Concrete vibrating device

Abstract

The invention provides a concrete vibrating device, which relates to the technical field of concrete construction equipment, and comprises a power supply control unit for providing electric energy and transmitting a control instruction; the driving vibration unit is connected with the power supply control unit to obtain electric energy and a control instruction, and the driving vibration unit can generate vibration required by vibration; the operation unit comprises a plurality of different operation modules, and the operation modules can be detachably connected with the driving vibration unit so as to adapt to different vibration scenes; the limiting unit is connected with the power supply control unit and is used for positioning a vibrating position; and sealing structures are arranged at the connecting part of the power supply control unit and the driving vibration unit and the connecting part of the driving vibration unit and the operation unit. The vibrating device has the beneficial effect that the required vibrating effect can be achieved under different working conditions for concrete of different models.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of concrete construction equipment, in particular to a concrete vibrating device. BACKGROUND

[0002] Concrete vibration is the core process of concrete construction, and its operation quality directly determines the compactness, uniformity and mechanical strength of the concrete structure, and further affects the bearing capacity, impermeability and long-term durability of the construction project, which is a key link to ensure the safety and service life of the project.

[0003] The applicant finds that in actual construction, concrete vibration is generally of the following technical problems due to operation, equipment and environmental problems:

[0004] 1. The vibration effect is out of control, including insufficient vibration, excessive vibration and non-standard operation.

[0005] Among them, insufficient vibration mainly manifests that the air bubbles in the concrete cannot be completely discharged, resulting in insufficient compactness, and further forming defects such as honeycomb and pore. Generally, insufficient vibration is caused by insufficient vibration time, too low frequency or insufficient vibration depth, especially when pouring mass concrete, air bubble discharge is more difficult. In low temperature environment, the fluidity of concrete is poor, and insufficient power of the vibrator may exacerbate the problem, ultimately affecting the compressive strength and impermeability of the concrete. If the concrete is not vibrated sufficiently, the strength distribution of the concrete is uneven, which may cause cracking and long-term durability problems, especially in cold regions, the pores will cause the frost resistance to decrease, affecting the service life.

[0006] Excessive vibration often occurs when the operator improperly controls the vibration time or frequency. Long-time vibration will cause coarse aggregate to sink and cement paste to float, causing segregation phenomenon and reducing the uniformity of concrete. Excessive vibration may also damage the surface of the concrete, affecting the decoration effect in the later period, and even in high-performance concrete construction, excessive vibration will break the balance of the mix ratio, affecting the comprehensive performance of the materials. Excessive vibration may also cause stress concentration, increasing the risk of crack generation at key areas such as beam-column connections.

[0007] Non-standard operation is manifested in insufficient insertion depth of the vibrator, too large or too small moving interval, non-standard vibration sequence, etc. Construction sites lacking technical guidance or having low technical level of construction personnel are often prone to these operation errors.

[0008] 2. Defects of traditional equipment.

[0009] Traditional vibrating rods are mostly long rods, which cannot adapt to complex scenes of dense reinforcement or special-shaped formworks, and have small vibrating area and poor uniformity, resulting in residual bubbles in the concrete. When inserted into the concrete, displacement is easily caused by continuous vibration, making it difficult to accurately maintain deep vibration, and the insertion depth is judged by the experience of the operator, which easily causes the ground beam to swell or insufficient vibration.

[0010] Traditional vibrating rods rely on manual operation and lack intelligent monitoring and self-adaptive adjustment functions, resulting in low construction efficiency and poor quality stability. Moreover, the working radius of the traditional vibrating rod is small, and frequent position moving is required, which easily causes insufficient or over-vibration in manual operation, resulting in concrete segregation and a cement slurry layer on the surface.

[0011] Therefore, there is an urgent need for a concrete vibrating device to solve the above technical problems. SUMMARY

[0012] The purpose of the present application is to provide a concrete vibrating device that can achieve the required vibrating effect under different types of concrete and different working conditions. The preferred technical solutions in the many technical solutions provided by the present application can produce many technical effects, which are described in detail below.

[0013] To achieve the above purpose, the present application provides the following technical solutions:

[0014] The present application provides a concrete vibrating device, comprising:

[0015] A power supply control unit for providing power and transmitting control instructions;

[0016] A driving vibration unit connected to the power supply control unit to obtain power and control instructions, and the driving vibration unit can generate the required vibration for vibrating;

[0017] An operation unit comprising a plurality of different operation modules, which can be detachably connected to the driving vibration unit to adapt to different vibrating scenes;

[0018] A limiting unit connected to the power supply control unit for positioning the vibrating position;

[0019] The connection part of the power supply control unit and the driving vibration unit, and the connection part of the driving vibration unit and the operation unit are provided with a sealing structure.

[0020] Preferably, the power supply control unit comprises:

[0021] A battery module comprising a shell, the shell is provided with a signal transmission member for power supply and control instruction transmission and an energy storage member for storing electric energy, and the top and bottom of the shell are respectively provided with a shock absorption structure;

[0022] A Bluetooth controller module is detachably connected with the battery module, and the Bluetooth controller module is capable of receiving external control signals and adjusting the working parameters of the driving vibration unit.

[0023] Preferably, an annular connecting port is arranged on the shell, and a metal contact connected with the signal transmission member is arranged at the annular connecting port, and the limiting unit is electrically connected with the battery module and transmits control instructions through the metal contact.

[0024] Preferably, the limiting unit comprises a telescopic height-adjustable limiting rod, and a conductive contact adapted to the metal contact is arranged on the telescopic height-adjustable limiting rod.

[0025] Preferably, the driving vibration unit comprises a driving member, a transmission member, an elastic member and an eccentric vibration member, wherein:

[0026] The driving member is connected with the power supply control unit to obtain power;

[0027] One end of the transmission member is connected with the driving member, and the other end is connected with the elastic member;

[0028] The eccentric vibration member is connected with the elastic member, and the driving member can drive the elastic member and the eccentric vibration member to move to generate vibration through the transmission member.

[0029] Preferably, the driving member is a driving motor, the transmission member is a transmission shaft, the elastic member is a rolling spring cone, and the eccentric vibration member is an eccentric excitation hammer, and the driving motor drives the rolling spring cone to rotate through the transmission shaft, and the rolling spring cone drives the eccentric excitation hammer to roll to generate vibration.

[0030] Preferably, the working unit comprises at least one of the following:

[0031] A first working module adapted to an open vibration scene, the first working module is a circular structure, and the inside is hollowly arranged;

[0032] A second working module adapted to a narrow space vibration scene, the second working module is a tapered structure with a wide upper part and a narrow lower part;

[0033] A third working module adapted to a deep component vibration scene, the third working module is a square structure, and a plurality of third working modules can be assembled in sequence to prolong the vibration depth.

[0034] Preferably, the sealing structure is a water stop rubber gasket, and the power supply control unit, the driving vibration unit and the working unit are detachably connected through a screw-in connecting structure, and the water stop rubber gasket is arranged at the fitting gap of the screw-in connecting structure.

[0035] Preferably, an auxiliary guide capable of being connected with the power supply control unit is further included for guiding the concrete vibrating device to a target vibrating position or pulling out the concrete vibrating device after vibrating is completed.

[0036] Preferably, the auxiliary guide is a steel cable guide.

[0037] The concrete vibrating device provided by the present application realizes modular design of the vibrating device through cooperation of the power supply control unit, the driving vibration unit, the operation unit and the limiting unit, the functions of the units are independent and cooperative, when the equipment is maintained, the equipment does not need to be disassembled or replaced as a whole, the maintenance cost is reduced and the construction efficiency is improved. Through connection of the power supply control unit and the driving vibration unit, the self-adaptive adjustment of vibrating can be intelligently controlled through the power supply control unit, the construction efficiency is high and the vibrating quality is more stable. The operation unit includes a plurality of different operation modules, the operation modules are detachably connected with the driving vibration unit, different vibrating scenes such as open components, narrow reinforcement areas and large-volume components can be coped with, and the scene limitation problem of the traditional vibrating rod is solved. Through cooperative work of the limiting unit and the power supply control unit, the vibrating position is accurately positioned, the problems of insufficient vibrating or over-vibrating caused by traditional manual depth judgment are avoided, and the uniformity of concrete compactness is ensured. Sealing structures are arranged at the connection positions of the power supply control unit and the driving vibration unit and the connection positions of the driving vibration unit and the operation unit, water and impurities can be effectively isolated, the corrosion and damage risk of internal circuits and mechanical components is reduced, the service life of the equipment is prolonged, and the maintenance cost is reduced. BRIEF DESCRIPTION OF DRAWINGS

[0038] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the drawings needed to be used in the embodiments or prior art description will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative labor.

[0039] Figure 1 is a structural schematic view of an embodiment of the concrete vibrating device of the present application;

[0040] Figure 2 is a structural schematic view of a battery module in the concrete vibrating device of the present application;

[0041] Figure 3 is a top view structural schematic view of Figure 2 ;

[0042] Figure 4 is a structural schematic view of a limiting unit in the concrete vibrating device of the present application;

[0043] Figure 5 This is a schematic diagram of the structure of the driving vibration unit in the concrete vibrating device of the present invention;

[0044] Figure 6 This is a schematic diagram of the working unit in the concrete vibrating device of the present invention. Figure 1 ;

[0045] Figure 7 This is a schematic diagram of the working unit in the concrete vibrating device of the present invention. Figure 2 ;

[0046] Figure 8 This is a schematic diagram of the working unit in the concrete vibrating device of the present invention. Figure 3 .

[0047] In the diagram: 1. Power supply control unit; 11. Battery module; 111. Housing; 112. Signal transmission component; 113. Shock absorption structure; 114. Ring connector; 115. Metal contact; 12. Bluetooth controller module;

[0048] 2. Vibration drive unit; 21. Drive component; 22. Transmission component; 23. Elastic component; 24. Eccentric vibration component;

[0049] 3. Work Unit; 31. First Work Module; 32. Second Work Module; 33. Third Work Module;

[0050] 4. Limiting unit; 41. Telescopic adjustable height limiting rod; 42. Conductive contact. Detailed Implementation

[0051] To make the objectives, technical solutions, and advantages of this invention clearer, the technical solutions of this invention will be described in detail below. Obviously, the described embodiments are merely some embodiments of this invention, and not all embodiments. Based on the embodiments of this invention, all other implementation methods obtained by those skilled in the art without creative effort are within the scope of protection of this invention.

[0052] Figure 1 This is a structural schematic diagram of this embodiment, as shown below. Figure 1 As shown, the present invention provides a concrete vibration device, including: a power supply control unit 1, a drive vibration unit 2, a working unit 3, and a limiting unit 4.

[0053] The power supply control unit 1 provides electrical energy and transmits control commands. The drive vibration unit 2 is connected to the power supply control unit 1 to obtain electrical energy and control commands, and the drive vibration unit 2 can generate the vibration required for compaction. The working unit 3 includes multiple different working modules, which can be detachably connected to the drive vibration unit 2 to adapt to different compaction scenarios. The limiting unit 4 is connected to the power supply control unit 1 and is used to locate the compaction position.

[0054] Specifically, the power supply control unit 1, the drive vibration unit 2, and the working unit 3 are arranged sequentially from top to bottom, and the connection between the power supply control unit 1 and the drive vibration unit 2, as well as the connection between the drive vibration unit 2 and the working unit 3, are all provided with a sealing structure.

[0055] In this embodiment, the sealing structure is a water-stop rubber gasket, and the power supply control unit 1 and the drive vibration unit 2, as well as the drive vibration unit 2 and the working unit 3, are all detachably connected through a screw-in connection structure. The water-stop rubber gasket is located at the fitting gap of the screw-in connection structure.

[0056] Optionally, the cross-section of the water-stop rubber gasket can be designed as a "V" shape or a "U" shape to give it a self-tightening function and a better sealing effect.

[0057] This concrete vibrating device achieves a modular design through the coordination of a power supply control unit 1, a drive vibration unit 2, an operating unit 3, and a limiting unit 4. Each unit functions independently yet works collaboratively, eliminating the need for complete disassembly or replacement during maintenance, thus reducing maintenance costs and improving construction efficiency. By connecting the power supply control unit 1 to the drive vibration unit 2, intelligent control allows for adaptive adjustment of vibration, resulting in high construction efficiency and more stable vibration quality. The operating unit 3, comprising multiple different operating modules, can be detachably connected to the drive vibration unit 2, addressing various vibration scenarios such as open structures, narrow reinforced areas, and deep, large-volume components, overcoming the limitations of traditional vibrators. The limiting unit 4, working in conjunction with the power supply control unit 1, precisely positions the vibration location, avoiding under- or over-vibration issues caused by manual depth judgment, ensuring uniform concrete density. By providing sealing structures at the connection points between the power supply control unit 1 and the drive vibration unit 2, and at the connection points between the drive vibration unit 2 and the working unit 3, moisture and impurities can be effectively isolated, reducing the risk of corrosion and damage to internal circuits and mechanical components, extending the service life of the equipment, and reducing maintenance costs.

[0058] As an optional implementation, the power supply control unit 1 includes a battery module 11 and a Bluetooth controller module 12.

[0059] in, Figure 2This is a schematic diagram of the battery module in this embodiment, as shown below. Figure 2 As shown, the battery module 11 includes a housing 111, inside which is a signal transmission device 112 for power supply and transmission of control commands and an energy storage device for storing electrical energy. The top and bottom of the housing 111 are respectively provided with shock-absorbing structures 113.

[0060] like Figure 2 and Figure 3 As shown, in this embodiment, the housing 111 serves as the external protection and support frame for the battery module 11, with an annular connection port 114 at the top and a screw-in connection groove at the bottom. The annular connection port 114 has metal contacts 115 that connect to the signal transmission component 112. The limiting unit 4 achieves electrical connection with the battery module 11 and transmits control commands through the metal contacts 115. The signal transmission component 112 is a continuous metal signal transmission rod arranged in the middle of the interior of the housing 111, penetrating the interior of the housing and extending to the annular connection port at the top and the connection groove at the bottom of the housing, respectively. It is used to connect the limiting unit, the Bluetooth controller module, and the drive vibration unit to achieve the transmission of electrical energy and control commands. The energy storage component (not shown in the figure) is an annular battery, assembled around the signal transmission rod in the inner cavity of the housing, electrically connected to the signal transmission rod, responsible for storing electrical energy and supplying power externally through the signal transmission rod. The shock-absorbing structure 113 is a shock-absorbing and water-stopping rubber pad that fits tightly against the housing.

[0061] The Bluetooth controller module 12 is detachably connected to the battery module 11, and a shock-absorbing and water-stopping rubber pad is provided at the connection point. The Bluetooth controller module 12 can receive external control signals and adjust the operating parameters of the drive vibration unit 2. In this embodiment, the Bluetooth controller module 12 is a sealed box with screw-in guide grooves at the top and bottom. Metal contact points are provided in the guide grooves, which can receive Bluetooth signals from terminal devices such as mobile phones and tablets. The top screw-in guide groove is detachably connected to the bottom screw-in connection groove of the battery module 11. The metal contact points in the guide grooves connect with the signal transmission rod of the battery module to realize power acquisition and command interaction. The bottom screw-in guide groove is connected to the top of the drive vibration unit, and the adjusted control commands are transmitted to the drive vibration unit through the metal contact points.

[0062] In use, the operator sends control commands, such as vibration time and frequency adjustment, to the Bluetooth controller module via an external terminal device, such as a mobile phone. After receiving the signal, the Bluetooth controller module parses and converts the commands. The converted control commands are then transmitted to the drive vibration unit through the connection between the metal contacts and the signal transmission rod, adjusting parameters such as the vibration frequency and working duration of the drive vibration unit.

[0063] By setting up a Bluetooth controller module 12, this concrete vibrator can be remotely controlled. Operators do not need to be in close contact with the vibration area and can adjust parameters in real time from a safe position based on concrete vibration feedback, thereby improving operational safety and control accuracy.

[0064] As an optional implementation method, Figure 4 This is a schematic diagram of the limiting unit in this embodiment, as shown below. Figure 4 As shown, the limiting unit 4 includes a telescopic adjustable height limiting rod 41. The telescopic adjustable height limiting rod 41 is provided with a conductive contact 42 that is adapted to the metal contact 115. The conductive contact 42 enables connection with the power supply control unit 1 and transmission of control commands.

[0065] As an optional implementation method, Figure 5 This is a schematic diagram of the structure of the driving vibration unit in this embodiment, as shown below. Figure 5 As shown, the driving vibration unit 2 includes a driving component 21, a transmission component 22, an elastic component 23, and an eccentric vibration component 24.

[0066] Wherein: the driving component 21 is connected to the power supply control unit 1 to obtain power; one end of the transmission component 22 is connected to the driving component 21, and the other end is connected to the elastic component 23; the eccentric vibrating component 24 is connected to the elastic component 23, and the driving component 21 can drive the elastic component 23 and the eccentric vibrating component 24 to move through the transmission component 22 to generate vibration.

[0067] In this embodiment, the driving component 21 is a drive motor, which can be a DC brushless motor selected according to the vibration requirements. The transmission component 22 is a drive shaft, the elastic component 23 is a rolling spring cone, and the eccentric vibration component 24 is an eccentric excitation hammer. The drive motor drives the rolling spring cone to rotate through the drive shaft, and the rolling spring cone drives the eccentric excitation hammer to roll to generate vibration.

[0068] Through the coordinated action of the drive component 21, transmission component 22, elastic component 23, and eccentric vibrator 24, electrical energy can be efficiently converted into high-frequency vibration. The strong vibration energy can quickly expel air bubbles from within the concrete, improving vibration efficiency and shortening the single vibration time. The rotational speed of the drive component 21 can be adjusted via the Bluetooth controller module 12, thereby changing the centrifugal force of the eccentric vibrator and enabling flexible adjustment of vibration frequency and amplitude to adapt to the vibration requirements of concretes of different strength grades, avoiding segregation caused by over-vibration. During use, the elastic component 23 can absorb some of the reverse vibration, reducing the impact of vibration on the drive component 21, reducing wear on the motor bearings, extending the service life of the drive component 21, and reducing equipment maintenance costs. The bottom of the eccentric vibrator 24 is equipped with a screw-in connection groove for connecting to the working unit 3.

[0069] As an optional implementation method, such as Figures 6-8As shown, the work unit 3 can meet the needs of various working conditions, and the work module includes at least one of the following:

[0070] The first operation module 31, adapted for open vibratory compaction scenarios, such as Figure 6 As shown, the first working module 31 has a circular structure with a hollow interior. In this embodiment, the top of the first working module 31 has a screw-in connection structure for connecting to the bottom of the driving vibration unit 2. During connection, the water-stop rubber gasket is squeezed to fill the gap, forming a seal. The bottom of the first working module 31 is hemispherical, designed for direct contact with the concrete to transmit vibration. This design is suitable for environments with relatively open interiors.

[0071] The second working module 32, adapted for vibration compaction scenarios in confined spaces, such as Figure 7 As shown, the second working module 32 is a conical structure that is thicker at the top and thinner at the bottom. In this embodiment, the top of the second working module 32 is provided with a screw-in connection structure for connecting to the bottom of the driving vibration unit 2. During connection, the water-stop rubber gasket is squeezed to fill the gap, forming a seal. Optionally, in this embodiment, the generatrix of the conical surface of the conical structure has an angle of 30° with the axis, and the surface is polished to reduce resistance when inserted into the concrete.

[0072] The conical shape of the second working module 32 is suitable for more complex working conditions, such as vertical concrete components with a large number of stirrups or other environments where vertical placement is difficult, and is especially suitable for vibration scenarios in narrow spaces. In use, the operator holds the vibrator, aligns the sharp bottom of the conical module with the gaps between the reinforcing bars, and uses the guiding nature of the conical structure to easily insert it into the narrow space; vibration is transmitted to the conical surface, locally compacting the surrounding concrete and avoiding blind spots caused by reinforcing bars.

[0073] The third operation module 33, adapted for deep component vibration scenarios, such as Figure 8 As shown, the third working module 33 has a square structure, and multiple third working modules 33 can be assembled sequentially to extend the vibration depth. In this embodiment, both the top and bottom of the third working module 33 are provided with screw-in connection structures. The screw-in connection structure at the top is used to connect with the bottom of the driving vibration unit 2. During connection, the water-stop rubber gasket is squeezed to fill the gap, forming a seal. The screw-in connection structure at the bottom is used for the series connection of multiple square extension modules. By connecting multiple sections in series, the vibration depth can be flexibly adjusted to achieve the best working conditions without replacing the entire set of equipment, improving the flexibility of use and making it suitable for extending the use of large or deep components.

[0074] It should be noted that when a square structure is used alone, a pad block needs to be placed at the bottom to ensure the vibration effect of this part of the concrete.

[0075] As an optional implementation, an auxiliary guide is also included, which can be connected to the power supply control unit 1 to guide the concrete vibrator to the target vibration location or to remove the concrete vibrator after vibration is completed.

[0076] In this embodiment, the auxiliary guide is a steel cable conductor. Specifically, a multi-strand galvanized steel cable is selected. The multi-strand design improves the cable's flexibility, facilitating bending and guidance in complex construction environments, while also enhancing tensile strength. Preferably, the steel cable surface is galvanized, which effectively resists corrosion from cement slurry and moisture in the construction environment, extending its service life.

[0077] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A concrete vibrating device, characterized in that, include: The power supply control unit is used to provide electrical energy and transmit control commands; A drive vibration unit is connected to the power supply control unit to obtain electrical energy and control commands, and the drive vibration unit is capable of generating the vibration required for tamping. The working unit includes multiple different working modules, which can be detachably connected to the driving vibration unit to adapt to different vibration scenarios; A limiting unit, connected to the power supply control unit, is used to position the vibration. The connection between the power supply control unit and the drive vibration unit, and the connection between the drive vibration unit and the working unit, are both provided with a sealing structure.

2. The concrete vibrating device according to claim 1, characterized in that: The power supply control unit includes: A battery module includes a housing, within which are provided a signal transmission device for power supply and transmission of control commands, and an energy storage device for storing electrical energy. The top and bottom of the housing are respectively provided with shock-absorbing structures. The Bluetooth controller module is detachably connected to the battery module, and the Bluetooth controller module is capable of receiving external control signals and adjusting the operating parameters of the drive vibration unit.

3. The concrete vibrating device according to claim 2, characterized in that: The housing is provided with an annular connection port, and the annular connection port is provided with a metal contact for connecting to the signal transmission component. The limiting unit realizes electrical connection with the battery module and transmission of control commands through the metal contact.

4. The concrete vibrating device according to claim 3, characterized in that: The limiting unit includes a telescopic adjustable height limiting rod, which is provided with conductive contacts that are compatible with the metal contacts.

5. The concrete vibrating device according to any one of claims 1-4, characterized in that: The driving vibration unit includes a driving component, a transmission component, an elastic component, and an eccentric vibration component, wherein: The drive unit is connected to the power supply control unit to obtain power; One end of the transmission component is connected to the driving component, and the other end is connected to the elastic component; The eccentric vibrating element is connected to the elastic element, and the driving element can drive the elastic element and the eccentric vibrating element to move through the transmission element to generate vibration.

6. The concrete vibrating device according to claim 5, characterized in that: The driving component is a drive motor, the transmission component is a transmission shaft, the elastic component is a rolling spring cone, and the eccentric vibration component is an eccentric excitation hammer. The drive motor drives the rolling spring cone to rotate through the transmission shaft, and the rolling spring cone drives the eccentric excitation hammer to roll to generate vibration.

7. The concrete vibrating device according to any one of claims 1-4, characterized in that: The work unit includes at least one of the following: The first working module is adapted to open vibration tamping scenarios. The first working module has a circular structure and a hollow interior. The second working module is adapted for vibration compaction scenarios in confined spaces. The second working module has a conical structure that is thicker at the top and thinner at the bottom. A third working module adapted for deep component vibration scenarios, wherein the third working module has a square structure and multiple third working modules can be assembled sequentially to extend the vibration depth.

8. The concrete vibrating device according to any one of claims 1-4, characterized in that: The sealing structure is a water-stopping rubber gasket, and the power supply control unit and the drive vibration unit, as well as the drive vibration unit and the working unit, are detachably connected through a screw-in connection structure. The water-stopping rubber gasket is located at the fitting gap of the screw-in connection structure.

9. The concrete vibrating device according to any one of claims 1-4, characterized in that: It also includes an auxiliary guide that can be connected to the power supply control unit to guide the concrete vibrator to the target vibration location or to remove the concrete vibrator after vibration is completed.

10. The concrete vibrating device according to claim 9, characterized in that: The auxiliary guide is a steel cable conductor.

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