Green low-carbon sewage treatment pump station and method based on photocatalysis

Abstract

The invention discloses a photocatalysis-based green low-carbon sewage treatment pump station and method, and the pump station comprises a pump station body, a stable base is fixed below the pump station body, a pump station cover is mounted on the pump station body, a photovoltaic module is mounted on the pump station cover, a pump station cylinder is arranged in the pump station body, a water guide pipe is mounted on the pump station cylinder, and a mud guide pipe is mounted on the pump station cylinder; a sewage transfer table is connected between the mud guide pipe and the water guide pipe, a flow dividing guide pipe is arranged in the sewage transfer table, and one side of the flow dividing guide pipe is connected with a water suction pump set. The fixed floating ball is installed on the nested telescopic pipe, the nested telescopic pipe is correspondingly driven to perform height adaptive adjustment in cooperation with the sewage amount in the pump station cylinder, upper-layer water flow of sewage is pumped, and the situation that a fixed pipeline internally sucks sludge at the bottom of the fixed pipeline, and consequently a water suction pump set is blocked is avoided; meanwhile, a mud pump can be matched with a waterproof motor to drive a bottom-attached guide pipe mounted at the tail end to swing under work, so that the bottom-attached guide pipe repeatedly swings at the bottom of the barrel, and the work of cleaning sludge at the bottom of the barrel is completed.

Description

Technical Field

[0001] The present invention relates to the technical field of pump stations, and specifically to a photocatalytic green and low-carbon sewage treatment pump station and method. Background Art

[0002] A sewage treatment pump station is a key power node in the municipal and industrial sewage treatment network. Its core function is to achieve the directional transportation and elevation adjustment of sewage through mechanical pressurization. As an important hub connecting the collection pipe network and treatment facilities, the pump station uses equipment such as centrifugal pumps and screw pumps to lift the sewage in low-lying areas to the gravity flow pipe network or directly transport it to the sewage treatment plant for pretreatment to complete the subsequent processes. The core functions of the sewage treatment pump station include: sewage collection and transfer, flow regulation, and pretreatment functions. However, the following deficiencies exist in the prior art: Currently, all existing sewage treatment pump stations are mobilized by water pumps when adjusting the elevation of sewage. The existing water pumps rely on the fixed height of the pipeline to complete the water extraction, and cannot adaptively regulate. At the same time, the fixed height of the pipeline is very easy to suck in the sludge in the sewage after the sludge deposits, causing the blockage of the water pump. Moreover, the sludge deposited at the bottom of the pump station is inconvenient for pumping and cleaning. Summary of the Invention

[0003] Other features and advantages of the present invention will be described in the following specification, and will be partially obvious from the specification, or understood by implementing the present invention. The objectives and other advantages of the present invention can be achieved and obtained through the structures specifically pointed out in the specification and other specification drawings.

[0004] The objective of the present invention is to overcome the above deficiencies, and provide a photocatalytic green and low-carbon sewage treatment pump station and method. The photovoltaic module provides a certain amount of power output for the pump station, converts electrical energy through light irradiation, reduces the power consumption of the pump station, and thus achieves energy-saving, green and low-carbon operation. At the same time, the double pump body in the pumping station cooperates with the connected fixed pipeline and nested telescopic pipe, and with the assistance of the fixed floating ball, adaptively adjusts the pipeline length to avoid the adverse effects of pumping and the situation of sucking in the sludge at the bottom of the cylinder. Moreover, with the cooperation of the sludge pumping pipeline, the sludge deposited at the bottom of the cylinder can be pumped and discharged more efficiently.

[0005] To achieve the above object, the present invention is implemented through the following technical solutions: A photocatalytic green and low-carbon sewage treatment pumping station and method, including a pumping station, a stable base is fixed below the pumping station, a pumping station cover is installed on the pumping station, a photovoltaic module is installed on the pumping station cover, a pumping station cylinder is arranged inside the pumping station, a water guide pipe is installed on the pumping station cylinder, a mud guide pipe is installed on the pumping station cylinder, a sewage transfer platform is connected between the mud guide pipe and the water guide pipe, a shunt conduit is arranged inside the sewage transfer platform, a water pump group is connected to one side of the shunt conduit, and a sewage treatment partition box is arranged on the other side of the shunt conduit; a confluence box platform is arranged inside the water pump group, a double water pump body is installed on the outer surface of the confluence box platform, a driving motor is installed beside the double water pump body, a conduit is arranged between the double water pump body and the driving motor, an even number of fixed pipes are installed below the confluence box platform, a nested telescopic pipe is nested inside the fixed pipe, fixed floating balls are fixed on the nested telescopic pipes, a photocatalytic device surrounds the confluence box platform, and a mud suction pipe is arranged beside one of the fixed pipes; a mud suction pump is installed on the mud suction pipe, a fixed seat is installed on the outer wall of the mud suction pump, a waterproof motor is installed on the fixed seat, a bottom-attached conduit is installed at the end of the mud suction pipe, a fixed beam is embedded inside the bottom-attached conduit, and a plurality of sludge rotating disks are installed on the fixed beam. The fixed floating balls mainly play a role in cooperating with the height rise and fall of the nested telescopic pipe. As the water level in the pumping station cylinder changes, the cooperation with the fixed pipe is completed to form a height rise and fall, and the upward suction of sewage is better completed.

[0006] For further improvement of the present invention, the fixed floating balls are used for adjusting the height of the nested telescopic pipe. The nested telescopic pipe can be nested into the fixed pipe. The conduit is connected to the shunt conduit and cooperates with the water guide pipe. The connection between the end of the water guide pipe and the mud guide pipe is in a closed state. The connection between the end of the water guide pipe and the mud guide pipe is in a closed state to prevent the internal sewage from mixing with the sludge again. The closed connection side facing the sludge pipe is connected to the end of the mud suction pipe, facilitating the internal suction of the sludge into the mud guide pipe.

[0007] For further improvement of the present invention, the bottom-attached conduit is in a half-circular shape, the bottom-attached conduit communicates with the mud suction pipe, the end of the mud suction pipe penetrates into the confluence box platform and is connected to the mud guide pipe, the sludge rotating disk can rotate self - sufficiently, and both the mud suction pipe and the waterproof motor are provided with toothed disks, and the toothed disks are used for the swing cooperation between the two. The self - rotation of the sludge rotating disk is mainly to loosen the sludge at the bottom of the cylinder by cooperating with the self - rotating sludge rotating disk during the swinging process of the bottom-attached conduit, so that the sludge can be better internally sucked into the mud guide pipe.

[0008] For further improvement of the present invention, a water inlet pipe is installed on the outer wall of the pumping station cylinder, an inner support plate is embedded on the inner wall of the pumping station cylinder, a swing platform is erected on the inner support plate, an even number of lifting lugs are installed on the inner wall of the pumping station cylinder, a ladder is arranged between the even number of lifting lugs, an even number of side fixing blocks are arranged in the swing platform, a hinge sleeve is connected between the side fixing blocks, a swing support rod is installed on the hinge sleeve, a standing plate is installed on the swing support rod, a fixed ring is arranged in the photocatalytic device, a number of catalytic heads are fixed on the fixed ring, a catalytic lamp tube is installed below the catalytic head, and a lamp tube seat is installed at the bottom of the catalytic lamp tube. The hinge sleeve is mainly fixed by the side fixing blocks on both sides, and forms a hinge swing in cooperation with the swing support rod, so that the swing support rod can assist the standing plate to swing and be erected on the inner support plate. The fixed ring is nested with the inner wall of the pumping station cylinder, and the whole is supported by the lamp tube seat that fixes the bottom of the catalytic lamp tube, so as to complete the photocatalytic treatment of the incoming sewage.

[0009] For further improvement of the present invention, the swing support rod assists the standing plate to swing through the hinge sleeve, the side fixing blocks are fixed on the inner wall of the pumping station cylinder, the lifting lugs are used to fix the standing plate after swinging, the lower surface of the standing plate fits on the surface of the inner support plate, and the water inlet pipe cooperates with the sewage treatment partition box. The lifting lugs are mainly used to fix the standing plate after swinging. After being fixed, the standing plate can better facilitate the up and down transfer of the parts required by the equipment during maintenance to complete the maintenance.

[0010] For further improvement of the present invention, a grooved filter box is arranged in the sewage treatment partition box, a driving cover is installed on the grooved filter box, an interconnection pipe is connected behind the grooved filter box, a number of fixing rods are arranged on both sides of the interconnection pipe, side inclined guide plates are installed on both sides of the grooved filter box, an even number of inner clamping grooves are installed on the inner wall of the grooved filter box, and an inner carrier box is installed between the inner clamping grooves. An even number of crushing tooth pieces are installed on the inner wall of the inner carrier box. The side inclined guide plates are mainly used to guide the water flow outwards, and the incoming sewage first enters the grooved filter box to crush the dirt and other substances carried in the sewage.

[0011] For further improvement of the present invention, a waterproof sealing box is installed below the driving cover, a driving gear is installed on the waterproof sealing box, transmission rack bars are arranged on both sides of the driving gear, a number of matching gear discs are installed on the transmission rack bars, the transmission rack bars cooperate with the driving gear, the driving gear cooperates with the driving cover, the waterproof sealing box is connected to the inner surface of the driving cover, the grooved filter box is fixed on the inner wall of the pumping station cylinder by the fixing rods, the interconnection pipe is connected between the water inlet pipe and the grooved filter box, and the crushing tooth pieces cooperate with the matching gear discs. The crushing tooth pieces are respectively installed on the inner wall of the inner carrier box. The matching gear discs on one of the transmission rack bars cooperate with the crushing tooth pieces on the same side and form a staggered layer with the matching gear discs on the other transmission rack bar.

[0012] For further improvement of the present invention, a support column is provided inside the photovoltaic module. A sunshade umbrella is installed at the top of the support column, and a photovoltaic panel is installed on the top of the sunshade umbrella. The bottom of the support column is connected to the pump station cover. A cover body is provided inside the pump station cover, and a climbing cover is installed on the cover body. A distribution box is fixed on the surface of the cover body, and an electric control box is arranged beside the distribution box. The electric control box cooperates with the components inside the pump station that need power supply, the electric control box is electrically matched with the distribution box, and the distribution box is matched with the photovoltaic panel. The photovoltaic panel mainly provides illumination for it, forms electric energy conversion, stores the electric energy in the distribution box, and finally the electric control box conducts reasonable power distribution.

[0013] For further improvement of the present invention, a pedestal is provided inside the stable base. An even number of sleeves are installed on the pedestal, and threaded rotating rods are installed inside the sleeves. Torsion caps are fixed at the tops of the threaded rotating rods. An even number of fixing blocks are provided at the bottom of the pedestal. Inner envelopes are installed in the sleeves. An even number of conical cylinders are installed at the bottom of the pedestal. Conical drills are installed at the ends of the threaded rotating rods. The threaded rotating rods are threadedly connected to the inner walls of the sleeves, and the threaded rotating rods penetrate through the conical cylinders. The conical cylinders and the threaded rotating rods installed in the sleeves are mainly limited by the inner envelopes. With the auxiliary cooperation of the threaded rotating rods, the conical drills are driven to insert into the ground to ensure the fixed stability of the pump station cylinder.

[0014] A photocatalytic green and low-carbon sewage treatment pump station and method include the following steps: S1. First, install the pump station at a designated position. During the installation process, the stable base ensures the stable installation of the pump station during installation and its stability after installation; S2. Then, connect the corresponding pipelines of the pump station in sequence, so that after the sewage is treated, it enters the inside of the pump station inlet for collection and undergoes photocatalytic treatment of the sewage; S3. The collected sewage is adaptively adjusted in height correspondingly with the change of the water level in the pump station cylinder, so that the sewage is pumped into the sewage transfer table and finally led out from the connected water guide pipe; S4. Finally, while leading out, the sludge at the bottom of the pump station cylinder is sucked in to complete the sludge cleaning at the bottom of the pump station cylinder.

[0015] Compared with the prior art, the present invention has the following beneficial effects; 1. In the present invention, by installing a fixed floating ball on a nested telescopic pipe, the nested telescopic pipe is driven to adjust its height adaptively according to the amount of sewage in the pump station cylinder, extracting the upper-layer water flow of the sewage, avoiding the fixed pipeline from sucking the sludge at its bottom, causing blockage of the pump group. At the same time, a mud pump can cooperate with a waterproof motor to drive a bottom-attached conduit installed at the end to swing during operation, enabling the bottom-attached conduit to repeatedly swing at the bottom of the cylinder to complete the cleaning work of the sludge at the bottom of the cylinder.

[0016] 2. In the present invention, by connecting the water inlet pipe into a grooved filter box, with the cooperation of a driving cover, a driving gear is driven, causing the transmission rack to engage and form a linked rotation of the transmission rack. Furthermore, the mating gear disc on the transmission rack engages with the crushing teeth to complete the crushing work on foreign objects carried in the incoming sewage, avoiding unnecessary blockage of the internal pipelines in the pump station cylinder.

[0017] 3. In the present invention, a base is connected to the bottom of the pump station cylinder. When installing the pump station cylinder, the sleeve rotates with a threaded rotating rod and penetrates out of the conical cylinder, enabling the conical drill bit to insert into the ground to form a firm connection. The threaded rotating rod is threadedly connected to the internal thread at the top of the sleeve to form a fastening, ensuring the installation stability of the pump station cylinder. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a schematic structural diagram of a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 2 is a rear view structural diagram of the pump station in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 3 is a schematic internal structural diagram of the pump station cylinder in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 4 is a top view structural diagram of the sewage transfer platform in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 5 is a three-dimensional structural diagram of the pump group in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 6 is a three-dimensional structural diagram of the pump group in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 7 is a three-dimensional structural diagram of the sewage treatment separation box in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 8 is a top view structural diagram of the inner carrier box in a photocatalytic green and low-carbon sewage treatment pump station and method according to the present invention; Figure 9It is a top view structural schematic diagram of point A in a photocatalytic green and low-carbon sewage treatment pumping station and method of the present invention; Figure 10 It is a bottom view structural schematic diagram of point A in a photocatalytic green and low-carbon sewage treatment pumping station and method of the present invention.

[0019] In the figure: photovoltaic module - 1, pumping station cover - 2, pumping station - 3, stable base - 4, support column - 11, light-shielding fan - 12, photovoltaic panel - 13, cover body - 21, climbing cover - 22, distribution box - 23, electric control box - 24, pumping station cylinder - 31, water guide pipe - 32, mud guide pipe - 33, inner support plate - 34, swing platform - 35, sewage transfer platform - 36, water inlet pipe - 37, lifting lug - 38, ladder - 39, standing plate - 351, hinge sleeve - 352, side fixing block - 353, swing strut - 354, shunt conduit - 361, sewage pump group - 362, sewage treatment partition box - 363, confluence box platform - 3621, double-pump body - 3622, conduit - 3623, drive motor - 3624, fixed pipeline - 3625, fixed floating ball - 3626, nested telescopic pipe - 3627, catalytic device - 3628, grooved filter box - 3631, drive cover - 3632, interconnecting pipe - 3633, fixed rod - 3634, sludge suction pipeline - 36211, sludge suction pump - 36212, fixed seat - 36213, waterproof motor - 36214, bottom-attached conduit - 36215, fixed beam - 36216, sludge rotating disk - 36217, fixed ring - 36281, catalytic head - 36282, catalytic lamp tube - 36283, lamp tube seat - 36284, side inclined guide plate - 36311, inner card slot - 36312, inner carrier box - 36313, crushing tooth piece - 36314, waterproof sealing box - 36321, drive gear - 36322, transmission rack - 36323, matching gear disk - 36324, base - 41, sleeve - 42, threaded rotating rod - 43, torsion cap - 44, inner sealing sleeve - 45, fixed block - 46, conical cylinder - 47, conical drill bit - 48. Specific embodiments

[0020] In order to make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below in conjunction with specific embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention, but not to limit the present invention.

[0021] In addition, in the description of the present invention, it should be understood that the orientation or positional relationship indicated by terms such as "center", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "axial", "radial", "circumferential", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present invention.

[0022] In the present invention, unless otherwise clearly specified and defined, terms such as "installed", "connected", "connected to", "fixed" should be understood in a broad sense. For example, it may be a fixed connection, a detachable connection, or integrated; it may be directly connected, or indirectly connected through an intermediate medium, and may be the communication inside two elements or the interaction relationship between two elements. However, indicating a direct connection means that there is no connection relationship constructed through a transition structure between the two connected main bodies, and only a connection structure is used to connect them to form a whole. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0023] In the present invention, unless otherwise clearly specified and defined, the first feature being "above" or "below" the second feature may be that the first and second features are in direct contact, or the first and second features are in indirect contact through an intermediate medium. In the description of this specification, the description referring to terms such as "one embodiment", "some embodiments", "examples", "specific examples", or "some examples", etc. means that the specific features, structures, materials, or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic expressions of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials, or characteristics described may be combined in a suitable manner in any one or more embodiments or examples.

[0024] The following further describes the present invention with reference to the drawings: Embodiment 1

[0025] As shown in the Figure 1 to the Figure 6 accompanying drawings: This embodiment provides a photocatalytic green and low-carbon sewage treatment pumping station and method, including a pumping station 3, a stable base 4 is fixed below the pumping station 3, a pumping station cover 2 is installed on the pumping station 3, a photovoltaic module 1 is installed on the pumping station cover 2, a support column 11 is arranged inside the photovoltaic module 1, a sunshade 12 is installed at the top of the support column 11, a photovoltaic panel 13 is installed on the top of the sunshade 12, a cover body 21 is arranged inside the pumping station cover 2, a climbing cover 22 is installed on the cover body 21, a distribution box 23 is fixed on the surface of the cover body 21, an electric control box 24 is arranged beside the distribution box 23, a pumping station cylinder 31 is arranged inside the pumping station 3, a water guide pipe 32 is installed on the pumping station cylinder 31, a mud guide pipe 33 is installed on the pumping station cylinder 31, a sewage transfer platform 36 is connected between the mud guide pipe 33 and the water guide pipe 32, a water inlet pipe 37 is installed on the outer wall of the pumping station cylinder 31, an inner support plate 34 is embedded on the inner wall of the pumping station cylinder 31, a swing platform 35 is erected on the inner support plate 34, an even number of lifting lugs 38 are installed on the inner wall of the pumping station cylinder 31, and a ladder 39 is arranged between the even number of lifting lugs 38. An even number of side fixing blocks 353 are arranged inside the swing platform 35, a hinge sleeve 352 is connected between the side fixing blocks 353, a swing support rod 354 is installed on the hinge sleeve 352, and a standing plate 351 is installed on the swing support rod 354. A flow dividing conduit 361 is arranged inside the sewage transfer platform 36, a water pump group 362 is connected to one side of the flow dividing conduit 361, and a sewage treatment separation box 363 is arranged on the other side of the flow dividing conduit 361; a confluence box platform 3621 is arranged inside the water pump group 362, a double water pump body 3622 is installed on the outer surface of the confluence box platform 3621, a driving motor 3624 is installed beside the double water pump body 3622, a conduit 3623 is arranged between the double water pump body 3622 and the driving motor 3624, an even number of fixed pipes 3625 are installed below the confluence box platform 3621, a nested telescopic pipe 3627 is nested inside the fixed pipe 3625, a fixed floating ball 3626 is fixed on each nested telescopic pipe 3627, a photocatalytic device 3628 is surrounded around the confluence box platform 3621, and a sludge suction pipe 36211 is arranged beside one of the fixed pipes 3625; a sludge suction pump 36212 is installed on the sludge suction pipe 36211, a fixed seat 36213 is installed on the outer wall of the sludge suction pump 36212, a waterproof motor 36214 is installed on the fixed seat 36213, a bottom-attached conduit 36215 is installed at the end of the sludge suction pipe 36211, a fixed beam 36216 is embedded inside the bottom-attached conduit 36215, and a number of sludge rotating discs 36217 are installed on the fixed beam 36216. A fixed ring 36281 is arranged inside the photocatalytic device 3628, a number of catalytic heads 36282 are fixed on the fixed ring 36281, a catalytic lamp tube 36283 is installed below the catalytic head 36282, and a lamp tube seat 36284 is installed at the bottom of the catalytic lamp tube 36283.

[0026] Furthermore, the double-pumping pump body 3622 is fixedly attached to the surface of the confluence box platform 3621, and the fixed pipeline 3625 is connected below the double-pumping pump body 3622. After the driving motor 3624 operates, the sewage is pumped, and the pumped sewage enters the confluence box platform 3621. Finally, the double-pumping pump body 3622 cooperates with the conduit 3623 to complete the sewage input into the water guide pipe 32.

[0027] Furthermore, the fixed pipeline 3625 is mainly used for the nested cooperation of the telescopic pipe 3627. With the assistance of the fixed floating ball 3626, it can actively drive the telescopic pipe 3627 to adaptively rise and fall according to the water level, thereby avoiding sucking the sludge at the bottom of the cylinder while pumping the sewage.

[0028] Furthermore, at least five rotatable sludge rotating disks 36217 are installed on the fixed beam 36216. The sludge rotating disk 36217 is divided into a self-rotating rod and a fan-shaped rotating disk body. The blades of the fan-shaped rotating disk body are used to stir the sludge to loosen it for internal suction.

[0029] The specific working principle is as follows: In the present invention, the pumping station 3 is installed at a specified position in cooperation with the stable base 4, and then the corresponding pipelines are connected with the water guide pipe 32, the mud guide pipe 33, and the water inlet pipe 37 on the pumping station cylinder 31. Then, the pumping station cover 2 is closed. The support column 11 in the photovoltaic module 1 supports the sunshade 12, and the photovoltaic panel 13 installed at the top converts light energy to reduce external energy supply and save energy consumption to achieve green and low-carbon operation. When the sewage enters from the water inlet pipe 37 and gathers in the pumping station cylinder 31, the catalytic head 36282 assists the catalytic lamp tube 36283 to complete the photocatalysis of the entering sewage. The electric control box 24 distributes electric energy to the electrical components inside the pumping station cylinder 31 under the power distribution of the distribution box 23. After the driving motor 3624 is started, the double-pumping pump body 3622 operates, driving the telescopic pipe 3627 with the fixed floating ball 3626 below the fixed pipeline 3625 to adjust adaptively in height. After pumping the upper-layer water flow of the sewage into the confluence box platform 3621, it is then introduced into the water guide pipe 32 for external discharge through the cooperation of the double-pumping pump body 3622 and the conduit 3623. The sludge pumping pipeline 36211 is driven by the cooperation of the sludge pump 36212 and the waterproof motor 36214 installed on the fixed seat 36213 on the outer wall of the sludge pump 36212 to form a bottom-attached conduit 36215, which swings repeatedly, and drives the sludge rotating disk 36217 on the fixed beam 36216 to complete the conveyance of the sludge and enter the mud guide pipe 33 for external pumping, thus completing the cleaning work of the sludge at the bottom of the cylinder. Embodiment 2

[0030] As shown in the attached Figure 7 to the attached Figure 8 figures: Among them, a grooved filter box 3631 is arranged in the sewage treatment partition box 363. A driving cover 3632 is installed on the grooved filter box 3631. An interconnecting pipe 3633 is connected behind the grooved filter box 3631. A number of fixing rods 3634 are arranged on both sides of the interconnecting pipe 3633. Side inclined guide plates 36311 are installed on both sides of the grooved filter box 3631. An even number of inner clamping grooves 36312 are installed on the inner wall of the grooved filter box 3631. An inner carrier box 36313 is installed between the inner clamping grooves 36312. An even number of crushing teeth 36314 are installed on the inner wall of the inner carrier box 36313. A waterproof sealing box 36321 is installed below the driving cover 3632. A driving gear 36322 is installed on the waterproof sealing box 36321. Transmission tooth rods 36323 are arranged on both sides of the driving gear 36322. A number of matching tooth discs 36324 are installed on the transmission tooth rods 36323.

[0031] Furthermore, the inner clamping grooves 36312 mainly provide fixed support for the inner carrier box 36313, and then guide the sewage entering from the interconnecting pipe 3633 above the inner carrier box 36313. The crushing teeth 36314 installed on the inner wall of the inner carrier box 36313 are meshed with the transmission tooth rods 36323 to complete the corresponding crushing of foreign matters entrained in the sewage.

[0032] Furthermore, the matching tooth discs 36324 installed on the transmission tooth rods 36323 are mainly meshed with the matching tooth discs 36324 on the same side of the inner carrier box 36313, and the transmission tooth rods 36323 are driven by the driving gear 36322 connected below the driving cover 3632.

[0033] The specific working principle is as follows: In the present invention, the grooved filter box 3631 is connected through the interconnecting pipe 3633. The fixing rods 3634 complete the fixation of the grooved filter box 3631. The driving cover 3632 is installed on the top of the grooved filter box 3631. Sewage enters from the water inlet pipe 37 and is supplied to the inner carrier box 36313 in the inner clamping grooves 36312 with the cooperation of the interconnecting pipe 3633. The driving cover 3632 drives the driving gear 36322 to cooperate with the transmission tooth rods 36323 to rotate. The matching tooth discs 36324 are meshed with the crushing teeth 36314 to complete the crushing of foreign matters entrained in the sewage entering the inner carrier box 36313. The sewage is discharged from the corresponding sides through the side inclined guide plates 36311 on both sides and the grooved filter box 3631, avoiding the sewage with entrained foreign matters from entering the pumping station cylinder 31 and being pumped by the pump body, causing unnecessary blockage. Embodiment 3

[0034] As shown in the attached Figure 9 to the attached Figure 10 figure: Among them, a pedestal 41 is arranged inside the stable base 4. An even number of sleeves 42 are installed on the pedestal 41. Threaded rotating rods 43 are installed inside the sleeves 42. Torsion caps 44 are fixed to the tops of the threaded rotating rods 43. An even number of fixing blocks 46 are arranged at the bottom of the pedestal 41. Inner envelopes 45 are installed in the sleeves 42. An even number of tapered cylinders 47 are installed at the bottom of the pedestal 41. Tapered drills 48 are installed at the ends of the threaded rotating rods 43.

[0035] Furthermore, threads are provided on both the sleeve 42 and the threaded rotating rod 43, one of which is an external thread and the other is an internal thread. When the torsion cap 44 at the top of the threaded rotating rod 43 rotates, it drives the two to be connected, completing the threaded connection.

[0036] Furthermore, both sides of the tapered cylinder 47 are fixed by the fixing blocks 46. The threaded rotating rod 43 passes through the inner envelope 45 and drives the tapered drill 48 at the bottom to contact the ground surface, completing the tight connection with the underground.

[0037] The specific working principle is as follows: In the present invention, the pedestal 41 is fixed to the bottom of the pumping station cylinder 31. During installation, the torsion cap 44 at the top of the threaded rotating rod 43 in the sleeve 42 is rotated, and the inner envelope 45 keeps it vertical. Then, the tapered drill 48 at the end of the threaded rotating rod 43 passing through the tapered cylinder 47 contacts the ground surface, forming a firm connection to ensure the overall firm stability of the pumping station 3 during the installation process.

[0038] The following further elaborates on this application in combination with Examples 1-3 and the attached Figures 1 - 10 , and makes a more detailed description; A photocatalytic green and low-carbon sewage treatment pumping station and method include the following steps: S1. First, install the pumping station 3 at a designated position. During the installation process, the stable base 4 ensures the stable installation of the pumping station 3 and its stability after installation; S2. Then, successively connect the corresponding pipelines of the pumping station 3, so that after the sewage is treated, it enters the interior of the pumping station 3 for collection and undergoes photocatalytic treatment of the sewage; S3. The collected sewage is adaptively adjusted in height corresponding to the change in water level in the pumping station cylinder 31, so that the sewage is pumped into the sewage adjustment platform 36 and finally led out through the connected water guide pipe 32; S4. Finally, while leading out, the sludge at the bottom of the pumping station cylinder 31 is sucked in to complete the sludge cleaning at the bottom of the pumping station cylinder 31.

[0039] It should be understood that the embodiments disclosed in the present invention are not limited to the specific processing steps or materials disclosed herein, but should extend to equivalent alternatives of such features understood by those of ordinary skill in the relevant art. It should also be understood that the terms used herein are for the purpose of describing particular embodiments only and do not imply limitation.

[0040] As used in the specification, the term "embodiment" means that a particular feature or characteristic described in connection with an embodiment is included in at least one embodiment of the present invention. Thus, the phrase "an embodiment" or "embodiments" that appear throughout the specification are not necessarily all referring to the same embodiment.

[0041] In addition, the described features or characteristics may be combined in any other suitable manner into one or more embodiments. In the above description, some specific details, such as thickness, quantity, etc., are provided to provide a comprehensive understanding of the embodiments of the present invention. However, those skilled in the relevant art will understand that the present invention can be implemented without one or more of the above specific details or can also be implemented using other methods, components, materials, etc.

Claims

1. A green and low-carbon sewage treatment pump station based on photocatalysis, characterized in that: The pump station (3) comprises a pump station (3), a stable base (4) is fixed below the pump station (3), a pump station cover (2) is installed on the pump station (3), a photovoltaic module (1) is installed on the pump station cover (2), a pump station barrel (31) is arranged inside the pump station (3), a water guide pipe (32) is installed on the pump station barrel (31), a mud guide pipe (33) is installed on the pump station barrel (31), a sewage transfer platform (36) is connected between the mud guide pipe (33) and the water guide pipe (32), a diversion conduit (361) is arranged inside the sewage transfer platform (36), a water pump group (362) is connected to one side of the diversion conduit (361), and a sewage treatment compartment box (363) is arranged on the other side of the diversion conduit (361); A junction box (3621) is provided in the water pump group (362), a double-pumping pump body (3622) is installed on the outer surface of the junction box (3621), a driving motor (3624) is installed next to the double-pumping pump body (3622), a guide tube (3623) is provided between the double-pumping pump body (3622) and the driving motor (3624), an even number of fixed pipes (3625) are installed below the junction box (3621), nested telescopic pipes (3627) are nested in the fixed pipes (3625), and fixed floating balls (3626) are fixed on the nested telescopic pipes (3627), a photocatalytic device (3628) is surrounded by the junction box (3621), and a mud extraction pipe (36211) is provided next to one of the fixed pipes (3625); The mud pumping pipeline (36211) is installed with a mud pump (36212), the outer wall of the mud pump (36212) is installed with a fixing seat (36213), the fixing seat (36213) is installed with a waterproof motor (36214), the end of the mud pumping pipeline (36211) is installed with a bottom-attached conduit (36215), the bottom-attached conduit (36215) is embedded with a fixed beam (36216), and a plurality of mud rotating discs (36217) are installed on the fixed beam (36216).

2. A photocatalytic green low-carbon sewage treatment pump station according to claim 1, characterized in that: The fixed floating ball (3626) is used for adjusting the height of the nested telescopic tube (3627). The nested telescopic tube (3627) can be nested in the fixed pipe (3625). The conduit (3623) is connected to the diversion conduit (361) and cooperates with the water conduit (32). The connection between the end of the water conduit (32) and the mud conduit (33) is in a closed state.

3. A photocatalytic green low-carbon sewage treatment pump station according to claim 1, characterized in that: The bottom-attached conduit (36215) is in the shape of a half-circle, and the bottom-attached conduit (36215) is interconnected with the mud pumping conduit (36211). The end of the mud pumping conduit (36211) passes through the junction box (3621) and is connected to the mud guide pipe (33). The sludge rotating disk (36217) can rotate on its own. The mud pumping conduit (36211) and the waterproof motor (36214) are both provided with toothed disks, and the toothed disks are used for swinging cooperation between the two.

4. A photocatalytic green low-carbon sewage treatment pump station according to claim 1, characterized in that: The outer wall of the pump station cylinder (31) is provided with a water inlet pipe (37), the inner wall of the pump station cylinder (31) is embedded with an inner support plate (34), a swing platform (35) is mounted on the inner support plate (34), an even number of lifting ears (38) are installed on the inner wall of the pump station cylinder (31), a ladder (39) is arranged between the even number of lifting ears (38), an even number of side fixing blocks (353) are arranged in the swing platform (35), and hinge sleeves (352) are connected between the side fixing blocks (353). The hinge sleeve (352) is provided with a swing support rod (354), the swing support rod (354) is provided with a standing plate (351), a fixed ring (36281) is provided in the photocatalytic device (3628), a plurality of catalytic heads (36282) are fixed on the fixed ring (36281), a catalytic lamp tube (36283) is provided below the catalytic head (36282), and a lamp tube holder (36284) is provided at the bottom of the catalytic lamp tube (36283).

5. A photocatalytic green low-carbon sewage treatment pump station according to claim 4, characterized in that: The swing support rod (354) assists the standing plate (351) to be hinged and swung through the hinge sleeve (352); the side fixing block (353) is fixed to the inner wall of the pump station cylinder (31); the lifting lug (38) is used to fix the standing plate (351) after the swing; the lower surface of the standing plate (351) is attached to the surface of the inner support plate (34); and the water inlet pipe (37) cooperates with the sewage treatment compartment box (363).

6. A photocatalytic green low-carbon sewage treatment pump station according to claim 5, characterized in that: A filter box with grooves (3631) is arranged in the sewage treatment compartment box (363), a driving cover (3632) is installed on the filter box with grooves (3631), an interconnection pipe (3633) is connected to the rear of the filter box with grooves (3631), a plurality of fixing rods (3634) are arranged on both sides of the interconnection pipe (3633), side inclined guide plates (36311) are installed on both sides of the filter box with grooves (3631), an even number of inner slots (36312) are installed on the inner wall of the filter box with grooves (36311), an inner carrier box (36313) is installed between the inner slots (36312), and an even number of crushing teeth (36314) are installed on the inner wall of the inner carrier box (36313).

7. A photocatalytic green low-carbon sewage treatment pump station according to claim 6, characterized in that: A waterproof sealing box (36321) is installed below the driving cover (3632), a driving gear (36322) is installed on the waterproof sealing box (36321), transmission gear rods (36323) are arranged on both sides of the driving gear (36322), a plurality of matching gear plates (36324) are installed on the transmission gear rods (36323), the transmission gear rods (36323) cooperate with the driving gear (36322), and the driving gear (36322) is connected to the driving gear (36322). The water-repellent sealing box (36321) is connected to the inner surface of the driving cover (3632), the grooved filter box (3631) is fixed to the inner wall of the pump station cylinder (31) by the fixing rod (3634), the interconnecting pipe (3633) is connected between the water inlet pipe (37) and the grooved filter box (3631), and the crushing tooth piece (36314) is matched with the matching toothed disc (36324).

8. The green and low-carbon sewage treatment pump station based on photocatalysis according to claim 1 is characterized by: The photovoltaic assembly (1) is provided with a support column (11), a sunshade umbrella (12) is installed on the top of the support column (11), a photovoltaic panel (13) is installed on the top of the sunshade umbrella (12), the bottom of the support column (11) is connected to the pump station cover (2), a cover body (21) is provided in the pump station cover (2), a climbing cover (22) is installed on the cover body (21), a distribution box (23) is fixed on the surface of the cover body (21), an electric control box (24) is provided next to the distribution box (23), the electric control box (24) cooperates with the components that need to be powered inside the pump station (3), the electric control box (24) electrically cooperates with the distribution box (23), and the distribution box (23) cooperates with the photovoltaic panel (13).

9. The green and low-carbon sewage treatment pump station based on photocatalysis according to claim 1 is characterized by: A seat (41) is arranged inside the stable base (4), an even number of sleeves (42) are installed on the seat (41), a threaded rotating rod (43) is installed in each of the sleeves (42), a torsion cap (44) is fixed to the top of each of the threaded rotating rods (43), an even number of fixing blocks (46) are arranged at the bottom of the seat (41), an inner sealing sleeve (45) is installed in each of the sleeves (42), an even number of conical cylinders (47) are installed at the bottom of the seat (41), a conical drill bit (48) is installed at the end of each of the threaded rotating rods (43), the threaded rotating rod (43) is threadedly connected to the inner wall of the sleeve (42), and the threaded rotating rod (43) passes through the conical cylinder (47).

10. A method for a photocatalytic green low-carbon sewage treatment pump station according to any one of claims 1 to 9, characterized in that: The steps include: S1. First, the pump station (3) is installed at a designated location. During the installation process, the stable base (4) ensures that the pump station (3) is firmly installed and stable after installation; S2, then correspondingly connecting the pumping station (3) with corresponding pipes, so that the sewage, after being treated, enters the pumping station (3) for collection inside, and undergoes photocatalytic treatment of the sewage; S3, the collected sewage is adjusted in height in accordance with the change of the water level in the pump station cylinder (31), so that the sewage is pumped into the sewage transfer platform (36), and finally guided out from the connected water pipe (32); S4, while finally guiding the sludge outward, the sludge at the bottom of the pump station barrel (31) is internally sucked in, thereby completing the cleaning of the sludge at the bottom of the pump station barrel (31).

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