Marine infrastructure convergence system and method for reducing damage to marine aquaculture farm

Abstract

A marine infrastructure convergence system according to an embodiment of the present invention is connected to a plurality of aquaculture farm facilities, a plurality of power generation apparatuses, and a water electrolysis apparatus via a network, and may comprise: an aquaculture farm information unit for storing aquaculture farm information for each of the aquaculture farm facilities; a power generation information unit for generating and storing power generation information according to each operation of the power generation apparatuses; a water electrolysis information unit for generating and storing generation information according to the operation of the water electrolysis apparatus; and a management control unit for controlling the aquaculture farm facilities, the power generation apparatuses, and the water electrolysis apparatus according to the aquaculture farm information.

Description

Marine infrastructure integration system and method for reducing damage to marine aquaculture farms

[0001] The present invention relates to an infrastructure fusion system and method, and more particularly, to a marine infrastructure fusion system and method capable of appropriately managing oxygen required by a marine aquaculture farm and appropriately operating the facilities of the marine aquaculture farm in response to the conditions of the marine aquaculture farm (e.g., water quality, weather conditions, etc.), thereby reducing damage to the marine aquaculture farm.

[0002] Interest in renewable energy has been growing recently. One of the most successful renewable energy sources is wind power. Wind power is a method of generating electricity by converting the kinetic energy of the wind (i.e., wind energy) into mechanical energy through windmills, which then operate generators to generate electricity. This type of wind power is installed in areas with strong winds, with onshore wind farms built on high mountains and offshore wind farms located offshore or in the sea.

[0003] In particular, offshore wind farms are built by densely installing multiple wind turbines on shore or in the sea. Unlike power generation methods that utilize fuels like crude oil, natural gas, coal, and uranium, they do not emit environmental pollutants such as carbon dioxide or radioactive waste. Investments in these offshore wind farms are occurring around the world. In South Korea, due to its relatively small land area, there is considerable interest in offshore wind farms, which can generate electricity by installing wind turbines on shore or in the sea.

[0004] Furthermore, offshore wind farms are not limited to power generation. For example, offshore aquaculture farms are installed in the sea space between the wind turbines of offshore wind farms. These aquaculture farms cultivate a variety of aquatic products, such as seaweed, shellfish, and fish, and take different forms depending on the type of aquatic product being farmed.

[0005] Meanwhile, offshore aquaculture farms can experience varying conditions, influenced by factors such as the terrain, water temperature, and weather conditions of the area where they are located, and can even be at risk of fish mortality. Therefore, appropriate measures must be taken to prevent fish mortality based on the conditions of the offshore aquaculture farm. To operate an offshore aquaculture farm, electricity must be supplied to the facility, and the facility can be operated to supply oxygen to the farm.

[0006] However, since the power generated by offshore wind farms is intermittent, it must be stored in energy storage devices to supply the equipment at offshore aquaculture farms and supplied to the farms when needed. This necessitates the need for energy storage devices, and their construction costs are also quite high.

[0007] The technical problem to be solved by the marine infrastructure fusion system and method according to the technical idea of ​​the present invention is to provide a marine infrastructure fusion system and method that can easily supply oxygen to marine aquaculture farms in response to the conditions of the marine aquaculture farms.

[0008] In addition, the technical task to be achieved by the maritime infrastructure fusion system and method according to the technical idea of ​​the present invention is to provide a maritime infrastructure fusion system and method that enable stable management of maritime aquaculture farms without an energy storage device for storing power produced from a power generation device.

[0009] In addition, the technical task to be achieved by the maritime infrastructure fusion system and method according to the technical idea of ​​the present invention is to provide a maritime infrastructure fusion system and method that can reduce greenhouse gases while stably cultivating marine products in maritime aquaculture farms.

[0010] The technical tasks to be achieved by the maritime infrastructure fusion system and method according to the technical idea of ​​the present invention are not limited to the tasks mentioned above, and other tasks not mentioned will be clearly understood by those skilled in the art from the description below.

[0011] According to one embodiment of the technical idea of ​​the present invention, a marine infrastructure convergence system is characterized in that it is a marine infrastructure convergence system that is connected to a plurality of aquaculture facilities, a plurality of power generation devices, and a water electrolysis device through a network, and includes: an aquaculture information unit that stores aquaculture information for each of the aquaculture facilities; a power generation information unit that generates and stores power generation information according to the operation of each power generation device; a water electrolysis information unit that generates and stores generation information according to the operation of the water electrolysis device; and a management control unit that controls the aquaculture facilities, the power generation device, and the water electrolysis device according to the aquaculture information.

[0012] In addition, each aquaculture facility includes a aquaculture body, at least one aquaculture sensor, a aquaculture air curtain, and an emergency oxygen supply, and a power generation device is connected to the aquaculture air curtain and the water electrolysis device to supply power, the aquaculture air curtain is operated, and the water electrolysis device electrolyzes seawater to produce hydrogen and oxygen, and the hydrogen is stored in a hydrogen tank, a portion of the oxygen is supplied to the aquaculture body, and the remaining portion of the oxygen can be stored in the oxygen tank.

[0013] In addition, the aquaculture farm information includes the location of the aquaculture farm body, the specifications of the aquaculture farm body, the type of the aquaculture farm body, the number of aquaculture farm sensors, the specifications of the aquaculture farm air curtain, the specifications of the emergency oxygen supply device, target water quality information, and abnormal water quality information. The type of the aquaculture farm body varies depending on the type of aquatic product to be farmed, and the number of aquaculture farm sensors, the specifications of the aquaculture farm air curtain, and the specifications of the emergency oxygen supply device are calculated depending on the specifications of the aquaculture farm body and the type of the aquaculture farm body. The power generation information includes the location of the power generation device, the power generation time zone, the amount of power generation per power generation time zone, and the weather information per power generation time zone, and the generated information may include the amount of hydrogen stored per unit time, the total amount of hydrogen stored, the amount of oxygen supplied per unit time, the amount of oxygen stored per unit time, and the total amount of oxygen stored.

[0014] In addition, the fish farm sensor detects the water quality of the fish farm body to generate detected water quality information and transmits the detected water quality information to the fish farm information unit, and when the detected water quality information corresponds to abnormal water quality information, the management control unit calculates an oxygen supplement amount that allows the detected water quality information to reach target water quality information from the abnormal water quality information, and when an oxygen supplement amount less than the total amount of oxygen stored is calculated, the management control unit controls the water electrolysis device to supply oxygen from the oxygen tank to the fish farm body, and when an oxygen supplement amount greater than the total amount of oxygen stored is calculated, the management control unit controls the water electrolysis device to supply oxygen from the oxygen tank to the fish farm body, and supplies power from the power generation device to an emergency oxygen supplier, thereby operating the emergency oxygen supplier to supply oxygen from the emergency oxygen supplier to the fish farm body.

[0015] Additionally, when the detected water quality information corresponds to the target water quality information, the management control unit can control the water electrolysis device to reduce the oxygen supply per unit time and increase the oxygen storage per unit time.

[0016] Additionally, the management control unit can generate and store abnormal water quality information when the oxygen storage amount is less than the oxygen replenishment amount, and abnormal condition information including weather information and water quality influence factors corresponding to the abnormal water quality information.

[0017] In addition, the aquaculture farm information unit stores the detected water quality information by time zone, and the management control unit analyzes the detected water quality information from a predetermined period of time prior to the time zone of the detected water quality information corresponding to the abnormal water quality information, and generates predicted water quality information according to the water quality status for a predetermined period of time, and when the detected water quality information corresponds to the predicted water quality information, the management control unit controls the water electrolysis device to reduce the amount of oxygen supplied per unit time and increase the amount of oxygen stored per unit time.

[0018] Additionally, when the detected water quality information changes such that the water quality deteriorates within a set period of time, or does not change such that the water quality improves beyond the set period of time, the management control unit can calculate the amount of oxygen supplementation.

[0019] In addition, a method for integrating marine infrastructure according to an embodiment of the technical idea of ​​the present invention includes a fish farm information unit, a power generation information unit, a water electrolysis information unit, and a management control unit, and a marine infrastructure fusion system that is connected to a plurality of fish farm facilities, a plurality of power generation devices, and a water electrolysis device through a network, the method may be characterized by including: (a) a step in which the fish farm information unit stores fish farm information for each of the fish farm facilities; (b) a step in which the power generation information unit generates and stores power generation information according to the operation of each of the power generation devices; (c) a step in which the water electrolysis information unit generates and stores generation information according to the operation of the water electrolysis device; and (d) a step in which the management control unit controls the fish farm facilities, the power generation device, and the water electrolysis device according to the fish farm information.

[0020] In addition, in step (a), the aquaculture sensor detects the water quality of the aquaculture main body to generate detected water quality information and transmits the detected water quality information to the aquaculture information unit, and in step (d), when the detected water quality information corresponds to abnormal water quality information, the management control unit calculates an oxygen supplement amount that allows the detected water quality information to reach target water quality information from the abnormal water quality information, and when an oxygen supplement amount less than the total amount of oxygen stored is calculated, the management control unit controls the water electrolysis device to supply oxygen from the oxygen tank to the aquaculture main body, and when an oxygen supplement amount greater than the total amount of oxygen stored is calculated, the management control unit controls the water electrolysis device to supply oxygen from the oxygen tank to the aquaculture main body, and supplies power from the power generation device to an emergency oxygen supplier, thereby operating the emergency oxygen supplier to supply oxygen from the emergency oxygen supplier to the aquaculture main body.

[0021] Additionally, in step (d), when the detected water quality information corresponds to the target water quality information, the management control unit can control the water electrolysis device to reduce the oxygen supply per unit time and increase the oxygen storage per unit time.

[0022] In addition, the method for integrating marine infrastructure may further include a step of (e) generating and storing abnormal water quality information and abnormal state information including weather information and water quality influence factors corresponding to the abnormal water quality information when the oxygen storage amount is less than the oxygen replenishment amount by the management control unit.

[0023] In addition, in step (a), the aquaculture farm information unit stores the detected water quality information by time zone, and in step (d), the management control unit analyzes the detected water quality information prior to a predetermined period of time from the time zone of the detected water quality information corresponding to the abnormal water quality information, and generates predicted water quality information according to the water quality status for a predetermined period of time, and when the detected water quality information corresponds to the predicted water quality information, the management control unit controls the water electrolysis device to reduce the amount of oxygen supplied per unit time and increase the amount of oxygen stored per unit time.

[0024] Additionally, in step (d), when the detected water quality information changes such that the water quality deteriorates within a set period of time, or does not change such that the water quality improves beyond the set period of time, the management control unit can calculate the amount of oxygen supplementation.

[0025] The maritime infrastructure fusion system and method according to embodiments of the technical idea of ​​the present invention have the following effects.

[0026] (1) Ensure that oxygen can be easily supplied to the offshore farm to meet the conditions of the offshore farm.

[0027] (2) Ensure that offshore farms can be managed stably without energy storage devices.

[0028] (3) Greenhouse gases can be reduced as marine products are farmed stably in offshore farms.

[0029] However, the effects that can be achieved by the maritime infrastructure fusion system and method according to one embodiment of the present invention are not limited to those mentioned above, and other effects not mentioned will be clearly understood by those skilled in the art from the description below.

[0030] To facilitate a more thorough understanding of the drawings cited herein, a brief description of each drawing is provided.

[0031] FIG. 1 is a diagram illustrating a maritime infrastructure fusion system according to one embodiment of the present invention.

[0032] FIG. 2 is a flowchart illustrating a maritime infrastructure fusion method according to one embodiment of the present invention.

[0033] The present invention is susceptible to various modifications and embodiments. Specific embodiments are illustrated in the drawings and described in detail. However, this is not intended to limit the invention to specific implementations, and it should be understood that the invention encompasses all modifications, equivalents, and alternatives falling within the spirit and technical scope of the invention.

[0034] In describing the present invention, detailed descriptions of related known technologies will be omitted if they are deemed to unnecessarily obscure the gist of the present invention. Furthermore, numbers (e.g., "first," "second," etc.) used throughout the description of this specification are merely identifiers used to distinguish one component from another.

[0035] Additionally, in this specification, when a component is referred to as being “connected” or “connected” to another component, it should be understood that the component may be directly connected or connected to the other component, but may also be connected or connected via another component in between, unless there is a specific description to the contrary.

[0036] In addition, the components expressed as "~part" in this specification may be two or more components combined into one component, or one component may be divided into two or more components with more detailed functions. In addition, each component described below may additionally perform some or all of the functions performed by other components in addition to its own main function, and of course, some of the main functions performed by each component may be exclusively performed by other components.

[0037] Hereinafter, embodiments according to the technical idea of ​​the present invention will be described in detail one by one.

[0038] FIG. 1 is a drawing illustrating a maritime infrastructure fusion system (100) according to one embodiment of the present invention.

[0039] As illustrated in FIG. 1, a marine infrastructure management system (100) according to one embodiment of the present invention may be connected to aquaculture facilities (10), a power generation device (20), an electrolysis device (30), and an administrator terminal (40) via a network (1), and may include an aquaculture information unit (101), a power generation information unit (102), an electrolysis information unit (103), and a management control unit (104). Here, an administrator may refer to a person who manages marine infrastructure including aquaculture facilities (10), a power generation device (20), and an electrolysis device (30) by accessing the marine infrastructure convergence system (100) of the present embodiment via an administrator terminal (40).

[0040] In addition, the aquaculture facility (10) of the present embodiment is composed of a plurality of units, each of which is installed at sea and used to cultivate aquatic products such as seaweed, shellfish, and fish, and may include a fish farm main body (11), a fish farm sensor (12), a fish farm air curtain (13), and an emergency oxygen supply device (14). Here, the aquaculture farm main body (11) forms a space for cultivating aquatic products, and can be designed and manufactured differently depending on the type of aquatic products to be cultivated, and the aquaculture farm sensor (12) can be installed in the aquaculture farm main body (11) to detect the conditions of the aquaculture farm main body (11) and the surroundings of the aquaculture farm main body (11), particularly the water quality, and the aquaculture farm air curtain (13) can be installed around the aquaculture farm main body (11) to generate air bubbles, thereby preventing aquatic products other than the aquaculture target products from approaching or flowing into the aquaculture farm main body (11), and the emergency oxygen supply device (14) can be installed in the water of the aquaculture farm main body (11) to supply oxygen and increase dissolved oxygen in the water of the aquaculture farm main body (11), and can be formed in the form of an oxygen generator, an oxygen dissolver, a combination of an oxygen generator and an oxygen dissolver, etc.

[0041] In addition, the power generation device (20) may be composed of multiple units, each of which may be a wind power generator installed at sea or on the coast to generate electricity. Here, the power generation device (20) may be positioned to be connected to the aquaculture facility (10), particularly, the aquaculture farm main body (11), may be positioned inside the aquaculture farm main body (11), or may be positioned between aquaculture farm main bodies (11).

[0042] In addition, the electrolysis device (30) can be installed at sea or on the coast and connected to a plurality of aquaculture facilities (10) and a plurality of power generation devices (20). Here, the electrolysis device (30) can be operated by receiving power generated from the power generation device (20) and can electrolyze seawater to produce hydrogen and oxygen. In addition, the hydrogen can be stored in a hydrogen tank (not shown) and used in a hydrogen fuel cell, a hydrogen vehicle, etc., and a portion of the oxygen can be supplied to the water of the aquaculture farm body (11) to increase the dissolved oxygen in the water of the aquaculture farm body (11), and the remaining portion of the oxygen can be stored in an oxygen tank (not shown).

[0043] Meanwhile, the plurality of aquaculture farm facilities (10) and the plurality of power generation devices (20) of the present embodiment are positioned to correspond to a predetermined area along the sea or coast, and one water electrolysis device (30) can be positioned for a predetermined area.

[0044] Additionally, the farm information unit (101), power generation information unit (102), electrolysis information unit (103), and management control unit (104) may include at least one of a processor, a memory, and a data transceiver.

[0045] An administrator can access the maritime infrastructure convergence system (100) using an administrator terminal (40) and exchange signals with the maritime infrastructure convergence system (100). The maritime infrastructure convergence system (100) can display a web page through a web browser run on the administrator terminal (40) and allow the administrator to log in on the web page and then access the maritime infrastructure convergence system (100), or an application capable of accessing the maritime infrastructure convergence system (100) can be installed and run on the administrator terminal (40). In addition, the administrator terminal (40) can be connected to a weather management server (not shown) to receive weather information (i.e., current weather, temperature, wind speed, etc.), maritime forecast information (e.g., red tide advisory, red tide warning, jellyfish advisory, jellyfish warning, etc.) in real time, and can transmit weather information to the maritime infrastructure convergence system (100) in real time.

[0046] The administrator terminal (40) may be implemented as a computer capable of connecting to a remote server or terminal via a network (1). Here, the computer may include, for example, a notebook, desktop, or laptop equipped with a web browser. In addition, the administrator terminal (40) may be implemented as a terminal device capable of connecting to a remote server or terminal via the network (1). The terminal device may include all types of handheld-based wireless communication devices such as, for example, a wireless communication device that guarantees portability and mobility, such as a PCS (Personal Communication System), GSM (Global System for Mobile communications), PDC (Personal Digital Cellular), PHS (Personal Handyphone System), PDA (Personal Digital Assistant), IMT (International Mobile Telecommunication)-2000, CDMA (Code Division Multiple Access)-2000, W-CDMA (W-Code Division Multiple Access), Wibro (Wireless Broadband Internet) terminal, smartphone, smartpad, tablet PC, etc.

[0047] Here, the network (1) refers to a connection structure that enables information exchange between each node, such as multiple terminals and servers, and examples of such networks include, but are not limited to, a 3GPP (3rd Generation Partnership Project) network, an LTE (Long Term Evolution) network, a 5G network, a WIMAX (World Interoperability for Microwave Access) network, the Internet, a LAN (Local Area Network), a Wireless LAN (Wireless Local Area Network), a WAN (Wide Area Network), a PAN (Personal Area Network), a Bluetooth network, a satellite broadcasting network, an analog broadcasting network, and a DMB (Digital Multimedia Broadcasting) network.

[0048] The aquaculture information unit (101) can store aquaculture information for each of a plurality of aquaculture facilities (10). Here, the aquaculture information can include the location of the aquaculture main body (11), the specifications of the aquaculture main body (11), the type of the aquaculture main body (11) according to the type of aquaculture target aquatic product (e.g., fish, shellfish, seaweed, etc.), the number of aquaculture sensors (12), the specifications of the aquaculture air curtain (13), the specifications of the emergency oxygen supply device (14), target water quality information, abnormal water quality information, detected water quality information, etc. In addition, the number of aquaculture sensors (12), the number of aquaculture air curtains (13), and the number of emergency oxygen supply devices (14) can be set according to the type of the aquaculture main body (11) and the size of the aquaculture main body (11), and the number of aquaculture air curtains (13) and the number of emergency oxygen supply devices (14) can determine the amount of oxygen supplied to the aquaculture main body (11).

[0049] In the above aquaculture farm information, the location of the aquaculture farm main body (11) may be the GPS coordinate value for the center of the aquaculture farm main body (11) in the aquaculture farm equipment (10), and may be used as an identifier for the aquaculture farm information, and the target water quality information is information according to the best water quality state in which the aquaculture target aquaculture product can be stably cultivated in the aquaculture farm main body (11), and may include water temperature, salt concentration, dissolved oxygen, hydrogen sulfide, chemical oxygen demand, etc. of the best water quality state, and the abnormal water quality information is information according to the polluted water quality state, such as the eutrophication state, the possible death state of the aquaculture target aquaculture product, and may include water temperature, salt concentration, dissolved oxygen, hydrogen sulfide, chemical oxygen demand, etc. of the polluted water quality state. The detected water quality information may mean information according to the current water quality state generated by detecting the water quality of the aquaculture farm main body (11) by the aquaculture farm sensor (12) installed underwater in the aquaculture farm main body (11) in the aquaculture farm equipment (10).

[0050] The above-mentioned aquaculture farm information can be input into the administrator terminal (40) and transmitted and stored in the aquaculture farm information unit (101). Meanwhile, in the aquaculture farm information, the aquaculture farm sensor (12) detects the water quality of the aquaculture farm main body (11) to generate detected water quality information and transmit it to the aquaculture farm information unit (101), and the detected water quality information can be stored in the aquaculture farm information unit (101) so as to correspond to the aquaculture farm information.

[0051] The power generation information unit (102) can generate and store power generation information according to the operation of each power generation device (20). Here, the power generation information can include the location of the power generation device (20), power generation time zone, power generation amount by power generation time zone, weather information by power generation time zone, etc.

[0052] In the above-described power generation information, the location of the power generation device (20) may be a GPS coordinate value for the power generation device (20) and may be used as an identifier for the power generation information, and the power generation time zone is set in units of time for which power is generated in the power generation device (20), for example, from 8:00 to 9:00 on January 3, 2024, from 14:00 to 15:00 on January 3, 2024, etc. in 1-hour units, from 8:30 to 9:00 on January 3, 2024, from 15:30 to 16:00 on January 3, 2024, etc. in 30-hour units, from 16:40 to 17:00 on January 3, 2024, from 20:40 to 21:00 on January 3, 2024, etc. in 20-minute units, from 17:00 on January 3, 2024 It can be set in 10-minute units, such as from 50 minutes to 18:00, and the power generation amount by power generation time zone can mean the sum of the power generation amount according to the production of electricity from the power generation device (20) during each power generation time zone, and the weather information by power generation time zone can include the weather, temperature, wind speed, etc. for each power generation time zone.

[0053] Meanwhile, when each power generation device (20) generates electricity, the electricity is transmitted from the power generation device (20) to each of the aquaculture air curtain (13) and the electrolysis device (30) of the aquaculture facility (10), thereby operating each of the aquaculture air curtain (13) and the electrolysis device (30).

[0054] In addition, the power generation information unit (102) generates power generation during the power generation period between the power generation start time and power production end time according to the power generation of the power generation device (20), generates a power generation time zone based on the generated power production start time and power production end time, and divides the power generation during the power generation period by power generation time zone to calculate the power generation amount for each power generation time zone.

[0055] The electrolysis information unit (103) can generate and store generated information according to the operation of the electrolysis device (30). Here, the generated information may refer to information on the state of gases, i.e., hydrogen and oxygen, generated through electrolysis of seawater in the electrolysis device (30), and may include, for example, hydrogen storage per unit time, total hydrogen storage, oxygen supply per unit time, oxygen storage per unit time, total oxygen storage, etc. In addition, the hydrogen storage per unit time refers to the amount of hydrogen stored in the hydrogen tank per unit time, the total hydrogen storage refers to the total amount of hydrogen stored in the hydrogen tank, the oxygen supply per unit time refers to the amount of hydrogen supplied to the aquaculture farm body (11) per unit time, the oxygen storage per unit time refers to the amount of hydrogen stored in the oxygen tank per unit time, and the total oxygen storage refers to the total amount of hydrogen stored in the oxygen tank.

[0056] When the electrolysis device (30) is in operation, the hydrogen storage amount per unit time, the oxygen supply amount per unit time, and the oxygen storage amount per unit time are maintained constant, and the total hydrogen storage amount and the total oxygen storage amount can be gradually increased.

[0057] The management control unit (104) can control the aquaculture facility (10), the power generation unit (20), and the electrolysis unit (30) based on the aquaculture information. In particular, the management control unit (104) can control the aquaculture facility (10), the power generation unit (20), and the electrolysis unit (30) based on the water quality information generated by the aquaculture sensor (12) from the aquaculture information.

[0058] For example, the detected water quality information may correspond to abnormal water quality information. That is, the water quality of the aquaculture farm main body (11) may be in a polluted water quality state, such as a eutrophication state or a state in which the aquaculture target aquatic product may die. Here, the management control unit (104) may calculate the amount of oxygen supplementation. In addition, the amount of oxygen supplementation may refer to the amount of oxygen that must be additionally supplied to the aquaculture farm main body (11) so that the water quality of the aquaculture farm main body (11) reaches a state corresponding to the target water quality information from a state corresponding to the abnormal water quality information.

[0059] When the amount of oxygen supplementation is calculated to be less than the total amount of oxygen storage, the management control unit (104) can control the oxygen tank of the electrolysis device (30) to supply oxygen from the oxygen tank to the main body of the aquaculture farm (11).

[0060] Meanwhile, when the amount of oxygen supplementation is calculated to be greater than the total amount of oxygen stored, the management control unit (104) controls the oxygen tank of the electrolysis device (30) to supply oxygen from the oxygen tank to the main body (11) of the fish farm, while supplying power from the power generation device (20) to the emergency oxygen supplier (14), thereby operating the emergency oxygen supplier (14) to supply oxygen generated in the emergency oxygen supplier (14) to the main body (11) of the fish farm.

[0061] Additionally, when the detected water quality information corresponds to abnormal water quality information, the management control unit (104) can control the water electrolysis device (30) to increase the oxygen supply per unit time and decrease the oxygen storage per unit time. As a result, oxygen can be supplied to the aquaculture farm main body (11) more quickly and used to improve water quality, and a certain amount can be stored in the oxygen tank.

[0062] On the other hand, when the detected water quality information corresponds to the target water quality information, the management control unit (104) can control the water electrolysis device (30) to reduce the oxygen supply per unit time and increase the oxygen storage per unit time. As a result, oxygen can be supplied to the aquaculture farm main body (11) to maintain water quality, and can be stored in the oxygen tank in preparation for times when additional oxygen is needed.

[0063] In addition, when the detected water quality information changes to deteriorate the water quality within a set period or does not change to improve the water quality beyond the set period, the management control unit (104) can calculate the amount of oxygen supplementation and control the water electrolysis device (30) and the power generation device (20) as described above. This means when the water quality of the aquaculture farm main body (11) rapidly deteriorates or does not recover from the deteriorated state.

[0064] Additionally, the management control unit (104) can store abnormal water quality information and abnormal state information corresponding to the abnormal water quality information when the amount of oxygen supplementation is greater than the total amount of oxygen storage. Here, the abnormal state information can include weather information, water quality influence factors, and the total amount of oxygen storage when the water quality state corresponding to the abnormal water quality information is reached.

[0065] Meanwhile, the aquaculture farm information unit (101) can store detected water quality information by time zone. Here, the management control unit (104) can analyze detected water quality information from a predetermined period of time prior to the time zone of the detected water quality information corresponding to the abnormal water quality information, and can generate predicted water quality information based on the water quality status during the predetermined period.

[0066] In addition, the detected water quality information can correspond to the predicted water quality information. This can be a water quality state in which the water quality of the aquaculture farm main body (11) is highly likely to reach a polluted water quality state, such as a eutrophic state or a state in which the aquaculture target aquatic product may die. Here, the management control unit (104) can control the water electrolysis device (30) to reduce the oxygen supply per unit time and increase the oxygen storage per unit time. That is, the total amount of oxygen storage can be increased more quickly. As a result, the total amount of oxygen storage can be stably greater than the oxygen supplement amount, so that oxygen can be stably supplied to the aquaculture farm main body (11) in a water quality state corresponding to the abnormal water quality information without the operation of the emergency oxygen supply device (14). For example, when the aquaculture farm sensor (12) generates detected water quality information corresponding to the predicted water quality information that may reach the abnormal water quality information after two weeks, the management control unit (104) can reduce the oxygen supply per unit time and increase the oxygen storage per unit time. That is, at the time of predicting the abnormal water quality, the total amount of oxygen stored is rapidly increased, so that the marine infrastructure fusion system (100) can be operated in a mode that can secure the maximum amount of oxygen while maintaining the water quality of the aquaculture facility (10) at a standard level, and the operation of the emergency oxygen supply device (14) can be minimized.

[0067] The marine infrastructure fusion system (100) according to the present embodiment is connected to a plurality of aquaculture facilities (10), a plurality of power generation devices (20), electrolysis devices (30), and an administrator terminal (40), and supplies power generated from each of the plurality of power generation devices (20) to the aquaculture facilities (10) and electrolysis devices (30) to operate the aquaculture facilities (10) and electrolysis devices (30). Here, the electrolysis devices (30) electrolyze seawater to generate hydrogen and oxygen, and the hydrogen is stored in a hydrogen tank, and the oxygen is supplied to the aquaculture main body (11) of the aquaculture facility (10) or stored in an oxygen tank. In particular, the aquaculture sensor (12) of the aquaculture facility (10) generates water quality information according to the water quality of the aquaculture main body (11), and the oxygen supplied to the aquaculture main body (11) and the oxygen stored in the oxygen tank can be controlled according to the water quality information detected by the electrolysis device (30). Therefore, the marine infrastructure fusion system (100) according to the present embodiment can easily supply oxygen to the marine aquaculture farm in response to the state of the marine aquaculture farm, particularly water quality, without an energy storage device for storing power, thereby enabling stable management of the marine aquaculture farm.

[0068] In addition, the marine infrastructure fusion system (100) according to the present embodiment generates electricity using a power generation device (20) utilizing renewable energy, wind power, and supplies oxygen generated by electrolyzing seawater using a water electrolysis device (30) operated by the generated electricity to the main body (11) of the aquaculture farm, thereby enabling the cultivation of marine products in the marine aquaculture farm. The marine infrastructure fusion system (100) according to the present embodiment enables the stable cultivation of marine products in the marine aquaculture farm while reducing greenhouse gases.

[0069] FIG. 2 is a flowchart illustrating a maritime infrastructure fusion method according to one embodiment of the present invention.

[0070] As illustrated in FIG. 2, a marine infrastructure fusion method according to an embodiment of the present invention allows marine products to be cultured through a marine infrastructure fusion system (10) that includes at least one aquaculture facility (10) for cultivating marine products, at least one power generation device (20) for generating electricity by wind power generation, an electrolysis device (30) that operates with electricity generated from the power generation device (20) and electrolyzes seawater to generate hydrogen and oxygen and supplies them to the aquaculture facility (10) or stores them separately, and an administrator terminal (40) of an administrator who manages the aquaculture facility (10), the power generation device (20), and the electrolysis device (30). The marine infrastructure fusion method of the present embodiment intends to utilize the aforementioned marine infrastructure fusion system (100).

[0071] Alternatively, a step (S101) may be performed in which the aquaculture farm information unit (101) stores aquaculture farm information for each of a plurality of aquaculture farm facilities (10). Here, the aquaculture farm information may include the location of the aquaculture farm main body (11), the specifications of the aquaculture farm main body (11), the type of the aquaculture farm main body (11) according to the type of aquaculture target aquatic product (e.g., fish, shellfish, seaweed, etc.), the number of aquaculture farm sensors (12), the specifications of the aquaculture farm air curtain (13), the specifications of the emergency oxygen supply device (14), target water quality information, abnormal water quality information, detected water quality information, etc. In addition, the number of aquaculture sensors (12), the number of aquaculture air curtains (13), and the number of emergency oxygen suppliers (14) can be set according to the type and size of the aquaculture main body (11), and the number of aquaculture air curtains (13) and the number of emergency oxygen suppliers (14) can determine the amount of oxygen supplied to the aquaculture main body (11).

[0072] In the above aquaculture farm information, the location of the aquaculture farm main body (11) may be the GPS coordinate value for the center of the aquaculture farm main body (11) in the aquaculture farm equipment (10), and may be used as an identifier for the aquaculture farm information, and the target water quality information is information according to the best water quality state in which the aquaculture target aquaculture product can be stably cultivated in the aquaculture farm main body (11), and may include water temperature, salt concentration, dissolved oxygen, hydrogen sulfide, chemical oxygen demand, etc. of the best water quality state, and the abnormal water quality information is information according to the polluted water quality state, such as the eutrophication state, the possible death state of the aquaculture target aquaculture product, and may include water temperature, salt concentration, dissolved oxygen, hydrogen sulfide, chemical oxygen demand, etc. of the polluted water quality state. The detected water quality information may mean information according to the current water quality state generated by detecting the water quality of the aquaculture farm main body (11) by the aquaculture farm sensor (12) installed underwater in the aquaculture farm main body (11) in the aquaculture farm equipment (10).

[0073] In step S101, the aquaculture farm information can be input into the administrator terminal (40) and transmitted and stored in the aquaculture farm information unit (101). Meanwhile, in the aquaculture farm information, the aquaculture farm sensor (12) can detect the water quality of the aquaculture farm main body (11) to generate detected water quality information and transmit it to the aquaculture farm information unit (101), and the detected water quality information can be stored in the aquaculture farm information unit (101) so as to correspond to the aquaculture farm information.

[0074] Next, a step (S102) may be performed in which the power generation information unit (102) generates and stores power generation information according to the operation of each power generation device (20). Here, the power generation information may include the location of the power generation device (20), power generation time zone, power generation amount by power generation time zone, weather information by power generation time zone, etc.

[0075] In the above-described power generation information, the location of the power generation device (20) may be a GPS coordinate value for the power generation device (20) and may be used as an identifier for the power generation information, and the power generation time zone is set in units of time for which power is generated in the power generation device (20), for example, from 8:00 to 9:00 on January 3, 2024, from 14:00 to 15:00 on January 3, 2024, etc. in 1-hour units, from 8:30 to 9:00 on January 3, 2024, from 15:30 to 16:00 on January 3, 2024, etc. in 30-hour units, from 16:40 to 17:00 on January 3, 2024, from 20:40 to 21:00 on January 3, 2024, etc. in 20-minute units, from 17:00 on January 3, 2024 It can be set in 10-minute units, such as from 50 minutes to 18:00, and the power generation amount by power generation time zone can mean the sum of the power generation amount according to the production of electricity from the power generation device (20) during each power generation time zone, and the weather information by power generation time zone can include the weather, temperature, wind speed, etc. for each power generation time zone.

[0076] Meanwhile, when each power generation device (20) generates electricity, the electricity is transmitted from the power generation device (20) to each of the aquaculture air curtain (13) and the electrolysis device (30) of the aquaculture facility (10), thereby operating each of the aquaculture air curtain (13) and the electrolysis device (30).

[0077] In step S102, the power generation information unit (102) generates power generation during the power generation period between the power generation start time and power production end time according to the power generation of the power generation device (20), generates a power generation time zone based on the generated power production start time and power production end time, and divides the power generation during the power generation period into each power generation time zone to calculate the power generation amount for each power generation time zone.

[0078] Next, the electrolysis information unit (103) may be configured to generate and store generation information according to the operation of the electrolysis device (30) (S103). Here, the generation information may refer to information on the state of gases, i.e., hydrogen and oxygen, generated through electrolysis of seawater in the electrolysis device (30), and may include, for example, hydrogen storage per unit time, total hydrogen storage, oxygen supply per unit time, oxygen storage per unit time, total oxygen storage, etc. In addition, the hydrogen storage per unit time refers to the amount of hydrogen stored in a hydrogen tank per unit time, the total hydrogen storage refers to the total amount of hydrogen stored in a hydrogen tank, the oxygen supply per unit time refers to the amount of hydrogen supplied to the aquaculture farm body (11) per unit time, the oxygen storage per unit time refers to the amount of hydrogen stored in an oxygen tank per unit time, and the total oxygen storage refers to the total amount of hydrogen stored in an oxygen tank.

[0079] When the electrolysis device (30) is in operation, the hydrogen storage amount per unit time, the oxygen supply amount per unit time, and the oxygen storage amount per unit time are maintained constant, and the total hydrogen storage amount and the total oxygen storage amount can be gradually increased.

[0080] Next, a step (S104) may be performed in which the management control unit (104) controls the aquaculture facility (10), the power generation unit (20), and the electrolysis unit (30) based on the aquaculture information. In step S104, the management control unit (104) may control the aquaculture facility (10), the power generation unit (20), and the electrolysis unit (30) based on the water quality information generated by the aquaculture sensor (12) from the aquaculture information.

[0081] For example, the detected water quality information may correspond to abnormal water quality information. That is, the water quality of the aquaculture farm main body (11) may be in a polluted water quality state, such as a eutrophication state or a state in which the aquaculture target aquatic product may die. Here, the management control unit (104) may calculate the amount of oxygen supplementation. In addition, the amount of oxygen supplementation may refer to the amount of oxygen that must be additionally supplied to the aquaculture farm main body (11) so that the water quality of the aquaculture farm main body (11) reaches a state corresponding to the target water quality information from a state corresponding to the abnormal water quality information.

[0082] When the amount of oxygen supplementation is calculated to be less than the total amount of oxygen storage, the management control unit (104) can control the oxygen tank of the electrolysis device (30) to supply oxygen from the oxygen tank to the main body of the aquaculture farm (11).

[0083] Meanwhile, when the amount of oxygen supplementation is calculated to be greater than the total amount of oxygen stored, the management control unit (104) controls the oxygen tank of the electrolysis device (30) to supply oxygen from the oxygen tank to the main body (11) of the fish farm, while supplying power from the power generation device (20) to the emergency oxygen supplier (14), thereby operating the emergency oxygen supplier (14) to supply oxygen generated in the emergency oxygen supplier (14) to the main body (11) of the fish farm.

[0084] Additionally, when the detected water quality information corresponds to abnormal water quality information, the management control unit (104) can control the water electrolysis device (30) to increase the oxygen supply per unit time and decrease the oxygen storage per unit time. As a result, oxygen can be supplied to the aquaculture farm main body (11) more quickly and used to improve water quality, and a certain amount can be stored in the oxygen tank.

[0085] On the other hand, when the detected water quality information corresponds to the target water quality information, the management control unit (104) can control the water electrolysis device (30) to reduce the oxygen supply per unit time and increase the oxygen storage per unit time. As a result, oxygen can be supplied to the aquaculture farm main body (11) to maintain water quality, and can be stored in the oxygen tank in preparation for times when additional oxygen is needed.

[0086] In addition, when the detected water quality information changes to deteriorate the water quality within a set period or does not change to improve the water quality beyond the set period, the management control unit (104) can calculate the amount of oxygen supplementation and control the water electrolysis device (30) and the power generation device (20) as described above. This means when the water quality of the aquaculture farm main body (11) rapidly deteriorates or does not recover from the deteriorated state.

[0087] Next, a step (S105) may be performed in which the management control unit (104) stores abnormal water quality information and abnormal state information corresponding to the abnormal water quality information when an oxygen supplement amount greater than the total oxygen storage amount is calculated. Here, the abnormal state information may include weather information, water quality influence factors, and the total oxygen storage amount when the water quality state corresponding to the abnormal water quality information is reached.

[0088] In step S101, if the aquaculture farm information unit (101) stores the detected water quality information by time zone, in step S104, the management control unit (104) can analyze the detected water quality information prior to a predetermined period of time from the time zone of the detected water quality information corresponding to the abnormal water quality information, and can generate predicted water quality information according to the water quality status during the predetermined period.

[0089] In addition, the detected water quality information can correspond to the predicted water quality information. This can be a water quality state in which the water quality of the aquaculture farm main body (11) is highly likely to reach a polluted water quality state, such as a eutrophic state or a state in which the aquaculture target aquatic product may die. Here, the management control unit (104) can control the water electrolysis device (30) to reduce the oxygen supply per unit time and increase the oxygen storage per unit time. That is, the total amount of oxygen storage can be increased more quickly. As a result, the total amount of oxygen storage can be stably greater than the oxygen supplement amount, so that oxygen can be stably supplied to the aquaculture farm main body (11) in a water quality state corresponding to the abnormal water quality information without the operation of the emergency oxygen supply device (14). For example, when the aquaculture farm sensor (12) generates detected water quality information corresponding to the predicted water quality information that may reach the abnormal water quality information after two weeks, the management control unit (104) can reduce the oxygen supply per unit time and increase the oxygen storage per unit time. That is, at the time of predicting the abnormal water quality, the total amount of oxygen stored is rapidly increased, so that the marine infrastructure fusion system (100) can be operated in a mode that can secure the maximum amount of oxygen while maintaining the water quality of the aquaculture facility (10) at a standard level, and the operation of the emergency oxygen supply device (14) can be minimized.

[0090] The maritime infrastructure fusion method according to the present embodiment is connected to a plurality of aquaculture facilities (10), a plurality of power generation devices (20), a water electrolysis device (30), and an administrator terminal (40), and supplies power generated from each of the plurality of power generation devices (20) to the aquaculture facility (10) and the water electrolysis device (30) to operate the aquaculture facility (10) and the water electrolysis device (30). Here, the water electrolysis device (30) electrolyzes seawater to produce hydrogen and oxygen, and the hydrogen is stored in a hydrogen tank, and the oxygen is supplied to the aquaculture facility body (11) of the aquaculture facility (10) or stored in an oxygen tank. In particular, the aquaculture sensor (12) of the aquaculture facility (10) generates water quality information according to the water quality of the aquaculture facility body (11), and the oxygen supplied to the aquaculture facility body (11) and the oxygen stored in the oxygen tank can be controlled according to the water quality information detected by the water electrolysis device (30). Therefore, the marine infrastructure fusion method according to the present embodiment enables stable management of marine aquaculture farms by easily supplying oxygen to marine aquaculture farms in response to the state of the marine aquaculture farm, particularly water quality, without an energy storage device for storing power.

[0091] In addition, the marine infrastructure fusion method according to the present embodiment generates electricity using a power generation device (20) utilizing renewable energy, wind power, and supplies oxygen generated by electrolyzing seawater using a water electrolysis device (30) operated by the generated electricity to the main body (11) of the aquaculture farm, thereby enabling the cultivation of marine products in the marine aquaculture farm. The marine infrastructure fusion method according to the present embodiment enables the stable cultivation of marine products in the marine aquaculture farm while reducing greenhouse gases.

[0092] The functional operations and performance forms of the subject matter described in this specification may be implemented in digital electronic circuits, computer software, firmware, or hardware, or in a combination of one or more of these, including the structures disclosed in this specification and their structural equivalents.

[0093] The subject matter described herein may be implemented as one or more computer program products, i.e., one or more modules of computer program instructions encoded on a tangible program medium for execution by or controlling the operation of a data processing device. The tangible program medium may be a radio signal or a computer-readable medium. A radio signal is an artificially generated signal, such as a machine-generated electrical, optical, or electromagnetic signal, that is generated to encode information for transmission to a suitable receiver device for execution by a computer. The computer-readable medium may be a machine-readable storage device, a machine-readable storage substrate, a memory device, a combination of materials that affect a machine-readable radio signal, or a combination of one or more of these.

[0094] A computer program (also known as a program, software, software application, script or code) may be written in any programming language, including compiled or interpreted languages, a priori or procedural languages, and may be deployed in any form, including as a standalone program, a module, a component, a subroutine or other unit suitable for use in a computing environment.

[0095] Computer programs do not necessarily correspond to files in a file system. A program may be stored within a single file provided to the requested program, within multiple interacting files (e.g., a file storing one or more modules, subprograms, or portions of code), or within a file containing other programs or data (e.g., one or more scripts stored within a markup language document).

[0096] A computer program may be deployed to run on a single computer or on multiple computers located at a single site or distributed across multiple sites and interconnected by a communications network.

[0097] Additionally, the logical flow and structural block diagrams described herein describe corresponding functions and corresponding acts and / or specific methods supported by the disclosed structural means, and can also be used to construct corresponding software structures and algorithms and their equivalents.

[0098] The processes and logic flows described herein are executable by one or more programmable processors executing one or more computer programs to perform functions by operating on input data and generating output.

[0099] Processors suitable for executing computer programs include, for example, general-purpose and special-purpose microprocessors, as well as any one or more processors of any type of digital computer. Typically, the processor will receive instructions and data from read-only memory, random-access memory, or both.

[0100] The core elements of a computer are one or more memory devices for storing instructions and data, and a processor for executing instructions. Additionally, a computer will typically be coupled to or include one or more mass storage devices, such as magnetic, magneto-optical, or optical disks, to receive data from, transfer data to, or both of these operations. However, a computer need not include such devices.

[0101] This description presents the best mode of the invention and provides examples to illustrate the invention and to enable those skilled in the art to make and use the invention. The specification, as written, is not intended to limit the invention to the specific terms set forth.

[0102] Accordingly, while the present invention has been described in detail with reference to the examples described above, those skilled in the art will appreciate that modifications, variations, and variations can be made to the examples without departing from the scope of the present invention. In short, it is to be understood that to achieve the intended effects of the present invention, not all functional blocks depicted in the drawings must be separately included, nor must all sequences depicted in the drawings be followed in the exact order depicted. Even if this is not the case, the technical scope of the present invention as set forth in the claims may still be encompassed.

[0103] [Explanation of symbols]

[0104] 100: Maritime Infrastructure Convergence System

[0105] 101: Farm Information Department

[0106] 102: Development Information Department

[0107] 103: Water Information Department

[0108] 104: Management Control Unit

Claims

1. In a marine infrastructure fusion system that is connected to multiple aquaculture farm facilities, multiple power generation units, and electrolysis units through a network, A farm information section that stores farm information for each farm facility; A power generation information unit that generates and stores power generation information according to each operation of the power generation device; A water electrolysis information unit that generates and stores generation information according to the operation of the water electrolysis device; and A marine infrastructure fusion system characterized by including a management control unit that controls aquaculture facilities, power generation equipment, and electrolysis equipment according to aquaculture information.

2. In paragraph 1, Each farm facility includes a farm body, at least one farm sensor, a farm air curtain and an emergency oxygen supply. A marine infrastructure fusion system characterized in that the power generation device is connected to the aquaculture farm air curtain and the electrolysis device to supply power, the aquaculture farm air curtain is operated, the electrolysis device electrolyzes seawater to produce hydrogen and oxygen, the hydrogen is stored in a hydrogen tank, a portion of the oxygen is supplied to the aquaculture farm body, and the remaining portion of the oxygen is stored in the oxygen tank.

3. In paragraph 2, The aquaculture farm information includes the location of the aquaculture farm body, the specifications of the aquaculture farm body, the type of the aquaculture farm body, the number of aquaculture farm sensors, the specifications of the aquaculture farm air curtain, the specifications of the emergency oxygen supply device, target water quality information, and abnormal water quality information. The type of the aquaculture farm body varies depending on the type of aquatic product being farmed, and the number of aquaculture farm sensors, the specifications of the aquaculture farm air curtain, and the specifications of the emergency oxygen supply device are calculated based on the specifications of the aquaculture farm body and the type of the aquaculture farm body. Power generation information includes the location of the power generation device, power generation time zone, power generation amount by power generation time zone, and weather information by power generation time zone. A marine infrastructure fusion system characterized in that the generated information includes hydrogen storage per unit time, total hydrogen storage, oxygen supply per unit time, oxygen storage per unit time, and total oxygen storage.

4. In paragraph 3, The fish farm sensor detects the water quality of the fish farm body, generates water quality information, and transmits it to the fish farm information unit. When the detected water quality information corresponds to the abnormal water quality information, the management control unit calculates the amount of oxygen supplementation that allows the detected water quality information to reach the target water quality information from the abnormal water quality information. When the amount of oxygen supplementation is less than the total amount of oxygen storage, the management control unit controls the electrolysis device to supply oxygen from the oxygen tank to the main body of the aquaculture farm. A marine infrastructure fusion system characterized in that when an amount of oxygen supplementation greater than the total amount of oxygen stored is produced, the management control unit controls the electrolysis device to supply oxygen from the oxygen tank to the main body of the aquaculture farm, and supplies power from the power generation device to the emergency oxygen supplier, thereby operating the emergency oxygen supplier and supplying oxygen from the emergency oxygen supplier to the main body of the aquaculture farm.

5. In paragraph 4, A marine infrastructure fusion system characterized in that when the detected water quality information corresponds to the target water quality information, the management control unit controls the water electrolysis device to reduce the oxygen supply per unit time and increase the oxygen storage per unit time.

6. In paragraph 4, A marine infrastructure fusion system characterized in that the management control unit generates and stores abnormal water quality information when the oxygen storage amount is less than the oxygen replenishment amount, and abnormal condition information including meteorological information and water quality influence factors corresponding to the abnormal water quality information.

7. In paragraph 4, The fish farm information department stores the detected water quality information by time zone, The management control unit analyzes the detected water quality information from a predetermined period of time prior to the time of the detected water quality information corresponding to the abnormal water quality information, and generates predicted water quality information according to the water quality status for a predetermined period of time. A marine infrastructure fusion system characterized in that when the detected water quality information corresponds to the predicted water quality information, the management control unit controls the water electrolysis device to reduce the oxygen supply per unit time and increase the oxygen storage per unit time.

8. In paragraph 4, A marine infrastructure fusion system characterized in that the management control unit calculates an oxygen supplement amount when the detected water quality information changes such that the water quality deteriorates within a set period or does not change such that the water quality improves beyond the set period.

9. A method for integrating marine infrastructure using a marine infrastructure fusion system including a fish farm information unit, a power generation information unit, a water electrolysis information unit, and a management control unit, and connected to a plurality of fish farm facilities, a plurality of power generation units, and a water electrolysis unit through a network, (a) a step in which the aquaculture farm information department stores aquaculture farm information for each aquaculture farm facility; (b) A step in which the power generation information unit generates and stores power generation information according to each operation of the power generation device; (c) a step of generating and storing generation information according to the operation of the electrolysis device by the electrolysis information unit; and (d) A method for integrating marine infrastructure, characterized in that it includes a step in which a management control unit controls aquaculture farm facilities, a power generation device, and an electrolysis device according to aquaculture farm information.

10. In paragraph 9, Each farm facility includes a farm body, at least one farm sensor, a farm air curtain and an emergency oxygen supply. A method for integrating marine infrastructure, characterized in that the power generation device is connected to the aquaculture farm air curtain and the electrolysis device to supply power, the aquaculture farm air curtain is operated, the electrolysis device electrolyzes seawater to produce hydrogen and oxygen, the hydrogen is stored in a hydrogen tank, a portion of the oxygen is supplied to the aquaculture farm body, and the remaining portion of the oxygen is stored in the oxygen tank.

11. In paragraph 10, The aquaculture farm information includes the location of the aquaculture farm body, the specifications of the aquaculture farm body, the type of the aquaculture farm body, the number of aquaculture farm sensors, the specifications of the aquaculture farm air curtain, the specifications of the emergency oxygen supply device, target water quality information, and abnormal water quality information. The type of the aquaculture farm body varies depending on the type of aquatic product being farmed, and the number of aquaculture farm sensors, the specifications of the aquaculture farm air curtain, and the specifications of the emergency oxygen supply device are calculated based on the specifications of the aquaculture farm body and the type of the aquaculture farm body. Power generation information includes the location of the power generation device, power generation time zone, power generation amount by power generation time zone, and weather information by power generation time zone. A method for integrating marine infrastructure, wherein the generated information includes hydrogen storage per unit time, total hydrogen storage, oxygen supply per unit time, oxygen storage per unit time, and total oxygen storage.

12. In paragraph 11, In step (a), the aquaculture sensor detects the water quality of the aquaculture body, generates detected water quality information, and transmits it to the aquaculture information unit. At step (d), When the detected water quality information corresponds to the abnormal water quality information, the management control unit calculates the amount of oxygen supplementation that allows the detected water quality information to reach the target water quality information from the abnormal water quality information. When the amount of oxygen supplementation is less than the total amount of oxygen storage, the management control unit controls the electrolysis device to supply oxygen from the oxygen tank to the main body of the aquaculture farm. A method for integrating marine infrastructure, characterized in that when an amount of oxygen supplementation greater than the total amount of oxygen stored is produced, the management control unit controls the electrolysis device to supply oxygen from the oxygen tank to the main body of the aquaculture farm, and supplies power from the power generation device to the emergency oxygen supplier, thereby operating the emergency oxygen supplier and supplying oxygen from the emergency oxygen supplier to the main body of the aquaculture farm.

13. In paragraph 12, (d) A method for integrating marine infrastructure, characterized in that, when the detected water quality information corresponds to the target water quality information, the management control unit controls the water electrolysis device to reduce the amount of oxygen supplied per unit time and increase the amount of oxygen stored per unit time.

14. In paragraph 12, the method for integrating maritime infrastructure is as follows: (e) A method for integrating marine infrastructure, characterized in that it further includes a step of generating and storing abnormal water quality information when the oxygen storage amount is less than the oxygen replenishment amount and abnormal condition information including weather information and water quality influence factors corresponding to the abnormal water quality information.

15. In paragraph 12, In step (a), the aquaculture farm information department stores the detected water quality information by time zone, At step (d), The management control unit analyzes the detected water quality information from a predetermined period of time prior to the time of the detected water quality information corresponding to the abnormal water quality information, and generates predicted water quality information according to the water quality status for a predetermined period of time. A method for integrating marine infrastructure, characterized in that when the detected water quality information corresponds to the predicted water quality information, the management control unit controls the water electrolysis device to reduce the amount of oxygen supplied per unit time and increase the amount of oxygen stored per unit time.

16. In paragraph 12, (d) A method for integrating marine infrastructure, characterized in that, when the detected water quality information changes to deteriorate the water quality within a set period or does not change to improve the water quality beyond the set period, the management control unit calculates an amount of oxygen supplementation.

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