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CN116177812B - A system for realizing comprehensive water quality treatment in water plants based on influent dynamics - Google Patents

A system for realizing comprehensive water quality treatment in water plants based on influent dynamics

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Publication number
CN116177812B
CN116177812B CN202310291369.1A CN202310291369A CN116177812B CN 116177812 B CN116177812 B CN 116177812B CN 202310291369 A CN202310291369 A CN 202310291369A CN 116177812 B CN116177812 B CN 116177812B
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CN
China
Prior art keywords
water
wastewater
oil
comprehensive
bevel gear
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Active
Application number
CN202310291369.1A
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Chinese (zh)
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CN116177812A (en
Inventor
曾强
韩冰
丁海栋
吕贤超
姚志龙
曹佃国
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Rizhao Urban Investment Group Construction Development Co ltd
Qufu Normal University
Original Assignee
Rizhao Urban Investment Group Construction Development Co ltd
Qufu Normal University
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Application filed by Rizhao Urban Investment Group Construction Development Co ltd, Qufu Normal University filed Critical Rizhao Urban Investment Group Construction Development Co ltd
Priority to CN202310291369.1A priority Critical patent/CN116177812B/en
Publication of CN116177812A publication Critical patent/CN116177812A/en
Application granted granted Critical
Publication of CN116177812B publication Critical patent/CN116177812B/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

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    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F9/00Multistage treatment of water, waste water or sewage
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N1/00Sampling; Preparing specimens for investigation
    • G01N1/02Devices for withdrawing samples
    • G01N1/10Devices for withdrawing samples in the liquid or fluent state
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N33/00Investigating or analysing materials by specific methods not covered by groups G01N1/00 - G01N31/00
    • G01N33/18Water
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/001Processes for the treatment of water whereby the filtration technique is of importance
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/24Treatment of water, waste water, or sewage by flotation
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/40Devices for separating or removing fatty or oily substances or similar floating material
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/44Treatment of water, waste water, or sewage by dialysis, osmosis or reverse osmosis
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/48Treatment of water, waste water, or sewage with magnetic or electric fields
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00Treatment of water, waste water, or sewage
    • C02F1/58Treatment of water, waste water, or sewage by removing specified dissolved compounds
    • C02F1/60Silicon compounds
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F11/00Treatment of sludge; Devices therefor
    • C02F11/12Treatment of sludge; Devices therefor by de-watering, drying or thickening
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2101/00Nature of the contaminant
    • C02F2101/30Organic compounds
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2209/00Controlling or monitoring parameters in water treatment
    • C02F2209/40Liquid flow rate
    • CCHEMISTRY; METALLURGY
    • C02TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02FTREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F3/00Biological treatment of water, waste water, or sewage
    • C02F3/34Biological treatment of water, waste water, or sewage characterised by the microorganisms used
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02WCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO WASTEWATER TREATMENT OR WASTE MANAGEMENT
    • Y02W10/00Technologies for wastewater treatment
    • Y02W10/10Biological treatment of water, waste water, or sewage

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  • Life Sciences & Earth Sciences (AREA)
  • Chemical & Material Sciences (AREA)
  • Health & Medical Sciences (AREA)
  • Pathology (AREA)
  • General Physics & Mathematics (AREA)
  • Hydrology & Water Resources (AREA)
  • Physics & Mathematics (AREA)
  • Analytical Chemistry (AREA)
  • Biochemistry (AREA)
  • General Health & Medical Sciences (AREA)
  • Engineering & Computer Science (AREA)
  • Immunology (AREA)
  • Food Science & Technology (AREA)
  • Medicinal Chemistry (AREA)
  • Environmental & Geological Engineering (AREA)
  • Water Supply & Treatment (AREA)
  • Organic Chemistry (AREA)
  • Separation Using Semi-Permeable Membranes (AREA)

Abstract

本发明涉及水厂水处理技术领域,尤其是基于进水动态实现水厂水质综合处理的系统,包括隔油滤渣单元,所述隔油滤渣单元的进水端连接废水源端,在所述隔油滤渣单元的下游连接有综合调节单元,所述综合调节单元用于实现对经过所述隔油滤渣单元处理的废水进行加药调节,在所述综合调节单元的下游连接有沉降池,在所述沉降池的下游连接有多级水质膜滤净化单元,所述多级水质膜滤净化单元的下游分别连接工业用水端、生活用水深度处理端。本发明中的基于进水动态实现水厂水质综合处理的系统应用在水厂废水处理中,能够实时监测整个系统的进水量,同时可以由水厂控制端根据进水量进行各个设备运转时间及周期的控制。

The present invention relates to the field of water treatment technology for water plants, and in particular to a system for achieving comprehensive water quality treatment in water plants based on water inlet dynamics, comprising an oil-separating filter residue unit, wherein the water inlet end of the oil-separating filter residue unit is connected to a wastewater source end, and a comprehensive regulating unit is connected downstream of the oil-separating filter residue unit, wherein the comprehensive regulating unit is used to achieve dosing regulation of the wastewater treated by the oil-separating filter residue unit, and a sedimentation tank is connected downstream of the comprehensive regulating unit, and a multi-stage water quality membrane filtration purification unit is connected downstream of the sedimentation tank, and the downstream of the multi-stage water quality membrane filtration purification unit is respectively connected to an industrial water end and a domestic water deep treatment end. The system for achieving comprehensive water quality treatment in water plants based on water inlet dynamics in the present invention is applied to wastewater treatment in water plants, and can monitor the water inlet volume of the entire system in real time, and at the same time, the water plant control end can control the operating time and cycle of each device according to the water inlet volume.

Description

System for realizing water quality comprehensive treatment of water plant based on water inflow dynamics
Technical Field
The invention relates to the technical field of water treatment of water plants, in particular to a novel system capable of timely adjusting and realizing efficient water quality treatment of water plants according to water inflow dynamics, and particularly relates to a system for realizing comprehensive water quality treatment of water plants based on water inflow dynamics.
Background
The quality of the water treatment process in the water factory directly determines the effect of the water quality at the tail end of the water treatment. The existing industrial water plants generally adopt the process steps of wastewater precipitation, filtration, hydrolytic acidification, secondary sedimentation tank, fine filtration, discharge and the like when wastewater treatment is carried out.
In the prior art, a plurality of wastewater treatment technologies exist, for example, a wastewater treatment method and a wastewater treatment system are disclosed in the patent document with the patent application number of CN201310162735.X, and the main steps of the wastewater treatment method comprise the steps of firstly filtering to remove impurities in water, secondly, performing denitrification and dephosphorization treatment and organic matter removal treatment on the filtered water body by using an anaerobic-anoxic-aerobic A-A-O method, thirdly, treating the water body obtained in the second step by using a membrane bioreactor MBR method for intercepting and degrading activated sludge and macromolecular substances in the water body, and fourthly, performing on-line oxidation disinfection on the water body obtained in the third step by using chlorine dioxide.
As can be seen from the descriptions in the patent literature of the wastewater treatment method and the treatment system, the patent mainly carries out filtration treatment, denitrification and dephosphorization treatment and organic matter removal treatment, interception treatment on activated sludge and macromolecular substances in a water body and the like on wastewater in sequence, the treatment process is still remained on the traditional water treatment process, the effect of water quality treatment is poor, the treatment effect cannot be effectively monitored, the treatment mode in each process is more conventional, and therefore, the treatment effect is difficult to achieve when the wastewater, especially the industrial wastewater with high pollutant or concentration is treated by using the technology.
For another example, in patent document CN201910985681.4, a multi-stage treatment wastewater treatment system is also disclosed, the main structure of which includes an adjusting tank for adjusting water quantity and water quality, a primary sedimentation tank for preliminary sedimentation, an anaerobic tank for treating wastewater by using anaerobic technology, an aerobic tank for promoting wastewater treatment by using aeration and oxygenation technology, a secondary sedimentation tank for secondary sedimentation and separating muddy water, a clean water tank for storing treated clean water, a floating equilibrium water delivery mechanism for reducing water quantity impact and facilitating sedimentation, an anaerobic mixing mechanism for mixing muddy water under anaerobic conditions and promoting wastewater treatment, and an active oxygenation mechanism for aeration and oxygenation, wherein both the primary sedimentation tank and the secondary sedimentation tank are provided with floating equilibrium water delivery mechanisms, the anaerobic mixing mechanism is arranged on the anaerobic tank, and the active oxygenation mechanism is arranged on the aerobic tank.
As can be seen from the above-mentioned multi-stage wastewater treatment system, the patent document mainly carries out multi-stage treatment in the conventional wastewater treatment process, but the conventional series stack of the regulating tank, the primary sedimentation tank, the anaerobic tank, the aerobic tank and the secondary sedimentation tank is still utilized in the treatment process, which increases the treatment links as a whole, but the treatment process of each step is not obviously improved, and meanwhile, the treatment effect of the wastewater cannot be effectively monitored, the overall water quality treatment can be improved to a certain extent due to the increase of the working procedures, but the rationality of the overall water treatment is still poor.
Therefore, the invention provides a novel system capable of timely adjusting and realizing high-efficiency treatment of water quality of a water plant according to water inflow dynamics, and aims to solve the problems in the prior art.
Disclosure of Invention
The system comprises an oil separation filter residue unit, wherein the water inlet end of the oil separation filter residue unit is connected with a wastewater source end, the downstream of the oil separation filter residue unit is connected with a comprehensive regulating unit, the comprehensive regulating unit is used for realizing dosing regulation on wastewater treated by the oil separation filter residue unit, the downstream of the comprehensive regulating unit is connected with a sedimentation tank, the downstream of the sedimentation tank is connected with a multistage water quality membrane filtration purifying unit, the downstream of the multistage water quality membrane filtration purifying unit is respectively connected with an industrial water end and a domestic water advanced treatment end, concentrated wastewater and slag-containing wastewater discharged from the wastewater outlet end of each unit are led into an external sludge treatment procedure, and a water flow sensor is arranged on the water inlet end of the oil separation filter residue unit, is in signal connection with a water plant control end and feeds back a dynamic water flow signal to the water flow control end of the water plant.
In any of the above schemes, preferably, the oil separation and filtration unit comprises a waste water tank, a water inlet pipe orifice with a one-way water inlet valve is arranged at the lower part of one side wall of the waste water tank, the water inlet pipe orifice is used for receiving waste water from an upstream waste water source end, a floating oil guiding mechanism is arranged at the left side of the waste water tank and used for guiding oil floating on the surface of waste water in the waste water tank, a horizontally arranged blocking type filtration net is detachably and fixedly arranged in a water storage cavity of the waste water tank above the water inlet pipe orifice, the blocking type filtration net is used for blocking impurity residues in waste water in the water storage cavity below the water storage cavity, a residue net cleaning component is arranged at the rear side of the interior of the water storage cavity and used for reciprocating along the front-rear direction of the water storage cavity and realizing the cleaning of the upper and lower surfaces of the blocking type filtration net;
the water flow sensor is arranged in the water inlet pipe orifice.
In any of the above schemes, preferably, the floating oil guiding mechanism comprises a square bin fixedly and hermetically installed on the left side wall of the wastewater crude pool, the inner wall of the inner cavity of the square bin and the outer side wall of the wastewater crude pool at the corresponding position are both polished metal smooth surfaces, a push-stop sealing plug plate is hermetically matched and inserted in the inner cavity of the square bin, a lifting control cylinder is fixedly installed on the left side outer side wall of the wastewater crude pool below the square bin, the upper part of a piston rod of the lifting control cylinder movably extends into the inner cavity of the square bin and is fixedly connected with the bottom of the push-stop sealing plug plate, a plurality of adjustable oil guiding devices are installed on the outer side wall of the wastewater crude pool at the left side of the inner cavity of the square bin at intervals along the height direction of the wastewater crude pool, each adjustable oil guiding device is in a normally open state, an oil outlet is formed on the left side wall of the square bin opposite to each adjustable oil guiding device, an oil outlet is fixedly installed on the left side wall of the square bin below the drain outlet, and the floating oil outlet is communicated with the bottom of the outlet pipe;
when the pushing and blocking sealing plug plate moves upwards, the corresponding adjusting oil guide is sequentially pushed to the right to be converted into a sealing closing state.
In any of the above solutions, preferably, the adjusting oil guider includes a T-shaped stepped through hole disposed on an outer side wall of the waste water tank at a left side of the square bin, the T-shaped stepped through hole is horizontally disposed and has a left inner diameter larger than a right inner diameter, a stepped plug shaft is coaxially disposed in the T-shaped stepped through hole, a right outer diameter of the stepped plug shaft is smaller than a left outer diameter of the stepped plug shaft and is matched with a right inner diameter of the T-shaped stepped through hole, a notch body is disposed on a left end face of the stepped plug shaft, a return spring is sleeved on an outer side wall of the stepped plug shaft between the notch body and a step surface of the T-shaped stepped through hole, two ends of the return spring are fixedly disposed on the notch body and the step surface of the T-shaped stepped through hole respectively, and an outer diameter of the notch body is matched with a left large diameter of the T-shaped stepped through hole.
In any of the above schemes, preferably, each unit is provided with a water quality sampler, and each water quality sampler conveys the taken water sample to the outside through a water sample conveying pipe to finish water sample detection;
An air floatation and drainage combined mechanism is arranged above the right side of the waste water original pool, two procedures of air floatation treatment of waste water in the waste water original pool and waste liquid transfer after oil discharge are completed in the waste water original pool by the air floatation and drainage combined mechanism, and an output end of the air floatation and drainage combined mechanism is connected with an inlet end of the downstream comprehensive adjusting unit through a pipeline after filtration.
In any of the above schemes, preferably, the air-float liquid draining combined mechanism comprises a lifting position-adjusting cylinder group fixedly arranged on the outer side wall of the right side of the waste water original pool, a lifting position-adjusting seat is fixedly arranged at the top of a piston rod of the lifting position-adjusting cylinder group, a vertical and hollow multipurpose vertical pipe is fixedly arranged on the lifting position-adjusting seat, the bottom of the multipurpose vertical pipe is blocked, and a liquid outlet at the top of the multipurpose vertical pipe is connected with the post-filtering pipeline;
The water quality sampler is arranged on one side of the top liquid outlet of the multipurpose vertical pipe, a valve is arranged on a pipeline between the water quality sampler and the top liquid outlet of the multipurpose vertical pipe, and an output port of the sampler conveys the taken water sample to the outside through a water sample conveying pipe to finish water sample detection;
The lower left side connection of multipurpose riser is fixed with a horizontal riser, the left end shutoff setting of horizontal riser just be provided with a plurality of gas-liquid dual-purpose hole on the surface of horizontal riser evenly interval, when being in waste water air supporting treatment process, each gas-liquid dual-purpose hole is used for outwards spraying pulse air current by horizontal riser inside, and when being in waste water drainage process, each gas-liquid dual-purpose hole is used for outwards discharging the waste liquid of the water storage intracavity of blockking filter residue net top.
In any of the above schemes, it is preferable that a fine oil removal bypass is arranged in parallel on the filtered pipeline, a wastewater oil removal device is arranged on the fine oil removal bypass, control valves are respectively arranged on the fine oil removal bypass connected with the inlet end of the wastewater oil removal device and the outlet end of the water liquid, when the water liquid taken out by the water quality sampler at the multi-purpose vertical pipe is detected by an external detection system, if the oil content exceeds the standard, the fine oil removal bypass is started and the filtered pipeline is blocked, at the moment, the water liquid discharged by the air floatation liquid discharge combination mechanism is treated by the fine oil removal bypass and then discharged to the downstream comprehensive regulation unit, and the corresponding power pump is arranged on each pipeline.
In any of the above schemes, preferably, the residue net cleaning assembly comprises a rubber scraper installed at the rear side of the inside of the water storage cavity, a cleaning brush is installed at the upper part of the rubber scraper, the working ends of the cleaning brushes are all in butt joint with the lower surface of the blocking type residue net and realize cleaning of the blocking type residue net by moving along the front-back direction of the water storage cavity, a cleaning telescopic cylinder group is fixedly installed on the ground at the outer side of the water storage cavity, the inner ends of piston rods of the cleaning telescopic cylinder group are all movable and sealed to extend into the water storage cavity and are fixedly connected with the rubber scraper, and a plurality of residue-containing waste liquid discharge ports with plugging covers are installed on the side wall of the water storage cavity at the side opposite to the rubber scraper.
In any of the above schemes, preferably, the integrated regulating unit includes an integrated regulating tank connected to the filtered pipeline upstream of the integrated regulating tank, and the integrated regulating tank is filled with a desired strain, a reagent and a reagent to perform neutralization treatment and biological decomposition treatment on the internal wastewater, an output end of the integrated regulating tank is connected to an inlet end of the settling tank, a water quality sampler is installed on the pipeline at the output end of the integrated regulating tank, a regulating tank upper cover is installed at the top of the integrated regulating tank, and an integrated multistage mixing assembly is installed at the regulating tank upper cover and is used for performing multiple-effect mixing treatment on the wastewater filled with the strain, the reagent and the reagent.
In any of the above schemes, preferably, the comprehensive multi-stage mixing assembly comprises a strip gear box fixedly arranged at the top of the upper cover of the regulating tank, a horizontal main shaft is arranged in the strip gear box, bearing seats fixedly arranged are respectively matched at two sides of the horizontal main shaft, two bidirectional side mixers are respectively arranged at two ends of the horizontal main shaft, a middle mixer is arranged between the two bidirectional side mixers, and the two bidirectional side mixers and the middle mixer are matched to realize mixing and stirring of wastewater in the comprehensive regulating tank;
The middle mixer comprises a middle driving bevel gear fixedly arranged on the outer side wall of the middle of the horizontal main shaft, a middle driven bevel gear is meshed below the middle driving bevel gear, the lower part of a central mixing shaft of the middle driven bevel gear movably extends into an adjusting cavity of the comprehensive adjusting pool and is fixedly provided with a plurality of central stirring teeth on the outer side wall of the central mixing shaft, a supporting copper ring is sleeved on the outer side wall of the central mixing shaft between the middle driven bevel gear and the inner cavity of the strip gear box, and the bottom of the supporting copper ring is fixed on the inner cavity of the strip gear box.
In any of the above schemes, preferably, the main shaft driving member includes a large torque total driving motor fixedly installed in an inner cavity of the strip gear box, a total driving gear is fixedly installed on an output end of the large torque total driving motor, and the total driving gear is meshed with a driven total gear fixedly installed on an outer side wall of the horizontal main shaft.
The whole comprehensive multistage mixing assembly adopts a single power piece of a large-torque total drive motor to realize the driving operation of two bidirectional side blenders and a middle mixer during working, can effectively realize the rapid mixing of waste water, strains, medicaments and reagents in the comprehensive regulating tank, improves the mixing effect, is suitable for the regulating tank with larger size, and simultaneously, the whole assembly is driven by only adopting a single power piece, so that a power failure point is easy to determine during the later-stage fault maintenance, and the maintenance and the overhaul are more convenient.
In any of the above solutions, preferably, the bidirectional side mixer includes an end large driving bevel gear and an end small driving bevel gear fixedly mounted on the outer side wall of the end of the horizontal main shaft, the end small driving bevel gears are located on the outer sides of the end large driving bevel gears, the center of each end small driven bevel gear is connected with a corresponding center cavity of the inner vertical pipe, an outer vertical pipe and an inner vertical pipe are fixedly connected below the end large driven bevel gears and the end small driven bevel gears respectively, the inner vertical pipe is inserted in the cavity of the outer vertical pipe in a matched manner, the lower ends of the outer vertical pipe and the inner vertical pipe extend out of the outer vertical pipe, the lower ends of the outer vertical pipe and the inner vertical pipe are movably extended into the adjusting cavity of the comprehensive adjusting tank, a plurality of forward stirrers and reverse stirrers are fixedly mounted on the outer side walls of the outer vertical pipe respectively, the centers of the end small driven bevel gears are communicated with the corresponding center cavities of the inner vertical pipe, and the inner vertical pipe between the end small driven bevel gears and the inner vertical pipe is sleeved with the outer side wall of the copper vertical pipe between the strip gear and the inner vertical pipe.
In any of the above schemes, preferably, a vertical and fixedly arranged feeding steel pipe is movably inserted in the central cavity at the upper part of each inner vertical pipe, the top of each feeding steel pipe penetrates out to the upper part of the long-strip gear box and is communicated with a fixedly arranged feed supplementing box, and strains, medicaments and reagents are filled in the feed supplementing box and are directly conveyed to the lower part of the adjusting cavity through the inner vertical pipe;
the utility model discloses a sedimentation tank, including sedimentation tank, multistage water quality membrane filtration purification unit, sedimentation tank, water sampler, sedimentation tank, multistage water quality membrane filtration purification unit, wherein the sedimentation tank is used for throwing in alum to realize flocculation precipitation of inside water, the water sampler is installed on the export upper portion of sedimentation tank, the outlet end of sedimentation tank is through sedimentation back pipeline downstream transport through the water that adjusts the transport, multistage water quality membrane filtration purification unit is installed on the sedimentation back pipeline.
In any of the above schemes, preferably, the multistage water quality membrane filtration purification unit comprises a first filter, a second filter, a third fine filter and a fourth fine filter which are installed on the post-sedimentation conveying pipeline in series, wherein the tail end of the fourth fine filter is connected with the advanced treatment end of domestic water through a domestic water diversion pipeline, and a water quality sampler, a control valve and a power pump are installed on the domestic water diversion pipeline;
And an industrial water pipeline between the second filter and the third fine filter is connected with the industrial water end, and a water quality sampler, a control valve and a power pump are arranged on the industrial water pipeline.
In any of the above schemes, preferably, a bent pipe accumulation section is arranged in the middle of the connecting pipe between the first filter and the second filter, magnetizing magnetic blocks are respectively arranged at the upper part and the lower part of the connecting pipe at two sides of the bent pipe accumulation section, each oppositely arranged magnetizing magnetic block forms a magnetizing magnetic field, the magnetizing magnetic field is used for realizing magnetizing treatment on water flowing in the connecting pipe, the bent pipe accumulation section is used for accumulating impurities generated in the conveying process, and an impurity discharge valve is arranged at the bottom of the bent pipe accumulation section.
Compared with the prior art, the invention has the following beneficial effects:
1. the system for realizing the comprehensive treatment of the water quality of the water plant based on the water inflow dynamics is applied to the wastewater treatment of the water plant, can monitor the water inflow of the whole system in real time, can control the running time and the running period of each device according to the water inflow by a water plant control end, is provided with water quality samplers at the tail end of each stage, and can control each device of the system again by staff at the water plant control end by detecting and feeding back the water samples taken out by each water quality samplers to the control end, so that the wastewater treatment effect of the whole system can be effectively ensured.
2. Can utilize the oil removal filter residue unit to realize carrying out quick clean separation to the fluid in the waste water in the system of water factory quality integrated treatment based on the dynamics of intaking, can realize preliminary oil extraction by oil slick derivation mechanism earlier when separating and satisfy the waste water treatment that the content is less, cooperate the waste water deoiling equipment on the meticulous deoiling bypass to realize meticulous deoiling simultaneously, guarantee waste water deoiling effect.
3. In addition, in order to improve the oil removal effect during preliminary oil removal, the invention is also provided with the air-floatation and liquid-discharge combination mechanism, pulse air flow (oxygen or air) can be continuously filled into the waste water in the waste water original pool through the operation of the air-floatation and liquid-discharge combination mechanism, so that the filled air bubbles can quickly drive floating oil to float upwards, the oil-liquid separation effect is improved, the upper layer floating oil mixed liquid can be quickly led out through the operation of the floating oil leading-out mechanism, and the stirring and mixing of the waste liquid can be realized by driving the horizontal lifting pipe to move up and down while the pulse air flow is impacted by controlling the lifting of the lifting and position-adjusting cylinder group in the operation process of the air-floatation and liquid-discharge combination mechanism.
4. The waste liquid after oil removal and filter residue is comprehensively treated in the comprehensive regulating tank, and meanwhile, the waste liquid, the medicament and the like in the regulating cavity can be well mixed by utilizing the comprehensive multistage mixing assembly in the treatment process, so that the treatment effect is improved, the treatment efficiency is ensured, and the method can be effectively applied to the large-scale comprehensive regulating tank.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below. Like elements or features are generally identified by like reference numerals throughout the drawings. In the drawings, the elements or components are not necessarily drawn to scale.
Fig. 1 is a schematic structural view of the present invention.
Fig. 2 is a schematic view of the internal cross-sectional structure of the present invention.
Fig. 3 is a schematic diagram of the internal structure of the oil separation filter residue unit of the present invention.
FIG. 4 is a schematic view of the structure of the slag network cleaning assembly in the direction A-A of FIG. 1.
Fig. 5 is an enlarged schematic view of the internal structure of the oil slick guiding mechanism of the present invention.
Fig. 6 is a schematic view of the internal structure of the integrated regulating unit of the present invention.
Fig. 7 is an enlarged schematic view of the structure of the integrated multi-stage hybrid module of the present invention.
In the figure, a, an oil separation filter residue unit; b, a comprehensive adjusting unit; c, a floating oil guiding mechanism; d, adjusting type oil delivery device, 1, waste water source end, 2, sedimentation tank, 3, multistage water quality membrane filtration purification unit, 4, industrial water end, 5, domestic water advanced treatment end, 6, water flow sensor, 7, waste water raw tank, 701, water storage cavity, 8, one-way water inlet valve, 9, water inlet pipe orifice, 10, blocking type filter residue net, 11, square bin, 12, push-stop sealing plug plate, 13, jacking control cylinder, 14, oil outlet, 15, float oil delivery pipe, 16, T-shaped stepped through hole, 17, stepped plug shaft, 18, spherical body, 19, reset spring, 20, water quality sampler, 21, water sample delivery pipe, 22, after-filtration pipeline, 23, lifting and lowering positioning cylinder group, 24, lifting and lowering positioning seat, 25, multi-purpose vertical pipe, 26, pulse air pipe, 27, horizontal lifting pipe, 28, gas and liquid dual-purpose hole, 29, fine oil removing cylinder, 30, waste water equipment, 31, rubber scraper, 32, cleaning brush, 33, cleaning telescopic cylinder group, 34, slag discharge outlet 35, comprehensive control cylinder, gear box, upper end, 35, gear box, upper end, bevel gear, 40, bevel gear, main drive end portion, bevel gear, main gear, drive end portion, bevel gear, main gear, bevel gear, drive end portion, bevel gear, hollow bevel gear, drive gear, bevel gear, drive bevel gear, drive gear, bevel gear, drive bevel gear, drive gear, bevel gear, drive bevel gear, drive gear, bevel gear, bevel, bevel, the device comprises a reverse stirrer, 59, a feeding steel pipe, 60, a feeding box, 61, a post-sedimentation conveying pipeline, 62, a first filter, 63, a second filter, 64, a third fine filter, 65, a fourth fine filter, 66, a domestic water diversion pipeline, 67, an industrial water pipeline, 68, a bent pipe material accumulation section, 69, a magnetizing magnetic block and 70, and an impurity discharge valve.
Detailed Description
Embodiments of the technical scheme of the present invention will be described in detail below with reference to the accompanying drawings. The following examples are only for more clearly illustrating the technical aspects of the present invention, and thus are merely examples, and are not intended to limit the scope of the present invention. The specific structure of the invention is shown in figures 1-7.
Example 1:
The system for dynamically realizing comprehensive treatment of water quality of a water plant based on water inflow comprises an oil separation filter residue unit a, wherein the water inflow end of the oil separation filter residue unit a is connected with a wastewater source end 1, the downstream of the oil separation filter residue unit a is connected with a comprehensive regulation unit b, the comprehensive regulation unit b is used for realizing dosing regulation on wastewater treated by the oil separation filter residue unit a, the downstream of the comprehensive regulation unit b is connected with a sedimentation tank 2, the downstream of the sedimentation tank 2 is connected with a multistage water quality membrane filtration purification unit 3, the downstream of the multistage water quality membrane filtration purification unit 3 is respectively connected with an industrial water end 4 and a domestic water depth treatment end 5, concentrated wastewater discharged from the wastewater outflow end of each unit and slag-containing wastewater are all introduced into an external sludge treatment procedure, the water inflow end of the oil separation filter residue unit a is provided with a water flow sensor 6, and the water flow sensor 6 is in signal connection with a control end of the water plant and feeds back a dynamic water flow signal to a control end of the water supply plant.
The system for realizing the comprehensive treatment of the water quality of the water plant based on the water inflow dynamics can utilize the water flow sensor 6 to monitor the flow of the entered wastewater in real time, and simultaneously feed back the control end of the water supply plant to realize the purpose of artificially regulating and controlling each unit of the system, and realize better energy conservation by regulation according to the needs.
The waste water entering the system firstly enters the oil separation filter residue unit a through the water inlet end of the oil separation filter residue unit a, the water flow arranged in the system enters the oil separation filter residue unit a from the lower part of the oil separation filter residue unit a, then the middle part of the water flow is upwards increased to form a liquid level, the waste water is fed into a downstream comprehensive adjusting unit b after being deoiled and filtered in the oil separation filter residue unit a, bacterial, medicament, reagent and the like are added in the comprehensive adjusting unit b, the full and rapid mixing is realized in a comprehensive multistage mixing assembly, the uniformity of mixing is ensured, the pollution components in the water after the adjustment treatment are greatly reduced, the water is continuously treated by a multistage water quality membrane filtration purifying unit 3 and then reaches the standard of life and industrial use, the mud-containing waste water and the slag-containing waste water generated at the tail end of each unit are both conveyed to the external sludge treatment process for purification, drying and the like, in order to ensure that the water quality of each link reaches the standard, the water quality sampler 20 is installed at each unit, the water sampler 20 is taken out and then fed to the external detection, and the next process is carried out after the water quality detection is qualified, and the water quality treatment effect is ensured.
In any of the above schemes, it is preferable that the oil separation and filtration unit a comprises a raw wastewater tank 7, a water inlet pipe orifice 9 with a one-way water inlet valve 8 is installed at the lower part of one side wall of the raw wastewater tank 7, the water inlet pipe orifice 9 is used for receiving raw wastewater from an upstream wastewater source end 1, a floating oil guiding mechanism c is installed at the left side of the raw wastewater tank 7 and used for guiding oil floating on the surface of wastewater in the raw wastewater tank 7, a blocking type filtration screen 10 which is arranged horizontally is detachably and fixedly installed in the water storage cavity 701 of the raw wastewater tank 7 above the water inlet pipe orifice 9, the blocking type filtration screen 10 is used for blocking impurity slag in the water storage cavity 701 below the water inlet screen 10, a slag screen cleaning component is installed at the rear side in the water storage cavity 701 and used for moving along the front and rear direction of the water storage cavity 701 and realizing cleaning of the upper surface and lower surface of the blocking type filtration screen 10, and the water inlet sensor 6 is installed in the water inlet pipe orifice 9.
When the oil separation filter residue unit a works, because the wastewater entering the wastewater original tank 7 flows in from the water inlet pipe orifice 9 at the bottom of the wastewater original tank at a certain pressure and a certain flow rate, the wastewater can be increased upwards along with the continuous increase of the water flow, and when the blocking type filter residue net 10 is encountered, the larger slag cannot continue to move upwards, so that the effect of blocking and filtering the slag can be achieved.
The water inlet pipe orifice 9 is arranged below the blocking type filter residue net 10 and mainly floats on the liquid level to realize filter residue, which is different from the traditional downward flowing filter residue mode, and mainly has three functions, namely, firstly, the upward filter residue mode can better block upward movement of slag materials, meanwhile, slow filter residue is realized along with rising of the liquid level of the water, filtered slag materials can be better accumulated at the bottom, secondly, the slag materials are positioned at the bottom and blocked by the blocking type filter residue net 10, so that the interference is not caused to the treatment of supernatant liquid at the upper part, the floating oil treatment and the outward oil guiding operation are conveniently carried out at the later stage, thirdly, when the water liquid at the upper part of the blocking type filter residue net 10 is discharged completely, the slag-containing waste water accumulated at the lower part of the blocking type filter residue net 10 can be conveniently cleaned and directly discharged from the bottom, the cleaning effect is good, and the blocking type filter residue net 10 can be quickly cleaned by directly impacting the upper part of the blocking type filter residue net 10 with water with certain pressure during cleaning, and the filter residue is not required to be taken out for cleaning.
In any of the above solutions, it is preferable that the floating oil guiding mechanism c includes a square bin 11 fixedly and sealingly mounted on a left side wall of the raw wastewater tank 7, the inner wall of the inner cavity of the square bin 11 and an outer side wall of the raw wastewater tank 7 at a corresponding position are both polished metal smooth surfaces, a push-stop sealing plug plate 12 is sealingly inserted in the inner cavity of the square bin 11, a lifting control cylinder 13 is fixedly mounted on the left side outer side wall of the raw wastewater tank 7 below the square bin 11, an upper part of a piston rod of the lifting control cylinder 13 movably extends into the inner cavity of the square bin 11 and is fixedly connected with the bottom of the push-stop sealing plug plate 12, a plurality of adjusting oil guiding devices d are mounted on the outer side wall of the raw wastewater tank 7 at the left side of the inner cavity of the square bin 11 along the height direction thereof, each of the adjusting oil guiding devices d is in a normally open state in a free state, an oil guiding valve 14 is mounted on the left side wall of the left side opposite to each adjusting oil guiding device d and is provided with an oil guiding outlet port 14 at the bottom of the left side of the square bin 11, and an oil guiding outlet 15 is fixedly connected with the bottom of the left side of the floating oil guiding device 14;
when the push-stop sealing plug plate 12 moves upwards, the corresponding adjusting oil guide d is pushed to the right in sequence to be converted into a sealing closing state.
Before oil guiding is not carried out in the waste water original pool 7, the jacking control cylinder 13 on the floating oil guiding mechanism c drives the pushing block sealing plug plate 12 at the top to move to a high position, at the moment, under the action of the pushing block sealing plug plate 12, all the adjusting oil guides d are abutted and enabled to be in a closed state, at the moment, upper water liquid in the waste water original pool 7 cannot flow outwards through all the adjusting oil guides d, at the moment, the air floatation and drainage combination mechanism can be matched to start to supply pulse air flow to waste water in the waste water original pool 7 to realize air floatation treatment, and the waste water in the water storage cavity can be continuously and pneumatically stirred along with the air floatation treatment, thus achieving the purpose of using bubbles to drive the oil in the waste water to float upwards, when the oil float floats on the upper layer after the waste water is kept still, the push-stop sealing plug plate 12 is controlled to slowly move downwards at the moment, the quantity of the adjustable oil guide d is controlled to be opened according to the thickness of the oil, when the adjustable oil guide d is separated from the left side pressing force of the push-stop sealing plug plate 12, the reset opening is realized under the action of the reset spring 19, at the moment, the oil layer mixed liquid flows outwards through a channel on the corresponding adjustable oil guide d and flows to the oil outlet 14, and finally is discharged to the outside through the floating oil guide pipe 15, so that the primary removal of the floating oil is realized, and the standard treatment of the floating oil can be realized for the waste water with less floating oil content per se; when the oil content in the wastewater is higher, the wastewater degreasing equipment 30 can be started again to remove the oil in a refined way, and finally the purpose that the oil content reaches the standard is achieved.
In any of the above solutions, preferably, the adjustable oil deflector d includes a T-shaped stepped through hole 16 disposed on an outer sidewall of the waste water tank 7 at a left side of the square bin 11, the T-shaped stepped through hole 16 is horizontally disposed and has a left inner diameter larger than a right inner diameter, a stepped plug shaft 17 is coaxially disposed in the T-shaped stepped through hole 16, a right outer diameter of the stepped plug shaft 17 is smaller than a left outer diameter thereof and the left outer diameter thereof is matched with a right inner diameter of the T-shaped stepped through hole 16, a notch 18 is disposed on a left end surface of the stepped plug shaft 17, a return spring 19 is sleeved on an outer sidewall of the stepped plug shaft 17 between the notch 18 and a step surface of the T-shaped stepped through hole 16, and two ends of the return spring 19 are fixedly disposed on the notch 18 and the step surface of the T-shaped stepped through hole 16, respectively, and an outer diameter of the notch 18 is matched with a left large step diameter of the T-shaped stepped through hole 16.
The invention designs a plurality of adjustable oil directors d positioned on different heights, which can realize the opening of different numbers of adjustable oil directors d according to different oil layer thicknesses, and when the adjustable oil directors d are opened, the oil in the water storage cavity can directly flow outwards through the annular channels at the corresponding positions of the adjustable oil directors d, so that the purpose of leading out the upper oil-water mixture at the channel of the adjustable oil directors d, which is higher than the lowest position at the upper part of the water storage cavity, to the left side is finally achieved.
When the oil liquid is discharged, the sealing plug plate 12 can be moved upwards to enable the sealing plug plate to sequentially push the spherical segments 18 of the 3 adjustable oil guides d with different heights rightwards and enable the stepped plug shaft 17 to plug the T-shaped stepped through hole 16, so that the blocking is realized, and the smooth switching between oil discharge and oil blocking is effectively ensured.
In any of the above schemes, it is preferable that each unit is provided with a water quality sampler 20, and each water quality sampler 20 conveys the taken water sample to the outside through a water sample conveying pipe 21 to complete water sample detection;
The purpose of setting up the quality of water sampler 20 in each unit department is to can carry out quick sample detection to every process link, guarantees that the quality of water after each process treatment reaches standard.
An air floatation and drainage combined mechanism is arranged above the right side of the waste water original pool 7, two procedures of air floatation treatment of waste water in the waste water original pool 7 and waste liquid transfer after oil discharge are completed by the air floatation and drainage combined mechanism, and an output end of the air floatation and drainage combined mechanism is connected with an inlet end of the downstream comprehensive adjusting unit b through a filtered pipeline 22.
In any of the above schemes, it is preferable that the air-float drain assembly mechanism comprises a lifting position-adjusting cylinder group 23 fixedly installed on the outer side wall of the right side of the waste water original pool 7, a lifting position-adjusting seat 24 is fixedly installed on the top of a piston rod of the lifting position-adjusting cylinder group 23, a vertical and hollow multipurpose vertical pipe 25 is fixedly installed on the lifting position-adjusting seat 24, the bottom of the multipurpose vertical pipe 25 is plugged, and the liquid outlet of the top of the multipurpose vertical pipe 25 is connected with the post-filtration pipeline 22;
The water quality sampler 20 is installed at one side of the top liquid outlet of the multipurpose vertical pipe 25, a valve is installed on a pipeline between the water quality sampler 20 and the top liquid outlet of the multipurpose vertical pipe 25, and an output port of the sampler conveys the taken water sample to the outside through the water sample conveying pipe 21 to finish water sample detection;
A horizontal lifting pipe 27 is fixedly connected to the left side of the lower portion of the multipurpose vertical pipe 25, the left end of the horizontal lifting pipe 27 is plugged, a plurality of gas-liquid dual-purpose holes 28 are uniformly formed in the surface of the horizontal lifting pipe 27 at intervals, when the multipurpose vertical pipe is in a waste water floatation treatment process, each gas-liquid dual-purpose hole 28 is used for spraying pulse airflow outwards from the inside of the horizontal lifting pipe 27, and when the multipurpose vertical pipe is in a waste water drainage process, each gas-liquid dual-purpose hole 28 is used for outwards discharging waste liquid in a water storage cavity above the blocking filter residue net 10.
The air floatation process comprises the following steps:
The air-float liquid discharging combined mechanism can control an external air source to introduce high-pressure pulse air into the multipurpose vertical pipe 25 through an air inlet pipe before oil in the original wastewater tank 7 is led out, at the moment, a top liquid outlet at the top of the multipurpose vertical pipe 25 is in a closed state, the high-pressure pulse air enters the multipurpose vertical pipe 25 and is discharged through each air-liquid dual-purpose hole 28 on the horizontal lifting pipe 27 to drive wastewater to stir, the internal oil can float up to the upper part of the liquid surface under the action of air bubbles, the lifting of the lifting position-adjusting cylinder group 23 can be controlled to drive the up-down movement of the horizontal lifting pipe 27 for spraying air flow outwards in the air-float treatment process, and the side air-float pneumatic impact side up-down movement is finally achieved, so that the air-float treatment effect is improved.
And after the air floatation procedure is finished, controlling to stop air intake, standing the wastewater, layering oil and water in the water storage cavity, and controlling the floating oil guiding mechanism c to work so as to guide out the upper floating oil mixed solution.
The liquid discharging procedure is as follows:
When the oil slick is led out, the lifting position-adjusting cylinder group 23 is controlled to drive the horizontal lifting pipe 27 to lift to a proper height of the waste water supernatant, the horizontal lifting pipe 27 is always positioned above the blocking filter residue net 10, the water quality sampler 20 at the outlet is opened, the water sample is sent to be inspected, when the oil content of the water sample is unqualified, the valve and the pump body on the filtered pipeline 22 are closed, then the waste water oil removing equipment 30 on the fine oil removing bypass 29 is opened, so that the waste water subjected to preliminary oil removal is subjected to fine oil removal again, finally, the waste water enters a downstream process after the detection is qualified, in addition, if the oil content of the waste water detected after the sampling by the water quality sampler 20 at the filtered pipeline 22 reaches the standard, the waste water oil removing equipment 30 is not required to be opened, the valve and the pump body on the filtered pipeline 22 are directly opened at the moment, and finally, the waste water subjected to oil removal is sent to the comprehensive adjusting unit b for continuous treatment.
In any of the above schemes, it is preferable that a fine oil removal bypass 29 is arranged in parallel on the filtered pipeline 22, a wastewater oil removal device 30 is installed on the fine oil removal bypass 29, control valves are respectively installed on the fine oil removal bypass 29 connected with the inlet end and the water outlet end of the wastewater oil removal device 30, when the water liquid extracted by the water quality sampler 20 at the multi-purpose vertical pipe 25 is detected by an external detection system, if the oil content exceeds the standard, the fine oil removal bypass 29 is started and the filtered pipeline 22 is blocked, at this time, the water liquid discharged by the air floatation liquid discharge combination mechanism is treated by the fine oil removal bypass 29 and then discharged to the downstream comprehensive regulation unit b, and corresponding power pumps are configured on each pipeline.
When the oil content of the water sample is unqualified, a valve and a pump body on the filtered pipeline 22 are closed, and then a waste water oil removing device 30 on a fine oil removing bypass 29 is opened, so that the waste water subjected to preliminary oil removal is subjected to fine removal again to remove the residual oil, and finally, the water sample enters a downstream process after the detection is qualified.
In any of the above solutions, it is preferable that the residue net cleaning assembly includes a rubber scraper 31 mounted at the rear side of the inside of the water storage cavity 701, a cleaning brush 32 is mounted at the upper portion of the rubber scraper 31, the working ends of the cleaning brushes 32 are all abutted against the lower surface of the blocking type residue net 10 and realize cleaning of the blocking type residue net 10 by moving along the front-rear direction of the water storage cavity 701, a cleaning telescopic cylinder group 33 is fixedly mounted on the ground outside the water storage cavity 701, the inner ends of the piston rods of the cleaning telescopic cylinder group 33 are all movable and sealed to extend into the water storage cavity 701 and are fixedly connected with the rubber scraper 31, and a plurality of residue-containing waste liquid discharge ports 34 with blocking covers are mounted on the side wall of the water storage cavity 701 at the side opposite to the rubber scraper 31.
The residue net cleaning component mainly comprises a step of cleaning the bottom of a blocking type residue net 10 and a water storage cavity by utilizing the upper supernatant liquid in the wastewater original tank 7 after the supernatant liquid in the wastewater original tank is discharged cleanly, wherein the cleaning water liquid is required to be matched with the high-pressure cleaning water above the water storage cavity during cleaning, the cleaning of impurities on the surface of the blocking type residue net 10 can be realized through the cleaning of the cleaning water liquid, and meanwhile, the cleaning telescopic cylinder group 33 is started to drive the rubber scraping plate 31 in the water storage cavity to move back and forth, so that the impurities on the bottom and the side wall of the water storage cavity are cleaned, at the moment, the cleaning brush 32 with certain hardness on the rubber scraping plate 31 can be used for rapidly brushing the blocking type residue net 10, the brushed impurities can directly fall into the water storage cavity below under the action of the impact water flow above, waste liquid can be discharged through opening each residue waste liquid outlet on the lower part of one side of the water storage cavity, and the cleaning of the water storage cavity and the blocking type residue net 10 can be performed repeatedly for several times.
The side wall of the water storage cavity above the blocking filter residue net 10 can be directly cleaned by water flow impact, and the cleaned water liquid can fall below the blocking filter residue net 10 and be discharged.
In any of the above schemes, preferably, the integrated regulating unit b includes an integrated regulating tank 35 connected to the filtered pipeline 22 upstream thereof, the integrated regulating tank 35 is filled with a desired strain, medicament and reagent to perform neutralization treatment and biological decomposition treatment on the internal wastewater, an output end of the integrated regulating tank 35 is connected to an inlet end of the sedimentation tank 2, a water quality sampler 20 is installed on the pipeline at the output end of the integrated regulating tank 35, a regulating tank upper cover 36 is installed at the top of the integrated regulating tank 35, and an integrated multi-stage mixing assembly is installed at the regulating tank upper cover 36, wherein the integrated multi-stage mixing assembly is used for performing multi-effect mixing treatment on the wastewater filled with the strain, medicament and reagent.
The comprehensive regulating unit b mainly neutralizes and biodegrades the internal waste water by throwing the needed strains, medicaments and reagents into the waste water, the content of harmful substances and impurities in the treated water can be greatly reduced, the solution is clearer by decomposing the organic matters in the waste water by the strains, the comprehensive multistage mixing assembly can be started to improve the mixing effect when the needed strains, medicaments and reagents are thrown into the waste water for neutralizing and biodegrading, the internal reaction speed and effect are promoted, the aim of multi-effect mixing is finally achieved, the current water quality effect can be obtained after the water quality sampler 20 at the position is used for sampling, and the sampling detection can be intermittently carried out for multiple times in the waste liquid treatment process so as to monitor the treatment condition of the internal waste liquid better.
In any of the above schemes, preferably, the comprehensive multi-stage mixing assembly comprises a strip gear box 37 fixedly installed at the top of the upper cover 36 of the regulating tank, a horizontal main shaft 38 is installed in the strip gear box 37, two sides of the horizontal main shaft 38 are respectively matched with a bearing seat 39 fixedly arranged, two ends of the horizontal main shaft 38 are respectively provided with a two-way side mixer 40, a middle mixer 41 is arranged between the two-way side mixers 40, the two-way side mixer 40 and the middle mixer 41 are matched to realize the mixing and stirring of the wastewater in the comprehensive regulating tank 35, and a main shaft driving member is installed in the strip gear box 37 between the middle mixer 41 and the two-way side mixer 40 on the left side and is used for driving the horizontal main shaft 38 to operate and driving the two-way side mixers 40 and the middle mixer 41 to operate synchronously;
The middle mixer 41 comprises a middle driving bevel gear 42 fixedly arranged on the middle outer side wall of the horizontal main shaft 38, a middle driven bevel gear 43 is meshed below the middle driving bevel gear 42, a central mixing shaft 44 of the middle driven bevel gear 43 movably extends into an adjusting cavity 45 of the comprehensive adjusting tank 35, a plurality of central stirring teeth 46 are fixedly arranged on the outer side wall of the central mixing shaft, a supporting copper ring 47 is sleeved on the outer side wall of the central mixing shaft 44 between the middle driven bevel gear 43 and the inner cavity of the strip gear box 37, and the bottom of the supporting copper ring 47 is fixed on the inner cavity of the strip gear box 37.
The comprehensive multistage mixing assembly mainly utilizes the main shaft driving part as a single power part in the working process, and when the main shaft driving part operates, the bidirectional side mixers 40 at two ends and the middle mixer 41 in the middle of the main shaft driving part are driven to simultaneously work, and as the bidirectional side mixers 40 and the middle mixer 41 synchronously work, the full mixing of internal water liquid, strains, medicaments and reagents can be better ensured, the contact of the strains, the medicaments and the reagents with waste liquid is ensured, and the treatment effect is improved.
When the main shaft driving piece drives the corresponding horizontal main shaft 38 to rotate, the corresponding horizontal main shaft 38 can be driven to rotate through the rotation of the horizontal main shaft 38, the middle driving bevel gear 42 drives the middle driven bevel gear 43 meshed with the middle driving bevel gear 42 to rotate fixedly, so that the central mixing shaft 44 connected with the central mixing shaft can be driven to rotate fixedly, each central stirring tooth 46 positioned in the adjusting cavity 45 can be driven to stir water rapidly in the rotation process of the central mixing shaft 44, and the supporting copper ring 47 at the corresponding position in the rotation process can play a role in supporting and lubricating.
In any of the above solutions, it is preferable that the spindle driving member includes a large torque total driving motor 48 fixedly installed in the inner cavity of the elongated gear box 37, and a total driving gear 49 is fixedly installed on an output end of the large torque total driving motor 48, and the total driving gear 49 is meshed with a driven total gear 50 fixedly installed on an outer sidewall of the horizontal spindle 38.
The whole comprehensive multistage mixing assembly adopts a single power piece of a large-torque total drive motor 48 to realize the driving operation of the two bidirectional side mixers 40 and the middle mixer 41 during working, can effectively realize the rapid mixing of waste water, strains, medicaments and reagents in the comprehensive regulating tank 35, improves the mixing effect, is suitable for a regulating tank with a larger size, and simultaneously, the whole assembly is driven by only adopting a single power piece, so that a power failure point is easy to determine during the later-stage fault maintenance, and the maintenance and the overhaul are more convenient.
In any of the above embodiments, it is preferable that the bidirectional side mixer 40 includes an end large driving bevel gear 51 and an end small driving bevel gear 52 fixedly mounted on the outer side wall of the end of the horizontal main shaft 38, the end small driving bevel gears 52 are located outside the end large driving bevel gear 51, a plurality of forward and reverse stirrers 57 and 58 are fixedly mounted on the outer side walls of the end large driving bevel gear 51 and the end small driving bevel gear 52, an end large driven bevel gear 53 and an end small driven bevel gear 54 coaxially disposed are engaged under the end large driving bevel gear 51 and the end small driving bevel gear 52, an outer stand pipe 55 and an inner stand pipe 56 are fixedly connected under the end large driven bevel gear 53 and the end small driven bevel gear 54 respectively, the inner stand pipe 56 is fitted and inserted in a cavity of the outer stand pipe 55, the lower end of the outer stand pipe 55 extends out of the outer stand pipe 55, the outer stand pipe 55 and the lower end of the inner stand pipe 56 are movably extended into the adjusting cavity 45 of the comprehensive adjusting tank 35, a plurality of forward and reverse stirrers 58 are fixedly mounted on the outer side walls of the end large driving bevel gear 51, the center of each end small driven bevel gear 54 is disposed through and is communicated with a center cavity of the corresponding inner stand pipe 56, and the inner stand pipe 56 is sleeved between the inner side wall of the inner stand pipe and the outer side wall of the outer stand pipe 55 and the outer side wall of the large stand pipe 53.
The bidirectional side mixer 40 mainly drives the end large driving bevel gear 51 and the end small driving bevel gear 52 of the corresponding end parts of the horizontal main shaft 38 to operate by means of the transmission of the main shaft driving piece, drives the end large driven bevel gear 53 and the end small driven bevel gear 54 meshed with the end large driving bevel gear 51 and the end small driven bevel gear 52 to operate in the operation process of the end large driving bevel gear 51 and the end small driving bevel gear 52, and accordingly drives the outer vertical pipe 55 and the inner vertical pipe 56 which are coaxially arranged to rotate fixedly, and because the lower ends of the outer vertical pipe 55 and the inner vertical pipe 56 are located in the adjusting cavity 45 and are provided with the forward stirrer 57 and the reverse stirrer 58, the forward stirrer 57 and the reverse stirrer 58 at the corresponding positions of the outer vertical pipe 55 and the inner vertical pipe 56 are driven to coaxially and reversely rotate when the outer vertical pipe 55 and the inner vertical pipe 56 rotate along opposite directions, so that the rotation stirring effect can be effectively improved, the mixing effect of water can be guaranteed, and the mixing efficiency can be improved.
The forward stirrer 57 and the reverse stirrer 58 rotate coaxially and reversely, so that the liquid at the upper part and the liquid at the lower part can be driven to rotate reversely, thereby realizing convection impact, ensuring the sufficiency of the internal mixing effect and improving the mixing efficiency.
In addition, the four rotating shafts on the two bidirectional side mixers 40 are all provided with the same main shaft driving piece to realize driving, so that the simplification of the whole transmission structure can be effectively ensured, and the compactness of the layout can be improved.
In any of the above solutions, preferably, a vertical and fixedly disposed feeding steel pipe 59 is movably inserted into the upper central cavity of each inner vertical pipe 56, and the top of each feeding steel pipe 59 passes out above the elongated gear box 37 and is communicated with a fixedly disposed feeding box 60, and by filling the feeding box 60 with strains, medicines and reagents, the strains, medicines and reagents are directly sent to the lower part of the adjusting cavity 45 through the inner vertical pipe 56;
The feeding steel pipe 59 and the feeding box 60 arranged in the device mainly consider the purpose of directly injecting the medicament into the inner vertical pipe 56 and directly reaching the bottom of the adjusting cavity 45 during medicament adding, and the medicament feeding mode can better ensure that the medicament flows out of the bottom of the water liquid and can be rapidly diffused under the stirring action of the bidirectional side mixer 40 in the whole adjusting cavity 45, so that the medicament diffusing effect is improved, and meanwhile, the whole feeding steel pipe 59 is in a fixed state during operation, so that the medicament does not interfere with the movement of the upper central cavity of the inner vertical pipe 56.
The sedimentation tank 2 is internally used for throwing alum to realize flocculation precipitation of internal water, a water quality sampler 20 is arranged at the upper part of an outlet of the sedimentation tank 2, the outlet end of the sedimentation tank 2 is used for conveying the water subjected to adjustment conveying downstream through a post-sedimentation conveying pipeline 61, and the multistage water quality membrane filtration purification unit 3 is arranged on the post-sedimentation conveying pipeline 61.
The water quality sampler 20 is installed at the upper portion of the outlet of the settling tank 2, and can detect the quality of the water inside the settling tank 2 at present by rapid sampling and inspection, and simultaneously can increase the settling speed and effect of suspended matters inside the settling tank 2 by throwing alum and the like.
Example 2:
This embodiment differs from embodiment 1 in that:
The multistage water quality membrane filtration purification unit 3 comprises a first filter 62, a second filter 63, a third fine filter 64 and a fourth fine filter 65 which are arranged on the post-sedimentation conveying pipeline 61 in series, wherein the tail end of the fourth fine filter 65 is connected with the domestic water advanced treatment end 5 through a domestic water diversion pipeline 66, and a water quality sampler 20, a control valve and a power pump are arranged on the domestic water diversion pipeline 66;
an industrial water line 67 between the second filter 63 and the third fine filter 64 is connected to the industrial water end 4, and the industrial water line 67 is provided with a water quality sampler 20, a control valve, and a power pump.
The multistage filtering structure adopted by the whole multistage water quality membrane filtration purification unit 3 is sequentially connected in series, the quality requirement of water flowing to the industrial water end 4 is lower than the quality requirement of water flowing to the domestic water advanced treatment end 5, so that the industrial water end 4 is filtered by the first filter 62 and the second filter 63, and the domestic water advanced treatment end 5 is filtered by the first filter 62, the second filter 63, the third fine filter 64 and the fourth fine filter 65 for four times, thereby achieving better filtering effect, and in addition, the water quality is ensured to reach the standard and then is conveyed to the downstream through the detection of the water quality sampler 20 in the water conveying process.
In any of the above solutions, it is preferable that a bent pipe accumulation section 68 is disposed in the middle of the connection pipe between the first filter 62 and the second filter 63, magnetizing magnetic blocks 69 are respectively mounted on the upper portion and the lower portion of the connection pipe on both sides of the bent pipe accumulation section 68, each oppositely disposed magnetizing magnetic block 69 forms a magnetizing magnetic field, the magnetizing magnetic field is used for magnetizing the water flowing through the connection pipe, the bent pipe accumulation section 68 is used for accumulating impurities generated in the conveying process, and an impurity discharge valve 70 is mounted on the bottom of the bent pipe accumulation section 68.
The internal iron impurities can be treated through the magnetization effect of the magnetization magnetic field on the internal water liquid, meanwhile, when the water flow after the sequential magnetization passes through the bent pipe accumulation section 68, the water flow is reduced, the internal impurities can be accumulated at the position, so that the impurities in the downward flowing water liquid are reduced again, the cleaning of the water quality after the magnetization is ensured, meanwhile, the impurities accumulated at the position can be discharged by opening the impurity discharge valve 70 at the bent pipe accumulation section 68, the aim of quickly cleaning the impurities is fulfilled, and after the impurities are accumulated at the bent pipe accumulation section 68, the water flowing backwards continuously can be magnetized continuously through the magnetization magnetic field of the next group, so that the water quality is promoted again.
The specific working principle is as follows:
the system for realizing the comprehensive treatment of the water quality of the water plant based on the water inflow dynamics can utilize the water flow sensor 6 to monitor the flow of the entered wastewater in real time, and simultaneously feed back the control end of the water supply plant to realize the purpose of artificially regulating and controlling each unit of the system, and realize better energy conservation by regulation according to the needs. The waste water entering the system firstly enters the oil separation filter residue unit a through the water inlet end of the oil separation filter residue unit a, the water flow arranged in the oil separation filter residue unit a enters from the lower part of the oil separation filter residue unit a, and then the middle part of the water flow upwards increases the liquid level.
The waste water is fed into a downstream comprehensive adjusting unit b after oil removal and filter residue removal in a waste water original pool 7 of the oil removal filter residue unit a, strains, medicaments, reagents and the like are added into the comprehensive adjusting unit b, and the waste water is fully and quickly mixed in a comprehensive multistage mixing assembly, so that the mixing uniformity is ensured.
The pollution components in the water after the adjustment treatment are greatly reduced, and then the water is continuously treated by the multi-stage water quality membrane filtration purification unit 3 to reach the standard of life and industrial use.
Likewise, the mud-containing wastewater and the slag-containing wastewater generated at the tail end of each unit are conveyed to an external sludge treatment process to carry out purification, drying and other treatments on the sludge, so as to ensure that the water quality of each link reaches the standard.
In the system, the water quality sampler 20 is also arranged at each unit, the water quality sampler 20 takes out a water sample and then sends the water sample to the outside for detection, and the water sample enters the next procedure after being detected to be qualified, so that the water quality treatment effect is ensured.
The system based on the water inlet dynamic realization of the water quality comprehensive treatment of the water plant is applied to the water treatment of the water plant, can monitor the water inlet of the whole system in real time, can control the running time and the period of each device according to the water inlet by a water plant control end, is provided with the water quality sampler 20 at the tail end of each stage, and can effectively ensure the wastewater treatment effect of the whole system by detecting and feeding back the water samples taken out by each water quality sampler 20 to the control end and regulating and controlling each device of the system again by a staff at the water plant control end.
In addition, in order to improve the oil removal effect during preliminary oil removal, the invention is also provided with an air-floatation liquid discharge combination mechanism, the pulse air flow (oxygen or air) can be continuously filled into the waste water in the waste water original tank 7 through the work of the air-floatation liquid discharge combination mechanism, so that the floating oil is quickly driven to float upwards by the filled air bubbles, the oil liquid separation effect is improved, the upper floating oil mixed liquid can be quickly guided out through the work of the floating oil guiding mechanism c, the lifting of the lifting position-adjusting cylinder group 23 can be controlled in the working process of the air-floatation liquid discharge combination mechanism, the stirring and mixing of the waste liquid can be realized by the pulse air flow to impact the side to move up and down the horizontal lifting pipe 27, the waste liquid after oil removal and residue is comprehensively treated in the comprehensive regulating tank 35, meanwhile, the waste liquid, the medicament and the like in the regulating cavity 45 can be well fully mixed by utilizing the comprehensive multi-stage mixing assembly in the treatment process, the treatment effect is improved, the treatment efficiency is ensured, and the device can be effectively applied to the large comprehensive regulating tank 35.
While the invention has been described in detail with reference to the foregoing embodiments, it will be understood by those skilled in the art that the foregoing embodiments may be modified or equivalents to some or all of the features thereof, and that such modifications or substitutions do not depart from the spirit of the embodiments, and are intended to be within the scope of the claims and specification of the present invention.
The present invention is not described in detail in the present application, and is well known to those skilled in the art.

Claims (9)

1.基于进水动态实现水厂水质综合处理的系统,其特征在于:包括隔油滤渣单元,所述隔油滤渣单元的进水端连接废水源端,在所述隔油滤渣单元的下游连接有综合调节单元,所述综合调节单元用于实现对经过所述隔油滤渣单元处理的废水加药调节,在所述综合调节单元的下游连接有沉降池,在所述沉降池的下游连接有多级水质膜滤净化单元,所述多级水质膜滤净化单元的下游分别连接工业用水端、生活用水深度处理端,各单元的废水出水端排出的浓缩废水及含渣废水均引入外部污泥处理工序,在隔油滤渣单元的进水端安装有水流量传感器,水流量传感器与水厂控制端信号连接并将动态水流量信号反馈给水厂控制端;1. A system for realizing comprehensive water quality treatment in a water plant based on the dynamics of water inlet, characterized in that: it comprises an oil-separating filter residue unit, the water inlet end of the oil-separating filter residue unit is connected to the wastewater source end, a comprehensive regulating unit is connected downstream of the oil-separating filter residue unit, the comprehensive regulating unit is used to realize dosing regulation of the wastewater treated by the oil-separating filter residue unit, a sedimentation tank is connected downstream of the comprehensive regulating unit, a multi-stage water quality membrane filtration purification unit is connected downstream of the sedimentation tank, the downstream of the multi-stage water quality membrane filtration purification unit is respectively connected to the industrial water end and the domestic water deep treatment end, the concentrated wastewater and residue-containing wastewater discharged from the wastewater outlet end of each unit are introduced into an external sludge treatment process, a water flow sensor is installed at the water inlet end of the oil-separating filter residue unit, the water flow sensor is connected to the water plant control end signal and feeds back the dynamic water flow signal to the water plant control end; 所述隔油滤渣单元包括一废水原池,各单元上均设有水质取样器;在废水原池的右侧上方安装有一气浮排液组合机构,所述气浮排液组合机构的输出端通过滤后管路与下游的所述综合调节单元的进口端连接;The oil-separating filter residue unit includes a wastewater source tank, and each unit is equipped with a water quality sampler; an air flotation and drainage combination mechanism is installed above the right side of the wastewater source tank, and the output end of the air flotation and drainage combination mechanism is connected to the inlet end of the downstream integrated regulation unit through a post-filtration pipeline; 所述气浮排液组合机构包括固定在废水原池右侧外侧壁上的升降调位缸组,在升降调位缸组的活塞杆顶部固定有一升降调位座,在所述升降调位座上固定有一竖直且中空设置的多用立管且其底部封堵设置,在所述多用立管的顶部出液口处连接有所述滤后管路;所述多用立管的上部外侧壁上的进气管通过带有控制阀的脉冲气管与外部的脉冲气源相连;The air flotation and liquid discharge assembly mechanism includes a lifting and positioning cylinder group fixed on the right side outer wall of the wastewater source tank, a lifting and positioning seat fixed on the top of the piston rod of the lifting and positioning cylinder group, a vertical and hollow multi-purpose riser fixed on the lifting and positioning seat, and a bottom sealed arrangement, and the post-filtration pipeline is connected to the top liquid outlet of the multi-purpose riser; the air inlet pipe on the upper outer wall of the multi-purpose riser is connected to the external pulse air source through a pulse air pipe with a control valve; 在多用立管的顶部出液口一侧安装有所述水质取样器,在所述水质取样器与所述多用立管的顶部出液口之间的管路上安装有阀门,所述水质取样器的输出口通过水样输送管将水样输送至外部完成水样检测;The water quality sampler is installed on one side of the top liquid outlet of the multi-purpose standpipe, and a valve is installed on the pipeline between the water quality sampler and the top liquid outlet of the multi-purpose standpipe. The output port of the water quality sampler transports the water sample to the outside through the water sample delivery pipe to complete the water sample detection; 在所述多用立管的下部左侧连接固定有一水平升降管,所述水平升降管的左端封堵设置且在其表面均匀间隔设有若干个气液两用孔,当处于废水气浮处理工序时,各所述气液两用孔用于由水平升降管内部向外喷射脉冲气流,当处于废水外排引流工序时,各气液两用孔用于将阻挡式滤渣网上方的储水腔内的废液向外排出。A horizontal lifting pipe is connected and fixed to the left side of the lower part of the multi-purpose riser. The left end of the horizontal lifting pipe is sealed and a number of gas-liquid dual-purpose holes are evenly spaced on its surface. When in the wastewater flotation treatment process, each of the gas-liquid dual-purpose holes is used to spray pulse airflow outward from the inside of the horizontal lifting pipe. When in the wastewater discharge and drainage process, each gas-liquid dual-purpose hole is used to discharge the waste liquid in the water storage chamber above the blocking filter residue net. 2.根据权利要求1所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:在所述废水原池的一侧侧壁的下部安装有一自带单向进水阀的进水管口,所述进水管口用于接收来自上游废水源端的废水原水,在所述废水原池的左侧安装有一浮油导出机构,所述浮油导出机构用于将漂浮在所述废水原池内的废水表面的油液导出,在所述进水管口上方的所述废水原池的储水腔的内部可拆卸的固定安装有水平设置的阻挡式滤渣网,所述阻挡式滤渣网用于将废水中的杂质渣料阻挡在其下方的储水腔内,在所述储水腔的内部后侧安装有一渣网清洁组件,所述渣网清洁组件用于沿所述储水腔的前后方向往复移动并实现对阻挡式滤渣网的上下表面的清洁;2. The system of claim 1 , wherein the water inlet pipe has a one-way water inlet valve installed at the lower portion of one side wall of the wastewater source tank, the water inlet pipe is used to receive the wastewater source water from the upstream wastewater source, and an oil floating discharge mechanism is installed on the left side of the wastewater source tank, the oil floating discharge mechanism is used to discharge the oil floating on the surface of the wastewater in the wastewater source tank, and a horizontally arranged blocking filter net is detachably fixedly installed inside the water storage chamber of the wastewater source tank above the water inlet pipe, the blocking filter net is used to block impurities and slag in the wastewater into the water storage chamber below it, and a slag net cleaning assembly is installed on the rear side of the interior of the water storage chamber, the slag net cleaning assembly is used to reciprocate along the front and rear directions of the water storage chamber to clean the upper and lower surfaces of the blocking filter net; 所述进水管口内安装有所述水流量传感器。The water flow sensor is installed in the water inlet pipe. 3.根据权利要求2所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:各所述水质取样器均通过水样输送管将所取的水样输送至外部完成水样检测;3. The system for realizing comprehensive water quality treatment in a water plant based on water inflow dynamics according to claim 2, characterized in that: each of the water quality samplers transports the water sample taken to the outside through a water sample transport pipe for water sample testing; 所述气浮排液组合机构在废水原池内完成对其内废水的气浮处理及排油后的废液转移两个工序。The air flotation and liquid discharge combined mechanism completes two processes in the wastewater source pool: air flotation treatment of the wastewater therein and transfer of the waste liquid after oil discharge. 4.根据权利要求3所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:在所述滤后管路上并联设置有一精细除油旁路,在所述精细除油旁路上安装有一废水除油设备,在所述废水除油设备的进口端及水液出口端所连接的所述精细除油旁路上分别安装有控制阀门;当所述多用立管处的水质取样器取出的水液经外部检测系统检测后,若含油量超标则启动精细除油旁路并将滤后管路封堵,此时由气浮排液组合机构排出的水液会经过精细除油旁路进行处理后再排向下游的综合调节单元,各管路上均配置对应的动力泵。4. The system for realizing comprehensive water quality treatment of a water plant based on the dynamics of water inlet according to claim 3 is characterized in that: a fine oil removal bypass is arranged in parallel on the post-filtration pipeline, a wastewater oil removal equipment is installed on the fine oil removal bypass, and control valves are respectively installed on the fine oil removal bypass connected to the inlet end and the water outlet end of the wastewater oil removal equipment; when the water taken out by the water quality sampler at the multi-purpose riser is detected by the external detection system, if the oil content exceeds the standard, the fine oil removal bypass is started and the post-filtration pipeline is blocked. At this time, the water discharged by the flotation and drainage combination mechanism will be processed through the fine oil removal bypass and then discharged to the downstream comprehensive adjustment unit, and each pipeline is equipped with a corresponding power pump. 5.根据权利要求4所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:所述渣网清洁组件包括安装在所述储水腔的内部后侧的橡胶刮板,在所述橡胶刮板的上部安装有清洁毛刷,所述清洁毛刷的工作端均与所述阻挡式滤渣网的下表面相抵接并通过沿所述储水腔的前后方向移动来实现对阻挡式滤渣网的清洁,在所述储水腔外侧的地面上固定安装有清洁伸缩缸组,所述清洁伸缩缸组的各活塞杆的内端均活动且密封伸至所述储水腔内并与所述橡胶刮板实现固连,在与所述橡胶刮板相对一侧的所述储水腔的侧壁上安装有若干个带有封堵盖的含渣废液排出口。5. The system for realizing comprehensive water quality treatment of a water plant based on water inlet dynamics according to claim 4 is characterized in that: the slag screen cleaning assembly includes a rubber scraper installed on the inner rear side of the water storage chamber, and a cleaning brush is installed on the upper part of the rubber scraper, and the working ends of the cleaning brushes are in contact with the lower surface of the blocking filter screen and clean the blocking filter screen by moving along the front and rear directions of the water storage chamber. A cleaning telescopic cylinder group is fixedly installed on the ground outside the water storage chamber, and the inner ends of each piston rod of the cleaning telescopic cylinder group are movable and sealed to extend into the water storage chamber and are fixedly connected to the rubber scraper, and a plurality of slag waste liquid discharge outlets with sealing covers are installed on the side wall of the water storage chamber on the side opposite to the rubber scraper. 6.根据权利要求5所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:所述综合调节单元包括与其上游的所述滤后管路相连的综合调节池,综合调节池内投放所需的菌种、药剂及试剂来对内部的废水进行中和处理以及生物分解处理,所述综合调节池的输出端与所述沉降池的进口端相连接,在综合调节池的输出端的管路上安装有水质取样器,在所述综合调节池的顶部安装有调节池上盖,在所述调节池上盖处安装有一综合多级混合组件,所述综合多级混合组件用于实现对投放了菌种、药剂及试剂的废水进行多效混合处理。6. The system for realizing comprehensive water quality treatment of a water plant based on the dynamics of water inlet according to claim 5 is characterized in that: the comprehensive regulating unit includes a comprehensive regulating tank connected to the post-filtration pipeline upstream thereof, and the required bacteria, drugs and reagents are put into the comprehensive regulating tank to neutralize and biodecompose the internal wastewater. The output end of the comprehensive regulating tank is connected to the inlet end of the sedimentation tank, and a water quality sampler is installed on the pipeline of the output end of the comprehensive regulating tank. A regulating tank cover is installed on the top of the comprehensive regulating tank, and a comprehensive multi-stage mixing component is installed on the regulating tank cover. The comprehensive multi-stage mixing component is used to realize multi-effect mixing treatment of the wastewater into which bacteria, drugs and reagents are put. 7.根据权利要求6所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:所述综合多级混合组件包括固定安装在所述调节池上盖顶部的长条齿轮箱,在所述长条齿轮箱内安装有一卧式主轴,在所述卧式主轴的两侧分别配合有一固定设置的轴承座,在所述卧式主轴的两端分别安装有一双向侧混料器,在两所述双向侧混料器之间设有一中部混合器,两所述双向侧混料器与所述中部混合器配合实现对综合调节池内部的废水的混合搅拌;在所述中部混合器与左侧的所述双向侧混料器之间的长条齿轮箱内部安装有一主轴驱动件,所述主轴驱动件用于驱动所述卧式主轴运转并带动两个双向侧混料器及中部混合器同步运转;7. The system for realizing comprehensive water quality treatment of a water plant based on water inlet dynamics according to claim 6 is characterized in that: the comprehensive multi-stage mixing assembly includes a long gear box fixedly installed on the top of the regulating tank cover, a horizontal main shaft is installed in the long gear box, and a fixed bearing seat is respectively matched on both sides of the horizontal main shaft, a two-way side mixer is respectively installed at both ends of the horizontal main shaft, a middle mixer is provided between the two two-way side mixers, and the two two-way side mixers cooperate with the middle mixer to achieve mixing and stirring of the wastewater inside the comprehensive regulating tank; a main shaft driving part is installed inside the long gear box between the middle mixer and the two-way side mixer on the left, and the main shaft driving part is used to drive the horizontal main shaft to operate and drive the two two-way side mixers and the middle mixer to operate synchronously; 所述中部混合器包括固定安装在所述卧式主轴的中部外侧壁上的中部驱动锥齿轮,在所述中部驱动锥齿轮的下方啮合有一中部从动锥齿轮,所述中部从动锥齿轮的中心混合轴的下方活动伸至所述综合调节池的调节腔内部且在其外侧壁上固定安装有若干个中心搅拌齿,在所述中部从动锥齿轮与所述长条齿轮箱的内腔之间的所述中心混合轴外侧壁上套接有一支撑铜环,所述支撑铜环的底部固定在所述长条齿轮箱的内腔上。The central mixer includes a central driving bevel gear fixedly mounted on the central outer wall of the horizontal main shaft, a central driven bevel gear meshing below the central driving bevel gear, the central mixing shaft of the central driven bevel gear movably extends below the regulating chamber of the integrated regulating tank and a plurality of central stirring teeth are fixedly mounted on its outer wall, a supporting copper ring is sleeved on the outer wall of the central mixing shaft between the central driven bevel gear and the inner cavity of the long gear box, and the bottom of the supporting copper ring is fixed on the inner cavity of the long gear box. 8.根据权利要求7所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:所述双向侧混料器包括固定安装在所述卧式主轴的端部外侧壁上的端部大驱动锥齿轮、端部小驱动锥齿轮,所述端部小驱动锥齿轮位于所述端部大驱动锥齿轮的外侧,在端部大驱动锥齿轮、端部小驱动锥齿轮的下方均啮合有同轴设置的端部大从动锥齿轮、端部小从动锥齿轮,在端部大从动锥齿轮、端部小从动锥齿轮的下方分别固连有一外立管、内立管,所述内立管配合插装在所述外立管的空腔内且下端伸出所述外立管,所述外立管与所述内立管的下端均活动伸至所述综合调节池的调节腔内且在其各自的外侧壁上分别固定安装有若干个正向搅拌器、反向搅拌器,各所述端部小从动锥齿轮的中心贯通设置且与对应的所述内立管的中心腔相连通,在所述端部小从动锥齿轮与所述端部大从动锥齿轮之间的内立管外侧壁上、在所述端部大从动锥齿轮与所述长条齿轮箱的内腔底部之间的外立管外侧壁上均套接有支撑铜环。8. The system for realizing comprehensive water quality treatment of a water plant based on water inlet dynamics according to claim 7 is characterized in that: the bidirectional side mixer comprises a large end driving bevel gear and a small end driving bevel gear fixedly mounted on the outer side wall of the end of the horizontal main shaft, the small end driving bevel gear is located on the outer side of the large end driving bevel gear, and a coaxially arranged large end driven bevel gear and a coaxially arranged small end driven bevel gear are meshed below the large end driving bevel gear and the coaxially arranged large end driven bevel gear, and an outer riser and an inner riser are respectively fixedly connected below the large end driven bevel gear and the coaxially arranged small end driven bevel gear. It is fitted and inserted into the cavity of the outer riser and its lower end extends out of the outer riser. The lower ends of the outer riser and the inner riser are movably extended into the regulating cavity of the integrated regulating tank and a number of forward agitators and reverse agitators are fixedly installed on their respective outer side walls. The center of each small driven bevel gear at the end is through-set and connected to the central cavity of the corresponding inner riser. Support copper rings are sleeved on the outer side wall of the inner riser between the small driven bevel gear at the end and the large driven bevel gear at the end, and on the outer side wall of the outer riser between the large driven bevel gear at the end and the bottom of the inner cavity of the long gear box. 9.根据权利要求8所述的基于进水动态实现水厂水质综合处理的系统,其特征在于:在各所述内立管的上部中心腔内均活动插装有一竖直且固定设置的进料钢管,各所述进料钢管的顶部均穿出至所述长条齿轮箱上方且与一固定设置的补料盒相连通,通过向补料盒内填充菌种、药剂及试剂并使得菌种、药剂及试剂通过内立管直送至调节腔的下部;9. The system for realizing comprehensive water quality treatment in a water plant based on water inflow dynamics according to claim 8 is characterized in that: a vertical and fixed feed steel pipe is movably inserted into the upper central cavity of each inner riser, the top of each feed steel pipe passes through the top of the elongated gear box and is connected to a fixed feed box, and the feed box is filled with bacteria, medicine and reagents and the bacteria, medicine and reagents are directly delivered to the lower part of the regulating cavity through the inner riser; 所述沉降池内用于投放明矾实现内部水液的絮凝沉淀,所述沉降池的出口上部安装有水质取样器,所述沉降池的出口端通过沉降后输送管道向下游输送经过调节输送的水液,所述多级水质膜滤净化单元安装在所述沉降后输送管道上。Alum is placed in the sedimentation tank to achieve flocculation and sedimentation of the internal water liquid. A water quality sampler is installed on the upper part of the outlet of the sedimentation tank. The outlet end of the sedimentation tank transports the regulated water liquid to the downstream through the post-settlement delivery pipeline. The multi-stage water quality membrane filtration purification unit is installed on the post-settlement delivery pipeline.
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