44, and the clamping wheel 45 is rotatably connected to the clamping seat 44; one end of at least two second guide rods 46 is connected to the fixed frame 41, and the other end of at least two second guide rods 46 passes through at least two first springs 43 and clamping plates 42 in sequence; at least two fourth limiting plates 47 are connected to the other end of at least two second guide rods 46, and the at least two fourth limiting plates 47 are in contact with the clamping plate 42; one end of the pull rod 48 is connected to the clamping plate 42, and the other end of the pull rod 48 passes through the fixed frame 41; the handle 49 is connected to the other end of the pull rod 48.

[0065] By installing two fixed frames 41 on the first lifting plate 15, connecting one end of a plurality of first springs 43 to the fixed frames 41, and connecting the other end of the plurality of first springs 43 to the clamping plate 42, the fixed frames 41 support the clamping plate 42 through the plurality of first springs 43; by connecting the clamping seat 44 to the clamping plate 42, embedding the clamping wheel 45 into the clamping groove of the clamping seat 44, and rotatably connecting the clamping wheel 45 to the clamping seat 44, the clamping plate 42 supports the clamping wheel 45 through the clamping seat 44, thereby enabling the clamping wheel 45 to rotate in the clamping groove. By connecting one end of multiple second guide rods 46 to the fixed frame 41, and having the other ends of the multiple second guide rods 46 pass sequentially through multiple first springs 43 and clamping plates 42, the clamping plates 42 can move along the second guide rods 46, thereby improving the stability of the clamping plate 42's movement. By connecting multiple fourth limiting plates 47 to the other ends of the multiple second guide rods 46 respectively, and having the multiple fourth limiting plates 47 fit against the clamping plates 42, the multiple fourth limiting plates 47 limit the clamping plates 42, thereby preventing the clamping plates 42 from moving off the second guide rods 46, thus improving the user experience of the product. By connecting one end of a pull rod 48 to the clamping plates 42, and having the other end of the pull rod 48 pass through the fixed frame 41, and connecting a handle 49 to the other end of the pull rod 48, the operator can pull the clamping plates 42 to move using the handle 49 and the pull rod 48, thereby increasing the distance between the two clamping wheels 45, so that the material pump pipe can pass between the two clamping wheels 45.

[0066] With the above structure, when preparing to clamp the conveying pump pipe, the conveying pump pipe passes between the two clamping wheels 45, thereby causing the conveying pump pipe to press the clamping seat 44 and the clamping plate 42 towards the fixed frame 41. At this time, the first spring 43 is in a compressed state, thereby using the elastic force of the first spring 43 to clamp the conveying pump pipe, so as to improve the stability of the conveying pump pipe.

[0067] In embodiments of the present invention, such as Figures 1 to 9 As shown, the concrete pier column pouring vibration device also includes: positioning frame 50, electric push rod 51 and positioning plate 52; the positioning frame 50 is L-shaped, and the four positioning frames 50 are respectively connected to the four side walls of the mounting plate 11; the four electric push rods 51 are respectively installed on the four positioning frames 50; the four positioning plates 52 are respectively connected to the four electric push rods 51, and the four positioning plates 52 are simultaneously attached to the outer wall of the pier column steel formwork 10.

[0068] By connecting four L-shaped positioning frames 50 to the four side walls of the mounting plate 11 respectively, and installing four electric push rods 51 on the four positioning frames 50 respectively, the mounting plate 11 can support the electric push rods 51 through the positioning frames 50, thereby improving the stability of the electric push rods 51. By connecting four positioning plates 52 to the four electric push rods 51 respectively, and making the four positioning plates 52 simultaneously fit against the outer wall of the pier steel mold 10, the electric push rods 51 can drive the positioning plates 52 to move, thereby making the four positioning plates 52 simultaneously fit against the outer wall of the pier steel mold 10. This not only positions the mounting plate 11 so that the centerline of the mounting plate 11 coincides with the centerline of the pier steel mold 10, but also prevents the mounting plate 11 from shifting, thus improving the stability of the product.

[0069] In the description of this invention, the term "a plurality of" refers to two or more. Unless otherwise explicitly defined, the terms "upper," "lower," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the invention. The terms "connection," "installation," "fixing," etc., should be interpreted broadly. For example, "connection" can be a fixed connection, a detachable connection, or an integral connection; it can be a direct connection or an indirect connection through an intermediate medium. For those skilled in the art, the specific meaning of the above terms in this invention can be understood according to the specific circumstances.

[0070] In the description of this invention, the terms "one embodiment," "some embodiments," "specific embodiment," etc., refer to a specific feature, structure, material, or characteristic described in connection with that embodiment or example, which is included in at least one embodiment or example of the invention. In this invention, the illustrative expressions of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples.

[0071] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A concrete pier column pouring vibration device, wherein the concrete pier column pouring vibration device is installed on top of the pier column steel formwork, characterized in that, The concrete pier column pouring vibration device includes: Mounting plate, which is fastened to the top of the pier column steel formwork; A slewing bearing, which is mounted on top of the mounting plate; A rotating plate, which is mounted on top of the slewing bearing; A first lifting mechanism is mounted on the rotating plate; The first lifting plate is located inside the steel formwork of the pier column, and the first lifting plate is connected to the first lifting mechanism; A second lifting mechanism is installed on the first lifting plate; The second lifting plate is located above the first lifting plate and is connected to the second lifting mechanism. The two slides are respectively disposed in the first lifting plate and are located on both sides of the second lifting mechanism; Slider, the two sliders are respectively embedded in the two grooves; Connecting rods, at least two of the connecting rods have one end rotatably connected to both ends of the second lifting plate, and the other end of at least two of the connecting rods is rotatably connected to the top of the two sliders; Two vibrating rods are respectively mounted on the two sliders.

2. The concrete pier column pouring vibration device according to claim 1, characterized in that, The concrete pier column pouring vibration device also includes: A first guide rod, at least a portion of which is located within the groove, with both ends of the first guide rod connected to the first lifting plate, and the first guide rod passing through the slider; The first spool, two first spools are mounted on the rotating plate, and the two first spools are respectively located above the two sliders; The cables are electrically connected at one end to the two vibrating rods respectively. The two cables pass through the mounting plate, the slewing bearing and the rotating plate in sequence. The two cables are wound around the outside of the two first cable reels respectively, and the other ends of the two cables are electrically connected to the two power sources respectively. The first motor, two first motors are mounted on the rotating plate, and the two first motors are respectively connected to the two first winding drums.

3. The concrete pier column pouring vibration device according to claim 2, characterized in that, The first lifting mechanism includes: The second spool is mounted on the rotating plate, the two second spools are arranged opposite each other, and the two second spools are located on one side of the two first spools; The first wire rope has one end connected to the second winding drum. The first wire rope is wound around the outside of the second winding drum. The first wire rope passes through the rotating plate, the slewing bearing and the mounting plate in sequence, and both first wire ropes are simultaneously connected to the first lifting plate. The first synchronous shaft has two ends connected to the two second spools respectively; A second motor is mounted on the rotating plate and is connected to the second winding drum. The third spool, two of which are mounted on the rotating plate, are arranged opposite each other and are located on the other side of the two first spools; The second wire rope has one end connected to the third spool. The second wire rope is wound around the outside of the third spool. The second wire rope passes through the rotating plate, the slewing bearing and the mounting plate in sequence, and both second wire ropes are simultaneously connected to the first lifting plate. The second synchronous shaft is connected at both ends to the two third spools respectively; A third motor is mounted on the rotating plate and connected to the third winding drum.

4. The concrete pier column pouring vibration device according to claim 1, characterized in that, The second lifting mechanism includes: A first support frame is mounted on the first lifting plate and is arranged around the outside of the second lifting plate; A second support frame is mounted on the first lifting plate and is located inside the first support frame; A first threaded hole, wherein a first internal thread is provided in the first threaded hole, and the first threaded hole is provided in the second lifting plate; A fourth motor, which is mounted on the first support frame; The first lead screw has a first external thread on its outer wall. One end of the first lead screw is connected to the fourth motor, and the other end of the first lead screw is rotatably connected to the second support frame. The first lead screw passes through the first threaded hole. The first light bar has one end connected to the second support frame and the other end connected to the first support frame, and the first light bar passes through the second lifting plate; The first external thread is adapted to the first internal thread.

5. A concrete pier column pouring vibration device according to claim 4, characterized in that, The concrete pier column pouring vibration device also includes: A symmetrical adjustment mechanism is installed on the first lifting plate and passes sequentially through the first support frame and the second support frame; The first adjusting plate, two first adjusting plates are simultaneously connected to the symmetrical adjusting mechanism, and the two first adjusting plates are symmetrically arranged; The first adjusting rod, one end of the four first adjusting rods is connected to the two first adjusting plates respectively, and the other end of the four first adjusting rods extends away from the direction of the first support frame; The first limiting plate, the two first limiting plates are respectively connected to the other end of the four first adjusting rods; A first support roller assembly, at least two of the first support roller assemblies are mounted on the first limiting plate; The first moving mechanism, two first moving mechanisms are mounted on the first lifting plate, and the two first moving mechanisms are located on both sides of one of the slide grooves; The first movable plate, and the two first movable plates are respectively connected to the two first movable mechanisms; The first movable rod, one end of the four first movable rods is respectively connected to the two first movable plates, and the other end of the four first movable rods extends away from the direction of the first support frame; The second limiting plate is connected to the other end of the four first moving rods respectively; A second support roller assembly is mounted on the second limiting plate; The second moving mechanism, two of which are mounted on the second lifting plate and located on both sides of the other slide groove; The second movable plate, the two second movable plates are respectively connected to the two second movable mechanisms; The second movable rod, one end of each of the four second movable rods is connected to the two second movable plates respectively, and the other end of the four second movable rods extends away from the direction of the second support frame; The third limiting plate, the two third limiting plates are respectively connected to the other end of the four second moving rods; The third support roller assembly is mounted on the third limiting plate.

6. A concrete pier column pouring vibration device according to claim 5, characterized in that, The symmetrical adjustment mechanism includes: The first support plate, two first support plates are installed on the first lifting plate, there is a gap between the two first support plates, and the two first support plates are located on both sides of the first support frame; The second threaded hole is provided with a second internal thread in opposite spiral directions in the two second threaded holes, and the two second threaded holes are respectively provided in the two first adjusting plates; The second lead screw has symmetrically arranged second external threads with opposite helical directions on its outer wall. The two ends of the second lead screw are respectively rotatably connected to the two first support plates. The second lead screw passes through the two second threaded holes in sequence, and passes through the first support frame and the second support frame in sequence. The second light bar has two ends connected to the two first support plates respectively, and the second light bar passes through the two first adjustment plates in sequence; The second internal thread is adapted to the second external thread.

7. A concrete pier column pouring vibration device according to claim 6, characterized in that, The first moving mechanism includes: The second support plate is installed on the first lifting plate, and there is a gap between the two second support plates; The third threaded hole is provided with a third internal thread, and the third threaded hole is provided in the first movable plate; The third lead screw has two ends that are rotatably connected to the two second support plates respectively, and the third lead screw passes through the third threaded hole; The third light bar has two ends connected to the two second support plates respectively, and the third light bar passes through the first moving plate; The third internal thread is adapted to the external thread of the third lead screw.

8. A concrete pier column pouring vibration device according to claim 7, characterized in that, The second moving mechanism includes: The third support plate, two of the third support plates are installed on the first lifting plate, and there is a gap between the two third support plates; A fourth threaded hole, wherein a fourth internal thread is provided in the fourth threaded hole, and the fourth threaded hole is disposed in the second movable plate; The fourth lead screw has two ends that are rotatably connected to the two third support plates respectively, and the fourth lead screw passes through the fourth threaded hole; The fourth optical bar has two ends connected to the two third support plates respectively, and the fourth optical bar passes through the first moving plate; The fourth internal thread is adapted to the external thread of the fourth lead screw.

9. A concrete pier column pouring vibration device according to claim 1, characterized in that, The concrete pier column pouring vibration device also includes: The fixing frame is L-shaped, and two fixing frames are installed at the bottom of the first lifting plate, with the two fixing frames arranged opposite to each other; Clamping plates, two of the clamping plates being located between the two fixing frames; First spring, at least two of the first springs have one end connected to the fixing frame, and the other end of at least two of the first springs are connected to the clamping plate; A clamping seat, wherein a clamping groove is provided in the clamping seat, and the two clamping seats are respectively connected to the two clamping plates, and the two clamping seats are arranged opposite to each other; A clamping wheel is embedded in the clamping groove of the clamping seat, and the clamping wheel is rotatably connected to the clamping seat; Second guide rods, at least two of the second guide rods have one end connected to the fixing frame, and the other end of at least two of the second guide rods pass through at least two of the first springs and clamping plates in sequence; The fourth limiting plate, at least two of the fourth limiting plates are respectively connected to the other end of at least two of the second guide rods, and at least two of the fourth limiting plates are in contact with the clamping plate; A pull rod, one end of which is connected to the clamping plate, and the other end of which passes through the fixing frame; A handle, which is connected to the other end of the lever.

10. A concrete pier column pouring vibration device according to claim 9, characterized in that, The concrete pier column pouring vibration device also includes: The positioning frame is L-shaped, and the four positioning frames are respectively connected to the four side walls of the mounting plate; Electric push rods, the four electric push rods are respectively mounted on the four positioning frames; The four positioning plates are respectively connected to the four electric push rods, and the four positioning plates are simultaneously attached to the outer wall of the pier steel formwork.

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