Intelligent concrete vibrating device for house building beam-column joint

Abstract

The application discloses a kind of house building beam column node concrete intelligent vibrating device, including bed, handrail, transmission pipe, damping mechanism and collaborative mechanism, the handrail is set in the right end of the bed, the transmission pipe is set in the left end of the bed, the damping mechanism is set on the bed, the collaborative mechanism is set on the bed.This scheme is equipped with multi-stage damping and collaborative limiting innovative structure, solves the pain point of the existing vibrating device vibration, operation is not suitable, has the advantages of convenient disassembly, accurate positioning, comfortable holding, durable and reliable, guarantees construction safety and quality, practical popularization value is high.

Description

Technical Field

[0001] This invention relates to the field of building technology, specifically to an intelligent concrete vibration device for beam-column joints in building construction. Background Technology

[0002] In building construction, beam-column joints are critical structural load-bearing parts, and the density of their concrete pouring directly affects the overall structural safety of the building. Currently, immersion-type concrete vibrators are commonly used for construction of these joints. These devices typically use a flexible hose to connect the vibrator to a handheld control base, integrating power drive and vibration execution structure. They are the mainstream construction equipment for achieving dense concrete forming at beam-column joints.

[0003] Existing intelligent concrete vibrating devices generally suffer from problems such as strong high-frequency vibration transmission and poor hand comfort: the equipment vibrates violently when working, and the base is only equipped with a single handle at the rear end. When operating, the other hand is required to support the middle of the base. The high-frequency vibration is directly transmitted to the palm and arm, which can easily cause numbness and soreness in the hand. Long-term operation can cause chronic damage to the nerves and muscles of the wrist. At the same time, the vibration can reduce the vibration positioning accuracy due to hand tremors, thus affecting the construction quality.

[0004] Therefore, a solution is needed. Summary of the Invention

[0005] (a) Technical problems to be solved To address the shortcomings of existing technologies, this invention provides an intelligent concrete vibration device for beam-column joints in building construction, thereby solving the problems mentioned in the background section.

[0006] (II) Technical Solution To achieve the above objectives, the present invention provides the following technical solution: A smart concrete vibration device for beam-column joints in building construction includes a base, a handrail, a transmission pipe, a vibration damping mechanism, and a cooperating mechanism. The handrail is located at the right end of the base, the transmission pipe is located at the left end of the base, the vibration damping mechanism is located on the base, and the cooperating mechanism is located on the base. The shock absorption mechanism includes a shock absorption frame, a through groove, a limiting rubber strip, an outer spring, a damper, a pressure plate, an inner spring, damping beads, a cover plate, an array of rubber shock absorption columns, high-elastic foam, a handle, and an anti-slip shock absorption sleeve. The shock absorption frame is positioned to cover the left end of the base. The through groove is located in the middle of the shock absorption frame. The limiting rubber strip is located at the top and bottom of the through groove and connects to the inner side of the shock absorption frame. The outer springs are arranged horizontally in a uniform group, with each group arranged in an upper, middle, and lower structure opposite each other at the front and rear ends of the through groove. The damper... The pressure plate is disposed inside each of the outer springs, and the inner springs are evenly disposed inside the shock-absorbing frame. The damping beads are evenly filled inside the shock-absorbing frame. The cover plate is disposed at the bottom of the shock-absorbing frame. The rubber shock-absorbing column array is disposed at the top of the cover plate and connected to the bottom of the shock-absorbing frame. The high-elastic foam is evenly filled between the cover plate and the shock-absorbing frame. The handle is disposed at the bottom of the cover plate. The anti-slip shock-absorbing sleeve is wrapped around the handle.

[0007] Preferably, the shock-absorbing frame has a rounded rectangular structure and a hollow interior, the limiting rubber strip has a cuboid structure, and the pressure plate has a cuboid structure.

[0008] Preferably, the cover plate has an isosceles trapezoidal structure, the length of the cover plate is less than the width of the shock-absorbing frame, and each rubber shock-absorbing column in the rubber shock-absorbing column array has a cylindrical structure.

[0009] Preferably, the handle has a cylindrical structure and a hemispherical bottom, and the diameter of the handle is smaller than the width of the handle.

[0010] Preferably, the shock-absorbing frame, cover plate, and handle are integrally formed, and the shock-absorbing frame, cover plate, and handle are all made of 6061 aluminum alloy.

[0011] Preferably, the coordinating mechanism includes a second limiting rubber strip, a limiting plate, a stop bar, a pressure groove, a rotating shaft, a second pressure plate, a return spring, an anti-slip buffer pad, and a baffle. The second limiting rubber strip is disposed on the machine base corresponding to the position of each first limiting rubber strip. The limiting plate is disposed at both ends of each second limiting rubber strip and connected to the machine base. The stop bar is disposed at the right end of every two first and second limiting plates. The pressure groove is a fan-shaped structure recessed at both ends of the machine base and located at the left end of the first pressure plate. The rotating shaft is disposed at the top of the left end of the pressure groove. The second pressure plate wraps around the rotating shaft and is disposed inside the pressure groove. The return spring is evenly disposed along the length of the second pressure plate and is connected to the pressure groove. The anti-slip buffer pad is recessed at both ends of the machine base corresponding to the position of each first pressure plate. The baffle is disposed at the right end of each anti-slip buffer pad.

[0012] Preferably, the second limiting rubber strip is in contact with the first limiting rubber strip, and the sum of the heights of the second limiting rubber strip and the first limiting rubber strip is equal to the distance between the top and bottom of the through groove and the adjacent machine base.

[0013] Preferably, the limiting plate has a rectangular structure and is integrally formed with the machine base, and each of the baffles blocks the right end of the corresponding limiting rubber strip. The baffles have a rectangular structure and are integrally formed with the limiting plate.

[0014] Preferably, the second pressure plate has a fan-shaped structure, the area of ​​the longitudinal section of the pressure groove is greater than the area of ​​the longitudinal section of the second pressure plate, the height of the anti-slip buffer pad is equal to the longest distance between the upper, middle and lower pressure plates, and the baffle has a cuboid structure.

[0015] (III) Beneficial Effects This invention provides an intelligent concrete vibration device for beam-column joints in building construction. It offers the following advantages: 1. The five-level composite shock absorption structure weakens high-frequency vibrations layer by layer, completely solving the problem of numbness and soreness in the hands and ensuring the health of operators.

[0016] 2. The shock absorption mechanism is designed to be detachable, and with elastic deformation and automatic reset limit, it can be easily installed and disassembled without complicated tools, making it suitable for construction site scenarios.

[0017] 3. The coordinated mechanism with bidirectional limiting and the integrated aluminum alloy molding structure ensure precise installation without displacement and stable frame without deformation, thus improving construction quality.

[0018] 4. The ergonomic handle with anti-slip and shock-absorbing sleeve allows for stable operation with one hand, greatly reducing work intensity and fatigue.

[0019] The 5.6061 aluminum alloy is compatible with oil-resistant and aging-resistant elastic materials, which improves the corrosion resistance and durability of the equipment and reduces the cost of use. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the external structure of the shock absorption mechanism of the present invention; Figure 3 This is a schematic diagram of the internal structure of the shock absorption mechanism of the present invention; Figure 4 This is a schematic diagram of the structure of the outer spring, damper, and pressure plate of the present invention; Figure 5 This is a schematic diagram of the structure of the limiting rubber strip, the limiting plate, and the stop strip of the present invention; Figure 6 This is a schematic diagram of the external structure of the collaborative mechanism of the present invention; Figure 7 This is a schematic diagram of the internal structure of the collaborative mechanism when the base of the present invention is laid flat.

[0021] In the diagram: 1-Base; 2-Handrail; 3-Transmission pipe; 4-Shock damping mechanism; 41-Shock damping frame; 42-Through groove; 43-Limiting rubber strip one; 44-Outer spring; 45-Damper; 46-Pressure plate one; 47-Inner spring; 48-Damping bead; 49-Cover plate; 410-Rubber shock-absorbing column array; 411-High-elasticity foam; 412-Handle; 413-Anti-slip shock-absorbing sleeve; 5-Cooperating mechanism; 51-Limiting rubber strip two; 52-Limiting plate; 53-Stop bar; 54-Pressure groove; 55-Rotating shaft; 56-Pressure plate two; 57-Reset spring; 58-Anti-slip buffer pad; 59-Baffle. Detailed Implementation

[0022] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0023] Please see Figure 1-7 The present invention provides a technical solution to achieve this: including a base 1, a handrail 2, a transmission pipe 3, a shock absorption mechanism 4, and a cooperating mechanism 5. The handrail 2 is located at the right end of the base 1, the transmission pipe 3 is located at the left end of the base 1, the shock absorption mechanism 4 is located on the base 1, and the cooperating mechanism 5 is located on the base 1.

[0024] The shock absorption mechanism 4 includes a shock absorption frame 41, a through groove 42, a limiting rubber strip 43, an outer spring 44, a damper 45, a pressure plate 46, an inner spring 47, damping beads 48, a cover plate 49, a rubber shock absorption column array 410, high-elastic foam 411, a handle 412, and an anti-slip shock absorption sleeve 413. The shock absorption frame 41 is set around the left end of the machine base 1. The through groove 42 is set in the middle of the shock absorption frame 41. The limiting rubber strip 43 is set at the top and bottom of the through groove 42 and is connected to the inner side of the shock absorption frame 41. The outer springs 44 are arranged horizontally in a group, and each group is arranged in an upper, middle and lower structure opposite each other in the through groove 42. At both ends, dampers 45 are installed inside each outer spring 44, pressure plates 46 are installed at the inward end of each group of outer springs 44, inner springs 47 are evenly installed inside the damping frame 41, damping beads 48 are evenly filled inside the damping frame 41, cover plate 49 is installed at the bottom of the damping frame 41, rubber damping column array 410 is installed at the top of the cover plate 49 and connected to the bottom of the damping frame 41, high-elastic foam 411 is evenly filled between the cover plate 49 and the damping frame 41, handle 412 is installed at the bottom of the cover plate 49, and anti-slip damping sleeve 413 is wrapped around the handle 412.

[0025] In detail, the shock-absorbing frame 41 has a rounded rectangular structure and a hollow interior, the limiting rubber strip 43 has a cuboid structure, and the pressure plate 46 has a cuboid structure.

[0026] The cover plate 49 has an isosceles trapezoidal structure, and the length of the cover plate 49 is less than the width of the damping frame 41. Each rubber damping column in the rubber damping column array 410 has a cylindrical structure.

[0027] The handle 412 has a cylindrical structure and a hemispherical bottom. The diameter of the handle 412 is smaller than its width.

[0028] The shock-absorbing frame 41, cover plate 49 and handle 412 are integrally formed, and all three are made of 6061 aluminum alloy.

[0029] The coordinating mechanism 5 includes a second limiting rubber strip 51, a limiting plate 52, a stop bar 53, a pressure groove 54, a rotating shaft 55, a second pressure plate 56, a return spring 57, an anti-slip buffer pad 58, and a baffle 59. The second limiting rubber strip 51 is set on the machine base 1 at the position corresponding to each first limiting rubber strip 43. The limiting plate 52 is set at the front and rear ends of each second limiting rubber strip 51 and is connected to the machine base 1. The stop bar 53 is set at the right end of every two front and rear limiting plates 52. The pressure groove 54 has a fan-shaped concave structure. The rotating shaft 55 is located at the top of the left end of the pressure plate 46 at both ends of the base 1. The rotating shaft 55 is located at the top of the left end of the pressure groove 54. The pressure plate 56 is located inside the pressure groove 54 and encloses the rotating shaft 55. The reset spring 57 is evenly distributed along the length of the pressure plate 56 at the inner end of the pressure plate 56 and is connected to the pressure groove 54. The anti-slip buffer pad 58 is recessed at both ends of the base 1 corresponding to the position of the pressure plate 46 on each side. The baffle 59 is located at the right end of each anti-slip buffer pad 58.

[0030] The second limiting rubber strip 51 contacts the first limiting rubber strip 43, and the sum of the heights of the second limiting rubber strip 51 and the first limiting rubber strip 43 is equal to the distance between the top and bottom of the through groove 42 and the adjacent machine base 1.

[0031] The limiting plate 52 has a rectangular structure and is integrally formed with the machine base 1. Each baffle 53 blocks the right end of the corresponding limiting rubber strip 43. The baffle 53 has a rectangular structure and is integrally formed with the limiting plate 52.

[0032] The pressure plate 56 has a fan-shaped structure, the area of ​​the longitudinal section of the pressure groove 54 is greater than the area of ​​the longitudinal section of the pressure plate 56, the height of the anti-slip buffer pad 58 is equal to the longest distance between the upper, middle and lower pressure plates 46, and the baffle 59 has a cuboid structure.

[0033] Solution Analysis: 1. Ultimate vibration reduction effect, ensuring the health of workers: This solution uses a five-stage composite vibration reduction structure, namely, "anti-slip buffer pad 58 for initial energy absorption → outer spring 44 + damper 45 for vibration isolation and dissipation → damping bead 48 + inner spring 47 for secondary vibration absorption → rubber shock-absorbing column array 410 + high-elastic foam 411 for tertiary blocking → anti-slip shock-absorbing sleeve 413 for ultimate buffering", to weaken the high-frequency vibration generated by the machine base 1 layer by layer. This completely solves the problem of strong vibration transmission and easy numbness and soreness in the hands caused by existing devices, and significantly reduces the chronic damage to the nerves and muscles of the wrist caused by long-term operation, thus ensuring the health of operators from a physical structure perspective.

[0034] 2. Convenient and efficient disassembly and assembly, and strong practicality: The shock absorption mechanism 4 adopts a detachable design. During installation, simply push the shock absorption frame 41 onto the base 1 from left to right. The elastic deformation of the outer spring 44 and the damper 45 allows the pressure plate 46 to pass smoothly. With the alignment limit of the limit rubber strip and the automatic reset limit of the pressure plate 56, a stable installation can be completed without complicated tools. Disassembly is done by reversing the operation. Simply press the pressure plate 56 at both ends to provide unobstructed conditions for the removal of the shock absorption frame 41. This greatly facilitates the transportation, maintenance and storage of the equipment and is suitable for complex usage scenarios on construction sites.

[0035] 3. Precise structural positioning and outstanding stability: The bidirectional limiting of the limiting rubber strip by the limiting plate 52 and the stop strip 53 in the coordinating mechanism 5, as well as the left and right limiting of the pressure plate 46 by the baffle 59 and the reset pressure plate 2 56, ensure that the shock absorber frame 41 fits precisely with the base 1 after installation without relative displacement; at the same time, the shock absorber frame 41, the cover plate 49 and the handle 412 are integrally formed of 6061 aluminum alloy, which has the advantages of high strength and rigidity and lightweight, avoiding frame deformation or shaking during vibration, ensuring the accuracy of vibration positioning, and indirectly improving construction quality.

[0036] 4. Comfortable and effortless grip, optimized operating experience: The handle 412 adopts a cylindrical structure and a hemispherical bottom ergonomic design, and is wrapped with a high-elastic anti-slip and shock-absorbing sleeve 413, which not only improves the grip fit and anti-slip performance, but also further buffers residual vibration; in addition, the aluminum alloy material effectively controls the overall weight, allowing the operator to hold it with one hand for stable operation without the need to support the machine base, greatly reducing the intensity of work and reducing fatigue during long-term construction.

[0037] 5. High material adaptability and excellent durability: The shock-absorbing frame 41, cover plate 49, and handle 412 are made of 6061 aluminum alloy, which has the characteristics of corrosion resistance, impact resistance, and easy processing, making it suitable for dusty and watery environments on construction sites; the limit rubber strips, rubber shock-absorbing columns, anti-slip shock-absorbing 413 sets and other shock-absorbing components are all made of oil-resistant and aging-resistant elastic materials, which are not easy to wear and fail after long-term use, thus extending the overall service life of the equipment and reducing the cost of use.

[0038] Working principle: The shock absorption mechanism 4 is detachable. During installation, the shock absorption frame 41 is moved from left to right onto the base 1. With the outer spring 44 and damper 45 relaxed, the distance between the pressure plates 46 on both sides is slightly less than the thickness of the base 1. Therefore, when pushing the shock absorption frame 41, only one pressure plate 46 needs to be pressed against the left end of the base 1. After the outer spring 44 and damper 45 are under force, the other pressure plate 46 can pass through the base 1. Moreover, during the movement of the shock absorption frame 41 to the right, the limiting rubber strip 43 and the limiting rubber strip 51 are aligned and both are limited by the limiting plate 52. At the same time, as the pressure plate 46 passes, the pressure plate 56 will be pressed into the pressure groove 54 so that the pressure plate 46 can slide to the right and finally stop on the anti-slip buffer pad 58. Baffle 59 limits the right end of pressure plate 46, while pressure plate 56 springs up under the force of return spring 57 to limit the left end of pressure plate 46. During operation, the high-frequency vibration of the base 1 is first initially absorbed by the anti-slip buffer pad 58, and then the pressure plate 46 compresses the outer spring 44 and damper 45 to convert the high-frequency vibration into low-frequency displacement and dissipate it as heat. After the residual vibration is transmitted to the shock-absorbing frame 41, the damping beads 48 and the inner spring 47 inside the frame further collide to absorb energy and filter the vibration. The weak vibration transmitted to the bottom cover plate 49 is blocked again by the rubber shock-absorbing column array 410 and the high-elastic foam 411. Finally, the anti-slip shock-absorbing sleeve 413 outside the handle 412 completes the final buffering, so that the operator only feels a very weak vibration when holding the handle 412, and there is no pressure of hand soreness or numbness during long-term operation.

[0039] Technical effects of implementing this solution: This solution, through the innovative design of a multi-level composite damping structure and a collaborative limiting structure, not only fundamentally solves the core pain points of existing intelligent concrete vibrating devices, such as large vibrations, uncomfortable operation, and easy damage to human health, but also achieves multiple advantages such as convenient assembly and disassembly, precise positioning, comfortable grip, and strong durability. It not only protects the health and safety of operators but also improves the stability and quality of vibration construction. The overall structural design is scientific and reasonable, highly practical, and has great promotional value.

[0040] The components of this invention are: 1-base; 2-handrail; 3-transmission tube; 4-shock absorption mechanism; 41-shock absorption frame; 42-through groove; 43-limiting rubber strip one; 44-outer spring; 45-damper; 46-pressure plate one; 47-inner spring; 48-damping bead; 49-cover plate; 410-rubber shock absorption column array; 411-high elastic foam; 412-handle; 413-anti-slip shock absorption sleeve; 5-cooperative mechanism; 51-limiting rubber strip two; 52-limiting plate; 53-stop bar; 54-pressure groove; 55-rotating shaft; 56-pressure plate two; 57-reset spring; 58-anti-slip buffer pad; 59-baffle. All these components are through-type... Using standard parts or components known to those skilled in the art, the structure and principle of which can be learned by those skilled in the art through technical manuals or conventional experimental methods, this invention addresses the common problems of strong high-frequency vibration transmission and poor hand comfort in existing intelligent concrete vibrating devices: The equipment vibrates violently during operation, and the base only has a single handle at the rear end, requiring the other hand to support the middle of the base during operation. High-frequency vibration is directly transmitted to the palm and arm, easily causing numbness and soreness in the hand. Long-term operation can cause chronic damage to the nerves and muscles of the wrist, and hand tremors can also reduce the vibration positioning accuracy, affecting construction quality. This invention, with its innovative multi-stage vibration reduction and coordinated limiting structure, solves the pain points of strong vibration and uncomfortable operation in existing vibrating devices. It also has the advantages of convenient assembly and disassembly, accurate positioning, comfortable grip, and durability, ensuring construction safety and quality, and has high practical and promotional value.

[0041] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0042] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A smart concrete vibration device for beam-column joints in building construction, characterized in that: It includes a base (1), a handrail (2), a transmission tube (3), a shock absorption mechanism (4), and a cooperating mechanism (5). The handrail (2) is located at the right end of the base (1), the transmission tube (3) is located at the left end of the base (1), the shock absorption mechanism (4) is located on the base (1), and the cooperating mechanism (5) is located on the base (1). The shock absorption mechanism (4) includes a shock absorption frame (41), a through groove (42), a limiting rubber strip (43), an outer spring (44), a damper (45), a pressure plate (46), an inner spring (47), a damping bead (48), a cover plate (49), a rubber shock absorption column array (410), high-elastic foam (411), a handle (412), and an anti-slip shock absorption sleeve (413). The shock absorption frame (41) is set around the left end of the base (1). The through groove (42) is set in the middle of the shock absorption frame (41). The limiting rubber strip (43) is set at the top and bottom of the through groove (42) and connected to the inner side of the shock absorption frame (41). The outer springs (44) are arranged horizontally in a group, and each group is arranged opposite each other at the front and rear ends of the through groove (42) in an upper, middle, and lower structure. The damper (45) is disposed inside each of the outer springs (44), the pressure plate (46) is disposed at the inward end of each set of outer springs (44), the inner springs (47) are evenly disposed inside the damping frame (41), the damping beads (48) are evenly filled inside the damping frame (41), the cover plate (49) is disposed at the bottom of the damping frame (41), the rubber damping column array (410) is disposed at the top of the cover plate (49) and connected to the bottom of the damping frame (41), the high-elastic foam (411) is evenly filled between the cover plate (49) and the damping frame (41), the handle (412) is disposed at the bottom of the cover plate (49), and the anti-slip damping sleeve (413) is wrapped around the handle (412).

2. The intelligent concrete vibration device for beam-column joints in building construction according to claim 1, characterized in that: The shock-absorbing frame (41) has a rounded rectangular structure and a hollow interior. The limiting rubber strip (43) has a cuboid structure, and the pressure plate (46) has a cuboid structure.

3. The intelligent concrete vibration device for beam-column joints in building construction according to claim 2, characterized in that: The cover plate (49) has an isosceles trapezoidal structure. The length of the cover plate (49) is less than the width of the shock-absorbing frame (41). Each rubber shock-absorbing column in the rubber shock-absorbing column array (410) has a cylindrical structure.

4. The intelligent concrete vibration device for beam-column joints in building construction according to claim 3, characterized in that: The handle (412) has a cylindrical structure and the bottom of the handle (412) has a hemispherical structure. The diameter of the handle (412) is smaller than the width of the handle (412).

5. The intelligent concrete vibration device for beam-column joints in building construction according to claim 4, characterized in that: The shock-absorbing frame (41), cover plate (49) and handle (412) are integrally formed, and the shock-absorbing frame (41), cover plate (49) and handle (412) are all made of 6061 aluminum alloy.

6. The intelligent concrete vibration device for beam-column joints in building construction according to claim 5, characterized in that: The coordinating mechanism (5) includes a second limiting rubber strip (51), a limiting plate (52), a stop strip (53), a pressure groove (54), a rotating shaft (55), a second pressure plate (56), a return spring (57), an anti-slip buffer pad (58), and a baffle (59). The second limiting rubber strip (51) is positioned on the machine base (1) corresponding to the position of each first limiting rubber strip (43). The limiting plate (52) is located at both ends of each second limiting rubber strip (51) and connected to the machine base (1). The stop strip (53) is located at the right end of every two first and second limiting plates (52). The pressure groove (54) is recessed in a fan-shaped structure. At the front and rear ends of the base (1) and at the left end of the pressure plate one (46), the rotating shaft (55) is located at the top of the left end of the pressure groove (54). The pressure plate two (56) wraps around the rotating shaft (55) and is located inside the pressure groove (54). The reset spring (57) is evenly arranged along the length direction of the pressure plate two (56) at the inner end of the pressure plate two (56) and is connected to the pressure groove (54). The anti-slip buffer pad (58) is recessed at the front and rear ends of the base (1) corresponding to the position of the pressure plate one (46) on each side. The baffle (59) is located at the right end of each anti-slip buffer pad (58).

7. The intelligent concrete vibration device for beam-column joints in building construction according to claim 6, characterized in that: The second limiting rubber strip (51) contacts the first limiting rubber strip (43), and the sum of the heights of the second limiting rubber strip (51) and the first limiting rubber strip (43) is equal to the distance between the top and bottom of the through groove (42) and the adjacent base (1).

8. The intelligent concrete vibration device for beam-column joints in building construction according to claim 7, characterized in that: The limiting plate (52) has a rectangular structure and is integrally formed with the machine base (1). Each of the baffles (53) blocks the right end of the corresponding limiting rubber strip (43). The baffles (53) have a rectangular structure and are integrally formed with the limiting plate (52).

9. The intelligent concrete vibration device for beam-column joints in building construction according to claim 8, characterized in that: The second pressure plate (56) has a fan-shaped structure, the area of ​​the longitudinal section of the pressure groove (54) is greater than the area of ​​the longitudinal section of the second pressure plate (56), the height of the anti-slip buffer pad (58) is equal to the longest distance between the upper, middle and lower three pressure plates (46), and the baffle (59) has a cuboid structure.

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