Porous fiber water collection and storage module

Abstract

The invention relates to the field of water storage technologies, and provides a porous fiber water collection and storage module which comprises anti-seepage geotechnical cloth, a water storage assembly, a flow guide pipeline and an exhaust device. The anti-seepage geotechnical cloth wraps the outer wall of the water storage assembly, and the anti-seepage geotechnical cloth is provided with a water through opening; the water storage assembly comprises a plurality of porous fiber blocks and a plurality of pieces of filtering and penetrating wrapping cloth, the plurality of porous fiber blocks are stacked to form the water storage assembly, and the plurality of pieces of filtering and penetrating wrapping cloth wrap the plurality of porous fiber blocks in a one-to-one correspondence mode; one end of the flow guide pipeline is exposed out of the ground surface, and the other end of the flow guide pipeline extends into the water storage assembly at the position of the water through opening; a filtering mechanism is arranged in the flow guide pipeline; one end of an exhaust pipe of the exhaust device is exposed out of the ground surface, and the other end of the exhaust pipe extends into the water storage assembly. The rainwater collection and circulation module has the effect of improving the defects that an existing rainwater collection and circulation module is high in manufacturing cost, complex in installation procedure, high in later maintenance cost and the like.

Description

Technical Field

[0001] The present application relates to the field of water storage technology, and in particular to a porous fiber water collection and storage module. Background Art

[0002] Developing green buildings and building sponge cities are important ways to achieve a new model of green development in urban and rural construction, and the collection and recycling of rainwater is an extremely important aspect. At present, the modular rainfall system used in construction sites can effectively pre-treat, collect and store the collected rainwater, and can achieve huge functions such as water conservation, resource utilization and environmental protection, effectively control urban landmark runoff and waterlogging, reduce environmental pollution and improve the natural environment of the city. However, the above construction technology has the disadvantages of being too expensive overall, complex installation procedures, and high later maintenance costs. Summary of the invention

[0003] In order to improve the shortcomings of existing rainwater collection and circulation modules, such as high cost, complicated installation process and high subsequent maintenance cost, the present application provides a porous fiber collection and storage module.

[0004] The porous fiber water collection and storage module provided in this application adopts the following technical solution: A porous fiber water collection and storage module comprises an impermeable geotextile, a water storage component, a diversion pipe and an exhaust device; the impermeable geotextile is wrapped around the outer wall of the water storage component, and the impermeable geotextile has a water outlet; the water storage component comprises a plurality of porous fiber blocks and a plurality of filter wrapping cloths, a plurality of the porous fiber blocks are stacked to form the water storage component, and a plurality of the filter wrapping cloths are respectively wrapped around a plurality of the porous fiber blocks in a one-to-one correspondence; one end of the diversion pipe is exposed to the ground surface, and the other end extends into the water storage component at the position of the water outlet; a filtering mechanism is arranged in the diversion pipe; one end of the exhaust pipe of the exhaust device is exposed to the ground surface, and the other end extends into the water storage component.

[0005] By adopting the above technical solution, during construction, the design size of the excavation is excavated on both sides of the road according to the location of the rainwater pool and the size of the project construction, and the bottom is leveled with fine sand. Then, the anti-seepage geotextile 1 is placed at the bottom, the water storage component is placed, and then the diversion pipe, filter mechanism and exhaust device are installed in sequence. The entire construction process is simple, the construction technology is low in difficulty, and the investment in electromechanical equipment is small. Only excavation and installation are required on site, the construction efficiency is high, and the water storage component is easy to replace later, and no maintenance is required, thereby improving the existing rainwater collection and circulation modules. The shortcomings of high cost, complex installation process and high later maintenance cost.

[0006] Optionally, a pressure sensor is installed on the side wall of the water storage component, the pressure sensor is electrically connected to the control terminal, and the pressure sensor is used to obtain a water pressure signal and send the water pressure signal to the control terminal.

[0007] By adopting the above technical solution, it is convenient to detect the water storage condition of the water storage component according to the water pressure signal.

[0008] Optionally, the filtering mechanism includes a first filter plate, a second filter plate, a rotating shaft and a driving mechanism, the first filter plate is installed at the port of the diversion pipe exposed to the surface, the second filter plate is installed in the inner cavity of the diversion pipe, and the filter holes of the second filter plate are smaller than the filter holes of the first filter plate; the rotating shaft is rotatably connected to the first filter plate with its own center axis as the rotating shaft, and the rotating shaft is extended along the height direction of the diversion pipe; a push rod is provided at the end of the rotating shaft, and the push rod is located above the first filter plate and extends radially along the first filter plate; the output end of the driving mechanism is connected to the rotating shaft, and the driving mechanism is used to drive the rotating shaft to rotate.

[0009] By adopting the above technical solution, when it rains, the driving mechanism is driven, the driving mechanism is used to drive the rotating shaft to rotate, the rotating shaft drives the push rod to rotate, and the push rod pushes and stirs the debris intercepted by the first filter plate to reduce the clogging of the filter holes of the first filter plate by the debris, thereby ensuring the smooth flow of rainwater through the first filter plate.

[0010] Optionally, the second filter plate is arranged at an angle.

[0011] By adopting the above technical solution, the debris intercepted by the second filter plate is gathered at the lowest point of the second filter plate under the action of its own gravity, reducing the risk of debris clogging the filter holes of the second filter plate and further ensuring the smooth flow of rainwater through the second filter plate.

[0012] Optionally, a first through hole is provided at the center of the first filter plate, and a second through hole is provided at the center of the second filter plate; the driving mechanism comprises a transmission seat, a worm wheel and a worm, the transmission seat is installed in the inner cavity of the diversion pipe, and the transmission seat is located below the second filter plate; the transmission seat has a transmission cavity, and an upper cavity wall of the transmission cavity is provided with a water inlet connected to the transmission cavity; the worm wheel is rotatably connected to the lower cavity wall of the transmission cavity, one end of the rotating shaft is fixed to the worm wheel, and the other end passes through the second through hole and the first through hole to extend out of the first filter plate, and the end of the rotating shaft away from the transmission seat is connected to the push rod; one end of the worm is rotatably connected to the cavity side wall of the transmission cavity, and the other end is meshed with the worm wheel; a plurality of transmission plates are arranged on the circumferential side of the worm, and the plurality of transmission plates are arranged at intervals along the circumference of the worm, and at least one of the transmission plates is located below the water inlet; a water outlet connected to the transmission cavity is provided on the lower cavity wall of the transmission cavity.

[0013] By adopting the above technical solution, water flowing down from the second filter plate falls to the transmission seat, and then falls to the transmission plate from the water inlet. The transmission plate drives the worm to rotate, the worm drives the worm wheel to rotate, the worm wheel drives the rotating shaft to rotate, and then drives the push rod to move. The gravity of the rainwater itself is used to drive the rotating shaft and the push rod. The structure is simple, and no power system is introduced. The cost is low, the energy consumption is small, and the maintenance difficulty is low.

[0014] Optionally, the second filter plate is arranged at an angle, and the highest point of the second filter plate is located above the water inlet.

[0015] Optionally, a bracket is provided at the bottom of the transmission seat, and the bracket is extended along the length direction of the diversion pipe, and the bracket is used to abut against the water storage component.

[0016] Optionally, the first filter plate is detachably connected to the rotating shaft.

[0017] By adopting the above technical solution, the maintenance of the filtering mechanism is facilitated.

[0018] Optionally, the second filter plate is connected to a storage tube, the storage tube is extended along the length direction of the guide pipe, the storage tube is located between the first filter plate and the second filter plate, and the outer wall of the storage tube abuts against the inner wall of the guide pipe.

[0019] By adopting the above technical solution, the filter mechanism is disassembled regularly and the second filter plate is cleaned. When the second filter plate is taken out, the storage cylinder blocks the debris intercepted by the second filter plate so that the debris will not be stuck in the gap between the second filter plate and the guide pipe.

[0020] Optionally, the storage tube is a bellows, and a connecting ring is connected to the end of the storage tube away from the second filter plate, and the connection is arranged around the circumference of the storage tube; the connecting ring is connected to a plurality of lobster clasps, and the plurality of lobster clasps are arranged at intervals along the circumference of the abutment ring; a plurality of hanging rings are connected to the lower surface of the first filter plate, and the plurality of hanging rings are arranged at intervals around the central axis of the first filter plate, and the hanging rings are used to connect and cooperate with the lobster clasps.

[0021] By adopting the above technical solution, a detachable connection is established between the first filter plate and the storage tube by using the cooperation of the lobster clasp and the hanging ring, so as to facilitate the removal of the second filter plate. The arrangement of the bellows makes the distance between the first filter plate and the second filter plate adjustable, thereby improving the flexibility of the filter mechanism.

[0022] In summary, the present application includes at least one of the following beneficial technical effects: 1. The water storage component includes multiple porous fiber blocks and multiple filter wrapping cloths, which use the capillary effect to realize the diversion, collection and release of rainwater. It has a simple structure, is easy to construct, has a low cost and requires less equipment investment; 2. By setting a driving assembly and a push rod, when it rains, the driving assembly is started to drive the push rod to push the debris intercepted on the first filter plate, thereby reducing the risk of the first filter plate being blocked; 3. The driving assembly includes a transmission seat, a worm gear and a worm, and utilizes the gravity of rainwater itself to drive the rotating shaft to rotate. On the one hand, the driving assembly is automatically started when water flows into the diversion pipe. On the other hand, no electrical equipment is introduced, the structure is simple, maintenance is convenient, and the cost is low. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a structural diagram of Example 1 of the present application.

[0024] Figure 2 It is a structural diagram of Example 2 of the present application.

[0025] Figure 3 It is a schematic diagram for showing the structure of the driving mechanism in Example 2.

[0026] Figure 4 yes Figure 3 An enlarged schematic diagram in part A.

[0027] Figure 5 yes Figure 3 An enlarged schematic diagram in part B.

[0028] Figure 6 It is a schematic diagram for showing the connection structure between the storage cylinder and the first filter plate in Example 2.

[0029] Explanation of reference numerals: 1. impermeable geotextile; 11. water inlet; 2. water storage assembly; 21. porous fiber block; 22. filter wrapping cloth; 23. pressure sensor; 24. control terminal; 3. flow guide pipe; 4. exhaust device; 5. filtering mechanism; 51. first filter plate; 511. first through hole; 512. hanging ring; 52. second filter plate; 521. second through hole; 522. storage tube; 523. connecting ring; 524. lobster buckle; 525. support rod ; 53. rotating shaft; 531. push rod; 532. steel brush; 533. threaded section; 534. limiting member; 5341. screw barrel; 5342. first limiting plate; 5343. second limiting plate; 5344. first connecting section; 5345. second connecting section; 54. driving mechanism; 541. transmission seat; 5411. transmission cavity; 5412. water inlet; 5413. water outlet; 542. worm wheel; 543. worm; 5431. transmission plate; 55. bracket. DETAILED DESCRIPTION

[0030] The following is combined with Figure 1-6 This application is described in further detail.

[0031] The embodiment of the present application discloses a porous limiting water collection and storage module.

[0032] Example 1 Reference Figure 1 A porous fiber water collection and storage module comprises an impermeable geotextile 1, a water storage component 2, a diversion pipe 3 and an exhaust device 4. The impermeable geotextile 1 is wrapped around the outer wall of the water storage component 2, and the impermeable geotextile 1 has a water opening 11.

[0033] The water storage component 2 includes a plurality of porous fiber blocks 21 and a plurality of filter wrapping cloths 22, wherein the plurality of filter wrapping cloths 22 are respectively wrapped around the plurality of porous fiber blocks 21 in a one-to-one correspondence. The plurality of porous fiber blocks 21 are stacked to form the water storage component 2.

[0034] One end of the diversion pipe 3 is exposed on the ground surface, and the other end is inserted into the water storage assembly 2 at the position of the water inlet 11. A filtering mechanism 5 is arranged in the diversion pipe 3. One end of the exhaust pipe of the exhaust device 4 is exposed on the ground surface, and the other end is extended into the water storage assembly 2.

[0035] The filter wrapping cloth 22 is a high-strength acid- and alkali-resistant filter wrapping cloth to ensure the service life of the water storage component 2.

[0036] Furthermore, a pressure sensor 23 is installed on the side wall of the water storage component 2, and the pressure sensor 23 is electrically connected to the control terminal 24. The pressure sensor 23 is used to obtain a water pressure signal and send the water pressure signal to the control terminal 24, so as to detect the water storage condition of the water storage component 2 according to the water pressure signal.

[0037] In this embodiment, the filter mechanism 5 includes activated carbon, gravel and volcanic stone. The filter mechanism 5 is arranged at the end of the diversion pipe 3 close to the water storage component 2.

[0038] The implementation principle of Example 1 is as follows: during construction, the designed size of the excavation is made on both sides of the road according to the location of the rainwater pool and the size of the engineering construction, and the bottom is leveled with fine sand. Then, the anti-seepage geotextile 1 is placed on the bottom, and the first layer of water storage components 2 are installed. The adjacent water storage components 2 on the same layer are fixed with adhesive to reduce their looseness.

[0039] After that, the upper water storage assembly 2 is installed in sequence, and the two adjacent layers of water storage assemblies 2 are also fixed with adhesive; after the water storage assembly 2 is installed, the water storage assembly 2 is wrapped with an anti-seepage geotextile 1, and then the diversion pipe 3, the filter mechanism 5, the exhaust device 4 and the pressure sensor 23 are installed in sequence. After the installation is completed, the earthwork is backfilled as soon as possible to prevent the groundwater level from being too high and the water storage assembly 2 from floating up as a whole.

[0040] By utilizing the above structure to store water, the entire construction process is simple, the construction technology is of low difficulty, and the investment in electromechanical equipment is small. Only excavation and installation are required on site, and the construction efficiency is high. The water storage component 2 can be easily replaced later without maintenance, thereby improving the shortcomings of existing rainwater collection and circulation modules, such as high cost, complicated installation process, and high later maintenance cost.

[0041] Example 2 Reference Figure 2 and Figure 3 ,,The difference between this embodiment and embodiment 1 is that the filter mechanism 5 includes a first filter plate 51, a second filter plate 52, a rotating shaft 53 and a driving mechanism 54, the first filter plate 51 is installed at the port of the diversion pipe 3 exposed to the surface, the second filter plate 52 is installed in the inner cavity of the diversion pipe 3, and the filter holes of the second filter plate 52 are smaller than the filter holes of the first filter plate 51. The rotating shaft 53 is rotatably connected to the first filter plate 51 with its own central axis as the rotating shaft 53, and the rotating shaft 53 is extended along the height direction of the diversion pipe 3. A push rod 531 is provided at the end of the rotating shaft 53, and the push rod 531 is located above the first filter plate 51 and extends along the radial direction of the first filter plate 51. The output end of the driving mechanism 54 is connected to the rotating shaft 53, and the driving mechanism 54 is used to drive the rotating shaft 53 to rotate.

[0042] In this embodiment, a first through hole 511 is formed through the center of the first filter plate 51, and a second through hole 521 is formed through the center of the second filter plate 52. The push rod 531 is detachably connected to the rotating shaft 53 by bolts.

[0043] Reference Figure 3 and Figure 4The driving mechanism 54 includes a transmission seat 541, a worm wheel 542 and a worm 543. The transmission seat 541 is installed in the inner cavity of the diversion pipe 3, and the transmission seat 541 is located below the second filter plate 52. The transmission seat 541 has a transmission cavity 5411, and the upper cavity wall of the transmission cavity 5411 is penetrated with a water inlet 5412 connected to the transmission cavity 5411. The worm wheel 542 is rotatably connected to the cavity bottom wall of the transmission cavity 5411, one end of the rotating shaft 53 is fixed to the worm wheel 542, and the other end passes through the second penetration hole 521 and the first penetration hole 511 in sequence to extend out of the first filter plate 51, and the end of the rotating shaft 53 away from the transmission seat 541 is connected to the push rod 531. One end of the worm 543 is rotatably connected to the cavity side wall of the transmission cavity 5411, and the other end is meshed with the worm wheel 542.

[0044] A plurality of transmission plates 5431 are arranged around the worm 543 at intervals along the circumference of the worm 543, and at least one transmission plate 5431 is located below the water inlet 5412. A water outlet 5413 connected to the transmission cavity 5411 is formed through the lower cavity wall of the transmission cavity 5411.

[0045] A bracket 55 is disposed at the bottom of the transmission seat 541 . The bracket 55 is extended along the length direction of the guide pipe 3 , so that the transmission seat 541 is supported by the bracket 55 .

[0046] Furthermore, the second filter plate 52 is tilted, and the highest point of the second filter plate 52 is located above the water inlet 5412. After being intercepted by the second filter plate 52, the debris gradually slides down along the tilted second filter plate 52 under the action of its own gravity, so as to reduce the risk of debris clogging the filter holes of the first filter plate 51 located above the water inlet 5412.

[0047] The lower surface of the second filter plate 52 is detachably connected to a plurality of support rods 525 by bolts. The plurality of support rods 525 are arranged at intervals along the circumference of the second filter plate 52. The ends of the support rods 525 away from the second filter plate 52 abut against the upper surface of the transmission seat 541. When installing the second filter plate 52, the second filter plate 52 is sleeved on the rotating shaft 53 through the second through hole 521, and finally the support rods 525 abut against the upper surface of the transmission seat 541.

[0048] Furthermore, a brush is provided on the surface of the push rod 531 facing the first filter plate 51 to scrape off impurities embedded in the filter holes of the first filter plate 51 .

[0049] Furthermore, the first filter plate 51 and the rotating shaft 53 are detachably connected to facilitate cleaning and maintenance of the first filter plate 51 and the rotating shaft 53 .

[0050] Reference Figure 2 and Figure 5In this embodiment, the specific structure of the detachable connection between the first filter plate 51 and the rotating shaft 53 is as follows: the rotating shaft 53 has a threaded section 533, and the rotating shaft 53 is threadedly connected to the limiting member 534 at the threaded section 533. The limiting member 534 includes a screw barrel 5341, a first limiting piece 5342 and a second limiting piece 5343. The first limiting piece 5342 and the second limiting piece 5343 are respectively connected to the two ends of the screw barrel 5341, and the screw barrel 5341 is threadedly connected to the threaded section 533. The first limiting piece 5342 and the second limiting piece 5343 are respectively used for the upper surface and the lower surface of the first filter plate 51 to abut.

[0051] The screw barrel 5341 includes a first connecting section 5344 and a second connecting section 5345 . The first connecting section 5344 is used to connect to the first limiting piece 5342 , and the second connecting section 5345 is used to connect to the second limiting piece 5343 .

[0052] When installing the first filter plate 51, firstly thread the second connecting section 5345 connected with the second limiting plate 5343 to the rotating shaft 53, then sleeve the first filter plate 51 on the rotating shaft 53 and make the lower surface of the first filter plate 51 fit against the second limiting plate 5343; finally, thread the first connecting section 5344 connected with the first limiting plate 5342 to the rotating shaft 53, so that the first limiting plate 5342 fits against the upper surface of the first filter plate 51.

[0053] It can be understood that the second filter plate 52 is also detachably connected to the rotating shaft 53 , and the structure of the detachable connection between the two is the same as the structure of the detachable connection between the first filter plate 51 and the rotating shaft 53 .

[0054] Furthermore, the second filter plate 52 is connected to a storage cylinder 522, which is extended along the length direction of the diversion pipe 3, and is located between the first filter plate 51 and the second filter plate 52. The outer wall of the storage cylinder 522 abuts against the inner wall of the diversion pipe 3. The filter mechanism 5 is regularly disassembled to clean the second filter plate 52. When the second filter plate 52 is taken out, the storage cylinder 522 blocks the debris intercepted by the second filter plate 52, so that the debris will not be stuck in the gap between the second filter plate 52 and the diversion pipe 3.

[0055] Reference Figure 6In this embodiment, the storage tube 522 is a bellows, and one end of the storage tube 522 away from the second filter plate 52 is connected to a connecting ring 523, and the connecting ring 523 is arranged around the circumference of the storage tube 522. The connecting ring 523 is connected to a plurality of lobster clasps 524, and the plurality of lobster clasps 524 are arranged at intervals along the circumference of the connecting ring 523. The lower surface of the first filter plate 51 is connected to a plurality of hanging rings 512, and the hanging rings 512 are used to connect and cooperate with the lobster clasps 524. Thus, a detachable connection is established between the first filter plate 51 and the storage tube 522 by using the cooperation between the lobster clasps 524 and the hanging rings 512, so as to facilitate the removal of the second filter plate 52.

[0056] The implementation principle of Example 2 is as follows: when it rains, rainwater passes through the filter holes of the first filter plate 51 and falls to the second filter plate 52, and then falls to the transmission seat 541 through the filter holes of the second filter plate 52, and then falls into the transmission cavity 5411 from the water inlet 5412 of the transmission seat 541; when rainwater falls from the water inlet 5412, it falls to the transmission plate 5431, and the transmission plate 5431 rotates under the impact of rainwater, thereby driving the worm 543 to rotate, and when the worm 543 rotates, it drives the worm wheel 542 to rotate through meshing, and the worm wheel 542 drives the rotating shaft 53 to rotate, and the rotating shaft 53 further drives the push rod 531 to rotate, and during the rotation of the push rod 531, the debris intercepted by the first filter plate 51 is pushed to move, and the steel brush 532 sweeps out the debris embedded in the filter holes of the first filter plate 51, thereby reducing the risk of debris blocking the filter holes of the first filter plate 51, so that rainwater can fall smoothly.

[0057] When maintaining and cleaning the filter mechanism 5, an upward force is applied to the rotating shaft 53, and the first filter plate 51 and the transmission seat 541 are brought out through the rotating shaft 53, and then the second filter plate 52 is brought out. Then, the push rod 531, the first filter plate 51 and the second filter plate 52 are removed in sequence for cleaning and maintenance.

[0058] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A porous fiber water collection and storage module, characterized in that: The invention comprises an impermeable geotextile (1), a water storage component (2), a diversion pipe (3) and an exhaust device (4); the impermeable geotextile (1) is wrapped around the outer wall of the water storage component (2), and the impermeable geotextile (1) has a water outlet (11); the water storage component (2) comprises a plurality of porous fiber blocks (21) and a plurality of filter wrapping cloths (22); the plurality of porous fiber blocks (21) are stacked to form the water storage component (2), and the plurality of filter wrapping cloths (22) are respectively wrapped around the plurality of porous fiber blocks (21) in a one-to-one correspondence; one end of the diversion pipe (3) is exposed to the ground surface, and the other end extends into the water storage component (2) at the position of the water outlet (11); a filtering mechanism (5) is arranged in the diversion pipe (3); one end of the exhaust pipe of the exhaust device (4) is exposed to the ground surface, and the other end extends into the water storage component (2).

2. A porous fiber water collection and storage module according to claim 1, characterized in that: A pressure sensor (23) is installed on the side wall of the water storage component (2); the pressure sensor (23) is electrically connected to a control terminal (24); and the pressure sensor (23) is used to obtain a water pressure signal and send the water pressure signal to the control terminal (24).

3. The porous fiber water collection and storage module according to claim 1, characterized in that: The filtering mechanism (5) comprises a first filter plate (51), a second filter plate (52), a rotating shaft (53) and a driving mechanism (54); the first filter plate (51) is mounted on a port of the diversion pipe (3) exposed to the surface; the second filter plate (52) is mounted in the inner cavity of the diversion pipe (3); the filter holes of the second filter plate (52) are smaller than the filter holes of the first filter plate (51); the rotating shaft (53) is rotatably connected to the first filter plate (51) with its own central axis as the rotating shaft (53); the rotating shaft (53) is extended along the height direction of the diversion pipe (3); a push rod (531) is provided at the end of the rotating shaft (53); the push rod (531) is located above the first filter plate (51) and extends along the radial direction of the first filter plate (51); the output end of the driving mechanism (54) is connected to the rotating shaft (53); the driving mechanism (54) is used to drive the rotating shaft (53) to rotate.

4. A porous fiber water collection and storage module according to claim 3, characterized in that: The second filter plate (52) is arranged tilted.

5. The porous fiber water collection and storage module according to claim 3, characterized in that: A first through hole (511) is formed through the center of the first filter plate (51), and a second through hole (521) is formed through the center of the second filter plate (52); the driving mechanism (54) comprises a transmission seat (541), a worm wheel (542) and a worm (543); the transmission seat (541) is installed in the inner cavity of the diversion pipe (3), and the transmission seat (541) is located below the second filter plate (52); the transmission seat (541) has a transmission cavity (5411), and an upper cavity wall of the transmission cavity (5411) is formed with a water inlet (5412) connected to the transmission cavity (5411); the worm wheel (542) is rotatably connected to the lower cavity wall of the transmission cavity (5411), and one end of the rotating shaft (53) is fixedly connected to the worm wheel. (542), the other end of which passes through the second through hole (521) and the first through hole (511) and extends out of the first filter plate (51); the end of the rotating shaft (53) away from the transmission seat (541) is connected to the push rod (531); one end of the worm (543) is rotatably connected to the cavity side wall of the transmission cavity (5411), and the other end is meshed with the worm wheel (542); a plurality of transmission plates (5431) are arranged on the circumference of the worm (543), and the plurality of transmission plates (5431) are arranged at intervals along the circumference of the worm (543), and at least one of the transmission plates (5431) is located below the water inlet (5412); and a water outlet (5413) connected to the transmission cavity (5411) is opened on the lower cavity wall of the transmission cavity (5411).

6. The porous fiber water collection and storage module according to claim 5, characterized in that: The second filter plate (52) is arranged at an angle, and the highest point of the second filter plate (52) is located above the water inlet (5412).

7. The porous fiber water collection and storage module according to claim 5, characterized in that: A bracket (55) is provided at the bottom of the transmission seat (541); the bracket (55) is extended along the length direction of the diversion pipe (3); and the bracket (55) is used to abut against the water storage component (2).

8. The porous fiber water collection and storage module according to claim 3, characterized in that: The first filter plate (51) is detachably connected to the rotating shaft (53).

9. The porous fiber water collection and storage module according to claim 3, characterized in that: The second filter plate (52) is connected to a storage cylinder (522), the storage cylinder (522) extending along the length direction of the flow guide pipe (3), the storage cylinder (522) being located between the first filter plate (51) and the second filter plate (52), the outer wall of the storage cylinder (522) abutting against the inner wall of the flow guide pipe (3).

10. The porous fiber water collection and storage module according to claim 9, characterized in that: The storage tube (522) is a bellows, and one end of the storage tube (522) away from the second filter plate (52) is connected to a connecting ring (523), and the connecting ring (523) is arranged around the circumference of the storage tube (522); the connecting ring (523) is connected to a plurality of lobster clasps (524), and the plurality of lobster clasps (524) are arranged at intervals along the circumference of the connecting ring (523); the lower surface of the first filter plate (51) is connected to a plurality of hanging rings (512), and the plurality of hanging rings (512) are arranged at intervals around the central axis of the first filter plate (51), and the hanging rings (512) are used to connect and cooperate with the lobster clasps (524).

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