CN203112639U - Electrochemical rainwater self-purification system - Google Patents

Electrochemical rainwater self-purification system Download PDF

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CN203112639U
CN203112639U CN2013200692450U CN201320069245U CN203112639U CN 203112639 U CN203112639 U CN 203112639U CN 2013200692450 U CN2013200692450 U CN 2013200692450U CN 201320069245 U CN201320069245 U CN 201320069245U CN 203112639 U CN203112639 U CN 203112639U
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pipe
control valve
water
rainwater
reaction tank
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顾正华
王银堂
诸德熙
周继伟
姚剑锋
尚淑丽
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Zhejiang University
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    • Y—GENERAL 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
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A20/00—Water conservation; Efficient water supply; Efficient water use
    • Y02A20/108—Rainwater harvesting
    • Y—GENERAL 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
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02W—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO WASTEWATER TREATMENT OR WASTE MANAGEMENT
    • Y02W10/00—Technologies for wastewater treatment
    • Y02W10/30—Wastewater or sewage treatment systems using renewable energies
    • Y02W10/33—Wastewater or sewage treatment systems using renewable energies using wind energy
    • Y—GENERAL 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
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02W—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO WASTEWATER TREATMENT OR WASTE MANAGEMENT
    • Y02W10/00—Technologies for wastewater treatment
    • Y02W10/30—Wastewater or sewage treatment systems using renewable energies
    • Y02W10/37—Wastewater or sewage treatment systems using renewable energies using solar energy

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Abstract

本实用新型公开了一种雨水水质电化自净系统。系统包括雨水管网、储水池、水轮发电机、反应池、雨水电化学反应设备、电动分离机、冲洗储水箱、电磁场吸附装置、强电场吸附装置、净水储存箱等部分，雨水水质电化自净方法是将收集的雨水首先进行雨水电化学反应，析出雨水中的污染物质，然后经过电动分离、电磁场吸附、强电场吸附和冲洗去污四个环节去除雨水中的污染杂质，雨水电化学反应设备、电动分离机、电磁场吸附装置、强电场吸附装置由雨能转换的电能供电，不够部分由外部电源补充，从而实现雨水水质电化自净处理。本实用新型具有环境友好、结构简单、投资节省、经济和社会效益显著等优点，在节能减排和水资源危机的背景下极具研究推广价值。

Figure 201320069245

The utility model discloses an electrified self-purification system for rain water quality. The system includes rainwater pipe network, water storage tank, hydroelectric generator, reaction tank, rainwater electrochemical reaction equipment, electric separator, flushing water storage tank, electromagnetic field adsorption device, strong electric field adsorption device, water purification storage tank and other parts. The method is to first carry out the rainwater electrochemical reaction on the collected rainwater to precipitate the pollutants in the rainwater, and then remove the polluting impurities in the rainwater through four links of electrodynamic separation, electromagnetic field adsorption, strong electric field adsorption and washing decontamination. Rainwater electrochemical reaction equipment , Electric separator, electromagnetic field adsorption device, and strong electric field adsorption device are powered by the electric energy converted from rain energy, and the insufficient part is supplemented by external power supply, so as to realize the electrochemical self-purification treatment of rainwater quality. The utility model has the advantages of environmental friendliness, simple structure, investment saving, remarkable economic and social benefits, etc., and has great research and popularization value under the background of energy saving, emission reduction and water resource crisis.

Figure 201320069245

Description

雨水水质电化自净系统Electrochemical self-purification system for rainwater quality

技术领域 technical field

本实用新型属于非常规水资源开发和可再生能源利用领域，特别是一种雨水水质电化自净系统。 The utility model belongs to the field of unconventional water resource development and renewable energy utilization, in particular to a rainwater water quality electrified self-purification system.

背景技术 Background technique

水是人类和地球上一切其他生物赖以生存的物质基础。在淡水资源中,与人类生产生活密切且较易开发利用的湖泊、河流、浅层地下水等淡水储量仅为104.6万亿立方米, 分别只占地球水总储量的0.0091%和淡水总量的2.99%，作为人口大国，我国人均淡水资源匮乏，但我国雨水资源丰富，多年平均降水量为61900亿m3，可开发利用的潜力巨大。因此进行雨水的收集利用可有效缓解我国水资源危机。 Water is the material basis for the survival of human beings and all other living things on the earth. Among fresh water resources, lakes, rivers, shallow groundwater and other fresh water reserves that are closely related to human production and life and are relatively easy to develop and utilize are only 104.6 trillion cubic meters, accounting for only 0.0091% of the total water reserves of the earth and 2.99% of the total fresh water. %, as a country with a large population, China is short of per capita fresh water resources, but China is rich in rainwater resources, with an annual average precipitation of 6.19 trillion m 3 , which has great potential for development and utilization. Therefore, the collection and utilization of rainwater can effectively alleviate the water resource crisis in our country.

从1980年开始，欧洲各国与日本等开始了对雨水收集利用的研究。目前，对雨水收集技术研究较多，而在雨水水质处理上研究较少，更没有将雨水收集、雨水水质处理和雨能发电相结合的雨水水质电化自净技术，迫切需要在这方面进行突破，从而降低雨水利用的成本，提高雨水资源的开发潜力。在能源匮乏、环境污染和水资源问题凸显的大背景下，进行雨水收集，利用雨能、风能、太阳能等绿色能源发电，并利用发出的电力处理雨水水质，实现水电“自产自消”，对于保护人类生存环境、缓解能源和水资源危机有着非常重要的理论和实际意义，对绿色城市建设和缺水缺电地区的经济社会可持续发展也有着巨大的实用价值。 Since 1980, European countries and Japan have started research on rainwater harvesting and utilization. At present, there are many studies on rainwater harvesting technology, but less research on rainwater quality treatment, and there is no rainwater quality electrification self-purification technology that combines rainwater collection, rainwater quality treatment and rain energy power generation. There is an urgent need for breakthroughs in this area. Thereby reducing the cost of rainwater utilization and improving the development potential of rainwater resources. Under the background of energy shortage, environmental pollution and water resource problems, collect rainwater, use rain energy, wind energy, solar energy and other green energy to generate electricity, and use the generated electricity to treat rainwater quality, so as to realize "self-production and self-consumption" of hydropower. It has very important theoretical and practical significance for protecting the living environment of human beings and alleviating energy and water resource crises, and also has great practical value for the construction of green cities and the sustainable economic and social development of areas short of water and electricity.

发明内容 Contents of the invention

本实用新型的目的是克服现有技术的不足，提供一种雨水水质电化自净系统。 The purpose of the utility model is to overcome the deficiencies of the prior art and provide an electrified rainwater self-purification system.

雨水水质电化自净系统包括集水屋面、雨水管网、U型管、排污孔、冲洗引水管、储水池、溢流孔、排污孔控制阀、排污孔、水轮机引水控制阀、支架、发电引水管、水轮发电机、尾水管、雨能发电输出线路、反应池进水管控制阀、反应池进水管、反应池、雨水电化学反应设备、排污孔、排污孔控制阀、支架、反应池出水管控制阀、反应池出水管、电动分离机、排污管、输水管控制阀、冲洗引水管控制阀、冲洗储水箱、冲洗水管控制阀、冲洗水管、电磁场吸附装置、输水管、强电场吸附装置、蓄电池、供电线路、外部电源接入线路、多余电能输出线路、输水管、排污管控制阀、排污管、输水管控制阀、净水储存箱、支架、取水管控制阀、取水管、输水管，多个集水屋面与雨水管网相连，雨水管网通过带有排污孔的U型管与储水池相连，储水池底部设有带有排污孔控制阀的排污孔和带有水轮机引水控制阀的发电引水管，储水池上部设有溢流孔和带有反应池进水管控制阀的反应池进水管，反应池进水管与反应池相连，反应池底部设有带有排污孔控制阀的排污孔，反应池内部设有雨水电化学反应设备，反应池通过带有反应池出水管控制阀的反应池出水管与带有排污管的电动分离机相连，电动分离机通过带有输水管控制阀的输水管与电磁场吸附装置相连，电磁场吸附装置通过输水管与强电场吸附装置相连，强电场吸附装置通过带有排污管和输水管控制阀的输水管与净水储存箱相连，排污管上设有排污管控制阀，净水储存箱下部设有带有取水管控制阀的取水管，蓄电池通过供电线路分别与雨水电化学反应设备、电动分离机、电磁场吸附装置和强电场吸附装置相连，外部电源接入线路和多余电能输出线路分别与蓄电池相连，U型管通过带有冲洗引水管控制阀的冲洗引水管与冲洗储水箱相连，冲洗储水箱通过带有冲洗水管控制阀的冲洗水管与输水管相连，储水池通过发电引水管与水轮发电机相连，水轮发电机上设有尾水管，蓄电池通过雨能发电输出线路与水轮发电机相连。 The rainwater quality electrochemical self-purification system includes water collection roof, rainwater pipe network, U-shaped pipe, sewage hole, flushing water pipe, water storage tank, overflow hole, sewage hole control valve, sewage hole, water turbine water diversion control valve, bracket, power generation water pipe, Hydrogenerator, draft pipe, rain energy power generation output line, control valve of reaction tank inlet pipe, reaction tank water inlet pipe, reaction tank, rainwater electrochemical reaction equipment, sewage hole, sewage hole control valve, bracket, control of reaction pool outlet pipe Valve, reaction tank outlet pipe, electric separator, sewage pipe, water pipe control valve, flushing water diversion pipe control valve, flushing water storage tank, flushing water pipe control valve, flushing water pipe, electromagnetic field adsorption device, water pipe, strong electric field adsorption device, battery , power supply lines, external power access lines, excess power output lines, water pipes, sewage pipe control valves, sewage pipes, water pipe control valves, clean water storage tanks, brackets, water intake pipe control valves, water intake pipes, water pipes, etc. The water collection roof is connected to the rainwater pipe network, and the rainwater pipe network is connected to the storage tank through a U-shaped pipe with a sewage hole. The bottom of the storage tank is equipped with a sewage discharge hole with a sewage discharge hole control valve and a power generation water diversion pipe with a water turbine diversion control valve. , the upper part of the storage tank is provided with an overflow hole and a reaction tank inlet pipe with a reaction tank inlet pipe control valve. The reaction tank inlet pipe is connected to the reaction tank. There is rainwater electrochemical reaction equipment inside, the reaction tank is connected to the electric separator with sewage pipe through the reaction tank outlet pipe with the reaction tank outlet pipe control valve, and the electric separator is connected with the electric separator through the water delivery pipe with the water delivery pipe control valve. The electromagnetic field adsorption device is connected, the electromagnetic field adsorption device is connected with the strong electric field adsorption device through the water pipe, the strong electric field adsorption device is connected with the clean water storage tank through the water pipe with the sewage pipe and the water pipe control valve, and the sewage pipe is equipped with a sewage pipe control The lower part of the clean water storage tank is equipped with a water intake pipe with a water intake control valve. The battery is connected to the rainwater electrochemical reaction equipment, electric separator, electromagnetic field adsorption device and strong electric field adsorption device through the power supply line, and the external power supply is connected to the line. The U-shaped pipe is connected to the flushing water storage tank through the flushing water diversion pipe with the flushing water diversion pipe control valve, and the flushing water storage tank is connected to the water delivery pipe through the flushing water pipe with the flushing water pipe control valve. The water pool is connected with the water turbine generator through the power generation diversion pipe, the tail water pipe is arranged on the water turbine generator, and the storage battery is connected with the water turbine generator through the rain energy power generation output line.

本实用新型具有环境友好、结构简单、投资节省、操作方便、经济和社会效益显著等优点，在节能减排和水资源危机的背景下极具研究推广价值，它能有效地缓解城市突出的水问题以及偏远地区的用水用电问题，提供清洁的淡水资源，并减少环境污染，促进清洁资源开发，低碳排放，促进雨水资源化，兼有防灾减灾效益。 The utility model has the advantages of environmental friendliness, simple structure, investment saving, convenient operation, remarkable economic and social benefits, etc. It is of great research and promotion value under the background of energy saving and emission reduction and water resource crisis, and it can effectively alleviate the prominent water pollution in cities. problems and water and electricity problems in remote areas, provide clean fresh water resources, reduce environmental pollution, promote the development of clean resources, low carbon emissions, promote rainwater resources, and have the benefits of disaster prevention and mitigation.

附图说明 Description of drawings

图1是雨水水质电化自净系统的组成示意图。 Figure 1 is a schematic diagram of the composition of the rainwater electrochemical self-purification system.

具体实施方式 Detailed ways

如图1所示，雨水水质电化自净系统包括集水屋面1、雨水管网2、U型管3、排污孔4、冲洗引水管5、储水池6、溢流孔7、排污孔控制阀8、排污孔9、水轮机引水控制阀10、支架11、发电引水管12、水轮发电机13、尾水管14、雨能发电输出线路15、反应池进水管控制阀16、反应池进水管17、反应池18、雨水电化学反应设备19、排污孔20、排污孔控制阀21、支架22、反应池出水管控制阀23、反应池出水管24、电动分离机25、排污管26、输水管控制阀27、冲洗引水管控制阀28、冲洗储水箱29、冲洗水管控制阀30、冲洗水管31、电磁场吸附装置32、输水管33、强电场吸附装置34、蓄电池35、供电线路36、外部电源接入线路37、多余电能输出线路38、输水管39、排污管控制阀40、排污管41、输水管控制阀42、净水储存箱43、支架44、取水管控制阀45、取水管46、输水管47，多个集水屋面1与雨水管网2相连，雨水管网2通过带有排污孔4的U型管3与储水池6相连，储水池6底部设有带有排污孔控制阀8的排污孔9和带有水轮机引水控制阀10的发电引水管12，储水池6上部设有溢流孔7和带有反应池进水管控制阀16的反应池进水管17，反应池进水管17与反应池18相连，反应池18底部设有带有排污孔控制阀21的排污孔20，反应池18内部设有雨水电化学反应设备19，反应池18通过带有反应池出水管控制阀23的反应池出水管24与带有排污管26的电动分离机25相连，电动分离机25通过带有输水管控制阀27的输水管47与电磁场吸附装置32相连，电磁场吸附装置32通过输水管33与强电场吸附装置34相连，强电场吸附装置34通过带有排污管41和输水管控制阀42的输水管39与净水储存箱43相连，排污管41上设有排污管控制阀40，净水储存箱43下部设有带有取水管控制阀45的取水管46，蓄电池35通过供电线路36分别与雨水电化学反应设备19、电动分离机25、电磁场吸附装置32和强电场吸附装置34相连，外部电源接入线路37和多余电能输出线路38分别与蓄电池35相连，U型管3通过带有冲洗引水管控制阀28的冲洗引水管5与冲洗储水箱29相连，冲洗储水箱29通过带有冲洗水管控制阀30的冲洗水管31与输水管47相连，储水池6通过发电引水管12与水轮发电机13相连，水轮发电机13上设有尾水管14，蓄电池35通过雨能发电输出线路15与水轮发电机13相连。 As shown in Figure 1, the rainwater electrochemical self-purification system includes water collection roof 1, rainwater pipe network 2, U-shaped pipe 3, sewage hole 4, flushing water pipe 5, water storage tank 6, overflow hole 7, sewage hole control valve 8, Sewage hole 9, water turbine water diversion control valve 10, bracket 11, power generation water diversion pipe 12, water turbine generator 13, draft pipe 14, rain energy power generation output line 15, reaction tank inlet pipe control valve 16, reaction tank inlet pipe 17, reaction tank Pool 18, rainwater electrochemical reaction equipment 19, sewage hole 20, sewage hole control valve 21, bracket 22, reaction pool outlet pipe control valve 23, reaction pool outlet pipe 24, electric separator 25, sewage pipe 26, water delivery pipe control valve 27. Flushing water diversion pipe control valve 28, flushing water storage tank 29, flushing water pipe control valve 30, flushing water pipe 31, electromagnetic field adsorption device 32, water delivery pipe 33, strong electric field adsorption device 34, battery 35, power supply line 36, external power supply access Line 37, excess power output line 38, water pipe 39, sewage pipe control valve 40, sewage pipe 41, water pipe control valve 42, clean water storage tank 43, bracket 44, water pipe control valve 45, water pipe 46, water pipe 47. Multiple water collection roofs 1 are connected to the rainwater pipe network 2, the rainwater pipe network 2 is connected to the water storage tank 6 through the U-shaped pipe 3 with the sewage hole 4, and the bottom of the water storage pool 6 is provided with a sewage discharge hole with a sewage discharge hole control valve 8 9 and a power generation water diversion pipe 12 with a hydraulic turbine water diversion control valve 10, an overflow hole 7 and a reaction tank inlet pipe 17 with a reaction tank water inlet control valve 16 are provided on the top of the water storage tank 6, and the reaction tank water inlet pipe 17 is connected to the reaction tank 18 are connected, the bottom of the reaction pool 18 is provided with a drain hole 20 with a drain hole control valve 21, the inside of the reaction pool 18 is equipped with rainwater electrochemical reaction equipment 19, and the reaction pool 18 passes through the reaction pool with a control valve 23 of the outlet pipe of the reaction pool The outlet pipe 24 is connected to the electric separator 25 with the sewage pipe 26, and the electric separator 25 is connected to the electromagnetic field adsorption device 32 through the water delivery pipe 47 with the water delivery pipe control valve 27, and the electromagnetic field adsorption device 32 is connected to the strong electric field through the water delivery pipe 33. The adsorption device 34 is connected to each other, and the strong electric field adsorption device 34 is connected to the clean water storage tank 43 through the water delivery pipe 39 with the sewage pipe 41 and the water delivery pipe control valve 42. The lower part of 43 is provided with a water intake pipe 46 with a water intake control valve 45, and the storage battery 35 is respectively connected to the rainwater electrochemical reaction equipment 19, the electric separator 25, the electromagnetic field adsorption device 32 and the strong electric field adsorption device 34 through the power supply line 36, and the external power supply The access line 37 and the excess power output line 38 are respectively connected to the battery 35, the U-shaped pipe 3 is connected to the flushing water storage tank 29 through the flushing water diversion pipe 5 with the flushing water diversion pipe control valve 28, and the flushing water storage tank 29 is connected to the flushing water storage tank 29 through the flushing water pipe The flushing water pipe 31 of the control valve 30 is connected to the water delivery pipe 47, the water storage tank 6 is connected to the water turbine generator 13 through the power generation diversion pipe 12, the water turbine generator 13 is provided with a draft pipe 14, and the storage battery 35 is connected to the rain energy power generation output line 15 with turbine generator 13 connected.

雨水水质电化自净方法是：降雨时利用雨水管网2将不同集水屋面1相互连接收集雨水，扩大雨水收集量，雨水通过雨水管网2经过U型管3汇入储水池6中，打开反应池进水管控制阀16，雨水经过反应池进水管17流入反应池18，当反应池18蓄满后关闭反应池进水管控制阀16，雨水电化学反应设备19对反应池18中的雨水水质进行处理，打开反应池出水管控制阀23、输水管控制阀27和输水管控制阀42，处理后的雨水经过反应池出水管24进入电动分离机25，在离心力的作用下水污产生部分分离，污水由排污管26排出，电动分离处理后的雨水经过输水管47进入电磁场吸附装置32，吸附处理后的雨水经过输水管33进入强电场吸附装置34，净化完成后的雨水经过输水管39进入净水储存箱43储存，当需要时打开取水管控制阀45通过取水管46供水，当储水池6中雨水达到工作水位后，打开水轮机引水控制阀10，雨水经过发电引水管12推动水轮发电机13发电，形成的尾水通过尾水管14排走，当储水池6中雨水达不到工作水位或水轮发电机13停止运转时关闭水轮机引水控制阀10，储水池6蓄满后多余的雨水通过溢流孔7溢出，水轮发电机13发出的电通过雨能发电输出线路15贮存到蓄电池35中，蓄电池35通过供电线路36分别为雨水电化学反应设备19、电动分离机25、电磁场吸附装置32和强电场吸附装置34供电，电力不足时可将太阳能发电、风能发电等外部电源通过外部电源接入线路37接入蓄电池35，多余的电能通过多余电能输出线路38供出，储水池6中的沉淀物可打开排污孔控制阀8由排污孔9排出，U型管3中的沉淀物由排污孔4排出，反应池18中的沉淀物可打开排污孔控制阀21由排污孔20排出，通过关闭输水管控制阀27和输水管控制阀42，同时打开冲洗水管控制阀30和排污管控制阀40，用冲洗储水箱29中的雨水经过冲洗水管31对电磁场吸附装置32和强电场吸附装置34吸附的杂质进行冲洗去除，冲洗出的污水由排污管41排出，冲洗完毕后关闭排污管控制阀40，关闭冲洗水管控制阀30，同时打开冲洗引水管控制阀28，由冲洗引水管5引入U型管3收集的雨水将冲洗储水箱29蓄满，蓄满后，关闭冲洗引水管控制阀28。 The method of electrochemical self-purification of rainwater quality is: when it rains, the rainwater pipe network 2 is used to connect different water collection roofs 1 to each other to collect rainwater, and the amount of rainwater collected is expanded. Water pipe control valve 16, rainwater flows into reaction tank 18 through reaction tank water inlet pipe 17, close reaction tank water inlet pipe control valve 16 after reaction tank 18 is full, rainwater electrochemical reaction equipment 19 processes the rainwater water quality in reaction tank 18, Open the reaction tank outlet pipe control valve 23, the water delivery pipe control valve 27 and the water delivery pipe control valve 42, the rainwater after treatment enters the electric separator 25 through the reaction tank outlet pipe 24, and the water pollution is partially separated under the action of centrifugal force, and the sewage is discharged by the sewage Pipe 26 discharges, the rainwater after electric separation treatment enters the electromagnetic field adsorption device 32 through the water delivery pipe 47, the rainwater after the adsorption treatment enters the strong electric field adsorption device 34 through the water delivery pipe 33, and the purified rainwater enters the clean water storage tank through the water delivery pipe 39 43 storage, when needed, open the water intake pipe control valve 45 to supply water through the water intake pipe 46, when the rainwater in the storage tank 6 reaches the working water level, open the water turbine water diversion control valve 10, and the rainwater will drive the hydroelectric generator 13 to generate electricity through the power generation water diversion pipe 12, The formed tail water is discharged through the tail water pipe 14. When the rainwater in the storage tank 6 does not reach the working water level or the water turbine generator 13 stops running, the hydraulic turbine diversion control valve 10 is closed, and the excess rainwater passes through the overflow after the storage tank 6 is full. The hole 7 overflows, and the electricity sent by the hydroelectric generator 13 is stored in the accumulator 35 through the rain energy power generation output line 15, and the accumulator 35 is respectively the rainwater electrochemical reaction equipment 19, the electric separator 25, the electromagnetic field adsorption device 32 and the The strong electric field adsorption device 34 supplies power, and when the power is insufficient, external power sources such as solar power generation and wind power generation can be connected to the storage battery 35 through the external power supply access line 37, and the excess electric energy is supplied through the excess electric energy output line 38, and the sediment in the water storage tank 6 The drain hole control valve 8 can be opened to be discharged from the drain hole 9, the sediment in the U-shaped pipe 3 is discharged from the drain hole 4, and the sediment in the reaction tank 18 can be discharged from the drain hole 20 by opening the drain hole control valve 21. The water pipe control valve 27 and the water delivery pipe control valve 42 open the flushing water pipe control valve 30 and the blowdown pipe control valve 40 simultaneously, and the rainwater in the flushing storage tank 29 passes through the flushing water pipe 31 to the adsorption of the electromagnetic field adsorption device 32 and the strong electric field adsorption device 34 Impurities are flushed and removed, and the flushed sewage is discharged from the sewage pipe 41. After flushing, the sewage pipe control valve 40 is closed, the flushing water pipe control valve 30 is closed, and the flushing water diversion pipe control valve 28 is opened at the same time, and the flushing diversion pipe 5 is introduced into the U-shaped pipe. 3. The collected rainwater will store the flushing water storage tank 29 to the full, and after storing it full, close the flushing water diversion pipe control valve 28.

本实用新型选择雨量较为丰富的地区，首先改造房屋雨水管道，形成空中雨水管网，修建支架安设储水池、反应池和净水储存箱，并安装水轮发电机、雨水电化学反应设备、电动分离机、冲洗储水箱、电磁场吸附装置、强电场吸附装置和蓄电池，将控制阀、管路和线路进行相应的连接。当降雨来临时，利用储水池收集雨水，并将反应池和冲洗储水箱贮满，当储水池水位达到一定值时，便可打开水轮机引水控制阀推动水轮发电机进行发电，将所发电能储存于蓄电池中，不下雨时将蓄电池中电能提供给雨水电化学反应设备、电动分离机、电磁场吸附装置和强电场吸附装置进行雨水水质净化处理，处理后的雨水储存于净水储存箱中供用户使用，运用冲洗储水箱的雨水对电磁场吸附装置和强电场吸附装置进行冲洗去污。如此，可实现雨水水质电化自净处理，促进雨水资源化开发。 The utility model selects areas with relatively abundant rainfall. Firstly, the rainwater pipes of houses are transformed to form a rainwater pipe network in the air. The separator, flushing water storage tank, electromagnetic field adsorption device, strong electric field adsorption device and storage battery are connected with control valves, pipelines and lines accordingly. When the rainfall comes, use the storage tank to collect rainwater, and fill the reaction tank and flushing water storage tank. When the water level in the storage tank reaches a certain value, you can open the water control valve of the turbine to drive the turbine generator to generate electricity. Stored in the battery, when it is not raining, the electric energy in the battery is provided to the rainwater electrochemical reaction equipment, electric separator, electromagnetic field adsorption device and strong electric field adsorption device for rainwater purification treatment, and the treated rainwater is stored in the clean water storage tank for supply The user uses the rainwater from flushing the water storage tank to flush and decontaminate the electromagnetic field adsorption device and the strong electric field adsorption device. In this way, the electro-chemical self-purification treatment of rainwater can be realized, and the development of rainwater resources can be promoted.

本实用新型既适用于小区，也适用于单独楼宇；既适用于山区，又适用于平原地区；既适用于农村，又适用于城市；特别适用于偏远海岛地区，可以与海洋能开发结合起来形成独立的“绿色供水供电系统”。本实用新型可以减少降雨径流污染，减少雨水地面侵蚀，又可以提高城市防洪减灾能力，提高当地的水资源承载能力，并且弥补区域清洁淡水资源的不足，削减了CO2的排放。 The utility model is not only suitable for residential areas, but also for individual buildings; it is suitable for both mountainous areas and plain areas; it is suitable for both rural areas and cities; it is especially suitable for remote island areas, and can be combined with ocean energy development to form Independent "green water supply and power supply system". The utility model can reduce rainfall runoff pollution, reduce rainwater ground erosion, improve urban flood control and disaster reduction capabilities, improve local water resources carrying capacity, and make up for the lack of clean fresh water resources in the region, reducing CO2 emissions.

Claims (1)

1. rainwater water quality electrification self-cleaning system, it is characterized in that comprising the roofing (1) that catchments, Storm Sewer Network (2), U-shaped pipe (3), mudhole (4), flushing aqueduct (5), tank (6), overflow weir (7), mudhole control valve (8), mudhole (9), water turbine diversion control valve (10), support (11), generating aqueduct (12), hydrogenerator (13), draft tube (14), the rain outlet line (15) that can generate electricity, reaction tank water inlet pipe control valve (16), reaction tank water inlet pipe (17), reaction tank (18), rainwater electrochemical reaction equipment (19), mudhole (20), mudhole control valve (21), support (22), reaction tank rising pipe control valve (23), reaction tank rising pipe (24), electronic separating machine (25), blow-off pipe (26), hydraulic pipe control valve (27), flushing aqueduct control valve (28), flushing water tank (29), wash tub pipe control valve (30), wash tub pipe (31), electromagnetic field adsorption unit (32), hydraulic pipe (33), highfield adsorption unit (34), store battery (35), supply line (36), external power source line attachment (37), unnecessary electric energy outlet line (38), hydraulic pipe (39), blow-off pipe control valve (40), blow-off pipe (41), hydraulic pipe control valve (42), water purification bin (43), support (44), intake pipe control valve (45), intake pipe (46), hydraulic pipe (47), a plurality of roofings that catchment (1) link to each other with Storm Sewer Network (2), Storm Sewer Network (2) links to each other with tank (6) by the U-shaped pipe (3) that has mudhole (4), tank (6) bottom is provided with the mudhole (9) that has mudhole control valve (8) and the generating aqueduct (12) that has water turbine diversion control valve (10), tank (6) top is provided with overflow weir (7) and has the reaction tank water inlet pipe (17) of reaction tank water inlet pipe control valve (16), reaction tank water inlet pipe (17) links to each other with reaction tank (18), reaction tank (18) bottom is provided with the mudhole (20) that has mudhole control valve (21), reaction tank (18) inside is provided with rainwater electrochemical reaction equipment (19), reaction tank (18) links to each other with the electronic separating machine (25) that has blow-off pipe (26) by the reaction tank rising pipe (24) that has reaction tank rising pipe control valve (23), electronic separating machine (25) links to each other with electromagnetic field adsorption unit (32) by the hydraulic pipe (47) that has hydraulic pipe control valve (27), electromagnetic field adsorption unit (32) links to each other with highfield adsorption unit (34) by hydraulic pipe (33), highfield adsorption unit (34) links to each other with water purification bin (43) by the hydraulic pipe (39) that has blow-off pipe (41) and hydraulic pipe control valve (42), blow-off pipe (41) is provided with blow-off pipe control valve (40), water purification bin (43) bottom is provided with the intake pipe (46) that has intake pipe control valve (45), store battery (35) by supply line (36) respectively with rainwater electrochemical reaction equipment (19), electronic separating machine (25), electromagnetic field adsorption unit (32) links to each other with highfield adsorption unit (34), external power source line attachment (37) links to each other with store battery (35) respectively with unnecessary electric energy outlet line (38), U-shaped pipe (3) links to each other with flushing water tank (29) by the flushing aqueduct (5) that has flushing aqueduct control valve (28), flushing water tank (29) links to each other with hydraulic pipe (47) by the wash tub pipe (31) that has wash tub pipe control valve (30), tank (6) links to each other with hydrogenerator (13) by generating aqueduct (12), hydrogenerator (13) is provided with draft tube (14), and store battery (35) links to each other with hydrogenerator (13) by the rain outlet line (15) that can generate electricity.
CN2013200692450U 2013-02-06 2013-02-06 Electrochemical rainwater self-purification system Expired - Lifetime CN203112639U (en)

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103112987A (en) * 2013-02-06 2013-05-22 浙江大学 Electrochemical self-purifying system for rainwater quality and method thereof
CN109194278A (en) * 2018-10-21 2019-01-11 沈禹荣 A kind of solar energy photovoltaic panel with cleaning function

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103112987A (en) * 2013-02-06 2013-05-22 浙江大学 Electrochemical self-purifying system for rainwater quality and method thereof
CN103112987B (en) * 2013-02-06 2014-02-19 浙江大学 Electrochemical self-purifying system for rainwater quality and method thereof
CN109194278A (en) * 2018-10-21 2019-01-11 沈禹荣 A kind of solar energy photovoltaic panel with cleaning function

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