Anti-falling anti-seismic support

Abstract

The anti-falling anti-seismic support comprises a pipeline main clamp, a vertical supporting assembly, a lateral inclined supporting assembly and an anti-falling assembly, the lower end of the vertical supporting assembly is connected with the main clamp, the upper end of the vertical supporting assembly is used for being fixed to the top face of a building, the lower end of the lateral inclined supporting assembly is connected with the pipeline main clamp, and the upper end of the lateral inclined supporting assembly is used for being fixed to the top face of the building. The anti-falling assembly comprises an auxiliary hoop assembly, a steel wire rope, a first hanging ring and an anti-falling ball, the auxiliary hoop assembly is used for supporting a pipeline and is spaced from a pipeline main hoop, the first hanging ring is fixed to the top face of a building, one end of the steel wire rope is connected with the auxiliary hoop assembly, and the other end of the steel wire rope is connected with the anti-falling ball; the steel wire rope is fixedly connected with the lateral inclined supporting assembly and the vertical supporting assembly in sequence and then penetrates through the first hanging ring, and the anti-disengaging ball is hung at the tail end of the steel wire rope, is vertically spaced from the first hanging ring and is used for abutting against the first hanging ring to limit falling of the pipeline. The anti-falling pipeline support achieves the functions of stably supporting the pipeline and effectively preventing the pipeline from falling off.

Description

Technical Field

[0001] The utility model relates to the technical field of earthquake-resistant brackets, in particular to an anti-falling earthquake-resistant bracket. Background Art

[0002] Seismic supports are mainly used to limit the displacement of auxiliary mechanical and electrical engineering facilities (such as water supply and drainage, fire protection, heating, ventilation, air conditioning, gas, heat, electricity, communications and other facilities), control the vibration of the facilities, and transfer the load to the bearing structure. When the building encounters an earthquake with the seismic fortification intensity of the area, the seismically reinforced building mechanical and electrical engineering facilities can reduce earthquake damage, reduce and prevent the occurrence of secondary disasters as much as possible, thereby ensuring personnel safety and reducing property losses.

[0003] Since the pipes used for connecting supports at the lower side of the seismic support are in a high-support state for a long time, there is a possibility of pipe falling off. Slight looseness of the pipe cannot be clearly observed, and the falling off can only be known when it is completely fallen off, which will cause an impact. Utility Model Content

[0004] The purpose of the utility model is to provide an anti-falling anti-seismic bracket to solve the above-mentioned problems existing in the anti-seismic brackets currently used for pipelines.

[0005] In order to achieve the above purpose, the present invention adopts the following technical solutions:

[0006] The harness is adapted to be rotated to move along the guide rails, wherein the harness is secured to the upper and lower ends of the harness, and the harness is rotated to move along the guide rails to move along the harness.

[0007] Furthermore, the main pipe clamp includes a lower clamp, an upper support plate and a stud, the lower clamp is used to support the pipe, the upper support plate is connected to the lower clamp through the stud, the vertical support assembly is connected to the upper support plate, and the lateral diagonal bracing assembly is connected to the lower clamp and the upper support plate through the stud.

[0008] Furthermore, the lateral brace assembly includes a lateral brace plate and a first connecting plate and a second connecting plate arranged at both ends of the lateral brace plate, the first connecting plate is used to be connected to the stud, and the second connecting plate is used to be connected to the top surface of the building, the lateral brace plate is provided with a second lifting ring, the steel wire rope is passed through the second lifting ring, and two first fixing balls are fixed on the steel wire rope, and the two first fixing balls are respectively located on both sides of the second lifting ring for fixing the steel wire rope to the second lifting ring.

[0009] Furthermore, the vertical support assembly includes a vertical channel steel and a screw passing through the vertical channel steel. The lower end of the screw is connected to the upper support plate, and the upper end is used to be connected to the top surface of the building. A third lifting ring is provided on the vertical channel steel, and the steel wire rope is provided through the third lifting ring. Two second fixing balls are fixed on the steel wire rope, and the two second fixing balls are respectively located on both sides of the third lifting ring for fixing the steel wire rope to the third lifting ring.

[0010] Furthermore, the auxiliary clamp assembly includes two half hoops connected by fastening bolts, and the half hoops are provided with lifting ears, and the lower end of the wire rope is fixed on the lifting ears.

[0011] Furthermore, the steel wire rope is provided with a marking line for indicating the height between the first lifting ring and the anti-drop ball.

[0012] Beneficial effects of the utility model:

[0013] The anti-falling anti-seismic bracket of the present invention forms a double support structure by arranging an anti-falling component, which greatly enhances the stability of the pipeline. The combined design of the wire rope, the first lifting ring and the anti-falling ball can timely sense and restrict its further movement through the tension of the wire rope until it finally abuts against the first lifting ring, thereby effectively preventing the pipeline from falling off completely, avoiding secondary disasters that may be caused by the falling of the pipeline, improving the safety monitoring capability, and timely discovering hidden dangers. Since the anti-falling ball is spaced apart from the first lifting ring, when the pipeline is slightly loose, the falling situation can be judged by observing the position of the anti-falling ball, and there is no need to wait until the pipeline is completely fallen off to know the situation. This early warning mechanism helps to timely discover and deal with potential safety hazards, prevent the situation from escalating, and further ensure the safety of people and property. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a schematic diagram of the use scenario of the anti-falling and earthquake-resistant bracket of the utility model;

[0015] Figure 2 This is a schematic diagram of the structure of the anti-falling and earthquake-resistant bracket of the utility model;

[0016] Figure 3 It is a structural schematic diagram of the anti-falling component in the anti-falling anti-seismic bracket of the utility model.

[0017] The names corresponding to the marks in the figure are:

[0018] Pipe main clamp 10, lower clamp 11, upper support plate 12, stud 13, vertical support assembly 20, vertical channel steel 21, screw 22, third lifting ring 23, lateral diagonal brace assembly 30, diagonal brace plate 31, first connecting plate 32, second connecting plate 33, second lifting ring 34, anti-falling assembly 40, auxiliary clamp assembly 41, half hoop 411, fastening bolt 412, lifting ear 413, wire rope 42, first fixing ball 421, second fixing ball 422, first lifting ring 43, anti-falling ball 44. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be described clearly and completely below with reference to the accompanying drawings in the embodiments of the present invention.

[0020] like Figure 1 - Figure 3 As shown, the anti-falling anti-seismic bracket of this embodiment includes a pipe main clamp 10, a vertical support assembly 20, a lateral diagonal support assembly 30 and an anti-falling assembly 40. These components work together to ensure that under extreme conditions such as earthquakes, the pipeline can be stable and not fall off, and effectively transfer the load to the building structure.

[0021] like Figure 1 and Figure 2 As shown, the main pipe clamp 10 is used to directly support and fix the pipe, including a lower clamp 11, an upper support plate 12 and a stud 13. The lower clamp 11 is arc-shaped and fits tightly to the bottom of the pipe to provide support. The upper support plate 12 is fastened to the lower clamp 11 through the stud 13. In addition, the vertical support assembly 20 is fixed on the upper support plate 12 to ensure stability in the vertical direction.

[0022] like Figure 2 As shown, the vertical support assembly 20 includes a vertical channel steel 21 and a screw 22 extending therethrough. The lower end of the screw 22 is connected to the upper support plate 12, and the upper end is used to secure it to the roof of the building, typically using expansion bolts. A third eye 23 is provided on the vertical channel steel 21 for subsequent securing of the wire rope.

[0023] Figure 2As shown, the lateral bracing assembly 30 includes a lateral bracing plate 31, a first connecting plate 32, a second connecting plate 33, and a second lifting ring 34. The lateral bracing plate 31 is a long steel plate, with the first and second connecting plates 32, 33 connected at either end. The first connecting plate 32 has holes that match the studs 13, facilitating connection with the main pipe clamp 10. The second connecting plate 33 is secured to the roof of the building, ensuring the stability of the lateral bracing. A second lifting ring 34 is provided on the second bracing plate for securing the steel wire rope, enhancing the lateral support.

[0024] Figure 2 and Figure 3 As shown, the anti-fall assembly 40 includes an auxiliary clamp assembly 41, a wire rope 42, a first lifting ring 43 and an anti-fall ball 44. The auxiliary clamp assembly 41 is composed of two half hoops 411 connected by fastening bolts 412. The half hoops are provided with a lifting ear 413, and the lower end of the wire rope 42 is fixed to the lifting ear 413. The first lifting ring 43 is fixed to an appropriate position on the top surface of the building. The wire rope 42 passes through the second lifting ring 34 of the lateral bracing assembly 30 and the third lifting ring 23 of the vertical support assembly 20 in sequence, and finally passes through the first lifting ring 43 and is connected to the anti-fall ball 44. At the same time, two first fixing balls 421 are fixed to the wire rope 42. The two first fixing balls 421 are respectively located on both sides of the second lifting ring and are used to fix the wire rope 42 to the second lifting ring 43. Two second fixing balls 422 are fixed to the wire rope 42. The two second fixing balls 422 are respectively located on both sides of the third lifting ring 23 and are used to fix the wire rope 42 to the third lifting ring 23.

[0025] The anti-drop ball 44 is designed to be spherical and is spaced apart from the first hanging ring 43 in the upper and lower parts. It is used to abut against the first hanging ring 43 when the pipeline accidentally falls, thereby preventing the pipeline from falling further.

[0026] In order to further improve safety and convenience, a height display marking line (not shown in the figure) is provided between the first lifting ring 43 and the anti-drop ball 44 of the wire rope 42. The position of the marking line can be adjusted according to actual needs to monitor whether there is a slight displacement of the pipeline, so as to facilitate timely detection and taking measures.

[0027] Working principle:

[0028] During use, the pipe is first placed in the main pipe clamp 10, and the upper support plate 12 is fastened to the lower clamp 11 via the studs 13. Then, the vertical support assembly 20 and the lateral diagonal brace assembly 30 are installed and fixed to ensure the overall stability of the bracket. Next, the wire rope 42 is passed through each eyelet in turn and connected to the anti-fall-off ball 44. In the event of an earthquake or other extreme situation, even if the pipe becomes loose for some reason, the wire rope 42 and anti-fall-off ball 44 in the anti-fall-off assembly 40 can quickly take effect and prevent the pipe from falling off completely, thereby ensuring the safety of personnel and reducing property losses.

[0029] In summary, the anti-falling and earthquake-resistant bracket of this embodiment achieves stable support and effective anti-falling function for the pipeline through its unique structural design, thereby improving the safety and stability of electromechanical engineering facilities under extreme conditions such as earthquakes.

[0030] Obviously, the embodiments described are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art are within the scope of protection of the present invention.

Claims

1. An anti-falling and earthquake-resistant bracket, characterized by: The harness is mounted on a rack and is adapted to engage with the harness's upper end and engage with the lower end of the harness's lower end, the harness's lower end being adapted to engage with the harness's upper end.

2. The anti-fall and anti-seismic bracket according to claim 1, characterized in that: The main pipe clamp includes a lower clamp, an upper support plate and a stud. The lower clamp is used to support the pipe. The upper support plate is connected to the lower clamp through the stud. The vertical support assembly is connected to the upper support plate. The lateral diagonal bracing assembly is connected to the lower clamp and the upper support plate through the stud.

3. The anti-fall and anti-seismic bracket according to claim 2, characterized in that: The lateral diagonal brace assembly includes a lateral diagonal brace plate and a first connecting plate and a second connecting plate arranged at both ends of the lateral diagonal brace plate, the first connecting plate is used to be connected to the stud, and the second connecting plate is used to be connected to the top surface of the building, a second lifting ring is provided on the lateral diagonal brace plate, the steel wire rope is passed through the second lifting ring, two first fixing balls are fixed on the steel wire rope, and the two first fixing balls are respectively located on both sides of the second lifting ring for fixing the steel wire rope to the second lifting ring.

4. The anti-falling and anti-seismic bracket according to claim 3, characterized in that: The vertical support assembly includes a vertical channel steel and a screw passing through the vertical channel steel. The lower end of the screw is connected to the upper support plate, and the upper end is used to be connected to the top surface of the building. A third lifting ring is provided on the vertical channel steel, and the steel wire rope is provided through the third lifting ring. Two second fixing balls are fixed on the steel wire rope, and the two second fixing balls are respectively located on both sides of the third lifting ring for fixing the steel wire rope to the third lifting ring.

5. The anti-falling and anti-seismic bracket according to claim 4, characterized in that: The auxiliary clamp assembly includes two half hoops connected by fastening bolts. The half hoops are provided with lifting ears, and the lower end of the wire rope is fixed on the lifting ears.

6. The anti-falling and anti-seismic bracket according to claim 5, characterized in that: The steel wire rope is provided with a marking line for indicating the height between the first lifting ring and the anti-dropping ball.

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