KR102308308B1 - Monitoring system for intercepting sewer using rainfall runoff simulation - Google Patents

Abstract

The present invention relates to a monitoring system for an interception facility, which is to integrally manage sewage and rainwater by monitoring and controlling the same at each regional base on the basis of predetermined information collected from an interception facility of a sewage pipe. The monitoring system of the present invention comprises: a local monitoring and control unit for collecting a detection value for a water level and a detection value for a flow rate from one or more interception facilities; and an integrated management server including a transceiving unit for performing a communication with a plurality of local monitoring and control units through a network, a sensing information receiving unit for forming water level information and flow rate information from the local monitoring and control units for each location into data, a geographic information collecting unit for collecting geographic data, such as topography, a pipe network, a sewage pipe, and a manhole from a geographic information DB, a weather information collecting unit for collecting rainfall data from a weather server, a simulation unit for performing a simulation by a reference model through geographic information data, weather information data, and sensing data, and a monitoring and feedback unit for displaying a simulation result, and evaluating the capacity adequacy of an actual interception facility.

Description

A monitoring system for a sewage pipe interception facility applying a rainfall runoff simulation {MONITORING SYSTEM FOR INTERCEPTING SEWER USING RAINFALL RUNOFF SIMULATION}

The present invention relates to a collection facility, and more specifically, to a monitoring system for a collection facility that enables the integrated management of sewage and rainwater by monitoring and controlling at each regional base based on predetermined information collected from the sewage collection facility. .

A point source is a source of pollution that is generated around us, such as homes and roads, and the discharge path such as domestic sewage or factory wastewater is clear, so it is easy to manage the source through sewage conduit, while non-point source is a source of pollution that can specify the discharge point on land, road, farmland, etc. Water pollution is caused by fertilization of agricultural land, spraying of pesticides, soil erosion, etc. due to pollution of the water system by the discharge of numerous pollutants in a specific number or the entire region.

Rainwater containing non-point pollutants generated from the road has a COD (chemical oxygen demand) that is 12 times that of sewage treatment plant inflow and 4 times that of wastewater treatment plant. In addition, since most bridges on the highway are only installed with rainwater pipes, pollutants are discharged directly into the river or water source under the bridge, so the problem of non-point pollution sources of the initial rainwater generated from the bridges is also recognized as serious.

Accordingly, the generally known sewage system includes a collecting conduit that leads to a sewage treatment plant to purify the incoming sewage, and is provided at a certain height behind the collecting conduit to prevent the soil contained in the inflowing sewage from flowing into the intercepting conduit. It is also configured to include a barrier to filter out the stenosis.

As a sewage exclusion method, in general, a separate type and a combined type of rainwater pipe and sewage pipe are used together.

Korean Patent Registration No. 10-1050707 proposes a prior art rainwater control system, and FIG. 1 is an exemplary view of a sewage facility in the city. FIG. 1 a) shows a combined sewage system, and FIG. 1 b) shows a fractional sewage system.

In the case of the classification-type sewage exclusion method, the sewage pipe and the rainwater pipe are separately constructed, and the wastewater is directly injected into the sewage pipe by closing the septic tank, and the rainwater is discharged directly into the river by closing the stormwater chamber. Although there is an aspect to separate and control rainwater and sewage, it is pointed out that pollutants from non-point sources directly flow into the river, and the probability of a rainfall water quality accident increases especially during the dry season. In addition, problems in maintenance were found, such as the inflow of sewage into the rainwater pipe due to poor construction, misalignment, and unauthorized discharge.

In the case of a combined sewage conduit, sewage and rainwater are combined into one conduit, and sewage is collected as much as the capacity of the sewage treatment plant and overflowed into the river in excess. However, in the case of such a merging method, in case of rain with a lot of precipitation, since a large amount of rainwater is collected and introduced into the sewage treatment plant, the efficiency of the sewage treatment plant is reduced due to the inflow of low-concentration sewage. In addition, there is a problem that the pollution of the river due to overflow occurs.

The present invention has been devised to overcome the problems of the prior art, and by monitoring and controlling the environment for each sewage exclusion method, the efficient operation of the sewage treatment plant and the prevention of environmental pollution are applied. It aims to provide a monitoring system.

The present invention for solving the above problem, a local monitoring and control unit for collecting the detection value for the water level and the detection value for the flow rate from the devices installed in one or more car pickup facilities; A transceiver that communicates with a plurality of local monitoring and control units through a network network, a sensing information receiving unit that converts water level information and flow rate information from local monitoring and control at each location into sensing data, and topography, pipe network, A geographic information collection unit that collects geographic information data such as conduits and manholes, a weather information collection unit that collects meteorological information data from a meteorological server, and a reference model through the geographic information data, meteorological information data, and sensing data. An integrated management server having a simulation unit to perform, and a monitoring and feedback unit that displays the simulation result and evaluates the capacity adequacy of the actual pick-up facility; may be configured to include.

Preferably, the local monitoring and control unit verifies the detection result signal of each device and transmits it to the integrated management server, but if an abnormality occurs in the reception of the detection value of the device disposed in the section connected to the classification formula, the entire amount of inflow of the rainwater pipe flows into the river In the event that an abnormality occurs in the reception of the detection value of the device placed in the section connected to the confluence ceremony, it generates and transmits information on the average inflow amount for a set period based on the determination of dry season and rainfall in the weather information data. Based on the predicted rainfall of the information data, the inflow information from the sewage pipe is generated and transmitted.

In addition, the integrated management server is provided with a pick-up facility judging unit that determines the appropriateness of the capacity for each pick-up facility and the impact on the downstream according to the simulation result, but is classified from the values generated and transmitted by the local monitoring and control unit. For each expression and confluence expression, weights are given and corrected according to the degree of influence downstream, and then input as sensing data. It is possible to have a margin verifying unit that determines the margin so as to change the control water level when it is determined that the margin ratio is insufficient.

As a preferred embodiment, the integrated management server includes a pickup facility judging unit that determines the appropriateness of the capacity for each pickup facility and the impact on the downstream according to the simulation result, and a relatively high A spare rate verification unit that evaluates the interception facilities determined to have an influence and selects and determines the spare rate can be provided to change the control level when it is determined that the spare rate is insufficient.

In addition, the integrated management server can control individual pick-up facilities in a small area through each local monitoring and control unit.

On the other hand, the local monitoring and control unit includes a module transmitting and receiving unit connected to a network server, and a management unit that receives detection signals from a water level sensor and a flow rate sensor, controls the operating components of each pickup facility, and determines transmission to the integrated management server It may be composed of

The simulation unit may apply a SWMM (Storm Water Management Model) as a reference model.

The device is preferably at least one selected from a water level sensor, a flow sensor, an oxygen saturation sensor, a temperature sensor, a turbidity sensor, a phosphorus (P) sensor, a sulfur (S) sensor, and a conduction sensor.

The monitoring and feedback unit adjusts the weir height or diameter to correspond to the flow rate flowing into the interception facility according to the weight of the influence on the river and conduit constituting the system of interception facilities for each location where the local monitoring and control unit are disposed. We can provide information on the renovation of the facility, including

The monitoring and feedback unit may provide information on adjustment of the weir height and adjustment of the diameter of the weir.

The monitoring and feedback unit may provide information on closure of an area where sewage does not occur in Cheongcheon.

The monitoring and feedback unit may provide installation information of a quantitative collection facility for a collection conduit that is determined to be difficult to control the amount of intercepted water.

According to the present invention, there is an effect of improving efficiency in the management of rivers and sewage because it is possible to directly collect and actively respond to the information of the collecting facility locally for a set area. In particular, since it is possible to centrally monitor and control the interception facilities, organic management of the total amount flowing into rivers and sewage treatment facilities can be achieved, contributing to the prevention of environmental pollution.

In addition, since the judgment on the pick-up operation can be made based on accurate grounds through simulation, it is possible to make an active and grounded judgment on the renovation, maintenance, or closure of the pick-up facility for each area, thereby enabling effective central management.

1 is an exemplary view of a sewage facility of the prior art.
2 is a configuration diagram of a monitoring system of a sewage pipe interception facility to which a rainfall runoff simulation according to the concept of the present invention is applied.
3 is a block diagram for explaining an embodiment of the local monitoring and control unit in the monitoring system of the sewage pipe interception facility to which the rainfall runoff simulation of the present invention is applied.
4 is a block diagram for explaining the operation of simulation and management by the local monitoring and control unit and the integrated management server in the monitoring system of the sewage pipe interception facility to which the rainfall runoff simulation according to the present invention is applied.

Hereinafter, with reference to the accompanying drawings, a monitoring system of a sewage pipe interception facility to which a rainfall runoff simulation of a preferred embodiment according to the present invention is applied will be described in detail.

However, the embodiments described below are merely for explaining in detail enough that a person of ordinary skill in the art to which the present invention pertains can easily implement the invention, which limits the protection scope of the present invention. doesn't mean

In the following description, when a part is 'connected' to another part, this includes not only a case in which it is directly connected, but also a case in which another element or device is interposed therebetween. In addition, when a part 'includes' a certain component, this means that other components may be further included, rather than excluding other components, unless otherwise stated.

The present invention can be embodied as computer-readable codes on a computer-readable recording medium, and the computer-readable recording medium includes all types of recording devices in which data readable by a computer system is stored. . Examples of the computer-readable recording medium include ROM, RAM, CD-ROM, magnetic tape, floppy disk, optical data storage device, flash memory, and the like.

The present invention basically includes a local monitoring and control unit that is installed for each area in which one or more car pickup facilities are installed and collects and transmits measurement data from a sensor, and receives the measurement data of the local monitoring and control unit through a network server, and receives and manages the area to be managed It is composed of an integrated management server that derives the control level of each interception facility based on topographical information, pipe network data, and rainfall data according to the location of the local monitoring and control unit, and determines the appropriateness of installation.

2 is a block diagram of a monitoring system of a sewage pipe interception facility to which a rainfall runoff simulation according to the concept of the present invention is applied.

The present invention provides a local monitoring and control unit 1000 that is connected through the integrated management server 2000 and the network server 3000 to input and output control signals by wire or wirelessly, wherein the local monitoring and control unit 1000 is wirelessly A module transmission/reception unit for performing communication is provided, and the module transmission/reception unit inputs and outputs one or more sensors or equipment constituting the pickup facility 100 and a sensing signal, an on/off signal, an operation control signal, and the like.

In the description of the present invention, various well-known configurations may be applied to the pickup facility 100 in the description of the present invention, and well-known technologies may be applied to the elements for the configuration of the pickup facility 100, such as wall wear, screen, orifice plate. The description will be omitted.

In addition, the local monitoring and control unit 1000 may include an input and/or output terminal connected to a module transceiver for performing wireless communication and an input and/or output terminal connected to each vehicle pickup facility 100 device, and additionally a field having a plurality of relays. It may be coupled to or connected to the device, and a related description will be provided later.

Here, various known configurations may be applied in relation to means for, for example, 485 communication that may be connected to the device in a wired manner. However, each of the control target components and the local monitoring and control unit 1000 may be connected by a wireless communication method described as an example of the present invention. In the present invention, when each local monitoring and control unit independently performs wireless communication with the integrated management server through a network server, a plurality of local monitoring and control units communicate with the local local monitoring and control unit, and local local monitoring and control unit It may include a case in which communication with the integrated management server as a regional unit, and a case in which a plurality of local monitoring and control units are connected to a physically spaced module transceiver by a 485 communication method.

The network server 3000 may be configured as a gateway for wireless connection with a plurality of local monitoring and control units 1000 . In the case of the gateway, it may be desirable to configure a memory map to have multiple IPs. Meanwhile, the network server 3000 may include a public or large-scale server and a base station constituting a network network.

In this case, the connection between the integrated management server 2000 and the network server 3000 may be made using a conventional wired/wireless Internet protocol, and various known connection methods may be applied. Such a network server 3000 may mean that it is operated by a communication company having a large-scale communication network.

The integrated management server 2000 may be a server, PC, or microprocessor that is basically connected to one or more local monitoring and control units 1000 to input and transmit control commands, and receive and manage inspection signals, etc., in a control room, etc. This includes the case of being connected to a master server that performs integrated processing by performing management in a specific building or area.

Wireless communication applied to the wireless network described in the present invention is a communication method provided by a mobile communication network including CDMA, WCDMA, HSDPA, GSM, Wibro, 3G, 4G, LTE, LTE CatM1, and the like, and Wi-Fi (Wireless Fidelity), Bluetooth, Infrared Data Association (IrDA), wireless LANN (IEEE 802.11), SWAP (Shared Wireless Access Protocol), WPAN (Wireless Personal Area network), Zigbee, LoRa, a low-power short-range communication Various methods such as a (Long Range) network may be applied.

Each collecting facility 100 may be installed in the rainwater pipe 20 to the merging pipe 10 leading to the river. It may be considered, and it will be possible to perform the function of so-called local monitoring and control that connects the set of pickup facilities 100 for the sub-region set in the integrated management server 2000 .

The local monitoring and control unit 1000 may individually collect water level measurement information and/or flow measurement information and determine in a local unit to directly control the operating components of the pickup facility 100, and an integrated management server ( 2000), it can also be integrated and managed in consideration of the flow of the entire monitoring target area.

To this end, the integrated management server 2000 may collect information on rainfall from the weather server 4100, collect data related to geographic information from the geographic information DB 4200, and perform simulations on water level and flow rate. have. In the following description, geographic information is understood to include information on the topography, data on the arrangement of pipe networks, and information about the environment, such as information on manholes and conduits.

These simulation predictions and maintenance of the pickup facilities will be described later.

Figure 3 is a block diagram for explaining an embodiment of the local monitoring and control unit in the monitoring system of the pick-up facility of the present invention.

The local monitoring and control unit 1000 includes a module transmitting/receiving unit 1110 having an antenna to be connected to a network server 3000 or a local network device by a wireless communication network, and a water level sensor 1010 and/or a flow rate sensor 1020. It may be composed of a management unit 1400 that receives the detection signal for the water level detection information and the flow rate detection information and determines the active control and transmission to the integrated management server 2000 . In addition, the signal from each sensor, for example, may further include a converter 1200 that can mutually convert a 485 communication signal and a signal of a wireless protocol.

The module transceiver 1110 may be configured to include a common chipset for wireless communication, and well-known elements may be applied to the chipset and antenna. However, the method of transmitting and receiving information through the wired line of the local monitoring and control unit 1000 and the integrated management server 2000 is not excluded.

The management unit 1400 functions to transmit or receive a control signal for each sensor 1010 and operating components to which an ID is assigned, and to function to transmit or receive, which is basically connected to one local monitoring and control unit 1000 For the plurality of sensors 1010 and 1020, the control command signal or verification signal from the integrated management server 2000 may function to be distinguished by ID and transmitted in the Modbus method.

In addition, it is preferable that the local monitoring and control unit 1000 includes a GPS 1120 for checking and managing a realistic positional relationship with respect to the sensors 1010 managed by each region. The signal from the GPS 1120 is also transmitted to the integrated management server 2000 through the module transmission/reception unit 1110 to be managed. Through this, it is possible to prevent loss, and information about the pickup facility 100 and running water can be matched with geographic information.

On the other hand, the local monitoring and control unit 1000 may be directly provided with the field device 1300 for connection to the plurality of sensors 1010 or operating components, or may be connected thereto.

As described above, the local monitoring and control unit 1000 may cover a sub-region set for the entire area to be monitored, and each vehicle pickup facility 100 or sensor or operation disposed in a specified area and connected by wire or wirelessly. By transmitting and receiving a relatively small amount of data with the components, the integrated management server 2000 enables integrated control. However, since at least one protocol conversion and gateway are required between the local monitoring and control unit 1000 and the integrated management server 2000, and a time delay occurs between wired and wireless signal transmission and reception, it is difficult to manage a plurality of locals. A virtualization device may be added in consideration.

In the description of the present invention, the water level sensor 1010 and the flow rate sensor 1020 are limited as main examples of the sensor, but other known sensors, for example, an oxygen saturation sensor, a temperature sensor, a turbidity sensor, a phosphorus (P) sensor , a sulfur (S) sensor, a conduction detection sensor, and the like.

The local monitoring and control unit 1000, each covering a predetermined area, transmits the sensed values to the integrated management server 2000 in real-time or cumulative manner to perform a predetermined simulation. In some cases, sensor abnormalities, Information on a predetermined area or a predetermined sensor may be omitted due to a communication error or a problem with power or control panel. Since it is impossible to immediately respond to the physical characteristics of remote areas when applying to large-scale industrial complexes or large residential complexes, a method to minimize the impact of simulation is required.

To this end, when a signal for each device to which a predetermined ID is assigned or an abnormality in information collection occurs in the local monitoring and control unit 1000 itself, information can be generated and transmitted according to the location, weight, or collection method, and the integrated management server ( 2000) may be able to generate the entire information on the area when communication with the local monitoring and control unit 1000 is disabled.

It is assumed that the entire amount of inflow of rainwater pipes already datad for devices placed in the section connected to the classification formula flows into the river, but the integrated management server (2000) ) can be transmitted. The determination of the dry season and rainfall may be based on information collected by the weather information collection unit. Of course, such information may be generated for each region assigned to each local monitoring and control unit 1000 in the integrated management server 2000 .

In addition, preset data from the sewage pipe may be applied to a confluence type or a device disposed in a section connected to the confluence type, and the information here is related to the margin ratio. However, in the event of rain, information is generated based on the amount of rainfall predicted by the meteorological information collection unit, the margin of the collecting facility, the degree of influence of storm water, and the degree of impact on the entire river.

As will be described later, according to the sensitivity determined by the monitoring and feedback unit 2200, the weight of the influence on the entire facility of the collecting facility or the rainwater pipe may be given and used for correction of information.

As will be described later, according to the downstream influence or the sensitivity determined by the monitoring and feedback unit 2200 determined by the collecting facility determination unit, the weight of the influence on the entire facility of the collecting facility or storm water pipe is given to be used for correction of information. can

Of course, the information may be generated for each region assigned to each local monitoring and control unit 1000 in the integrated management server 2000 .

4 is a block diagram for explaining the operation of simulation and management by the local monitoring and control unit and the integrated management server in the monitoring system of the pick-up facility according to the present invention.

In the concept of the present invention, the integrated management server 2000 collects information from the pick-up facility 100 distributed in each sub-region from the local monitoring and control unit 1000, and determines the appropriateness and maintenance of the facility through simulation simulation. to perform

As a well-known technology, SWMM (Storm Water Management Model), that is, surface and subsurface flows for runoff and pollutants caused by rainfall events within a given area, and tracing of runoff from the drainage network and calculation model of storage can be applied. And, the present invention proposes a more improved method in the integrated sewage management to apply this.

Referring to FIG. 2 , basically, each local monitoring and control unit 1000 acquires water level and flow rate information at the location of the pickup facility 100 and transmits the information to the integrated management server 2000 . In this case, a simulation is possible at a location relatively downstream of the pickup facility 100 , which will be described in detail.

As described above, each local monitoring and control unit 1000a, 1000b, 1000c... is connected to the integrated management server 2000 through a predetermined network and can be centrally managed. The integrated management server 2000 includes a transceiver 2120 that communicates with the local monitoring and control unit 1000 through a network network, and a sensing that converts water level information and flow rate information from the local monitoring and control unit 1000 into data. The information receiving unit 2130, the geographical information collecting unit 2111 for collecting geographic data such as terrain, pipe networks, conduits and manholes from the geographic information DB 4200, and the weather information collecting unit for collecting rainfall data from the weather server 4100 A unit 2112, a simulation unit 2100 that performs a simulation according to a reference model, preferably a SWMM model, through the geographic information data, weather information data, and sensing data, and displays the simulation result, It may be configured to include a monitoring and feedback unit 2200 that performs calibration on the model in preparation for the environment.

The monitoring and feedback unit 2200 may be connected to a predetermined input/output device, and may include, for example, an input and monitoring interface implemented in a display such as a smart phone, a tablet PC, a desktop PC, or a notebook computer.

The geographic information data collected from the geographic information DB 4200 may include a sewage pipe network map and a topographic map, manholes and conduit data, and the location of the actual interception facility 100 or local monitoring and control unit 1000 in geographic information. By matching, accurate environmental factors can be determined.

In addition, the meteorological information collected from the weather server 4100, in particular, information on the amount of rainfall may be allocated by region and time, and for this, the simulation unit 2100 may divide the monitoring and simulation target area.

The data of geographic information and meteorological information collected in this way enables simulation results to be derived together with the measured data, water level information and flow rate information, and the simulated results may be water flow simulation, rainfall application simulation, and water level simulation. Specifically, the appropriateness of the capacity at the location of each intercepting facility 100 and the effect on the downstream thereof may be determined, and the appropriateness of the processing capacity is determined by the intercepting facility determining unit 2220 .

In addition, based on the simulation result, the monitoring and feedback unit 2200 may analyze the sensitivity of the pickup facility for each location, and this may be used as grounded information for maintenance and improvement. Based on the conclusion drawn from the interception facility judging unit 2220, there may be a request for facility development according to the influence, quantity and sensitivity of each interception facility location, and according to these results, the overall effect of rivers and conduits constituting a predetermined system Renovation and maintenance of the facility can be made by reflecting it. These results are reflected to the user by the monitoring and feedback unit 2200 and again utilized for calibration of the model.

On the other hand, when a problem of information transmission occurs in the local device, a weight is given and corrected according to the influence determined by the interception facility determination unit 2220 from the value generated and transmitted by the local monitoring and control unit 1000, and then input as sensing data. Thus, a simulation can be derived. This is done separately for the classification formula and the merging formula. For example, in the case of the classification formula, based on the rainfall data collected by the meteorological information collection unit, the inflow is determined by substituting the entire rainfall for the average pollutant runoff, but the effect on the downstream It will be possible to assign weights by classifying from 1 to 100 and substitute it for the flow rate of the collecting facility. In the case of the confluence type, the average flow rate is determined, but the flow rate, concentration, and overflow flow are different depending on the rainy season and Cheongcheon time, or the dry season and the rainy season. In particular, the weight may be a sensitive factor to the time and amount of overflow because the overflow affects the downstream of the river.

In addition, the present invention further includes a spare rate verification unit 2210, and when it is determined that the spare rate is insufficient for the pick-up facility 100 determined to have a relatively major effect according to the quantitatively evaluated influence, or affects the sensitivity In the case of impact, the control water level should be changed and reflected in the design model.

The sensitivity of the pick-up facility determined by the monitoring and feedback unit 2200 may be used for local monitoring and correction of information generated by the control unit 1000 or the integrated management server 2000 as described above.

An embodiment of derivation of the improvement of the pick-up facility according to the determination result of the monitoring and feedback unit 2200 will be further described.

For example, based on the simulation result, the integrated management server 2000 may remotely control the overall inflow flow rate through each local monitoring and control unit 1000 .

In addition, if the weir height is defective, it can be adjusted, and if the water level is high, it is possible to adjust the weir and pipe diameter after repair review.

In addition, it is possible to propose closure of facilities that do not generate sewage in Cheongcheon.

In addition, in an environment where it is difficult to control the amount of collection by direct connection, it will be possible to review the installation of a quantitative collection facility.

The monitoring system of the interception facility according to the concept of the present invention improves efficiency in managing rivers and sewage because it can directly collect information about the interception facility locally for a set area and actively respond to it.

In addition, since it is possible to centrally monitor and control the interception facilities, organic management of the total amount flowing into rivers and sewage treatment facilities can be achieved, contributing to the prevention of environmental pollution.

In addition, since the judgment on the pick-up operation can be made based on accurate grounds through simulation, it is possible to make an active and grounded judgment on the renovation, maintenance, or closure of the pick-up facility for each area.

In the above, the present invention has been described in detail based on the embodiments and the accompanying drawings. However, the scope of the present invention is not limited by the above embodiments and drawings, and the scope of the present invention will be limited only by the contents described in the claims described below.

100...Car pick-up facility 1000...Local monitoring and control
1010...water level sensor 1020...flow sensor
1110...Module Transceiver 1120...GPS
1200...Converter 1300...Field device
1400...Management Department 2000...Integrated Management Server
2100...Simulation unit 2111...Geographic information collection unit
2112...Meteorological information collection unit 2120...Transceiver unit
2130...Sensing information receiving unit 2200...Monitoring and feedback unit
2210...Ratio verification unit 2220...Car pick-up facility judgment unit
3000...network server 4100...weather server
4200...Geographic information DB

Claims (9)

a local monitoring and control unit for collecting a detection value for water level and a detection value for flow rate from devices installed in one or more car pickup facilities;
A transceiver that communicates with a plurality of local monitoring and control units through a network network, a sensing information receiving unit that converts water level information and flow rate information from local monitoring and control at each location into sensing data, and topography, pipe network, A geographic information collection unit that collects geographic information data of conduits and manholes, a weather information collection unit that collects meteorological information data from a meteorological server, and a reference model through the geographic information data, meteorological information data, and sensing data. An integrated management server having a simulation unit to perform, and a monitoring and feedback unit that displays the simulation result and evaluates the capacity adequacy of the actual pick-up facility;
The local monitoring and control unit,
The detection result signal of each device is verified and transmitted to the integrated management server, but if there is an error in the reception of the detection value of the device placed in the section connected to the classification formula, the entire amount of inflow from the rainwater pipe is assumed to flow into the river. And information on the average inflow amount for a set period is generated and transmitted based on the judgment at the time of rain. Generate and transmit the inflow information of
The integrated management server,
In accordance with the simulation result, a vehicle collection facility determination unit is provided to determine the appropriateness of the capacity for each vehicle collection facility and the impact on the downstream, but in the values generated and transmitted from the local monitoring and control unit, the classification formula and the confluence formula are respectively downstream After correcting by assigning weights according to the degree of influence of A monitoring system for a sewage pipe interception facility that changes the control water level when it is determined that the margin ratio is insufficient.
According to claim 1,
The integrated management server,
A monitoring system of sewage pipe intercepting facilities that can control individual intercepting facilities in sub-regions through each local monitoring and control unit.
3. The method of claim 2,
The local monitoring and control unit,
A sewage pipe intercepting facility comprising: a module transmitting and receiving unit connected to a network server; 's monitoring system.
4. The method of claim 3,
The simulation unit,
Monitoring system of sewage pipe interception facility applying SWMM (Storm Water Management Model) as a reference model.
According to claim 1,
The device is
A monitoring system for a sewage pipe interception facility with at least one selected from a water level sensor, flow sensor, oxygen saturation sensor, temperature sensor, turbidity sensor, phosphorus (P) sensor, sulfur (S) sensor, and conduction sensor.
According to claim 1,
The monitoring and feedback unit,
Information on facility renovation including adjustment of weir height or pipe diameter to correspond to the flow rate flowing into the trap facility according to the weight of the impact on the total stream and conduit constituting the system of trap facilities for each location where local monitoring and control units are placed A monitoring system for the sewage pipe interception facility that provides
7. The method of claim 6,
The monitoring and feedback unit,
A monitoring system for a sewage pipe interception facility that provides information on adjustment of weir height and adjustment of pipe diameter.
7. The method of claim 6,
The monitoring and feedback unit,
A monitoring system of the sewage pipe interception facility that provides information on the closure of areas where sewage does not occur in Cheongcheon-si.
7. The method of claim 6,
The monitoring and feedback unit,
A monitoring system for a sewer pipe interception facility that provides information on the installation of a quantitative interception facility for intercept conduits judged to be difficult to control the intercepted water quantity.

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