KR20180061550A - Enery saving system for marine­nursery facilities based on Internet of Things(IoT) - Google Patents

Abstract

The present invention relates to a power control system for a seawater pump of an IoT-based land cultivation plant. The power control system comprises: a cultivation plant environment apparatus; a seawater tank; a liquefied oxygen supply apparatus; a user terminal; and a power control server. By predicting the power consumption of a specific section and automatically generating an optimal control schedule of a pump according to a required amount of power saving, energy can be saved.

Description

TECHNICAL FIELD [0001] The present invention relates to an IoT-based seawater pump power control system for a marine aquaculture system,

The present invention relates to an IoT-based sea water pump power control system for a terrestrial aquaculture system, and more particularly, to a system for collecting the temperature, surface temperature, wind direction, IoT-based athletic form that can save energy by automatically generating a pump optimal control schedule according to the power saving requirement by predicting the power consumption of a specific section through the power consumption of the farm which is currently being used through the remote inverter control by collecting in real time And more particularly, to a seawater pump power control system.

In addition, the present invention can automatically control the driving pumps in a farm and remotely monitor farm growth environment information to monitor settlement reporting and automatic generation of the power resource usage history, usable period, and power consumption pattern for each farm The present invention relates to an IoT-based seawater pump power control system capable of inducing efficient use of electric power through an electric power plant.

The aquaculture farm supplies 24 hours of sea water per day to the seawater supply system. In the case of regular farming, the 250-horsepower 6-pumping system supplies 80% of the water consumption of the farm.

In general, 20 ~ 60 tanks in the aquaculture are in constant control, and automation countermeasures for emergencies are inadequate, resulting in lower efficiency and cost of production due to manual manpower management.

Currently, there are 340 onshore farms in Jeju, and the onshore farm is a typical power consumption facility. Electricity costs account for about 60% of the management cost of the farm, and the electricity used for the amphibian is 69.9% ~ 85.2% The average electricity cost is around 13 million won per month based on 1,500 pyeong scale farms, so electricity is being consumed considering that the electricity cost of the farm is classified as agricultural use and it is very cheap.

More specifically, an average of 4 to 6 pump facilities are operating 24 hours a day in the farm, and about 69.9% ~ 85.2% of the farm power consumption is consumed by the pump. There is a difference in the rotational strength of the pump motor that is required, and in particular, in order to raise the seawater at low altitude, the motor rotation is required to be stronger than usual.

In addition, each farm has a storage tank capable of storing seawater, so that the pump can not operate, and a device for supplying seawater to the tank for 30 minutes is provided. The motor strength of the farm pump is set based on the low- The seawater recirculation rate of the aquaculture tank by the facility is 18-24 days and there is no way to control the pump according to the tide interval tide. Waste is serious.

In order to save energy, the demand reaction market has been using passive DR through wire, and it has to be transformed into intelligent DR through SW convergence in the field, and the intelligent DR platform by building success model of intelligent DR through SW convergence It is necessary to apply industrial expansion.

Accordingly, the present invention provides an optimum growth environment by linking environmental information and equipment to the cost of manual operation and management in the aquaculture farm, and provides IT environment through the provision of an immediate response system such as a smart phone and a PC And suggest a plan for strengthening competitiveness of the farm.

[Related Technical Literature]

1. Multi-Function Air Compressor Energy Saving System of Screw Compressor (Patent Registration No. 10-1468623)

In order to solve the above problems, the present invention collects the temperature, surface temperature, wind direction, tidal water tidal information, etc., and collects the status information of the seawater pump by predicting the seawater temperature by the base point. The present invention provides an IoT-based sea water pump power control system capable of reducing energy by automatically generating a pump optimum control schedule according to a power saving requirement by predicting power consumption of a specific section through power consumption of a farm in operation .

In addition, the present invention can automatically control a driving pump in the farm from a remote location using a smartphone or a PC and monitor the farm growth environment information to monitor the performance history of the power resource usage history, usable period, and power consumption pattern of each farm The present invention relates to an IoT-based seawater pump power control system capable of inducing efficient use of electric power through reporting and automatic generation of settlement data through an on-

However, the objects of the present invention are not limited to the above-mentioned objects, and other objects not mentioned can be clearly understood by those skilled in the art from the following description.

In order to achieve the above object, the IoT-based seawater pump power control system for a terrestrial aquaculture system according to an embodiment of the present invention is a system for controlling the growth environment and growth information in a farm, a liquefied oxygen supply device (IoT) of the user terminal so as to maintain constant sea water in the aquaculture tank by the capacity of the low water level by receiving oxygen, Aquaculture environment device for controlling water rotation rate through pump operation rate and inverter control for driving; A seawater tank for supplying seawater to the water tank in the aquaculture environment apparatus in a constant water level at a low water level in accordance with the operation of the sea water pump and for supplying the sea water to the water tank for 30 minutes when the drive pump is not operated; A liquefied oxygen supplying device for supplying oxygen to the oxygen valve by driving the oxygen valve through the control node to supply liquefied oxygen according to the water quality and the DO in the farm according to the signal input through the object communication IoT of the user terminal; It is possible to supply seawater to the seawater tank through the driving pump so that the seawater can be maintained in the aquaculture tank with the capacity of the low water level in the farm environment device through the mobile application by driving the dedicated application, A user terminal for remotely operating a liquefied oxygen supply device to supply liquefied oxygen to the farm to reduce power; And estimating the maximum amount of reduction possible considering history management, external weather and water temperature according to the demand resources of the farm environment apparatus, generating a pump optimal control schedule according to the reduction amount, and managing the farm through the management of demand response resources and settlement And a power control server for providing a solution.

At this time, the aquaculture environment device of the sea water pump power control system based on IoT according to the embodiment of the present invention collects big data of the farm environment device for the control of the sea water pump power, , Sensing of minimum power usage scheduling and real-time power usage, monitoring of water tank growth information to provide monitoring information according to pump scheduling, measurement of water quality environment, liquefaction oxygen control, aquaculture tank manager for measuring the level of seawater tank, A seawater pump for measuring the level of a seawater tank to measure the level of the seawater tank in order to supply power according to the time of high tide according to the difference of the star tide tide and performing the pumping through the drive pump by detecting the low water level, If the liquefied oxygen titration level in the farm is exceeded, A liquefied oxygen controller that is controlled remotely via IoT communication in either dynamic or manual mode and is controlled from the web to the system remotely via a control node device to the liquefied oxygen supply, driven by an inverter connected to a drive pump for driving the seawater tank Receives the pump drive command and transmits the result of the pump drive command and controls the operation of the seawater tank according to the IoT remote control signal of the user terminal or the operator of the power control server through the PLC communication, A pump controller for transmitting information in accordance with information management of energy amount and use information and event management and displaying status information on farm conditions according to the driving of the pump controller or displaying status information for farm growth management, Pump indicating the state of aquaculture tank, including the current power status of the farm in response to the pump operation Characterized by further comprising: monitoring call.

Further, in the sea water pump power control system based on IoT based on the IoT according to the embodiment of the present invention, the aquarium control system of the aquarium is capable of collecting big data of the aquaculture environment device and controlling the power based on the collected data A control unit for controlling various operations of the aquarium tank management unit to provide monitoring information according to capacity analysis, minimum power use scheduling, sensing of real time power consumption, and pump scheduling; Data collection and data collection of meteorological data by temperature, surface temperature, wind direction, wind speed, and survey tidal data, prediction of seawater temperature by basin, influence on aquaculture by changing temperature, big data of optimum growth environment threshold Based on the big data collected by the data collection unit, It is possible to analyze the power saving capacity by controlling the power saving capacity of one electric power, the DO consumption by the stability of aquatic organisms, the capacity of the seawater tank and the water area, the power saving capacity by controlling the oxygen and the flow rate, , The analysis of the sequential control procedures for reducing the total power consumption of the seawater pump, the correlation between the power usage and the growth environment of the equipment, the power usage information of the equipment of the aquarium, the liquefied oxygen controller, and the pump controller A sensing unit for sensing real-time power usage for scheduling and controlling power usage for maintaining optimal growth environment, and a pump operation rate and inverter for remote control based on IoT by receiving input signals from a user terminal and a power control server Analysis of the correlation of the number of cycles according to the control, and appropriate control status monitoring information according to the pump scheduling And a driving unit for driving the driving unit.

The IoT-based seawater pump power control system based on IoT according to the embodiment of the present invention uses power of the high-speed time driving pump and the water level of the seawater tank using the difference of the tide interval of the ocean, It is possible to reduce energy by adjusting the growth environment through automatic control of oxygen, thereby saving energy by considering internal / external environmental factors.

In addition, according to another embodiment of the present invention, the IoT-based seawater pump power control system collects the temperature, surface temperature, wind direction, tidal tidal information, and the state information of the seawater pump It provides the effect of saving energy by automatically generating a pump optimal control schedule according to the power saving requirement by predicting the power consumption of a specific section through the power consumption of the farms currently being used through the remote inverter control by real-time collection.

Further, according to another embodiment of the present invention, the IoT-based seawater pump power control system for aquaculture system for aquaculture uses a smartphone and a PC to automatically control a driving pump in a remote farm, monitor the fish farm environment information, It provides the effect of inducing efficient use of power through reporting and automatic generation of settlement report through execution history management of resource usage history, usable period, and power consumption pattern.

Further, the IoT-based seawater pump power control system according to another embodiment of the present invention grasps the seawater tank capacity, the water area, the unit water tank area, the water height of the growing water tank, By selectively controlling the pump operation rate and inverter control according to the sea water temperature and tide tidal range to control the water level of the sea water pump of the aquacultural farm in the tidal flats, Can be reduced.

In addition, according to another embodiment of the present invention, the IoT-based seawater pump power control system for aquaculture system for aquaculture uses the best environment for growth, smart phone, PC, By integrating the IT technology of aquaculture farms, it is possible to reduce the cost of manual farm management, thereby providing the operation of farm management based on competitiveness.

1 is a block diagram of a sea water pump power control system for an onshore aquaculture system based on IoT according to the present invention.
2 is a block diagram showing a detailed configuration of a farm environment apparatus of a sea water pump power control system based on IoT in Fig. 1
3 is a block diagram showing the detailed configuration of a culture tank management device in a farm environment device of a sea water pump power control system based on IoT of the present invention
4 is a block diagram showing the detailed configuration of the pump controller in the aquaculture environment apparatus of the sea water pump power control system for onshore aquaculture using the IoT of the present invention shown in Fig.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a detailed description of preferred embodiments of the present invention will be given with reference to the accompanying drawings. In the following description of the present invention, detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

In the present specification, when any one element 'transmits' data or a signal to another element, the element can transmit the data or signal directly to the other element, and the at least one other element Data or signal can be transmitted to another component.

FIG. 1 shows a configuration diagram of a sea water pump power control system based on IoT according to the present invention. 1, the IoT based seawater pump power control system according to the present invention will be described in detail. The IoT-based seawater pump power control system according to the present invention includes a farm environment device 100, A liquefied oxygen supply device 300, a user terminal 400, a communication network 500,

The aquaculture environment device 100 receives liquefaction oxygen through the liquefied oxygen supply device 300 necessary for the management of growth environment and growth information in a farm, In order to drive the seawater tank 200 in accordance with the sea water temperature and tide tidal range input through the IoT of the user terminal 400 so that the constant sea water is maintained in the aquarium water tank by the capacity of the low water level, Thereby reducing power consumption.

The aquaculture environment apparatus 100 calculates the required oxygen amount in the water tank based on the aquaculture environment data, controls the oxygen supply amount for proper oxygen supply in the water tank by controlling the liquefied oxygen nozzle, classifies the available or non-available pump, Controls the pump inverter according to schedule or reduction command.

The seawater tank 200 supplies seawater to the water tank in the aquaculture system 100 constantly at the low water level of the tank in accordance with the operation of the sea water pump, Based on IoT.

The liquefied oxygen supplying apparatus 300 drives the oxygen valve in the web through the control node to supply the liquefied oxygen according to the water quality and the DO in the farm according to the signal inputted through the IoT of the user terminal 600, In the automatic mode, the oxygen valve operates according to the basic setting value. In the manual mode, the user operates the oxygen valve by inputting the desired DO value. When the mode is the manual mode, a setting switch for controlling the DO setting value is provided , And the oxygen valve is manually switched according to the IoT remote external input signal of the user terminal 400 to be set and operated.

Meanwhile, the liquefied oxygen supplying apparatus 300 sets and manages a proper resin of the liquefied oxygen of the aquaculture environment apparatus 100, sets an automatic or manual operating mode, sets control equipment provided in a farm, It retrieves the status information of the control device, inquires the operation status information of the control device, and transmits the real time data when necessary, and inquires about integrated operation information and sensor data.

The user terminal 400 may drive a dedicated application to supply the seawater of the seawater tank 200 through the driving pump to maintain constant seawater in the aquarium with the capacity of the low water level in the aquarium environment device 100 through the mobile application , And when the liquefied oxygen supply is required, the liquefied oxygen supply device (300) is driven remotely through the IoT to supply liquefied oxygen to the farm to reduce power.

The user terminal 400 sets and manages the proper resin of the liquefaction oxygen of the farm environment device 100 by the liquefied oxygen supply device 200 through the object communication (IoT), and sets an automatic or manual operation mode , Inquiry of the status information of the control equipment set up in the farm, operation status information of the control equipment, inquiry information of the control equipment, and notification function.

The communication network 500 is connected to the farm environment device 100, the seawater tank 200, the liquefied oxygen supply device 300, the user terminal 400, and the power control server 600, To provide a communication network.

The communication network 500 may be a next-generation wired and wireless network for providing Internet or high-speed multimedia service, which is a high-speed period network of a large communication network capable of large-capacity, long-distance voice and data services. When the communication network 500 is a mobile communication network, it may be a synchronous mobile communication network or an asynchronous mobile communication network. As an embodiment of the asynchronous mobile communication network, a WCDMA (Wideband Code Division Multiple Access) communication network is exemplified. In this case, although not shown in the drawing, the communication network 300 may include an RNC (Radio Network Controller). Meanwhile, although the WCDMA network is exemplified, it may be a next generation communication network such as a 3G LTE network or a 4G network, or an IP network based on other IP. The communication network 500 communicates signals and data between the farm environment device 100, the seawater tank 200, the liquefied oxygen supply device 300, the user terminal 400 and the power control server 600, .

The power control server (600) It is possible to predict the maximum amount of savings in consideration of the history management according to the demand resources of the farm environment apparatus 100, the external weather and the water temperature, generate the pump optimum control schedule according to the reduction amount, Solutions.

That is, the power management server 600 stores the status of the liquefied oxygen and the sea water supplied from the farm in cooperation with the aquaculture environment device 100 and the communication network 500, or when the liquefied oxygen supply is required, The liquefied oxygen is supplied through the pump 300 or the seawater of the seawater tank 200 is supplied through the drive pump to maintain the seawater of the aquaculture tank, thereby managing the information to save power.

FIG. 2 is a block diagram showing a detailed configuration of a farm environment device of the sea-floor cultivation marine aquaculture power control system based on IoT in FIG. 1. The farm environment device 100 according to the present invention mainly includes a culture water tank manager 110 A seawater pump 120, a liquefied oxygen controller 130, a pump controller 140, and a pump monitoring unit 15.

1 and 2, the aquarium management device 110 manages and controls the aquarium environment device 100 in order to control the seawater pump power, , Power saving capacity analysis based on the collected data, minimum power use scheduling and sensing of real time power consumption, monitoring of water tank growth information to provide monitoring information according to pump scheduling, water quality measurement, liquefaction oxygen control, .

In order to reduce power, the seawater pump 120 measures the level of the seawater tank 200 in order to supply power according to the duration of the high tide according to the difference between tides of each farm, .

The liquefied oxygen controller 130 operates the oxygen valve of the liquefied oxygen to supply the liquefied oxygen in the aquaculture environment device 100 to the farm, Or an operator of the power control server 600 may be remotely controlled by the object communication IoT through the communication network 500. [

That is, the liquefied oxygen controller 130 sets and changes the appropriate value of the liquefied oxygen in the farm of the farm environment apparatus 100, and when the liquefied oxygen proper value range in the farm is exceeded, it is remotely controlled through the IoT communication in the automatic or manual mode And the remote control object is controlled from the web to the system via the control node device for the liquefied oxygen supply.

The pump controller 140 receives the drive pump drive command transmission and execution result through the inverter connected to the drive pump for driving the seawater tank 200 and receives the drive pump drive command and transmits the drive pump drive command to the user terminal 400 or the power control server 600 through the PLC communication. And controls the operation of the seawater tank 200 in accordance with the IoT remote control signal of the operator of the control unit 200. The control unit 200 transmits the result of the operation according to driving of the driving pump,

The pump monitoring unit 150 displays the farm condition information according to the driving of the pump controller 140 or displays status information for the farm growth management and displays the current power condition To indicate the state of the aquaculture tank.

FIG. 3 is a block diagram showing the detailed configuration of the aquarium tank manager 110 in the aquaculture environment apparatus 10 of the IoT-based aquaculture system power system for aquaculture system for aquaculture, A control unit 111, a data collecting unit 113, an analyzing unit 115, a sensing unit 117, and a driving unit 119.

The control unit 111 may be configured to collect large data of the aquaculture environment device 100 for controlling the power of the seawater pump 100, to perform power saving capacity analysis based on collected data, to perform minimum power use scheduling and real time power usage sensing, And controls various operations of the aquarium tank manager 110 to provide monitoring information.

The data collecting unit 113 collects information on the temperature, surface temperature, wind direction, wind speed, and irradiation time of the aquaculture tank in the aquaculture environment unit according to the control signal of the controller 111 and performs metadata design and data collection, Prediction, impact on aquaculture organisms with changes in water temperature, and big data of optimum growth environment threshold for aquaculture biomass.

The analysis unit 115 responds to the control signal of the control unit 111 to calculate the natural savings capacity of the electric power based on the tidal volume based on the big data collected by the data collection unit 113, Sequential control for seawater pump control scheduling according to seawater temperature and tide interval time difference, and total power saving by different power saving capacity, oxygen and flow rate control by consumption, seawater tank capacity and water area, The procedure will be analyzed.

The sensing unit 117 responds to the control signal of the control unit 111 and determines the power usage information of each of the aquarium tank management unit 110, the liquefied oxygen controller 130 and the pump controller 140, Real-time power consumption for the minimum power usage scheduling and control to analyze the correlation with the environment and to maintain the optimal growth environment.

The driving unit 119 receives the input signals of the user terminal 400 and the power control server 600 according to the control signal of the controller 111 and controls the operation ratio of the pump for remote control based on IoT, Correlation analysis, and appropriate control status monitoring information according to pump scheduling.

FIG. 4 is a block diagram showing a detailed configuration of a pump controller 140 in a farm environment apparatus 10 of a sea water pump power control system for onshore farming based on the IoT of the present invention shown in FIG. 2, wherein the pump controller 140 A PLC communication unit 141, an interlocking unit 143, and a transmission / reception unit 145.

The PLC communication unit 141 transmits a drive pump drive command through an inverter connected to the drive pump for driving the seawater tank 200 according to the IoT remote control signal of the user terminal 400 or the operator of the power control server 600, And the power supply and power source are controlled by receiving the execution result, and the interlocking unit 143 is physically interfaced with the drive pump for driving the drive communication of the PLC communication unit 141 and receiving the result of the operation, The control unit 145 receives the IoT remote control signal of the user terminal 400 or the operator of the power control server 600 and transmits a signal for driving the driving pump interposed through the interlocking unit 143, Transmits the result of the operation in accordance with the driving, and controls the information on the amount of the pump power, the usage information, and the event management information.

As described above, preferred embodiments of the present invention have been disclosed in the present specification and drawings, and although specific terms have been used, they have been used only in a general sense to easily describe the technical contents of the present invention and to facilitate understanding of the invention , And are not intended to limit the scope of the present invention. It is to be understood by those skilled in the art that other modifications based on the technical idea of the present invention are possible in addition to the embodiments disclosed herein.

100: Aquaculture environment device
110: Aquaculture tank manager
111: control unit 113: data collecting unit
115: Analysis unit 117:
119:
120: drive pump 130: liquefied oxygen controller
140: Pump controller
141: PLC communication unit 143:
145: Transmitting /
150: pump monitoring section
200: Seawater tank
300: liquefied oxygen supply device
400: User terminal
500: Network
600: power control server

Claims (6)

Based on the web, the liquefaction oxygen is supplied through the liquefaction oxygen supply device 300 necessary for the growth environment and the growth information management in the farm, the condition information according to the environment in the farm, A control system for controlling the water rotation speed through pump operation rate and inverter control for driving the seawater tank 200 in accordance with the sea water temperature and tidal water trough input through the object communication (IoT) of the user terminal 400 so that a constant sea water is maintained, (100);
A seawater tank 200 for supplying seawater to the water tank in the aquaculture system 100 at a low water level of the tide level in accordance with the driving of the seawater pump and supplying the seawater to the water tank for 30 minutes when the drive pump is not operated, );
A liquefied oxygen supply device for driving the oxygen valve in the web through the control node so as to supply the liquefied oxygen according to the water quality and the DO in accordance with the signal inputted through the object communication (IoT) of the user terminal 400, Device 300;
The dedicated application is driven to supply the seawater of the seawater tank 200 through the drive pump so that a certain amount of seawater is maintained in the aquarium with the capacity of the low water level in the aquarium environment device 100 through the mobile application, A user terminal 400 for driving the liquefied oxygen supply device 300 remotely through the object communication IoT to supply liquefied oxygen to a farm to reduce electric power; And
Estimating the maximum amount of savings in consideration of the history management according to the demand resources of the farm environment apparatus 100, the external weather and the water temperature, generating the pump optimal control schedule according to the reduction amount, And a power control server (600) for providing a solution for a sea water pump based on IoT.
The method according to claim 1,
The aquaculture environment apparatus 100 calculates the required oxygen amount in the water tank based on the aquaculture environment data, controls the oxygen supply amount for proper oxygen supply in the water tank by controlling the liquefied oxygen nozzle, classifies the available or non-available pump, Controls the pump inverter according to a schedule or a reduction command,
The liquefied oxygen supply device 300 sets and manages the appropriate resin of liquefied oxygen in the aquaculture environment device 100, sets an automatic or manual operation mode, And transmits the real-time data when the control device operation state information inquiry and notification function is required, and inquires the integrated operation information and sensor data, and the IoT-based seawater pump power control system based on the IoT.
The method according to claim 1,
The user terminal 400 sets and manages the proper resin of the liquefaction oxygen of the farm environment device 100 by the liquefied oxygen supply device 200 through the object communication (IoT), and sets an automatic or manual operation mode And information of the control equipment setup and operation information on the farm, inquiry of the operation status information of the control equipment, and notification function,
The power management server 600 stores the status of liquefied oxygen and sea water supplied from a farm in cooperation with the aquaculture environment device 100 and the communication network 500 or stores the status information of the liquefied coral supply device 300 And the sea water of the seawater tank 200 is supplied through the drive pump to maintain the seawater of the aquaculture tank, so that the power is reduced. The IoT-based seawater pump power Control system.
The method according to claim 1,
The farm environment device (100)
For the control of seawater pump, large data collection of farm environment equipment, power saving capacity analysis based on the collected data, sensing of minimum power use and sensing of real time power usage, monitoring information by pump scheduling, Monitoring, water quality measurement, liquefied oxygen control, aquaculture tank manager (110) for measuring seawater tank water level,
A seawater pump 120 for measuring the level of the seawater tank 200 to measure the level of the low water level and supplying the power through the drive pump, ,
It is possible to set and change the proper value of liquefied oxygen in the farm of the farm environment device (100). It is controlled remotely by IoT communication in automatic or manual mode when liquefied oxygen titration value in the farm is exceeded, and remote control of liquefied oxygen supply A liquefied oxygen controller 130 for controlling from the web to the system via the node device,
The IoT remote control signal of the operator of the user terminal 400 or the power control server 600 through the PLC communication is received through the drive pump drive command transmission and execution result through the inverter connected to the drive pump for driving the seawater tank 200, A pump controller 140 for controlling the operation of the seawater tank 200 according to the operation of the pump, transmitting the result of the operation according to the drive of the drive pump, transmitting information according to the amount of the pump power,
Displays status information for farm growth management, displays the state of the farm water tank including the current power state of the farm in accordance with the driving pump state and the driving pump operation, And a pump monitoring unit (150) for monitoring the power of the seawater pump.
5. The method of claim 4,
The aquarium tank manager 110
To provide large data collection of the farm environment device 100 for the control of the sea water pump, power saving capacity analysis based on collected data, minimum power use scheduling, real time power usage sensing, and monitoring information according to pump scheduling A controller 111 for controlling various operations of the aquarium tank manager 110,
According to the control signal of the control unit 111, the data on the temperature, surface temperature, wind direction, wind speed, and irradiation time of the aquaculture water tank in the aquaculture environment apparatus are collected and meta data design and data collection, , A data collection unit 113 for collecting big data of an optimum growth environment threshold for each aquaculture biomass,
Based on the big data collected by the data collecting unit 113, it is possible to estimate the natural savings capacity of power by the tide interval alone, the DO consumption amount according to the stabilization of a living creature, the power saving capacity other than the seawater tank capacity and the water area, An analysis unit 115 for analyzing the power saving capacity through the control, the sequential control procedure for the seawater pump control scheduling according to the time difference between the seawater temperature and the tide interval, and the maximum total power reduction,
The power consumption information of each of the devices of the aquarium tank 110, the liquefied oxygen controller 130, and the pump controller 140, the correlation between the power consumption and the growth environment of each device, the minimum power usage scheduling And a sensing unit 117 for sensing real-time power consumption for control,
The input terminal of the user terminal 400 and the power control server 600 receives the pump operation rate for remote control based on the IoT, the correlation analysis of the water number according to the inverter control, and the appropriate control state monitoring information according to the pump scheduling And a driving unit (119) for controlling the power of the sea water pump.
5. The method of claim 4,
The pump controller (140)
The control unit 500 receives the drive pump drive command and the result of the drive pump drive command through the inverter connected to the drive pump for driving the seawater tank 200 according to the IoT remote control signal of the user terminal 400 or the operator of the power control server 600, A PLC communication unit 141 for controlling power supply,
An interlocking unit 143 that physically interfaces with the drive pump for driving the driving pump of the PLC communication unit 141 and receiving the result of the driving pump operation,
The IOT remote control signal of the user terminal 400 or the operator of the power control server 600 and transmits a signal for driving the driving pump interposed through the interlocking unit 143, And a transmission / reception unit (145) for transmitting the information related to the management of the information on the amount of the pump power, the usage information, and the event management, and the IoT-based seawater pump power control system based on the IoT.

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