Anti-seismic and anti-falling safe moisture removal pipeline and using method thereof

Abstract

The invention discloses an anti-seismic and anti-falling safe moisture removal pipeline and a using method thereof, and relates to the technical field of moisture-proof pipelines, the anti-seismic and anti-falling safe moisture removal pipeline comprises pipeline bodies, the pipeline bodies are connected through flange mechanisms, anti-falling mechanisms are further arranged at the joints of the pipeline bodies, each anti-falling mechanism comprises a load clamping seat, and an anti-seismic device is mounted at the top of each load clamping seat; the anti-seismic device comprises a supporting seat, a stabilizing arm is fixedly installed in the middle of the supporting seat, a driving rotating shaft is arranged at one end of the stabilizing arm, and a ratchet wheel body driven by a line pendant mechanism is installed at the end, penetrating through the stabilizing arm, of the driving rotating shaft. And a pendulum main body in the pendulum mechanism swings through a vertical rod to drive a ratchet main body to repeatedly deflect left and right, vibration energy is converted into mechanical energy, the energy is further dissipated through the action of a ratchet wheel, and vibration of the pipeline is reduced.

Description

Technical Field

[0001] The present invention relates to the technical field of moisture-proof pipes, and in particular to an earthquake-resistant and anti-falling safety moisture-discharging pipe and a use method thereof. Background Art

[0002] During the snowflake salt processing, especially during the evaporation and crystallization stages, a large amount of water vapor and moisture will be generated. The moisture exhaust pipe system is an indispensable part used to remove humid air, exhaust gas or other harmful gases to maintain the comfort and safety of the indoor environment.

[0003] Flange connections are the most common connection method in moisture-relief piping systems. Flanges are installed at both ends of the pipe and bolted together to create a connection. This connection method offers advantages such as ease of installation and removal, the ability to withstand high pressures and temperatures, and suitability for a variety of operating conditions. Some suspended pipes can also be suspended using a lifting bracket.

[0004] Existing lifting brackets are often composed of support rods, support bases and stabilizer rods, and are connected to pipes through hanging beams. By fixing the support bases to the wall and providing the main supporting force through the support rods, a triangular structure is formed by the stabilizer rods and the support rods to increase the stability of the lifting pipes. However, this triangular rigid structure cannot effectively dissipate energy when the pipes are subjected to strong vibrations, resulting in stress concentration on the structure, which is prone to damage, and the rivets on the flanges of the pipe connectors are prone to loosening and falling off. Summary of the Invention

[0005] In view of the above problems in the prior art, the present invention is proposed.

[0006] Therefore, the purpose of the present invention is to provide a shock-resistant and anti-falling safety moisture-removing pipe and its use method. The problem to be solved is that when transporting multiple groups of chips, when the chips are placed on the same transport carrier, the carrier needs to be completely opened when taking them out, which is very inconvenient, and dust in the air can easily enter the interior of the device, affecting the quality of the chips.

[0007] To achieve the above-mentioned object, the present invention provides the following technical solutions: an earthquake-resistant and anti-fall-off safety moisture-discharging pipe and a method for using the same, comprising a pipe body, wherein the pipe bodies are connected by a flange mechanism, and an anti-fall-off mechanism is further provided at the connection between the pipe bodies, wherein the anti-fall-off mechanism includes a load holder, and an anti-seismic device is installed on the top of the load holder;

[0008] The anti-seismic device includes a support base fixedly mounted on the load base, a vertically distributed stabilizing arm fixedly mounted in the middle of the support base, an active rotating shaft is provided at one end of the stabilizing arm away from the support base, and a ratchet body driven by a plummet mechanism is fixedly mounted on one end of the active rotating shaft passing through the stabilizing arm;

[0009] A first hanging seat is also provided at one end of the stabilizing arm away from the supporting seat, a first extension arm is fixedly installed at one end of the first hanging seat, a driven rotating shaft is rotatably connected to the first extension arm, and a ratchet body driven by a pendulum mechanism and adapted to the ratchet body is fixedly installed on one end of the driven rotating shaft passing through the first extension arm.

[0010] As a preferred solution of the earthquake-resistant and anti-falling safety moisture-discharging pipe described in the present invention, the pendulum mechanism includes a reinforcing sleeve shaft fixedly installed on the driven rotating shaft and integrally formed with the ratchet body, a vertical rod is fixedly installed on the reinforcing sleeve shaft, and the pendulum body is fixedly connected to the end of the vertical rod away from the reinforcing sleeve shaft.

[0011] As a preferred solution of the earthquake-resistant and anti-fall safety moisture-draining pipe described in the present invention, the plumb line mechanism includes a coil shaft fixedly sleeved on the active rotating shaft, a vertical line is wound on the coil shaft, and the initial end of the vertical line is fixedly connected to the coil shaft, and the end of the vertical line is connected to the plumb line body located above the support seat.

[0012] As a preferred solution of the earthquake-resistant and anti-fall safety moisture-discharging pipe described in the present invention, a second extension arm is fixedly installed in the middle of the first lifting seat, one end of the driven rotating shaft extends to the middle of the second extension arm, and the stabilizing arm is hingedly connected to the second extension arm through an active rotating shaft.

[0013] As a preferred solution of the earthquake-resistant and anti-fall safety type moisture-discharging pipe described in the present invention, wherein: a hinged seat is also fixedly installed at both ends of the support seat, and a second lifting seat corresponding to the hinged seat and in an L shape is provided above the support seat, and a support arm is provided between the second lifting seat and the hinged seat, and the bottom end of the support arm is hingedly connected to the two ends of the support seat through the hinged seat, and the top end of the support seat is movably connected with a buffer slider, and the buffer slider is slidably connected to the second lifting seat corresponding to it, and the buffer slider is provided with a guide rod distributed parallel to the support seat, and the guide rod outer sleeve is provided with a spring located below the second lifting seat.

[0014] As a preferred solution of the earthquake-resistant and anti-falling safety moisture-discharging pipe described in the present invention, the flange mechanism includes a docking flange fixed on the pipe body and a flange plate fixedly installed on the adjacent pipe body, and a sealing edge is also provided at one end of the docking flange close to the flange plate, and the docking flange and the flange plate are connected by a rivet group.

[0015] As a preferred solution of the earthquake-resistant and anti-falling safety moisture-discharging pipe described in the present invention, the anti-falling mechanism also includes a docking socket corresponding to the load socket, the docking socket and the load socket are connected by bolt fasteners, and the docking socket and the load socket are both provided with arc grooves adapted to the pipe body, and the arc grooves in the docking socket and the load socket are both provided with arc-shaped sealing gaskets corresponding to the connection at the pipe body.

[0016] As a preferred solution of the earthquake-resistant and anti-falling safety moisture-discharging pipe described in the present invention, the outer side of the pipe body is sprayed with an anti-corrosion coating, and an insulation layer and a moisture-proof layer are respectively provided on the outside of the pipe body, and the insulation layer is located between the anti-corrosion coating and the moisture-proof layer, and a protective rubber sleeve is wrapped around the outside of the pipe body.

[0017] The method for using the earthquake-resistant and anti-falling safety type moisture-draining pipe is characterized by comprising the following steps:

[0018] Step 1: When the device is needed, the inner wall of the pipe body is first waterproofed, and then the outer side is sprayed with anti-corrosion coating, insulation layer, moisture-proof layer, and finally wrapped with protective rubber sleeve;

[0019] Step 2: Assemble the butt flange and flange plate with rivet groups to complete the butt connection of two adjacent pipe bodies, and use sealing baffles to shield the joints.

[0020] Step 3: Use bolt fasteners to complete the assembly of the docking base and the load base, reducing the probability of the rivet group loosening and falling off, and at the same time fit with the pipe body through the arc groove;

[0021] Step 4: Hoist the connected pipe body through the support base and load holder connected to the anti-seismic device using the flange mechanism and anti-slip mechanism;

[0022] Step 5: When the pipeline is impacted and vibrates, the stabilizing arm deflects with the active rotating shaft as the center, providing movement space to reduce stress concentration. The plumb line body uses gravity to drive the ratchet body to rotate, offsetting the reverse force to stabilize the pipeline; the pendulum body swings to drive the ratchet body to deflect, converting the vibration energy into mechanical energy and dissipating it; the buffer slider slides along the guide rod, and absorbs the impact through spring deformation buffering to protect the pipeline.

[0023] In summary, the present invention has at least one of the following beneficial effects:

[0024] 1. The present invention utilizes the gravity of the plumb line body to drive the ratchet body and the active rotating shaft through the plumb line mechanism, thereby offsetting the rotational forces in opposite directions, stabilizing the pipeline and reducing vibration. The pendulum body in the pendulum mechanism swings through the vertical rod, driving the ratchet body to repeatedly deflect left and right, converting vibration energy into mechanical energy, and further dissipating energy through the ratchet action, thereby reducing the vibration of the pipeline.

[0025] 2. The present invention is connected to the stabilizing arm through the support seat in the anti-seismic device, which can deflect with the active rotating shaft as the center when vibration occurs, providing a certain amount of activity space for the pipeline, reducing the stress concentration caused by the rigid connection, and effectively protecting the pipeline from damage.

[0026] 3. The present invention provides elastic buffering through the deformation of the spring in the buffer mechanism to absorb and consume the impact caused by vibration. In addition, by designing protective layers such as anti-corrosion coating, thermal insulation layer, moisture-proof layer and protective rubber sleeve on the pipeline body, buffering protection and long-term protection of the pipeline during small-amplitude movement are achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments. Obviously, the drawings described below are only some embodiments described in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0028] Figure 1 This is a schematic diagram of the front three-dimensional structure of the present invention;

[0029] Figure 2 It is a back perspective structural diagram of the present invention;

[0030] Figure 3 is a cutaway perspective view of the present invention;

[0031] Figure 4 This is an exploded view of the structural flange mechanism and the anti-slip mechanism of the present invention;

[0032] Figure 5 This is a structural diagram of the anti-seismic device of the present invention:

[0033] Figure 6 The structure of the present invention Figure 2 A-part enlarged structure diagram:

[0034] Figure 7 This is a diagram of the installation structure of the pendulum mechanism and the plumb line mechanism of the present invention:

[0035] Figure 8 It is a cross-sectional view of the pipeline body of the present invention.

[0036] Description of reference numerals:

[0037] 1. Pipeline body; 101. Anti-corrosion coating; 102. Insulation layer; 103. Moisture-proof layer; 104. Protective rubber sleeve; 2. Docking flange; 201. Flange; 202. Sealing edge; 203. Rivet group; 3. Docking socket; 4. Load socket; 5. Arc sealing gasket; 6. Bolt fastener; 7. Support seat; 701. Stabilizing arm; 702. Active rotating shaft; 703. Articulated seat; 8. First lifting seat; 801. First extension arm; 802. Driven rotating shaft; 803. Second extension arm; 9. Ratchet body; 10. Ratchet body; 11. Reinforced sleeve; 1101. Vertical rod; 1102. Pendulum body; 12. Coil shaft; 1201. Vertical line; 1202. Plumb line body; 13. Second lifting seat; 14. Buffer slider; 1401. Guide rod; 1402. Spring; 15. Support arm. DETAILED DESCRIPTION

[0038] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0039] The embodiments of the present invention disclose an earthquake-resistant and anti-falling safety type moisture-discharging pipe and a method of using the same.

[0040] Example 1

[0041] Reference Figure 1-8, which is a first embodiment of the present invention, provides an earthquake-resistant and anti-falling safety type moisture-draining pipe and a method of using the same. The earthquake-resistant and anti-falling safety type moisture-draining pipe includes a pipe body 1, which is connected to each other by a flange mechanism, and an anti-falling mechanism is also provided at the connection between the pipe bodies 1. The anti-falling mechanism includes a load holder 4, and an anti-seismic device is installed on the top of the load holder 4. The anti-seismic device includes a support seat 7 fixedly installed on the load holder 4, and a vertically distributed stabilizing arm 701 is fixedly installed on the middle part of the support seat 7. The stabilizing arm 701 is provided with an active rotating shaft 702 at one end away from the support seat 7, and the active rotating shaft 702 passes through one end of the stabilizing arm 701 and is fixedly installed with a ratchet body 10 driven by a plumb line mechanism. The stabilizing arm 701 is also provided with a first hanging seat 8 at one end away from the support seat 7, and a first extension arm 801 is fixedly installed at one end of the first hanging seat 8. A driven rotating shaft 802 is rotatably connected to the first extension arm 801, and the driven rotating shaft 802 passes through the first extension arm 801. One end is fixedly installed with a ratchet body 9 driven by a pendulum mechanism and compatible with the ratchet body 10. The pipe body 1 is a high-strength steel pipe, and the inner wall is waterproofed. The flange mechanism is used to connect the components of adjacent pipe bodies 1 to ensure the sealing and stability between the pipes. The anti-slip mechanism is a device that prevents the flange from falling off under vibration or impact. The load holder 4 is used to connect the anti-seismic device to the pipe body 1. The support seat 7 is used to support the entire anti-seismic device and is connected to the load holder 4. The stabilizing arm 701 is responsible for hoisting the support seat 7, and when the pipe vibrates, it can be deflected with the active rotating shaft 702 as the center under the first hoisting seat 8. The ratchet body 10 is driven by the plumb line mechanism while maintaining the same direction of rotation as the active rotating shaft 702. The first hoisting seat 8 is provided with a hoisting hole, and the first extension arm 801 provides tension for the stabilizing arm 701. The ratchet body 9 is fixedly connected to the driven rotating shaft 802, and is driven by the pendulum mechanism and cooperates with the ratchet body 10 to realize the anti-seismic energy dissipation function.

[0042] The pendulum mechanism includes a reinforcing sleeve 11 which is fixedly mounted on the driven rotating shaft 802 and is an integrally formed structure with the ratchet body 9. A vertical rod 1101 is fixedly mounted on the reinforcing sleeve 11. The end of the vertical rod 1101 away from the reinforcing sleeve 11 is fixedly connected to the pendulum body 1102. The reinforcing sleeve 11 is used to enhance the connection stability between the ratchet body 9 and the driven rotating shaft 802. When vibration occurs, the pendulum body 1102 can swing to drive the ratchet body 9 to deflect repeatedly left and right, and further engage with the ratchet body 10, thereby consuming energy of vibration through the ratchet movement.

[0043] The plumb bob mechanism includes a coil shaft 12 fixedly sleeved on the active rotating shaft 702, a vertical line 1201 is wound around the coil shaft 12, and the initial end of the vertical line 1201 is fixedly connected to the coil shaft 12, and the end of the vertical line 1201 is connected to the plumb bob body 1202 located above the support seat 7. The coil shaft 12 can suspend the plumb bob body 1202 in mid-air through the vertical line 1201, and drive the ratchet body 10 and the active rotating shaft 702 to rotate in a specific direction through its gravity, so that it can generate vibration and offset the force of rotation in the opposite direction.

[0044] A second extension arm 803 is fixedly installed in the middle of the first lifting seat 8, and one end of the driven rotating shaft 802 extends to the middle of the second extension arm 803. The stabilizing arm 701 is hingedly connected to the second extension arm 803 through the active rotating shaft 702. The second extension arm 803 provides support for the driven rotating shaft 802 and the active rotating shaft 702 during rotation, thereby further improving the structural strength of the device.

[0045] The two ends of the support seat 7 are also fixedly installed with an articulated seat 703. A second lifting seat 13 corresponding to the articulated seat 703 and in an L shape is provided above the support seat 7. A support arm 15 is provided between the second lifting seat 13 and the articulated seat 703. The bottom end of the support arm 15 is hingedly connected to the two ends of the support seat 7 through the articulated seat 703. The top of the support seat 7 is movably connected with a buffer slider 14. The buffer slider 14 is slidably connected to the corresponding second lifting seat 13, and the buffer slider 14 is provided with a guide parallel to the support seat 7. Rod 1401, the guide rod 1401 is provided with a spring 1402 located below the second lifting seat 13, and the hinged seat 703 allows the support arm 15 to deflect on both sides of the support seat 7, thereby adjusting the angle between the support arms 15 and changing the distance between the connected second lifting seats 13 to adjust the pipeline lifting height. The buffer slider 14 can slide in the second lifting seat 13 along the axial direction of the guide rod 1401, and provide elastic buffering through the deformation of the spring 1402, further absorbing and consuming the impact caused by vibration.

[0046] The flange mechanism includes a docking flange 2 fixed on the pipe body 1 and a flange plate 201 fixedly installed on the adjacent pipe body 1, and a sealing edge 202 is provided at one end of the docking flange 2 close to the flange plate 201. The docking flange 2 and the flange plate 201 are connected by a rivet group 203. The docking flange 2 can be assembled with the flange plate 201 through the rivet group 203 to dock the two adjacent pipe bodies 1. After the docking is completed, the connection is covered by the sealing edge 202 to enhance the sealing.

[0047] The anti-slip mechanism also includes a docking seat 3 corresponding to the load seat 4, and the docking seat 3 and the load seat 4 are connected by bolt fasteners 6, and both the docking seat 3 and the load seat 4 are provided with arc grooves adapted to the pipe body 1, and the arc grooves in the docking seat 3 and the load seat 4 are provided with arc-shaped sealing gaskets 5 corresponding to the connection at the pipe body 1. The docking seat 3 can be assembled with the load seat 4 through the bolt fasteners 6, reducing the probability of the rivet group 203 loosening and falling off, and fitting with the pipe body 1 through the arc groove, and enhancing the sealing of the connection between the docking flange 2 and the flange plate 201 through the arc-shaped sealing gasket 5.

[0048] The outside of the pipeline body 1 is sprayed with an anti-corrosion coating 101. The pipeline body 1 is also provided with an insulation layer 102 and a moisture-proof layer 103. The insulation layer 102 is located between the anti-corrosion coating 101 and the moisture-proof layer 103. The pipeline body 1 is wrapped with a protective rubber sleeve 104. The anti-corrosion coating 101 is used to prevent corrosion. The insulation layer 102 is mainly composed of polyurethane foam to reduce heat transfer and maintain the temperature of the medium in the pipeline stable. The moisture-proof layer 103 is mainly composed of butyl rubber to prevent water vapor from entering the insulation layer 102, thereby keeping the inside of the pipeline dry. The protective rubber sleeve 104 is used to protect the internal layers from external mechanical damage.

[0049] The support base 7 and the connected load holder 4 connected by the anti-seismic device are used to hoist the pipeline body 1 after docking through the flange mechanism and the anti-slip mechanism in the area where moisture is required for snowflake salt processing. When the pipeline body 1 is subjected to impact vibration, the stabilizing arm 701 is connected to the support base 7 through the active rotating shaft 702. When vibration occurs, the stabilizing arm 701 connected to the support base 7 deflects with the active rotating shaft 702 as the center, allowing the pipeline to have a certain amount of movement space when it is subjected to vibration, thereby reducing the stress concentration caused by the rigid connection and protecting the pipeline from damage.

[0050] When vibration occurs, the weight of the plumb bob 1202 drives the ratchet body 10 and the active shaft 702 to rotate in a specific direction. The weight of the plumb bob 1202 can offset the rotational force in the opposite direction, thereby stabilizing the pipeline and reducing vibration.

[0051] When a force is generated in the same direction as the rotation of the driving shaft 702, the pendulum body 1102 in the pendulum mechanism swings through the vertical rod 1101, driving the ratchet body 9 to repeatedly deflect left and right. This swinging motion converts vibration energy into mechanical energy, which is further dissipated through the ratchet action of the ratchet body 10 and the ratchet body 9, thereby reducing vibration in the pipeline.

[0052] When the pipeline moves within a small range, the support arm 15 deflects, causing the buffer slider 14 to slide in the corresponding second lifting seat 13 along the axial direction of the guide rod 1401, and the deformation of the spring 1402 provides elastic buffering, further absorbing and consuming the impact caused by vibration, protecting the pipeline from damage;

[0053] When the pipes are butt-jointed, the butt flange 2 is assembled with the flange 201 by means of the rivet group 203, and the two adjacent pipe bodies 1 are butt-jointed. After the butt-jointing is completed, the connection is shielded by the sealing baffle 202 to enhance the sealing performance. At the same time, the butt joint holder 3 and the load holder 4 are assembled by means of the bolt fastener 6, thereby reducing the probability of the rivet group 203 loosening and falling off. The arc groove fits the pipe body 1, and the arc-shaped sealing gasket 5 enhances the sealing performance of the connection between the butt flange 2 and the flange 201 to prevent leakage caused by vibration.

[0054] It is worth noting that the outer side of the pipe body 1, whose inner wall has been waterproofed, is sprayed with an anti-corrosion coating 101 to prevent corrosion, and the heat transfer is reduced by the insulation layer 102 whose main component is polyurethane foam to maintain the temperature of the medium in the pipe stable. The moisture-proof layer 103 whose main component is butyl rubber is used to prevent water vapor from entering the insulation layer 102, keeping the inside of the pipe dry. The protective rubber sleeve 104 wrapped around the outside of the pipe body 1 protects the internal layers from external mechanical damage, so that moisture can be discharged smoothly during the snowflake salt processing.

[0055] The method for using the earthquake-resistant and anti-falling safety type moisture-draining pipe includes the following steps:

[0056] Step 1: When the device is needed, the inner wall of the pipe body 1 is first waterproofed, and then the outer side is sprayed with an anti-corrosion coating 101, an insulation layer 102, a moisture-proof layer 103, and finally wrapped with a protective rubber sleeve 104;

[0057] Step 2: assemble the butt flange 2 and the flange plate 201 with the rivet group 203 to complete the butt connection of the two adjacent pipe bodies 1, and use the sealing edge 202 to shield the connection.

[0058] Step 3: Use bolt fasteners 6 to complete the assembly of the docking base 3 and the load base 4, reducing the probability of the rivet group 203 loosening and falling off, while fitting with the pipe body 1 through the arc groove;

[0059] Step 4: Hoist the pipe body 1 after docking by using the flange mechanism and the anti-slip mechanism through the support base 7 and the load holder 4 connected to the anti-seismic device;

[0060] Step five: When the pipeline is impacted and vibrates, the stabilizing arm 701 deflects with the active rotating shaft 702 as the center, providing a movable space to reduce stress concentration; the plumb bob body 1202 uses gravity to drive the ratchet body 10 to rotate, offsetting the reverse force to stabilize the pipeline; the pendulum body 1102 swings to drive the ratchet body 9 to deflect, converting the vibration energy into mechanical energy and dissipating it; the buffer slider 14 slides along the guide rod 1401, and is deformed and buffered by the spring 1402 to absorb the impact and protect the pipeline.

[0061] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. Earthquake-resistant and anti-falling safety type moisture drainage pipe, characterized by: The invention comprises a pipeline body (1), wherein the pipeline bodies (1) are connected to each other via a flange mechanism, and an anti-slip mechanism is provided at the connection between the pipeline bodies (1), wherein the anti-slip mechanism comprises a load holder (4), and an anti-seismic device is installed on the top of the load holder (4); The anti-seismic device comprises a support seat (7) fixedly mounted on a load holder (4); a vertically distributed stabilizing arm (701) is fixedly mounted in the middle of the support seat (7); an active rotating shaft (702) is provided at one end of the stabilizing arm (701) away from the support seat (7); and a ratchet body (10) driven by a plummet mechanism is fixedly mounted on one end of the active rotating shaft (702) passing through the stabilizing arm (701); A first hanging seat (8) is further provided at one end of the stabilizing arm (701) away from the supporting seat (7); a first extension arm (801) is fixedly mounted on one end of the first hanging seat (8); a driven rotating shaft (802) is rotatably connected to the first extension arm (801); a ratchet body (9) driven by a pendulum mechanism and adapted to the ratchet body (10) is fixedly mounted on one end of the driven rotating shaft (802) passing through the first extension arm (801).

2. The earthquake-resistant and anti-falling safety type moisture-draining pipe according to claim 1 is characterized in that: The pendulum mechanism comprises a reinforcing sleeve shaft (11) fixedly mounted on a driven rotating shaft (802) and integrally formed with a ratchet body (9); a hanging rod (1101) is fixedly mounted on the reinforcing sleeve shaft (11); and one end of the hanging rod (1101) away from the reinforcing sleeve shaft (11) is fixedly connected to the pendulum body (1102).

3. The earthquake-resistant and anti-falling safety type moisture-draining pipe according to claim 2 is characterized in that: The plumb bob mechanism comprises a coil shaft (12) fixedly sleeved on an active rotating shaft (702), a vertical line (1201) wound around the coil shaft (12), an initial end of the vertical line (1201) fixedly connected to the coil shaft (12), and a terminal end of the vertical line (1201) connected to a plumb bob body (1202) located above a support seat (7).

4. The earthquake-resistant and anti-falling safety type moisture-draining pipe according to claim 1 is characterized in that: A second extension arm (803) is fixedly mounted in the middle of the first hanging seat (8), one end of the driven rotating shaft (802) extends to the middle of the second extension arm (803), and the stabilizing arm (701) is hingedly connected to the second extension arm (803) via the active rotating shaft (702).

5. The earthquake-resistant and anti-falling safety type moisture-draining pipe according to claim 1 is characterized in that: The two ends of the support seat (7) are also fixedly installed with hinge seats (703), and a second hanging seat (13) corresponding to the hinge seat (703) and in an L shape is provided above the support seat (7), and a support arm (15) is provided between the second hanging seat (13) and the hinge seat (703), and the bottom end of the support arm (15) is hingedly connected to the two ends of the support seat (7) through the hinge seat (703), and the top end of the support seat (7) is movably connected with a buffer slider (14), and the buffer slider (14) is slidably connected to the corresponding second hanging seat (13), and the buffer slider (14) is provided with a guide rod (1401) distributed parallel to the support seat (7), and the outer cover of the guide rod (1401) is provided with a spring (1402) located below the second hanging seat (13).

6. The earthquake-resistant and anti-falling safety type moisture-draining pipe according to claim 1 is characterized in that: The flange mechanism comprises a docking flange (2) fixed on a pipe body (1) and a flange plate (201) fixedly mounted on an adjacent pipe body (1), and a sealing edge (202) is further provided at one end of the docking flange (2) close to the flange plate (201), and the docking flange (2) and the flange plate (201) are connected via a rivet group (203).

7. The earthquake-resistant and anti-falling safety moisture-draining pipe according to claim 6 is characterized in that: The anti-slip mechanism further comprises a docking card seat (3) corresponding to the load card seat (4); the docking card seat (3) and the load card seat (4) are connected via a bolt fastener (6); and arc grooves adapted to the pipeline body (1) are provided in the docking card seat (3) and the load card seat (4); and arc-shaped sealing gaskets (5) corresponding to the connection points of the pipeline body (1) are provided in the arc grooves in the docking card seat (3) and the load card seat (4).

8. The earthquake-resistant and anti-falling safety type moisture-draining pipe according to claim 7 is characterized in that: The outer side of the pipeline body (1) is sprayed with an anti-corrosion coating (101), and the outer side of the pipeline body (1) is also provided with a thermal insulation layer (102) and a moisture-proof layer (103), and the thermal insulation layer (102) is located between the anti-corrosion coating (101) and the moisture-proof layer (103). The outer side of the pipeline body (1) is wrapped with a protective rubber sleeve (104).

9. A method for using a seismic-resistant and anti-falling safety type moisture drainage pipe, which is applied to the seismic-resistant and anti-falling safety type moisture drainage pipe as claimed in claim 8, characterized in that: The following steps are involved: Step 1: When the device is to be used, the inner wall of the pipe body (1) is first waterproofed. Then, an anti-corrosion coating (101) is sprayed on the outside, a thermal insulation layer (102) and a moisture-proof layer (103) are installed, and finally, a protective rubber sleeve (104) is wrapped around the outer surface; Step 2: assemble the butt flange (2) and the flange plate (201) by using the rivet group (203) to complete the butt connection of the two adjacent groups of pipe bodies (1), and use the sealing edge (202) to shield the connection; Step 3: Use bolt fasteners (6) to complete the assembly of the docking base (3) and the load base (4). The probability of the rivet group (203) loosening and falling off is reduced, and the arc groove is used to fit the pipe body (1); Step 4: hoist the pipe body (1) after docking by using the support base (7) and the load holder (4) connected to the anti-seismic device and the flange mechanism and the anti-slip mechanism; Step 5: When the pipeline is subjected to impact and vibration, the stabilizing arm (701) deflects with the active rotating shaft (702) as the center, providing a movable space to reduce stress concentration; the plumb bob body (1202) uses gravity to drive the ratchet body (10) to rotate, offsetting the reverse force to stabilize the pipeline; the pendulum body (1102) swings to drive the ratchet body (9) to deflect, converting the vibration energy into mechanical energy and dissipating it; the buffer slider (14) slides along the guide rod (1401), and is deformed and buffered by the spring (1402), absorbing the impact and protecting the pipeline.

Images