WO2017022135A1 - Hydrogen supply management device and hydrogen supply management method - Google Patents

Hydrogen supply management device and hydrogen supply management method Download PDF

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Publication number
WO2017022135A1
WO2017022135A1 PCT/JP2015/072423 JP2015072423W WO2017022135A1 WO 2017022135 A1 WO2017022135 A1 WO 2017022135A1 JP 2015072423 W JP2015072423 W JP 2015072423W WO 2017022135 A1 WO2017022135 A1 WO 2017022135A1
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hydrogen
facility
amount
demand
supply management
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PCT/JP2015/072423
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French (fr)
Japanese (ja)
Inventor
雅彦 村井
勝也 横川
直樹 上滝
敏幸 井貝
太地 武
克史 長谷川
山田　正彦
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株式会社 東芝
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Priority to JP2017532350A priority Critical patent/JP6524235B2/en
Priority to PCT/JP2015/072423 priority patent/WO2017022135A1/en
Publication of WO2017022135A1 publication Critical patent/WO2017022135A1/en

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    • C—CHEMISTRY; METALLURGY
    • C01—INORGANIC CHEMISTRY
    • C01B—NON-METALLIC ELEMENTS; COMPOUNDS THEREOF; METALLOIDS OR COMPOUNDS THEREOF NOT COVERED BY SUBCLASS C01C
    • C01B3/00—Hydrogen; Gaseous mixtures containing hydrogen; Separation of hydrogen from mixtures containing it; Purification of hydrogen
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02P—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
    • Y02P20/00—Technologies relating to chemical industry
    • Y02P20/10—Process efficiency
    • Y02P20/133—Renewable energy sources, e.g. sunlight

Definitions

  • Embodiments of the present invention relate to a hydrogen supply management device and a hydrogen supply management method.
  • the problem to be solved by the present invention is to provide a hydrogen supply management device and a hydrogen supply management method that make it possible to easily grasp the hydrogen supply / demand relationship between each hydrogen production facility and each hydrogen demand facility. It is to provide.
  • the hydrogen supply management device of the embodiment transports at least one hydrogen production facility that produces hydrogen from water or hydrocarbons using electric power generated using renewable energy, and hydrogen produced by the hydrogen production facility
  • a hydrogen supply management device applied to a system including at least one transportation means that performs the above and at least one hydrogen demand facility that uses hydrogen transported by the transportation means.
  • FIG. 1 is a diagram illustrating a schematic configuration of a hydrogen supply system according to an embodiment.
  • FIG. 2 is a diagram illustrating an example of a display screen displayed on the display device by the display control device in the hydrogen supply management device.
  • FIG. 1 is a diagram illustrating a schematic configuration of a hydrogen supply system according to an embodiment.
  • the hydrogen supply system realizes operation of a hydrogen supply chain from hydrogen production to storage, transportation, and use in a certain region, and at least one hydrogen production as a main component.
  • the facility 10 includes a transportation system 20 including at least one transportation vehicle, at least one hydrogen demand facility 30, and a hydrogen supply management device 40.
  • a case where there are a plurality of hydrogen production facilities 10 and a plurality of hydrogen demand facilities 30 and the transport system 20 includes a plurality of transport vehicles will be illustrated. However, it is not limited to this example.
  • the hydrogen production facility 10 is a facility that generates power using renewable energy such as hydropower, wind power, and sunlight, and uses the power generated by the power generation to manufacture hydrogen from water or hydrocarbons.
  • the hydrogen production facilities 10 are arranged so as to be scattered in mountainous areas, the seaside, and the like.
  • the transport system 20 includes transport vehicles 1, 2, 3,... That transport the hydrogen produced by the hydrogen production facility 10 to the hydrogen demand facility 30.
  • the transport vehicles 1, 2, 3,... are, for example, trailers or curdles that can transport containers, tanks, and the like that store hydrogen.
  • the hydrogen demand facility 30 receives hydrogen transported by the transport vehicles 1, 2, 3,... Of the transport system 20, generates electricity and heat from the hydrogen by the fuel cell device, and uses the generated electricity and heat.
  • Equipment For example, the equipment of a warm water pool, the equipment of a dairy farmer, a fuel cell vehicle, etc. are mentioned.
  • the hydrogen supply management device 40 integrally manages the hydrogen supply chain in this hydrogen supply system by controlling the hydrogen production facility 10, the transport system 20, and the hydrogen demand facility 30, respectively.
  • the hydrogen production facility 10 includes a power generation device 11, a hydrogen production device 12, a data collection device 13, a communication device 14, and a control device 15 as main components.
  • a hydrogen storage device and a storage battery are also provided.
  • the power generation device 11 corresponds to a hydroelectric power generation device, a wind power generation device, a solar power generation device, or the like, and generates power using renewable energy. Part or all of the power generation device 11 may be provided outside the hydrogen production facility 10.
  • the hydrogen production apparatus 12 produces hydrogen by electrolyzing water supplied from, for example, a separately provided water storage tank, using the electric power generated by the power generation apparatus 11.
  • the hydrogen production apparatus 12 is equipped with instruments (not shown) for measuring the flow rate [Nm 3 / h], capacity [Nm 3 ], purity [%], pressure [kPa], etc. of the produced hydrogen. It is done.
  • the produced hydrogen is stored in a hydrogen storage device (not shown) and then transported to any hydrogen demand facility 30 by any transport vehicle of the transport system 20.
  • the data collection device 13 collects data such as the flow rate, capacity, purity, and pressure of hydrogen measured by the instruments on the hydrogen production device 12 side every day or every fixed time.
  • the communication device 14 performs wireless communication with the communication device 44 on the hydrogen supply management device 40 side.
  • the communication device 14 has a function of transmitting various data required by the hydrogen supply management device 40 to the hydrogen supply management device 40 and receiving a command transmitted from the hydrogen supply management device 40. Yes.
  • the control device 15 controls the entire operation of the hydrogen production facility 10. For example, the control device 15 controls the amount of electricity stored in the power generation device 11, controls the amount of hydrogen produced and the amount of hydrogen stored in the hydrogen production device 12, and is collected by the data collection device 13.
  • the data such as the flow rate, capacity, purity, pressure, etc. of the hydrogen are transmitted to the hydrogen supply management device 40 via the communication device 14 every day or every fixed time, or a command transmitted from the hydrogen supply management device 40 is sent. Acquired via the communication device 14 and performs processing according to the command.
  • the transport system 20 (or transport vehicles 1, 2, 3,...) Is also provided with a communication device and a control device (not shown).
  • the communication device of the transportation system 20 performs wireless communication with the communication device 44 on the hydrogen supply management device 40 side.
  • the communication device 14 has a function of transmitting various data required by the hydrogen supply management device 40 to the hydrogen supply management device 40 and receiving a command transmitted from the hydrogen supply management device 40. Yes.
  • the control device of the transportation system 20 controls the operation of the entire transportation system 20.
  • the control device of the transport system 20 may provide various information for each transport vehicle (identification information indicating the hydrogen production facility 10 of the hydrogen supply source, identification information indicating the hydrogen demand facility 30 of the hydrogen supply destination, the amount of hydrogen transported, Mileage etc.) is transmitted to the hydrogen supply management device 40 via the communication device every day or every fixed time, or a command transmitted from the hydrogen supply management device 40 is acquired via the communication device, Perform processing according to the command.
  • the hydrogen demand facility 30 includes a fuel cell device 31, a load 32, a data collection device 33, a communication device 34, and a control device 35 as main components.
  • the fuel cell device 31 generates electricity using hydrogen transported from any transport vehicle of the transport system 20 and generates electric power and heat.
  • the fuel cell device 31 is provided with instruments (not shown) for measuring the flow rate [Nm 3 / h], capacity [Nm 3 ], purity [%], pressure [kPa], etc. of hydrogen used. It is done.
  • the load 32 corresponds to an electric power load or a heat load that consumes electric power or heat generated by the fuel cell device 31.
  • the load 32 is provided with instruments (not shown) for measuring the amount of power and heat consumed.
  • the data collection device 33 includes data such as the flow rate, capacity, purity, pressure, etc. of hydrogen measured by the instruments on the fuel cell device 31 side, data such as the amount of power and heat measured by the instruments on the load 32 side, Or the data which show the demand amount of the electricity and the heat which the load 32 requires are collected every day or every fixed time.
  • the communication device 34 performs wireless communication with the communication device 44 on the hydrogen supply management device 40 side.
  • the communication device 34 has a function of transmitting various data required by the hydrogen supply management device 40 to the hydrogen supply management device 40 and receiving a command transmitted from the hydrogen supply management device 40. Yes.
  • the control device 35 controls the operation of the entire hydrogen demand facility 30.
  • the control device 35 controls the operation of the fuel cell device 31, data such as the flow rate, capacity, purity, and pressure of hydrogen collected by the data collection device 13, and data such as the amount of power consumed and the amount of heat consumed.
  • data indicating the demand amount of electricity and heat required by the load 32 is transmitted to the hydrogen supply management device 40 via the communication device 14 every day or every predetermined time, or transmitted from the hydrogen supply management device 40. It has a function of acquiring an incoming command via the communication device 14 and executing processing according to the command.
  • the hydrogen supply management device 40 includes an arithmetic device 41, a display device 42, a display control device 43, a communication device 44, and a control device 45 as main components.
  • the arithmetic unit 41 controls individual information (information transmitted from each hydrogen production facility 10, information transmitted from the transport system 20, individual information acquired through the communication device 44 under the control of the control device 45. Various calculations are performed using information transmitted from the hydrogen demand facility 30 and weather information transmitted from the weather forecasting organization.
  • the computing device 41 indicates at least weather information (such as temperature, humidity, precipitation, wind conditions, and solar radiation in a predetermined area) indicating the weather in a certain area, and the demand for electricity or heat in each hydrogen demand facility. Using the information, it has a function of calculating the expected amount of hydrogen produced by each hydrogen production facility on the next day and the expected amount of hydrogen used by each hydrogen demand facility on the next day.
  • weather information such as temperature, humidity, precipitation, wind conditions, and solar radiation in a predetermined area
  • the calculation device 41 uses a predetermined algorithm to calculate a hydrogen transport route between each hydrogen production facility and each hydrogen demand facility on the next day (for each transport vehicle, hydrogen production from the hydrogen supply source). It further has a function of determining identification information indicating the facility 10, identification information indicating the hydrogen demand facility 30 of the hydrogen supply destination, and hydrogen transport amount). In determining the hydrogen transport route, the above algorithm prevents a certain amount of unused hydrogen from occurring in the entire hydrogen supply chain and prevents a shortage of hydrogen from exceeding a certain amount. In addition, the amount of hydrogen transported by each transport vehicle is set to fall between a predetermined lower limit value and an upper limit value, and the distance traveled by each transport vehicle does not exceed the predetermined value.
  • the display device 42 is a device capable of displaying information and inputting information, such as a tablet terminal with a touch panel.
  • the display control device 43 displays information as shown in FIG. 2 on the display screen of the display device 42 under the control of the control device 45.
  • the display control device 43 uses the calculation result of the calculation device 41 to at least predict the hydrogen production amount produced by each hydrogen production facility on the next day and the estimated hydrogen use amount used by each hydrogen demand facility on the next day. Are collectively displayed on one screen of the display device 42.
  • the display control device 43 has a function of further displaying on the screen the amount of hydrogen produced by each hydrogen production facility today and the amount of hydrogen used by each hydrogen demand facility today. Yes.
  • the display control device 43 has a function of further displaying information indicating the type of renewable energy used by each hydrogen production facility on the screen.
  • the display control device 43 displays on the screen information indicating the hydrogen transportation route of today and / or the next day connecting each hydrogen production facility and each hydrogen demand facility on the screen.
  • the communication device 44 performs wireless communication with the communication device 14 on the hydrogen production facility 10 side, the communication device 34 on the hydrogen demand facility 30 side, and the communication device on the transport system 20 side.
  • the communication device 44 transmits information transmitted from each hydrogen production facility 10, information transmitted from each hydrogen demand facility 30, weather information transmitted from a weather forecasting agency, and transmitted from the transport system 20. It has a function of receiving incoming information and transmitting various commands to the individual hydrogen production equipment 10, the individual hydrogen demand equipment 30, and the transportation system 20.
  • the control device 45 is responsible for the overall operation of the hydrogen supply management device 40.
  • the control device 45 uses the calculation device 41 to determine the hydrogen production amount to be produced by each hydrogen production facility on the next day and the hydrogen production facility to be used on the next day from each piece of information received by the communication device 44. Calculating the expected usage amount, determining the next day's hydrogen transportation route using the computation result of the computing device 41, and sending a command for instructing the determined transportation route to the transportation system 20 via the communication device 44; The next day when various information based on the calculation result of the calculation device 41 is displayed together on the single screen of the display device 42 by the display control device 43, or the operator sets or changes the items displayed on the display device 42.
  • a command for instructing the hydrogen transport route is transmitted to the transport system 20 via the communication device 44, and a command relating to the amount of hydrogen production and supply is sent to each individual hydrogen via the communication device 44.
  • Concrete or transmission facility to 10 has a function or to send to individual hydrogen demand equipment 30 via the communication device 44 the command about the amount of hydrogen used.
  • information about each hydrogen production facility 10, information about each hydrogen demand facility 30, and information indicating a hydrogen transport route connecting the individual hydrogen production facility 10 and each hydrogen demand facility 30 are shown. Are simultaneously displayed in one screen.
  • Information on individual hydrogen production facilities 10 includes name (A to F, etc.), location (XX town, etc.), type (wind, solar, small hydro, etc.), rated output ( ⁇ W, etc.), etc. today the hydrogen production amount ( ⁇ Nm 3), and tomorrow's hydrogen anticipated production volume (such as ⁇ Nm 3).
  • information on individual hydrogen demand facilities 30 includes name ( ⁇ factory, ⁇ building, etc.), location (XX town, etc.), rated output (such as XXW), today hydrogen consumption (such as ⁇ Nm 3), and tomorrow's hydrogen expected usage (such as ⁇ Nm 3).
  • a path connecting each hydrogen production facility and each hydrogen demand facility individually is displayed, and a transport identification number (for example, a transport vehicle number) 1 is further displayed on the path.
  • a transport identification number for example, a transport vehicle number 1 is further displayed on the path.
  • ⁇ 9 are displayed.
  • the transportation route scheduled for the next day may be displayed in different colors. The operator can set or change the displayed transportation route for the current day or the next day by performing a drag operation or the like.
  • the operator can grasp at a glance the hydrogen supply / demand relationship between each hydrogen production facility and each hydrogen demand facility by viewing the screen displayed as shown in FIG. Can do.
  • it is possible to grasp not only the relationship between hydrogen supply and demand on the current day but also the relationship between hydrogen supply and demand on the next day, and it is possible to grasp changes and trends in the relationship between supply and demand.
  • it is also possible to grasp the hydrogen transport route connecting each hydrogen production facility and each hydrogen demand facility. Therefore, the operator can grasp the operation status of the entire hydrogen supply chain at a glance, and can grasp the hydrogen operation plan for the next day and after at a glance.
  • the operator can set or change it by dragging the current day's transportation route or the next day's transportation route, so the hydrogen supply amount or usage amount is expected for some reason.
  • the hydrogen transportation plan can be changed manually as appropriate.
  • the hydrogen production facility 10 may be a facility that produces hydrogen from water or hydrocarbons using system power.
  • the hydrogen produced by the hydrogen production facility 10 may be supplied to the hydrogen demand facility 30 through a hydrogen pipe without using the transport system 20.
  • the hydrogen pipe without using the transport system 20.

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  • Chemical & Material Sciences (AREA)
  • Organic Chemistry (AREA)
  • Engineering & Computer Science (AREA)
  • Combustion & Propulsion (AREA)
  • Inorganic Chemistry (AREA)
  • Management, Administration, Business Operations System, And Electronic Commerce (AREA)
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Abstract

The hydrogen supply management device according to an embodiment of the invention is to be applied to a system containing at least one hydrogen producing installation for producing hydrogen from water or hydrocarbon by using power that is generated using renewable energy, at least one transportation means for transporting the hydrogen produced by the hydrogen producing installation, and at least one hydrogen demanding installation utilizing the hydrogen transported by the transportation means. The hydrogen supply management device comprises: calculation means using at least weather information indicating the weather for a given region, and information indicating the demand for electricity or heat at each hydrogen demanding installation to calculate an estimated production amount for the hydrogen produced by each hydrogen producing installation the following day, and an estimated usage amount for the hydrogen used by each hydrogen demanding installation the following day; and display control means using the calculation results from the calculation means to display together on one screen of a display device at least the estimated production amount for the hydrogen produced by each hydrogen producing installation the following day, and the estimated usage amount for the hydrogen used by each hydrogen demanding installation the following day.

Description

水素供給管理装置および水素供給管理方法Hydrogen supply management device and hydrogen supply management method
　本発明の実施形態は、水素供給管理装置および水素供給管理方法に関する。 Embodiments of the present invention relate to a hydrogen supply management device and a hydrogen supply management method.
　近年、水素エネルギーが次世代エネルギーの一つとして注目されており、水素の製造から、輸送、利用に至る水素サプライチェーンの運営を実用化する試みがなされている。 In recent years, hydrogen energy has attracted attention as one of the next generation energy, and an attempt has been made to put into practical use the operation of a hydrogen supply chain from hydrogen production to transportation and use.
　水素サプライチェーンの運営においては、各地に散在する各水素製造設備と各水素需要設備との間の水素の需要・供給の関係をオペレータが容易に把握できるような仕組みの構築が望まれる。しかしながら、現在のところ有効な技術が提案されていない。 In the operation of the hydrogen supply chain, it is desirable to construct a mechanism that allows the operator to easily grasp the hydrogen supply / demand relationship between each hydrogen production facility and each hydrogen demand facility scattered throughout the region. However, no effective technology has been proposed at present.
　本発明が解決しようとする課題は、各水素製造設備と各水素需要設備との間の水素の需要・供給の関係を容易に把握することを可能とする水素供給管理装置および水素供給管理方法を提供することにある。 The problem to be solved by the present invention is to provide a hydrogen supply management device and a hydrogen supply management method that make it possible to easily grasp the hydrogen supply / demand relationship between each hydrogen production facility and each hydrogen demand facility. It is to provide.
　実施形態の水素供給管理装置は、再生可能エネルギーを用いて発電される電力を用いて水または炭化水素から水素を製造する少なくとも１つの水素製造設備と、前記水素製造設備により製造される水素を輸送する少なくとも１つの輸送手段と、前記輸送手段により輸送される水素を利用する少なくとも１つの水素需要設備とを含むシステムに適用される水素供給管理装置であって、少なくとも、ある地域の気象を示す気象情報と、各水素需要設備における電気もしくは熱の需要を示す情報とを用いて、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを演算する演算手段と、前記演算手段の演算結果を用いて、少なくとも、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを、表示装置の１つの画面上にまとめて表示させる表示制御手段とを具備する。 The hydrogen supply management device of the embodiment transports at least one hydrogen production facility that produces hydrogen from water or hydrocarbons using electric power generated using renewable energy, and hydrogen produced by the hydrogen production facility A hydrogen supply management device applied to a system including at least one transportation means that performs the above and at least one hydrogen demand facility that uses hydrogen transported by the transportation means. Using information and information indicating the demand for electricity or heat at each hydrogen demand facility, the expected amount of hydrogen produced by each hydrogen production facility the next day and the expected use of hydrogen used by each hydrogen demand facility the next day A calculation means for calculating the amount, and using the calculation result of the calculation means, at least an estimated production amount of hydrogen produced by each hydrogen production facility on the next day; The estimated amount of hydrogen the hydrogen demand equipment day use, and a display control means for displaying together on a single screen of the display device.
図１は、一実施形態に係る水素供給システムの概略構成を示す図である。FIG. 1 is a diagram illustrating a schematic configuration of a hydrogen supply system according to an embodiment. 図２は、水素供給管理装置における表示制御装置が表示装置に表示させる表示画面の一例を示す図である。FIG. 2 is a diagram illustrating an example of a display screen displayed on the display device by the display control device in the hydrogen supply management device.
　以下、実施の形態について、図面を参照して説明する。 Hereinafter, embodiments will be described with reference to the drawings.
　［水素供給システムの構成］
　図１は、一実施形態に係る水素供給システムの概略構成を示す図である。 [Configuration of hydrogen supply system]
FIG. 1 is a diagram illustrating a schematic configuration of a hydrogen supply system according to an embodiment.
　本実施形態に係る水素供給システムは、一定の地域において、水素の製造から、貯蔵、輸送、利用に至る水素サプライチェーンの運営を実現するものであり、主な構成要素として、少なくとも１つの水素製造設備１０、少なくとも１つの輸送車両を含む輸送システム２０、少なくとも１つの水素需要設備３０、および水素供給管理装置４０を含む。ここでは、水素製造設備１０と水素需要設備３０とがそれぞれ複数あり、かつ輸送システム２０が複数の輸送車両を有する場合について例示する。但し、この例に限定されるものではない。 The hydrogen supply system according to the present embodiment realizes operation of a hydrogen supply chain from hydrogen production to storage, transportation, and use in a certain region, and at least one hydrogen production as a main component. The facility 10 includes a transportation system 20 including at least one transportation vehicle, at least one hydrogen demand facility 30, and a hydrogen supply management device 40. Here, a case where there are a plurality of hydrogen production facilities 10 and a plurality of hydrogen demand facilities 30 and the transport system 20 includes a plurality of transport vehicles will be illustrated. However, it is not limited to this example.
　水素製造設備１０は、水力、風力、太陽光等の再生可能エネルギーを用いて発電を行い、その発電によって生成される電力を用いて、水または炭化水素から水素を製造する設備である。水素製造設備１０は、山間地や海辺などに散在するように配置されている。 The hydrogen production facility 10 is a facility that generates power using renewable energy such as hydropower, wind power, and sunlight, and uses the power generated by the power generation to manufacture hydrogen from water or hydrocarbons. The hydrogen production facilities 10 are arranged so as to be scattered in mountainous areas, the seaside, and the like.
　輸送システム２０は、水素製造設備１０により製造された水素を水素需要設備３０へ輸送する輸送車両１，２，３，…を有する。輸送車両１，２，３，…は、例えば、水素を貯蔵したコンテナ、タンク等を輸送できるトレーラやカードルなどである。 The transport system 20 includes transport vehicles 1, 2, 3,... That transport the hydrogen produced by the hydrogen production facility 10 to the hydrogen demand facility 30. The transport vehicles 1, 2, 3,... Are, for example, trailers or curdles that can transport containers, tanks, and the like that store hydrogen.
　水素需要設備３０は、輸送システム２０の輸送車両１，２，３，…により輸送される水素を受け取り、その水素から燃料電池装置により電気や熱を生成し、生成された電気や熱を利用する設備である。例えば、温水プールの設備や、酪農家の設備、燃料電池自動車などが挙げられる。 The hydrogen demand facility 30 receives hydrogen transported by the transport vehicles 1, 2, 3,... Of the transport system 20, generates electricity and heat from the hydrogen by the fuel cell device, and uses the generated electricity and heat. Equipment. For example, the equipment of a warm water pool, the equipment of a dairy farmer, a fuel cell vehicle, etc. are mentioned.
　水素供給管理装置４０は、水素製造設備１０、輸送システム２０、および水素需要設備３０をそれぞれ制御することにより、この水素供給システムにおける水素サプライチェーンを一体として管理するものである。 The hydrogen supply management device 40 integrally manages the hydrogen supply chain in this hydrogen supply system by controlling the hydrogen production facility 10, the transport system 20, and the hydrogen demand facility 30, respectively.
　［個々の水素製造設備１０の構成］
　水素製造設備１０は、主な構成要素として、発電装置１１、水素製造装置１２、データ収集装置１３、通信装置１４、および制御装置１５を備えている。そのほか、図示しない水素貯蔵装置や蓄電池なども備えている。 [Configuration of individual hydrogen production facility 10]
The hydrogen production facility 10 includes a power generation device 11, a hydrogen production device 12, a data collection device 13, a communication device 14, and a control device 15 as main components. In addition, a hydrogen storage device and a storage battery (not shown) are also provided.
　発電装置１１は、水力発電装置、風力発電装置、あるいは太陽光発電装置などに相当し、再生可能エネルギーを用いて発電を行う。この発電装置１１の一部または全部は、水素製造設備１０の外側に設けられてもよい。 The power generation device 11 corresponds to a hydroelectric power generation device, a wind power generation device, a solar power generation device, or the like, and generates power using renewable energy. Part or all of the power generation device 11 may be provided outside the hydrogen production facility 10.
　水素製造装置１２は、発電装置１１により生成された電力を用いて、例えば別途設けられる貯水タンクから供給される水を電気分解することにより水素を製造する。この水素製造装置１２には、製造される水素の流量［Ｎｍ３／ｈ］、容量［Ｎｍ３］、純度［％］、圧力［ｋＰａ］等をそれぞれ計測する計器類（図示せず）が備えられる。製造された水素は、図示しない水素貯蔵装置に貯蔵された後、輸送システム２０のいずれかの輸送車両によっていずれかの水素需要設備３０へ輸送される。 The hydrogen production apparatus 12 produces hydrogen by electrolyzing water supplied from, for example, a separately provided water storage tank, using the electric power generated by the power generation apparatus 11. The hydrogen production apparatus 12 is equipped with instruments (not shown) for measuring the flow rate [Nm 3 / h], capacity [Nm 3 ], purity [%], pressure [kPa], etc. of the produced hydrogen. It is done. The produced hydrogen is stored in a hydrogen storage device (not shown) and then transported to any hydrogen demand facility 30 by any transport vehicle of the transport system 20.
　データ収集装置１３は、水素製造装置１２側の計器類により計測される水素の流量、容量、純度、圧力等のデータを、１日毎にあるいは一定時間毎に収集する。 The data collection device 13 collects data such as the flow rate, capacity, purity, and pressure of hydrogen measured by the instruments on the hydrogen production device 12 side every day or every fixed time.
　通信装置１４は、水素供給管理装置４０側の通信装置４４との間で無線通信を行う。例えば、通信装置１４は、水素供給管理装置４０が必要とする各種のデータを水素供給管理装置４０へ送信したり、水素供給管理装置４０から送信されてくる指令を受信したりする機能を備えている。 The communication device 14 performs wireless communication with the communication device 44 on the hydrogen supply management device 40 side. For example, the communication device 14 has a function of transmitting various data required by the hydrogen supply management device 40 to the hydrogen supply management device 40 and receiving a command transmitted from the hydrogen supply management device 40. Yes.
　制御装置１５は、水素製造設備１０全体の動作を司るものである。例えば、制御装置１５は、発電装置１１により生成された電力の蓄電量を制御したり、水素製造装置１２における水素の製造量や水素の貯蔵量などを制御したり、データ収集装置１３により収集された水素の流量、容量、純度、圧力等のデータを、１日毎にあるいは一定時間毎に通信装置１４経由で水素供給管理装置４０へ送信したり、水素供給管理装置４０から送信されてくる指令を通信装置１４経由で取得して、当該指令に応じた処理を実施したりする。 The control device 15 controls the entire operation of the hydrogen production facility 10. For example, the control device 15 controls the amount of electricity stored in the power generation device 11, controls the amount of hydrogen produced and the amount of hydrogen stored in the hydrogen production device 12, and is collected by the data collection device 13. The data such as the flow rate, capacity, purity, pressure, etc. of the hydrogen are transmitted to the hydrogen supply management device 40 via the communication device 14 every day or every fixed time, or a command transmitted from the hydrogen supply management device 40 is sent. Acquired via the communication device 14 and performs processing according to the command.
　［輸送システム２０の構成］
　輸送システム２０（もしくは輸送車両１，２，３，…）にも図示しない通信装置や制御装置が備えられる。 [Configuration of Transportation System 20]
The transport system 20 (or transport vehicles 1, 2, 3,...) Is also provided with a communication device and a control device (not shown).
　輸送システム２０の通信装置は、水素供給管理装置４０側の通信装置４４との間で無線通信を行う。例えば、通信装置１４は、水素供給管理装置４０が必要とする各種のデータを水素供給管理装置４０へ送信したり、水素供給管理装置４０から送信されてくる指令を受信したりする機能を備えている。 The communication device of the transportation system 20 performs wireless communication with the communication device 44 on the hydrogen supply management device 40 side. For example, the communication device 14 has a function of transmitting various data required by the hydrogen supply management device 40 to the hydrogen supply management device 40 and receiving a command transmitted from the hydrogen supply management device 40. Yes.
　輸送システム２０の制御装置は、輸送システム２０全体の動作を司るものである。例えば、輸送システム２０の制御装置は、輸送車両毎の各種の情報（水素供給元の水素製造設備１０を示す識別情報、水素供給先の水素需要設備３０を示す識別情報、輸送した水素の量、走行距離など）を、１日毎にあるいは一定時間毎に、通信装置経由で水素供給管理装置４０へ送信したり、水素供給管理装置４０から送信されてくる指令を通信装置経由で取得して、当該指令に応じた処理を実施したりする。 The control device of the transportation system 20 controls the operation of the entire transportation system 20. For example, the control device of the transport system 20 may provide various information for each transport vehicle (identification information indicating the hydrogen production facility 10 of the hydrogen supply source, identification information indicating the hydrogen demand facility 30 of the hydrogen supply destination, the amount of hydrogen transported, Mileage etc.) is transmitted to the hydrogen supply management device 40 via the communication device every day or every fixed time, or a command transmitted from the hydrogen supply management device 40 is acquired via the communication device, Perform processing according to the command.
　［個々の水素需要設備３０の構成］
　水素需要設備３０は、主な構成要素として、燃料電池装置３１、負荷３２、データ収集装置３３、通信装置３４、および制御装置３５を備えている。 [Configuration of individual hydrogen demand equipment 30]
The hydrogen demand facility 30 includes a fuel cell device 31, a load 32, a data collection device 33, a communication device 34, and a control device 35 as main components.
　燃料電池装置３１は、輸送システム２０のいずれかの輸送車両から輸送されてくる水素を用いて発電し、電力および熱の生成を行う。この燃料電池装置３１には、使用される水素の流量［Ｎｍ３／ｈ］、容量［Ｎｍ３］、純度［％］、圧力［ｋＰａ］等をそれぞれ計測する計器類（図示せず）が備えられる。 The fuel cell device 31 generates electricity using hydrogen transported from any transport vehicle of the transport system 20 and generates electric power and heat. The fuel cell device 31 is provided with instruments (not shown) for measuring the flow rate [Nm 3 / h], capacity [Nm 3 ], purity [%], pressure [kPa], etc. of hydrogen used. It is done.
　負荷３２は、燃料電池装置３１により生成される電力もしくは熱を消費する電力負荷もしくは熱負荷に相当するものである。この負荷３２には、消費される電力や熱の量をそれぞれ計測する計器類（図示せず）が備えられる。 The load 32 corresponds to an electric power load or a heat load that consumes electric power or heat generated by the fuel cell device 31. The load 32 is provided with instruments (not shown) for measuring the amount of power and heat consumed.
　データ収集装置３３は、燃料電池装置３１側の計器類により計測される水素の流量、容量、純度、圧力等のデータや、負荷３２側の計器類により計測される電力量や熱量等のデータ、もしくは負荷３２が必要とする電気および熱の需要量を示すデータを、１日毎にあるいは一定時間毎に収集する。 The data collection device 33 includes data such as the flow rate, capacity, purity, pressure, etc. of hydrogen measured by the instruments on the fuel cell device 31 side, data such as the amount of power and heat measured by the instruments on the load 32 side, Or the data which show the demand amount of the electricity and the heat which the load 32 requires are collected every day or every fixed time.
　通信装置３４は、水素供給管理装置４０側の通信装置４４との間で無線通信を行う。例えば、通信装置３４は、水素供給管理装置４０が必要とする各種のデータを水素供給管理装置４０へ送信したり、水素供給管理装置４０から送信されてくる指令を受信したりする機能を備えている。 The communication device 34 performs wireless communication with the communication device 44 on the hydrogen supply management device 40 side. For example, the communication device 34 has a function of transmitting various data required by the hydrogen supply management device 40 to the hydrogen supply management device 40 and receiving a command transmitted from the hydrogen supply management device 40. Yes.
　制御装置３５は、水素需要設備３０全体の動作を司るものである。例えば、制御装置３５は、燃料電池装置３１の動作を制御したり、データ収集装置１３により収集された水素の流量、容量、純度、圧力等のデータや、消費された電力量や熱量等のデータ、もしくは負荷３２が必要とする電気および熱の需要量を示すデータを、１日毎にあるいは一定時間毎に通信装置１４経由で水素供給管理装置４０へ送信したり、水素供給管理装置４０から送信されてくる指令を通信装置１４経由で取得して、当該指令に応じた処理を実施したりする機能を備えている。 The control device 35 controls the operation of the entire hydrogen demand facility 30. For example, the control device 35 controls the operation of the fuel cell device 31, data such as the flow rate, capacity, purity, and pressure of hydrogen collected by the data collection device 13, and data such as the amount of power consumed and the amount of heat consumed. Alternatively, data indicating the demand amount of electricity and heat required by the load 32 is transmitted to the hydrogen supply management device 40 via the communication device 14 every day or every predetermined time, or transmitted from the hydrogen supply management device 40. It has a function of acquiring an incoming command via the communication device 14 and executing processing according to the command.
　［水素供給管理装置４０の構成］
　水素供給管理装置４０は、主な構成要素として、演算装置４１、表示装置４２、表示制御装置４３、通信装置４４、および制御装置４５を備えている。 [Configuration of Hydrogen Supply Management Device 40]
The hydrogen supply management device 40 includes an arithmetic device 41, a display device 42, a display control device 43, a communication device 44, and a control device 45 as main components.
　演算装置４１は、制御装置４５の制御のもと、通信装置４４を通じて取得される個々の情報（個々の水素製造設備１０から送信されてくる情報、輸送システム２０から送信されてくる情報、個々の水素需要設備３０から送信されてくる情報、および気象予報機関から送信されてくる気象情報）を用いて、各種の演算を行う。 The arithmetic unit 41 controls individual information (information transmitted from each hydrogen production facility 10, information transmitted from the transport system 20, individual information acquired through the communication device 44 under the control of the control device 45. Various calculations are performed using information transmitted from the hydrogen demand facility 30 and weather information transmitted from the weather forecasting organization.
　例えば、演算装置４１は、少なくとも、ある地域の気象を示す気象情報（所定の地域における気温、湿度、降水量、風況、日射量など）と、各水素需要設備における電気もしくは熱の需要を示す情報とを用いて、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを演算する機能を備えている。 For example, the computing device 41 indicates at least weather information (such as temperature, humidity, precipitation, wind conditions, and solar radiation in a predetermined area) indicating the weather in a certain area, and the demand for electricity or heat in each hydrogen demand facility. Using the information, it has a function of calculating the expected amount of hydrogen produced by each hydrogen production facility on the next day and the expected amount of hydrogen used by each hydrogen demand facility on the next day.
　また、演算装置４１は、その演算結果から、所定のアルゴリズムを用いて、翌日の各水素製造設備と各水素需要設備との間の水素の輸送経路（輸送車両毎に、水素供給元の水素製造設備１０を示す識別情報、および水素供給先の水素需要設備３０を示す識別情報、ならびに水素の輸送量）を決定する機能をさらに備えている。上記アルゴリズムは、水素の輸送経路を決定するに際し、水素サプライチェーン全体として一定以上の未使用の水素が生じず、かつ、一定以上の水素の不足が生じないようする。また、個々の輸送車両が輸送する水素の量が所定の下限値と上限値の間に収まるようにし、かつ、個々の輸送車両の走行する距離が所定値を超えないようにする。 In addition, the calculation device 41 uses a predetermined algorithm to calculate a hydrogen transport route between each hydrogen production facility and each hydrogen demand facility on the next day (for each transport vehicle, hydrogen production from the hydrogen supply source). It further has a function of determining identification information indicating the facility 10, identification information indicating the hydrogen demand facility 30 of the hydrogen supply destination, and hydrogen transport amount). In determining the hydrogen transport route, the above algorithm prevents a certain amount of unused hydrogen from occurring in the entire hydrogen supply chain and prevents a shortage of hydrogen from exceeding a certain amount. In addition, the amount of hydrogen transported by each transport vehicle is set to fall between a predetermined lower limit value and an upper limit value, and the distance traveled by each transport vehicle does not exceed the predetermined value.
　表示装置４２は、例えばタッチパネル付のタブレット端末のように情報の画面表示および入力操作が可能な装置である。 The display device 42 is a device capable of displaying information and inputting information, such as a tablet terminal with a touch panel.
　表示制御装置４３は、制御装置４５の制御のもと、表示装置４２の表示画面に例えば図２に示すような情報を表示させる。 The display control device 43 displays information as shown in FIG. 2 on the display screen of the display device 42 under the control of the control device 45.
　例えば、表示制御装置４３は、演算装置４１の演算結果を用いて、少なくとも、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを、表示装置４２の１つの画面上にまとめて表示させる機能を備えている。 For example, the display control device 43 uses the calculation result of the calculation device 41 to at least predict the hydrogen production amount produced by each hydrogen production facility on the next day and the estimated hydrogen use amount used by each hydrogen demand facility on the next day. Are collectively displayed on one screen of the display device 42.
　また、表示制御装置４３は、前記画面上に、本日の各水素製造設備が製造する水素の製造量と、本日の各水素需要設備が使用する水素の使用量を、更に表示させる機能を備えている。 The display control device 43 has a function of further displaying on the screen the amount of hydrogen produced by each hydrogen production facility today and the amount of hydrogen used by each hydrogen demand facility today. Yes.
　また、表示制御装置４３は、前記画面上に、各水素製造設備が使用する再生可能エネルギーの種別を示す情報を、更に表示させる機能を備えている。 Further, the display control device 43 has a function of further displaying information indicating the type of renewable energy used by each hydrogen production facility on the screen.
　また、表示制御装置４３は、前記画面上に、各水素製造設備と各水素需要設備とを繋ぐ本日および／または翌日の水素の輸送経路を示す情報を前記画面上に表示させたり、当該輸送経路の設定もしくは変更を可能とする項目を前記画面上に表示させたりする機能を備えている。 Further, the display control device 43 displays on the screen information indicating the hydrogen transportation route of today and / or the next day connecting each hydrogen production facility and each hydrogen demand facility on the screen. A function for displaying on the screen an item that can be set or changed.
　通信装置４４は、水素製造設備１０側の通信装置１４、水素需要設備３０側の通信装置３４、および輸送システム２０側の通信装置との間で無線通信を行う。例えば、通信装置４４は、個々の水素製造設備１０から送信されてくる情報、個々の水素需要設備３０から送信されてくる情報、気象予報機関から送信されてくる気象情報、および輸送システム２０から送信されてくる情報を受信したり、各種の指令を個々の水素製造設備１０、個々の水素需要設備３０、および輸送システム２０へ送信したりする機能を備えている。 The communication device 44 performs wireless communication with the communication device 14 on the hydrogen production facility 10 side, the communication device 34 on the hydrogen demand facility 30 side, and the communication device on the transport system 20 side. For example, the communication device 44 transmits information transmitted from each hydrogen production facility 10, information transmitted from each hydrogen demand facility 30, weather information transmitted from a weather forecasting agency, and transmitted from the transport system 20. It has a function of receiving incoming information and transmitting various commands to the individual hydrogen production equipment 10, the individual hydrogen demand equipment 30, and the transportation system 20.
　制御装置４５は、水素供給管理装置４０全体の動作を司るものである。例えば、制御装置４５は、演算装置４１を用いて通信装置４４により受信される個々の情報から翌日の各水素製造設備が製造する水素の予想製造量と翌日の各水素需要設備が使用する水素の予想使用量とを演算させたり、演算装置４１の演算結果を用いて翌日の水素の輸送経路を決定し、決定した輸送経路を指示する指令を通信装置４４経由で輸送システム２０へ送信したり、演算装置４１の演算結果に基づく各種の情報を表示制御装置４３により表示装置４２の１つの画面上にまとめて表示させたり、表示装置４２に表示された項目に対してオペレータが設定もしくは変更する翌日の水素の輸送経路を指示する指令を通信装置４４経由で輸送システム２０へ送信したり、水素の製造量・供給量に関する指令を通信装置４４経由で個々の水素製造設備１０へ送信したり、水素の使用量に関する指令を通信装置４４経由で個々の水素需要設備３０へ送信したりする機能を備えている。 The control device 45 is responsible for the overall operation of the hydrogen supply management device 40. For example, the control device 45 uses the calculation device 41 to determine the hydrogen production amount to be produced by each hydrogen production facility on the next day and the hydrogen production facility to be used on the next day from each piece of information received by the communication device 44. Calculating the expected usage amount, determining the next day's hydrogen transportation route using the computation result of the computing device 41, and sending a command for instructing the determined transportation route to the transportation system 20 via the communication device 44; The next day when various information based on the calculation result of the calculation device 41 is displayed together on the single screen of the display device 42 by the display control device 43, or the operator sets or changes the items displayed on the display device 42. A command for instructing the hydrogen transport route is transmitted to the transport system 20 via the communication device 44, and a command relating to the amount of hydrogen production and supply is sent to each individual hydrogen via the communication device 44. Concrete or transmission facility to 10, has a function or to send to individual hydrogen demand equipment 30 via the communication device 44 the command about the amount of hydrogen used.
　［画面表示の具体例］
　次に、図２を参照して、表示制御装置４３が表示装置４２に表示させる表示画面の一例について説明する。 [Specific examples of screen display]
Next, an example of a display screen that the display control device 43 displays on the display device 42 will be described with reference to FIG.
　この表示画面の例では、個々の水素製造設備１０に関する情報と、個々の水素需要設備３０に関する情報と、個々の水素製造設備１０と個々の水素需要設備３０とを繋ぐ水素の輸送経路を示す情報とが、１つの画面の中にまとめて同時に表示される。 In this example of the display screen, information about each hydrogen production facility 10, information about each hydrogen demand facility 30, and information indicating a hydrogen transport route connecting the individual hydrogen production facility 10 and each hydrogen demand facility 30 are shown. Are simultaneously displayed in one screen.
　個々の水素製造設備１０に関する情報は、名称（Ａ～Ｆなど）、所在地（○○町◆◆、○○町□□…など）、種別（風力、太陽光、小水力など）、定格出力（○○Ｗなど）、本日の水素製造量（○○Ｎｍ３など）、および明日の水素予想製造量（○○Ｎｍ３など）を含む。 Information on individual hydrogen production facilities 10 includes name (A to F, etc.), location (XX town, etc.), type (wind, solar, small hydro, etc.), rated output ( ○○ W, etc.), etc. today the hydrogen production amount (○○ Nm 3), and tomorrow's hydrogen anticipated production volume (such as ○○ Nm 3).
　一方、個々の水素需要設備３０に関する情報は、名称（△工場、▽ビル…など）、所在地（○○町◆◆、○○町□□…など）、定格出力（○○Ｗなど）、本日の水素使用量（○○Ｎｍ３など）、および明日の水素予想使用量（○○Ｎｍ３など）を含む。 On the other hand, information on individual hydrogen demand facilities 30 includes name (△ factory, ▽ building, etc.), location (XX town, etc.), rated output (such as XXW), today hydrogen consumption (such as ○○ Nm 3), and tomorrow's hydrogen expected usage (such as ○○ Nm 3).
　水素の輸送経路を示す情報としては、例えば、各水素製造設備と各水素需要設備とを個別に繋ぐパスが表示され、更に当該パスの上には輸送の識別番号（例えば輸送車両の番号）１～９が表示される。本日の輸送経路を表示させるほか、翌日の予定されている輸送経路を併せて色違いで表示させるようにしてもよい。オペレータは、表示される本日の輸送経路もしくは翌日の輸送経路に対し、ドラッグ操作等を行うことにより設定もしくはその変更を行うことができる。 As information indicating the hydrogen transportation route, for example, a path connecting each hydrogen production facility and each hydrogen demand facility individually is displayed, and a transport identification number (for example, a transport vehicle number) 1 is further displayed on the path. ~ 9 are displayed. In addition to displaying today's transportation route, the transportation route scheduled for the next day may be displayed in different colors. The operator can set or change the displayed transportation route for the current day or the next day by performing a drag operation or the like.
　本実施形態によれば、オペレータは図２のように表示される画面を閲覧することにより、各水素製造設備と各水素需要設備との間の水素の需要・供給の関係を一目で把握することができる。その場合、本日における水素の需要・供給の関係のみならず、翌日における水素の需要・供給の関係も併せて把握することができ、需要・供給の関係の変化や傾向を把握することができる。更には、各水素製造設備と各水素需要設備とを繋ぐ水素の輸送経路も併せて把握することができる。そのため、オペレータは、水素サプライチェーン全体の運行状況を一目で把握することができ、翌日以降における水素の運行計画をも一目で把握することができる。 According to the present embodiment, the operator can grasp at a glance the hydrogen supply / demand relationship between each hydrogen production facility and each hydrogen demand facility by viewing the screen displayed as shown in FIG. Can do. In that case, it is possible to grasp not only the relationship between hydrogen supply and demand on the current day but also the relationship between hydrogen supply and demand on the next day, and it is possible to grasp changes and trends in the relationship between supply and demand. Furthermore, it is also possible to grasp the hydrogen transport route connecting each hydrogen production facility and each hydrogen demand facility. Therefore, the operator can grasp the operation status of the entire hydrogen supply chain at a glance, and can grasp the hydrogen operation plan for the next day and after at a glance.
　また、オペレータは、表示される本日の輸送経路もしくは翌日の輸送経路に対してドラッグ操作等を行うことにより設定もしくはその変更を行うことができるので、何らかの理由で水素の供給量もしくは使用量が予想に反して変化するような場合には、手動で水素の輸送計画を適宜変更することが可能となる。 In addition, the operator can set or change it by dragging the current day's transportation route or the next day's transportation route, so the hydrogen supply amount or usage amount is expected for some reason. In contrast, if it changes, the hydrogen transportation plan can be changed manually as appropriate.
　なお、水素製造設備１０は、系統電力を用いて、水または炭化水素から水素を製造する設備であってもよい。 The hydrogen production facility 10 may be a facility that produces hydrogen from water or hydrocarbons using system power.
　また、輸送システム２０を使わず、水素製造設備１０により製造された水素を水素需要設備３０へ水素配管で供給するものであってもよい。　以上詳述したように、実施形態によれば、各水素製造設備と各水素需要設備との間の水素の需要・供給の関係を容易に把握することができる。 Alternatively, the hydrogen produced by the hydrogen production facility 10 may be supplied to the hydrogen demand facility 30 through a hydrogen pipe without using the transport system 20. As described in detail above, according to the embodiment, it is possible to easily grasp the hydrogen supply / demand relationship between each hydrogen production facility and each hydrogen demand facility.
　本発明のいくつかの実施形態を説明したが、これらの実施形態は、例として提示したものであり、発明の範囲を限定することは意図していない。これら新規な実施形態は、その他の様々な形態で実施されることが可能であり、発明の要旨を逸脱しない範囲で、種々の省略、置き換え、変更を行うことができる。これら実施形態やその変形は、発明の範囲や要旨に含まれるとともに、特許請求の範囲に記載された発明とその均等の範囲に含まれる。 Although several embodiments of the present invention have been described, these embodiments are presented as examples and are not intended to limit the scope of the invention. These novel embodiments can be implemented in various other forms, and various omissions, replacements, and changes can be made without departing from the scope of the invention. These embodiments and modifications thereof are included in the scope and gist of the invention, and are included in the invention described in the claims and the equivalents thereof.
　１０…水素製造設備、２０…輸送システム、３０…水素需要設備、４０…水素供給管理装置。 10 ... Hydrogen production facility, 20 ... Transportation system, 30 ... Hydrogen demand facility, 40 ... Hydrogen supply management device.

Claims (8)

  1. 　水または炭化水素から水素を製造する少なくとも１つの水素製造設備と、前記水素製造設備により製造される水素を輸送する少なくとも１つの輸送手段と、前記輸送手段により輸送される水素を利用する少なくとも１つの水素需要設備とを含むシステムに適用される水素供給管理装置であって、
    　翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを演算する演算手段と、
    　前記演算手段の演算結果を用いて、少なくとも、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを、表示装置の画面上に表示させる表示制御手段と
    　を具備することを特徴とする水素供給管理装置。     At least one hydrogen production facility for producing hydrogen from water or hydrocarbons, at least one transportation means for transporting hydrogen produced by the hydrogen production equipment, and at least one for utilizing hydrogen transported by the transportation means A hydrogen supply management device applied to a system including a hydrogen demand facility,
    Calculation means for calculating the expected production amount of hydrogen produced by each hydrogen production facility on the next day and the expected use amount of hydrogen used by each hydrogen demand facility on the next day,
    Using the calculation result of the calculation means, at least the estimated production amount of hydrogen produced by each hydrogen production facility on the next day and the estimated use amount of hydrogen used by each hydrogen demand facility on the next day are displayed on the screen of the display device. And a display control means for displaying the hydrogen supply management device.
  2. 　水または炭化水素から水素を製造する少なくとも１つの水素製造設備と、前記水素製造設備により製造される水素を輸送する少なくとも１つの輸送手段と、前記輸送手段により輸送される水素を利用する少なくとも１つの水素需要設備とを含むシステムに適用される水素供給管理装置であって、
    　少なくとも、各水素製造設備が製造する水素の製造量と、各水素需要設備が使用する水素の使用量とを、表示装置の画面上に表示させる表示制御手段を具備することを特徴とする水素供給管理装置。     At least one hydrogen production facility for producing hydrogen from water or hydrocarbons, at least one transportation means for transporting hydrogen produced by the hydrogen production equipment, and at least one for utilizing hydrogen transported by the transportation means A hydrogen supply management device applied to a system including a hydrogen demand facility,
    A hydrogen supply comprising display control means for displaying at least the amount of hydrogen produced by each hydrogen production facility and the amount of hydrogen used by each hydrogen demand facility on the screen of a display device Management device.
  3. 　前記表示制御手段は、前記画面上に、本日の各水素製造設備が製造する水素の製造量と、本日の各水素需要設備が使用する水素の使用量を、更に表示させることを特徴とする請求項１に記載の水素供給管理装置。 The display control means further displays, on the screen, the amount of hydrogen produced by each hydrogen production facility today and the amount of hydrogen used by each hydrogen demand facility today. Item 2. The hydrogen supply management device according to Item 1.
  4. 　前記表示制御手段は、前記画面上に、各水素製造設備と各水素需要設備とを繋ぐ水素の輸送経路を示す情報を、更に表示させることを特徴とする請求項１乃至３のいずれか１項に記載の水素供給管理装置。 The said display control means further displays the information which shows the transport route of the hydrogen which connects each hydrogen production equipment and each hydrogen demand equipment on the said screen, The any one of Claim 1 thru | or 3 characterized by the above-mentioned. The hydrogen supply management device described in 1.
  5. 　前記表示制御手段は、前記画面上に、各水素製造設備と各水素需要設備とを繋ぐ水素の輸送経路の設定もしくは変更を可能とする項目を、更に表示させることを特徴とする請求項４に記載の水素供給管理装置。 The display control means further displays on the screen an item that enables setting or changing a hydrogen transportation route connecting each hydrogen production facility and each hydrogen demand facility. The hydrogen supply management device described.
  6. 　前記演算手段は、少なくともある地域の気象を示す気象情報を、各水素需要設備における電気もしくは熱の需要を示す情報とを用いて、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを演算することを特徴とする請求項１記載の水素供給管理装置。 The calculation means uses at least meteorological information indicating the weather in a certain area, information indicating the demand for electricity or heat in each hydrogen demand facility, and the expected production amount of hydrogen produced by each hydrogen production facility on the next day, 2. The hydrogen supply management apparatus according to claim 1, wherein an expected amount of hydrogen used by each hydrogen demand facility on the next day is calculated.
  7. 　水または炭化水素から水素を製造する少なくとも１つの水素製造設備と、前記水素製造設備により製造される水素を輸送する少なくとも１つの輸送手段と、前記輸送手段により輸送される水素を利用する少なくとも１つの水素需要設備とを含むシステムに適用される水素供給管理方法であって、
    　演算手段により、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを演算し、
    　表示制御手段により、前記演算手段の演算結果を用いて、少なくとも、翌日の各水素製造設備が製造する水素の予想製造量と、翌日の各水素需要設備が使用する水素の予想使用量とを、表示装置の画面上に表示させる
    　ことを特徴とする水素供給管理方法。     At least one hydrogen production facility for producing hydrogen from water or hydrocarbons, at least one transportation means for transporting hydrogen produced by the hydrogen production equipment, and at least one for utilizing hydrogen transported by the transportation means A hydrogen supply management method applied to a system including a hydrogen demand facility,
    Calculate the expected amount of hydrogen produced by each hydrogen production facility on the next day and the estimated amount of hydrogen used by each hydrogen demand facility on the next day by the calculation means,
    By using the calculation result of the calculation means by the display control means, at least the expected production amount of hydrogen produced by each hydrogen production facility on the next day and the expected use amount of hydrogen used by each hydrogen demand facility on the next day, A method for managing hydrogen supply, comprising: displaying on a screen of a display device.
  8. 　水または炭化水素から水素を製造する少なくとも１つの水素製造設備と、水素を利用する少なくとも１つの水素需要設備と、前記水素製造設備により製造される水素を前記水素需要設備に供給する水素配管とを含むシステムに適用される水素供給管理装置であって、
    　少なくとも、各水素製造設備が製造する水素の製造量と、各水素需要設備が使用する水素の使用量とを、表示装置の画面上に表示させる表示制御手段を具備することを特徴とする水素供給管理装置。     At least one hydrogen production facility for producing hydrogen from water or hydrocarbons, at least one hydrogen demand facility using hydrogen, and a hydrogen pipe for supplying hydrogen produced by the hydrogen production facility to the hydrogen demand facility A hydrogen supply management device applied to a system including:
    A hydrogen supply comprising display control means for displaying at least the amount of hydrogen produced by each hydrogen production facility and the amount of hydrogen used by each hydrogen demand facility on the screen of a display device Management device.
PCT/JP2015/072423 2015-08-06 2015-08-06 Hydrogen supply management device and hydrogen supply management method WO2017022135A1 (en)

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JP2002190309A (en) * 2000-12-22 2002-07-05 Osaka Gas Co Ltd Operation control system for cogeneration unit
JP2002372199A (en) * 2001-06-18 2002-12-26 Tokyo Gas Co Ltd Hydrogen supply system
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