JP2017010646A - Container assembly for hydrogen system - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a container assembly for hydrogen system capable of configuring a hydrogen system which enables continuous power supply, and reducing an installation space of the hydrogen system.SOLUTION: A container assembly 80 for hydrogen system comprises a first container 81 and a second container 82. At least one of a hydrogen generation device 40, a hydrogen storage device 50, a fuel cell power generation device 60 and a power regulation device 20 is accommodated in the first container 81. At least one of the hydrogen generation device 40, the hydrogen storage device 50, the fuel cell power generation device 60 and the power regulation device 20 is accommodated in the second container 82. The first container 81 is vertically stacked on the second container 82.SELECTED DRAWING: Figure 6

Description

  Embodiments of the present invention relate to a container assembly for a hydrogen system.

  In general, when a power outage occurs due to a disaster, power is supplied to the disaster area where the power outage occurred using an emergency small power source. As the small power source, for example, a generator using a small diesel engine, a storage battery, or the like can be used.

  Among these, a generator using a diesel engine generates power by supplying fuel from the outside. As a result, when the fuel is not well stocked or when the transportation network is interrupted due to a disaster and the fuel cannot be procured, the fuel is exhausted and power generation cannot be performed. For this reason, power cannot be continuously supplied to the disaster area.

  The storage battery has a problem that the time during which charged power can be supplied (discharged) is short. In addition, since the storage battery is easily discharged, it may be difficult to maintain the normally charged power.

  As an alternative to the diesel engine and storage battery described above, it is conceivable to use a fuel cell as an emergency power source. However, a fuel cell uses a fuel such as hydrogen to generate power. For this reason, when the fuel such as hydrogen is not sufficiently stocked or cannot be procured, there is a problem that hydrogen is lost, and power cannot be continuously supplied to the disaster area.

  Also, it usually takes time to install fuel cells in disaster areas. This can make it difficult to quickly supply power to the disaster area. Furthermore, rubble and the like are often scattered in a disaster area. In such a case, it may be difficult to secure a space where a system including a fuel cell and a device attached thereto can be installed.

JP-A-2005-290908

  The problem to be solved by the present invention is to provide a hydrogen system container assembly capable of configuring a hydrogen system that enables continuous power supply and reducing the installation space of the hydrogen system. It is.

  The container assembly for a hydrogen system according to the embodiment includes a first container and a second container. Among these, a hydrogen generator for generating hydrogen in a first container, a hydrogen storage device for storing hydrogen generated by the hydrogen generator, a fuel cell power generator for generating power using hydrogen stored in the hydrogen storage device, and hydrogen At least one of the power adjustment devices for adjusting the power supplied to the generator is accommodated. In the second container, at least one of a hydrogen generator, a hydrogen storage device, a fuel cell power generator, and a power adjustment device is accommodated. The first container is stacked vertically on the second container.

  ADVANTAGE OF THE INVENTION According to this invention, the hydrogen system which enables a continuous electric power supply can be comprised, and the installation space of this hydrogen system can be reduced.

FIG. 1 is a block diagram showing a hydrogen system in the first embodiment. FIG. 2 is a block diagram showing the power conditioner device of FIG. FIG. 3 is a block diagram showing the hydrogen generator of FIG. FIG. 4 is a block diagram showing the hydrogen storage device of FIG. FIG. 5 is a block diagram showing the fuel cell power generator of FIG. FIG. 6 is a schematic perspective view showing the container assembly for a hydrogen system in the first embodiment. FIG. 7 is a top view showing the first container of FIG. FIG. 8 is a front view showing the first container of FIG. FIG. 9 is a top view showing the second container of FIG. 2, schematically showing the internal configuration. FIG. 10 is a front view showing the second container of FIG. FIG. 11 is a diagram illustrating a state where the container of FIG. 2 is transported by rail. FIG. 12 is a diagram illustrating a state in which the container of FIG. 2 is transported by a forklift. FIG. 13 is a diagram illustrating a state in which the container of FIG. 2 is transported by ship. FIG. 14 is a diagram illustrating a state in which the container of FIG. 2 is transported by a trailer. FIG. 15 is a diagram for explaining the operation of the hydrogen system of FIG. FIG. 16 is a flowchart showing a part of the operation of the hydrogen system of FIG. FIG. 17 is a schematic perspective view showing a container assembly for a hydrogen system according to the second embodiment. FIG. 18 is a schematic perspective view showing a container assembly for a hydrogen system according to the third embodiment. FIG. 19 is a schematic perspective view showing a container assembly for a hydrogen system according to the fourth embodiment. FIG. 20 is a schematic perspective view showing a container assembly for a hydrogen system in the fifth embodiment. FIG. 21 is a schematic perspective view showing a container assembly for a hydrogen system in the sixth embodiment. FIG. 22 is a schematic perspective view showing a container assembly for a hydrogen system in the seventh embodiment.

  Embodiments of the present invention will be described below with reference to the drawings.

(First embodiment)
A hydrogen system container assembly according to the first embodiment will be described with reference to FIGS. 1 to 16. The container assembly for a hydrogen system is a combination obtained by combining a plurality of containers in which a part of devices constituting a hydrogen system (also referred to as a power supply system) is accommodated. Here, the hydrogen system will be described first.

  As shown in FIG. 1, the hydrogen system 1 includes a natural energy power generation device 10, a power conditioner device 20 (power adjustment device), a water storage device 30, a hydrogen generation device 40, a hydrogen storage device 50, and a fuel cell. A power generation device 60 and a control device 70 are provided. In general, power is supplied from a power system 2 (commercial power supply) to a load unit 3 having electric devices that consume power. The hydrogen system 1 supplies power to the load unit 3 separately from the power system 2. (Refer to the solid arrow in FIG. 1). In addition, the load unit 3 includes a hot water utilization device, and the hydrogen system 1 is also configured to produce warm water (or a heat medium) by heating water and supply the warm water to the load unit 3. (Refer to the dashed line arrow in FIG. 1). Here, in FIG. 1, the solid line arrows indicate the flow of electric power, and the broken line arrows indicate the flow of hydrogen. In addition, a one-dot chain line arrow indicates the flow of water, and a two-dot chain line arrow indicates the signal flow. Below, the structure of the hydrogen system 1 is demonstrated in detail.

  The natural energy power generation device 10 is a power generation device that generates power using natural energy. For example, the natural energy power generation device 10 can be a photovoltaic power generation (PV) device. The solar power generation device includes a solar cell panel, and is configured to receive sunlight with the solar cell panel and photoelectrically convert the received sunlight to generate power. Natural energy power generation device 10 is not limited to a solar power generation device, and may be a wind power generation device, a solar thermal power generation device, a geothermal power generation device, or a biomass power generation device.

  The power conditioner device 20 is configured to adjust the electric power generated by the natural energy power generation device 10 and supply the adjusted electric power to the load unit 3. In other words, the power conditioner device 20 is supplied with electric power from the natural energy power generation device 10, and the supplied electric power is adjusted to become electric power that can be used in the load unit 3. The adjusted power is also supplied to the hydrogen generator 40.

  FIG. 2 is a block diagram of the power conditioner device 20 in the present embodiment. As shown in FIG. 2, the power conditioner device 20 includes a first converter 201 a, an inverter 201, a second converter 202 a, and a storage battery 202.

  Among these, DC power is supplied to the first converter 201a from the natural energy power generation apparatus 10 via the power line, and the first converter 201a fits the supplied power within a predetermined voltage range. Adjust as follows. The inverter 201 converts the DC power adjusted by the first converter 201a into AC power. Second converter 202a adjusts the AC power converted by inverter 201 so as to be within a predetermined voltage range. The storage battery 202 stores the AC power adjusted by the second converter 202a. In this way, the electric power generated by the natural energy power generation apparatus 10 is stored in the storage battery 202. The stored electric power is output from the power conditioner device 20 via the second converter 202a and the inverter 201, and is supplied to the load unit 3 or the hydrogen generator 40. The storage battery 202 can be, for example, a lithium ion secondary battery.

  In addition to the natural energy power generation device 10, the power conditioner device 20 is supplied with power generated from the fuel cell power generation device 60 and is stored in the storage battery 202. In addition, power is supplied from the power system 2 to the power conditioner device 20. The power conditioner device 20 is configured to operate using the power supplied from the power system 2.

  As shown in FIG. 1, the water storage device 30 is configured to store water and supply the stored water to the hydrogen generator 40. In addition, the water storage device 30 supplies the stored water to the fuel cell power generation device 60.

  Specifically, the water storage device 30 includes a water supply tank (not shown), and stores water supplied through an existing water supply facility in the water supply tank. The water stored in the water supply tank is supplied to the hydrogen generator 40 and the fuel cell power generator 60 via a pump (not shown). In addition, you may be comprised so that water may be supplied to the hydrogen generator 40 and the fuel cell power generation device 60 by water head pressure, without using such a pump.

  In addition, the water storage device 30 is configured such that water supplied to the fuel cell power generation device 60 returns. That is, the water supplied to the fuel cell power generation device 60 is heated in the fuel cell power generation device 60 to become hot water (heat medium), and this hot water may be returned to the water storage device 30 in some cases. The warm water returned in this way may be stored in a water supply tank.

  As shown in FIG. 1, the hydrogen generator 40 is configured to generate hydrogen. Electric power is supplied from the power conditioner device 20 to the hydrogen generator 40. More specifically, the hydrogen generator 40 produces hydrogen by electrolyzing water using at least one of the electric power generated by the natural energy power generation apparatus 10 and the electric power supplied from the electric power system 2.

  FIG. 3 shows a block diagram of the hydrogen generator 40 in the present embodiment. As shown in FIG. 3, the hydrogen generator 40 includes a pure water production apparatus 401 a and a water electrolysis apparatus 401. Water is supplied from the water storage device 30 to the pure water production apparatus 401a, and the pure water production apparatus 401a removes impurities from the supplied water. The water electrolysis apparatus 401 supplies electricity to water from which impurities have been removed (pure water), and electrolyzes the water into hydrogen and oxygen. In this way, hydrogen is produced. The produced hydrogen is supplied to the hydrogen storage device 50 and stored. On the other hand, oxygen generated in the water electrolysis apparatus 401 is released to the atmosphere. The water electrolysis apparatus 401 can be, for example, a solid polymer type (PEM) water electrolysis apparatus, but can also be a high temperature steam electrolysis apparatus using, for example, SOEC (Solid Oxide Electrolysis Cell).

  As shown in FIG. 3, the hydrogen generator 40 further includes a compressor 402 and a chiller unit 403. Among these, the compressor 402 compresses air and supplies it to the water electrolysis apparatus 401. The chiller unit 403 supplies cooling water to the water electrolysis apparatus 401.

  Furthermore, the hydrogen generator 40 further includes measuring devices (not shown) such as a gas sensor, a pressure gauge, and a flow meter. Data measured by these measuring devices is output to the control device 70 as a data signal.

  As shown in FIG. 1, the hydrogen storage device 50 is configured to store hydrogen generated by the hydrogen generation device 40.

  FIG. 4 shows a block diagram of the hydrogen storage device 50 in the present embodiment. As shown in FIG. 4, the hydrogen storage device 50 includes a hydrogen storage tank 501, an electromagnetic valve 502, and a safety valve 503. Among these, hydrogen produced by the hydrogen generator 40 is supplied to the hydrogen storage tank 501 via an electromagnetic valve 502. The supplied hydrogen is stored in the hydrogen storage tank 501.

  The hydrogen storage device 50 further includes measuring devices (not shown) such as a gas sensor, a pressure gauge, and a flow meter. Data measured by these measuring devices is output to the control device 70 as a data signal.

  As shown in FIG. 1, the fuel cell power generation device 60 is configured to generate power using the hydrogen stored in the hydrogen storage device 50 and output the power generated by the power generation to the load unit 3. Further, the fuel cell power generation device 60 may be configured to heat the water supplied from the water storage device 30 and generate hot water using heat generated by power generation. And it is comprised so that the produced | generated hot water may be supplied to the load part 3 (hot water consumption destination).

  FIG. 5 shows a block diagram of a fuel cell power generator 60 according to the present embodiment. As shown in FIG. 5, the fuel cell power generator 60 includes a fuel cell 601, an inverter 602, a hot water storage tank 603, and a radiator 604. Among these, the fuel cell 601 is supplied with hydrogen from the hydrogen storage device 50, and the fuel cell 601 generates power using the supplied hydrogen. The fuel cell 601 can be, for example, a polymer electrolyte fuel cell (PEFC). The inverter 602 converts the electric power generated by the fuel cell 601 into electric power that can be used by the load unit 3.

  The hot water storage tank 603 stores hot water generated by using heat generated by the power generation of the fuel cell 601 and supplies the stored hot water to the load unit 3. The radiator 604 is configured to dissipate heat generated by the power generation of the fuel cell 601. More specifically, the radiator 604 generates power from the fuel cell 601 when the amount of hot water supplied from the storage tank 603 to the load unit 3 is larger than the amount of hot water used in the load unit 3. Dissipate the heat generated in.

  The fuel cell power generator 60 further includes measuring devices such as a gas sensor, a pressure gauge, and a flow meter. Data measured by these measuring devices is output to the control device 70 as a data signal.

  As shown in FIG. 1, the control device 70 is configured to control each device constituting the hydrogen system 1. The control device 70 includes an arithmetic unit and a memory (not shown), and the arithmetic unit performs arithmetic processing using a program stored in the memory, thereby controlling each device.

  Data measured by the measuring device of each device is input to the control device 70 as a data signal. Further, the amount of power used in the load unit 3 is input to the control device 70 as a data signal. For example, a data signal of the amount of power used by the load unit 3 during a predetermined time (30 minutes) is input to the control device 70. Further, the control device 70 includes a supply amount of power supplied from the power system 2, a use amount of hot water used in the load unit 3, an output amount of power output from the natural energy power generation device 10, and a power conditioner device. 20, the storage amount of the storage battery 202, the output amount of power output from the fuel cell power generator 60, the storage amount of water stored in the water storage device 30, the storage amount of hydrogen stored in the hydrogen storage device 50 Data such as the amount of hot water stored in the fuel cell power generator 60 is input as a data signal. Then, the control device 70 performs an operation based on the input data signal and outputs a control signal to each device of the hydrogen system 1. In this way, the control device 70 controls the operation of each device of the hydrogen system 1 and performs control so as to achieve optimum operation.

  For example, the control device 70 performs control so that power is supplied from the hydrogen system 1 to the load unit 3 when the amount of power used by the load unit 3 is larger than a predetermined value in a normal state. I do. Here, the normal state means a state in which power is supplied from the power system 2 to the load unit 3. In this case, based on the output amount of power output from the natural energy power generation device 10, the output amount of power output from the fuel cell power generation device 60, the storage amount of the storage battery 202, and the like, power is appropriately collected from each device and loaded. Supply to part 3. Further, the control device 70 supplies hot water from the fuel cell power generator 60 to the load unit 3 based on the amount of hot water used in the load unit 3.

  On the other hand, in the event of a power outage due to a disaster or the like, power may not be supplied from the power system 2 to the load unit 3. When such an abnormality occurs, the control device 70 performs control to supply power from the hydrogen system 1 to the load unit 3. In this case, the control device 70 performs control so that the hydrogen generator 40 produces hydrogen using the power generated by the natural energy power generator 10 and the fuel cell power generator 60 generates power. Then, the control device 70 receives power from each device based on the output amount of power output from the natural energy power generation device 10, the output amount of power output from the fuel cell power generation device 60, the storage amount of the storage battery 202, and the like. Collected appropriately and supplied to the load section 3. In addition, the control device 70 supplies hot water from the fuel cell power generation device 60 to the load unit 3 even during an abnormality.

  By the way, the control device 70 determines whether it is normal or abnormal. That is, the control device 70 determines whether it is normal or abnormal by monitoring the amount of power supplied from the power system 2. More specifically, when power is supplied from the power system 2, it is determined as normal, and the connection between the power system 2 and the hydrogen system 1 is maintained. On the other hand, when the power supply is not supplied from the power system 2 and the power supply is stopped, it is determined that there is an abnormality such as a disaster, and the connection between the power system 2 and the hydrogen system 1 is cut off. .

  The control device 70 also determines the time zone. That is, the control device 70 determines whether the time zone is daytime or night based on the time, and controls each device based on the determined time zone.

  Furthermore, the control device 70 also determines the weather. That is, the control device 70 determines the weather based on the output amount of power output from the natural energy power generation device 10. More specifically, when the time zone is daytime, the control device 70 determines that the weather is clear when the output amount of power output from the natural energy power generation device 10 is greater than a predetermined amount. If it is less than the predetermined amount, it is determined that the weather is cloudy or rainy. And the control apparatus 70 controls each apparatus based on the judged weather.

  In addition to the above, the control device 70 controls the operation of the hydrogen generation device 40 so as to produce hydrogen based on the amount of hydrogen stored in the hydrogen storage device 50.

  Further, the control device 70 determines that the total supply amount of the power output from the fuel cell power generation device 60 and the power supplied from the power system 2 is greater than the total power consumption used in the hydrogen system 1 and the load unit 3. In many cases, the electric power generated by the fuel cell power generation device 60 is stored in the storage battery 202 of the power conditioner device 20. More specifically, the control device 70 determines whether or not the total supply amount is larger than the total use amount. When the control device 70 determines that the total supply amount is larger than the total use amount, the power generated by the fuel cell power generation device 60 is output to the storage battery 202 and stored without being output to the load unit 3. Let Thus, in this Embodiment, the electric power generated with the hydrogen system 1 is used effectively.

  Further, when the supply amount of hot water supplied from the fuel cell power generation device 60 to the load unit 3 is larger than the usage amount of hot water used in the load unit 3, the control device 70 is generated by the fuel cell power generation device 60. The warm water is returned to the water storage device 30. More specifically, the control device 70 determines whether or not the amount of hot water supplied is larger than the amount of hot water used. When the control device 70 determines that the supply amount is larger than the usage amount, the hot water stored in the fuel cell power generation device 60 is supplied to the water storage device 30 without being supplied to the load unit 3. Thereby, the water for supplying to the hydrogen generator 40 from the water storage apparatus 30 is securable. In this case, it is preferable to dissipate heat generated by the power generation of the fuel cell power generator 60 by the radiator 604.

  Furthermore, the control device 70 controls each device of the hydrogen system 1 based on the output amount of power output from the natural energy power generation device 10.

  As shown in FIG. 6, among the devices constituting the hydrogen system 1 described above, the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 are accommodated in two containers. . These two containers are combined to form a hydrogen system container assembly 80 in the present embodiment.

  The hydrogen system container assembly 80 according to the present embodiment includes two containers, and includes a first container 81 and a second container 82. As shown in FIGS. 7 to 10, the first container 81 and the second container 82 are each formed in a rectangular parallelepiped shape.

  As shown in FIGS. 1, 6 and 7, a hydrogen storage device 50 is accommodated in the first container 81. More specifically, in the first container 81, a hydrogen storage tank 501, a solenoid valve 502, and a safety valve 503 (see FIG. 4) constituting the hydrogen storage device 50 are accommodated. These components are connected to each other by piping or the like.

  In the second container 82, the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60 are accommodated. In the present embodiment, the power conditioner device 20 is located on one end side in the longitudinal direction of the second container 82, and the fuel cell power generator 60 is located on the other end side in the longitudinal direction of the second container 82. Yes. The hydrogen generator 40 is arranged at the center in the longitudinal direction of the second container 82, that is, between the power conditioner device 20 and the fuel cell power generator 60. The power conditioner device 20 and the hydrogen generator 40 are connected to each other by wiring or the like, and the power conditioner device 20 and the fuel cell power generator 60 are connected to each other by wiring or the like. In addition, arrangement | positioning of each apparatus 20,40,60 in the 2nd container 82 is not restricted to this.

  As shown in FIG. 9, a first converter 201 a, an inverter 201, a second converter 202 a, and a storage battery 202 constituting the power conditioner device 20 are housed in the second container 82. These components are connected to each other by wiring or the like. In the second container 82, a pure water production apparatus 401a, a water electrolysis apparatus 401, a compressor 402, and a chiller unit 403 constituting the hydrogen generation apparatus 40 are accommodated. These components are connected by piping or the like. Further, the second container 82 accommodates a fuel cell 601, an inverter 602, a hot water storage tank 603, and a radiator 604 that constitute the fuel cell power generator 60. These components are connected to each other by wiring, piping, or the like.

  The 1st container 81 and the 2nd container 82 are formed in the size of the container standardized for carrying, for example, and become the size which can be carried. In particular, the first container 81 and the second container 82 are preferably formed in a standardized size of a 20-foot container or a 12-foot container. The 20-foot container is defined by the ISO standard, and has a length W of 6096 mm, a width D of 2438 mm, and a height H of 2591 mm. The 12-foot container is similarly defined by the ISO standard, and has a length W of 3600 mm, a width D of 2438 mm, and a height H of 2591 mm.

  As shown in FIG. 6, the first container 81 is vertically stacked on the second container 82 at the location where the hydrogen system 1 is installed. More specifically, the first container 81 and the second container 82 are aligned and overlapped when viewed from above, and are vertically stacked so that the longitudinal directions of the containers 81 and 82 coincide. The hydrogen storage device 50 of the first container 81 and the hydrogen generation device 40 of the second container 82 are connected to each other by piping or the like, and the hydrogen storage device 50 of the first container 81 and the second container 82 are connected to each other. The fuel cell power generator 60 is connected to each other by piping or the like. In addition, the hydrogen storage device 50 accommodated in the first container 81, the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60 accommodated in the second container 82 are the other constituents of the hydrogen system 1. It is connected to a device (that is, a natural energy power generation device 10, a water storage device 30, and a control device 70) by piping or wiring. In FIG. 6, for the sake of clarity, the first container 81 and the second container 82 are separated from each other. However, the first container 81 is directly on the second container 82. It may be placed and stacked vertically, or may be placed on the second container 82 and stacked vertically with some member interposed therebetween.

  Next, the operation of the present embodiment having such a configuration will be described. Here, first, a method of installing the hydrogen system 1 will be described.

  First, the hydrogen storage device 50 is accommodated in the first container 81. In this case, the components of the hydrogen storage device 50 are connected to each other by piping or the like. Similarly, the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60 are accommodated in the second container 82. In this case, the components of the power conditioner device 20, the components of the hydrogen generator 40, and the components of the fuel cell power generator 60 are connected to each other by piping, wiring, or the like.

  Then, the 1st container 81 in which the hydrogen storage apparatus 50 was accommodated, and the 2nd container 82 in which the power conditioner apparatus 20, the hydrogen generator 40, and the fuel cell power generation apparatus 60 were accommodated are conveyed separately.

  Here, since the first container 81 and the second container 82 are standardized for transportation, for example, as shown in FIG. 11, they can be transported using a railway. Or as shown in FIG. 12, the 1st container 81 and the 2nd container 82 can be conveyed using a forklift, and can also be conveyed using a ship as shown in FIG. Furthermore, as shown in FIG. 14, these containers 81 and 82 can be transported using a trailer. In addition, in FIG. 11 thru | or FIG. 14, although the 2nd container 82 is illustrated as a typical example, the 1st container 81 can also be conveyed similarly.

  In this manner, the first container 81 and the second container 82 can be easily transported by land transportation and sea transportation, and restrictions are imposed on the transportation destination of the first container 81 and the second container 82. Can be prevented. Further, even when a disaster occurs, an appropriate transportation method can be selected and the first container 81 and the second container 82 can be transported quickly and easily to a desired installation location. For this reason, it can prevent that restrictions are imposed on the installation location of the hydrogen system 1.

  The first container 81 and the second container 82 are transported to the installation location and then installed at the installation location. In this case, first, the second container 82 is installed on a concrete foundation. Thereafter, the first container 81 is placed on the second container 82, and the first container 81 is stacked vertically on the second container 82.

  After the first container 81 is vertically stacked on the second container 82, the hydrogen storage device 50 in the first container 81, the power conditioner device 20 in the second container 82, the hydrogen generator 40, and the fuel cell power generator 60 are connected to each other by piping, wiring or the like. Further, the natural energy power generation device 10 is connected to the power conditioner device 20 in the second container 82 by wiring or the like, and the water storage device 30 is connected to the hydrogen generator 40 and the fuel cell power generation device 60 in the second container 82. Connected by. In this way, the hydrogen system 1 according to the present embodiment shown in FIG. 1 is obtained.

  Next, the operation of the hydrogen system 1 according to the present embodiment will be described.

  FIG. 15 shows an example of the operation of the hydrogen system 1 according to the present embodiment. In FIG. 15, “ON” is written when each device of the hydrogen system 1 performs power generation or operation, and “OFF” is written when power generation or operation is stopped.

  First, the operation of the hydrogen system 1 during normal times will be described. Here, a case where the time zone is noon and the weather is clear will be described.

  In this case, the natural energy power generation device 10 that is a solar power generation device generates power. The electric power generated by the natural energy power generation apparatus 10 is supplied to the hydrogen generation apparatus 40 via the power conditioner apparatus 20 and is used for hydrogen production in the hydrogen generation apparatus 40. The produced hydrogen is supplied to the hydrogen storage device 50 and stored.

  When the electric power generated by the natural energy power generation device 10 is larger than the power required by the hydrogen generator 40, the electric power generated by the natural energy power generation device 10 may be supplied to the load unit 3. At this time, the electric power generated by the natural energy power generation apparatus 10 may be charged in the storage battery 202 of the power conditioner apparatus 20.

  On the other hand, when the electric power generated by the natural energy generator 10 is less than the electric power required by the hydrogen generator 40, the electric power stored in the storage battery 202 is discharged and supplied to the hydrogen generator 40 for the production of hydrogen. Used as an auxiliary.

  In this case, the fuel cell power generation device 60 generates power using the hydrogen supplied from the hydrogen storage device 50. The electric power obtained by power generation is supplied to the load unit 3. In addition, the fuel cell power generator 60 uses the heat generated by the power generation to heat the water supplied from the water storage device 30 and generate hot water. The generated hot water is supplied to the load unit 3.

  Next, the case where the time zone is normal and the weather is cloudy or rainy will be described.

  In this case, the natural energy power generation device 10 that is a solar power generation device generates power, but the generated power is less than when the weather is sunny. For this reason, the electric power generated by the natural energy generator 10 is not supplied to the hydrogen generator 40 but is supplied to the load unit 3 via the power conditioner 20 and the storage battery of the power conditioner 20 202 is charged. In this case, the hydrogen generator 40 stops the production of hydrogen. The electric power stored in the storage battery 202 is not supplied to the hydrogen generator 40 because the production of hydrogen is stopped. That is, the storage battery 202 stops discharging.

  The fuel cell power generator 60 generates power, and the power obtained by the power generation is supplied to the load unit 3. Further, the fuel cell power generator 60 generates hot water, and the generated hot water is supplied to the load unit 3. Other than the above, each device of the hydrogen system 1 operates in the same manner as when the weather is sunny.

  In this case, the hydrogen generator 40 may produce hydrogen using the power supplied from the power system 2. As a result, an appropriate amount of hydrogen can be easily stored in the hydrogen storage device 50.

  Next, the case where the time zone is normal at night will be described.

  In this case, the natural energy power generation device 10 that is a solar power generation device stops power generation. For this reason, no electric power is output from the natural energy power generation apparatus 10. In addition, the storage battery 202 of the power conditioner device 20 stops charging and discharges the stored electric power. The discharged power is supplied to the load unit 3. The supplied power can be used for a specific load such as lighting equipment, for example. The power supply from the storage battery 202 to the load unit 3 is performed in order to assist the power supply from the fuel cell power generation device 60 described later to the load unit 3.

  The fuel cell power generator 60 generates power, and the electric power obtained by the power generation is supplied to the load unit 3. Further, the fuel cell power generator 60 generates hot water, and the generated hot water is supplied to the load unit 3.

  In this case, the hydrogen generator 40 may produce hydrogen using the power supplied from the power system 2. As a result, an appropriate amount of hydrogen can be easily stored in the hydrogen storage device 50.

  Thus, in the case of normal time, hydrogen is manufactured using the electric power generated with the natural energy power generation device 10 which is a solar power generation device, and the hydrogen storage amount in the hydrogen storage device 50 is ensured. In addition, surplus power generated by the natural energy power generation device 10 is supplied to the load unit 3, and power obtained by power generation using hydrogen by the fuel cell power generation device 60 is supplied to the load unit 3. The Therefore, the electric power generated by the natural energy power generation device 10 and the fuel cell power generation device 60 can be effectively used. Moreover, the peak value of the electric power supplied from the electric power grid | system 2 to the load part 3 in a normal time can be reduced, and a peak cut can be implement | achieved effectively. When the time zone is night (especially midnight), hydrogen can be produced using the midnight power of the electric power system 2, and hydrogen can be effectively secured.

  Next, the operation of the hydrogen system 1 at the time of abnormality (such as a disaster) will be described. Here, a case where the time zone is noon and the weather is clear will be described.

  In this case, the natural energy power generation device 10, the storage battery 202, and the hydrogen generation device 40 are controlled as in the normal case. That is, the electric power generated by the natural energy power generation device 10 that is a solar power generation device is supplied to the hydrogen generation device 40 and is also supplied to the load unit 3 or the storage battery 202 according to the output amount of the natural energy power generation device 10. . The electric power stored in the storage battery 202 is discharged and supplied to the hydrogen generator 40, and is used supplementarily for the production of hydrogen.

  The fuel cell power generator 60 generates power, and the electric power obtained by the power generation is supplied to the load unit 3. Further, the fuel cell power generator 60 generates hot water, and the generated hot water is supplied to the load unit 3.

  Next, the case where the time zone is noon and the weather is cloudy or rainy will be described.

  In this case, the electric power generated by the natural energy generator 10 is not supplied to the hydrogen generator 40 but is supplied to the load unit 3 and charged to the storage battery 202 of the power conditioner device 20. In this case, the hydrogen generator 40 stops the production of hydrogen. The electric power stored in the storage battery 202 is supplied to the load unit 3. The supplied power can be used for a specific load such as lighting equipment, for example.

  The fuel cell power generator 60 generates power, and the power obtained by the power generation is supplied to the load unit 3. Further, the fuel cell power generator 60 generates hot water, and the generated hot water is supplied to the load unit 3.

  Next, a case where the time zone is night at the time of abnormality will be described.

  In this case, the natural energy power generation apparatus 10 stops power generation. For this reason, no electric power is output from the natural energy power generation apparatus 10. In addition, the storage battery 202 of the power conditioner device 20 stops charging and discharges the stored electric power. The discharged power is supplied to the load unit 3. The supplied power can be used for a specific load such as lighting equipment, for example. The power supply from the storage battery 202 to the load unit 3 is performed in order to assist the power supply from the fuel cell power generation device 60 described later to the load unit 3.

  The fuel cell power generator 60 generates power, and the power obtained by the power generation is supplied to the load unit 3. Further, the fuel cell power generator 60 generates hot water, and the generated hot water is supplied to the load unit 3.

  As described above, even in the case of an abnormality, the fuel cell power generation device 60 generates power using the hydrogen stored in the hydrogen storage device 50 regardless of the time zone, and the power obtained by the power generation is applied to the load section. 3 is supplied. Thus, hydrogen can be produced to generate electric power, and continuous power supply to the load unit 3 can be performed. In particular, according to the present embodiment, the hydrogen generator 40 can produce hydrogen using the electric power generated by the natural energy power generator 10. For this reason, even when a power outage occurs due to a disaster and power is not supplied from the power system 2 to the load unit 3, it is possible to perform independent operation for a long period without procuring fuel from the outside. It becomes possible. Therefore, power can be stably supplied to the load unit 3 even at the time of abnormality.

  The control device 70 controls the hydrogen generation device 40 based on the amount of hydrogen stored in the hydrogen storage device 50. This will be described with reference to FIG. FIG. 16 is a flowchart showing a part of the operation of the hydrogen system 1 according to the present embodiment.

  As shown in FIG. 16, first, the control device 70 determines whether or not the amount of hydrogen stored in the hydrogen storage device 50 is less than a predetermined value (ST1). In this case, the storage amount of hydrogen measured by the measuring device of the hydrogen storage device 50 is input to the control device 70 as a data signal to the control device 70. Based on the input storage amount, the control device 70 Make a decision.

  Subsequently, when it is determined that the amount of hydrogen stored is smaller than the predetermined value, the control device 70 controls each device of the hydrogen system 1 so that hydrogen is produced in the hydrogen generation device 40 (ST2a). . The produced hydrogen is supplied to and stored in the hydrogen storage device 50, and the amount of hydrogen stored in the hydrogen storage device 50 can be increased.

  On the other hand, when the hydrogen storage amount is equal to or greater than the predetermined value, the control device 70 controls each device of the hydrogen system 1 so that the production of hydrogen is stopped in the hydrogen generation device 40 (ST2b). Thereby, the supply of hydrogen from the hydrogen generator 40 to the hydrogen storage device 50 is stopped.

  Thus, in this embodiment, an appropriate amount of hydrogen is easily stored in the hydrogen storage device 50. As a result, the fuel cell power generation device 60 can perform a self-sustained operation for a long period of time, and power can be stably supplied to the load unit 3.

  As described above, according to the present embodiment, hydrogen is produced by the hydrogen generator 40 housed in the second container 82, and the produced hydrogen is vertically stacked on the second container 82. Stored in the hydrogen storage device 50 housed in Using the hydrogen stored in the hydrogen storage device 50, the fuel cell power generation device 60 accommodated in the second container 82 can generate power and supply it to the load unit 3. As a result, it is possible to configure the hydrogen system 1 that produces power by producing hydrogen and enables continuous power supply to the load section 3. Further, the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 are accommodated in the first container 81 or the second container 82. Thereby, these devices can be easily transported, and the construction period of the installation work of the hydrogen system 1 can be shortened. Furthermore, since the first container 81 is vertically stacked on the second container 82, the installation space of the hydrogen system 1 can be reduced.

  Further, according to the present embodiment, the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generation device 60 are accommodated in the second container 82 installed below the first container 81. Accordingly, the second container 82 that is heavier than the first container 81 in which the hydrogen storage device 50 is accommodated can be disposed on the lower side, and the center of gravity of the hydrogen system container assembly 80 is lowered to achieve stabilization. be able to. Further, since the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60 are more frequently maintained than the hydrogen storage device 50, the hydrogen system 1 that improves the efficiency of the maintenance work can be obtained.

  In addition, in this Embodiment mentioned above, the example in which the power conditioner apparatus 20 has the storage battery 202 was demonstrated. However, the present invention is not limited to this, and the power conditioner device 20 may not include the storage battery 202.

  Moreover, in this Embodiment mentioned above, the hydrogen system 1 demonstrated the example provided with the water storage apparatus 30. FIG. However, the present invention is not limited to this, and the hydrogen system 1 may not include the water storage device 30. In this case, it is preferable that the hydrogen generator 40 and the fuel cell power generator 60 are each supplied with water directly from the existing water supply equipment.

  Moreover, in this Embodiment mentioned above, the hydrogen storage apparatus 50 demonstrated the example containing the hydrogen storage tank 501. FIG. However, the present invention is not limited to this, and the hydrogen storage device 50 may be configured to store hydrogen in a liquid state, or may be configured to store hydrogen using a hydrogen storage alloy.

  Moreover, in this Embodiment mentioned above, the fuel cell electric power generating apparatus 60 demonstrated the example which has the radiator 604. FIG. However, the present invention is not limited to this, and the fuel cell power generator 60 may not have the radiator 604.

  Moreover, in this Embodiment mentioned above, the hydrogen system 1 was connected with the electric power grid | system 2, and the example comprised so that electric power could be supplied from the electric power grid | system 2 was demonstrated. However, the present invention is not limited to this, and the hydrogen system 1 may be configured not to be supplied with power from the power system 2.

  In the above-described embodiment, the hydrogen storage device 50 is accommodated in the first container 81, and the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60 are accommodated in the second container 82. Explained an example. However, the present invention is not limited to this. For example, the first container 81 accommodates one or more of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60, and the second container 82 contains The remaining devices may be accommodated. In other words, any one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 is accommodated in the first container 81, and the rest is accommodated in the second container 82. It may be. Even in this case, it is possible to shorten the installation period of the system installation work that enables continuous power supply and to reduce the installation space. Furthermore, at least one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 is accommodated in the first container 81, and the power conditioner device is accommodated in the second container 82. 20, at least one of the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 may be accommodated. Even in this case, it is possible to shorten the installation period of the system installation work that enables continuous power supply and to reduce the installation space. Note that the natural energy power generation device 10, the water storage device 30, and the control device 70 other than the devices 20, 40, 50, and 60 described above may be accommodated in the first container 81 or the second container 82. That is, the apparatus configuration accommodated in the first container 81 and the second container 82 is not limited to the example of the present embodiment described above.

(Second Embodiment)
Next, the container assembly for a hydrogen system in the second embodiment will be described with reference to FIG.

  The second embodiment shown in FIG. 17 is mainly different in that the photovoltaic power generator is installed on the upper surface of the first container and / or the side surface of the first container or the second container. The configuration is substantially the same as that of the first embodiment shown in FIGS. In FIG. 17, the same parts as those of the first embodiment shown in FIGS. 1 to 16 are denoted by the same reference numerals, and detailed description thereof is omitted.

  As shown in FIG. 17, in the present embodiment, solar cell panel 11 a of solar power generation device 11 as natural energy power generation device 10 is installed on the upper surface of first container 81. This solar cell panel 11a may be attached to the upper surface of the first container 81 via a gantry (not shown). Moreover, it is suitable for the solar cell panel 11a to incline toward the south side so that the daylighting efficiency of sunlight becomes the best.

  Moreover, as shown in FIG. 17, the other solar cell panel 11a of the solar power generation device 11 is installed in the front (side surface) of the 1st container 81 or the 2nd container 82. As shown in FIG. This solar cell panel 11a may also be attached to at least one of the first container 81 and the second container 82 via a mount (not shown). Here, the front surface of the containers 81 and 82 is a side surface having a large width dimension among the four side surfaces of the rectangular parallelepiped containers 81 and 82, and means a side surface in which the daylighting efficiency of sunlight is the best. Used. That is, it is preferable to install the container 81, 82 with the side surface having the large width dimension facing the south side and the solar cell panel 11a inclined to the front side.

  As shown in FIG. 17, the solar cell panel 11 a may be installed on the upper surface of the first container 81, and the solar cell panel 11 a may be installed on the front surface of the first container 81 or the second container 82. In this case, the two solar battery panels 11 a constitute the natural energy power generation apparatus 10. Or although not shown in figure, you may make it the solar cell panel 11a install in any one of the upper surface of the 1st container 81, and the front surface of the 1st container 81 or the 2nd container 82. FIG.

  Thus, according to this Embodiment, the solar cell panel 11a of the solar power generation device 11 is installed on the 1st container 81 or the front of the 1st container 81 or the 2nd container 82. FIG. Thereby, the installation space of the hydrogen system 1 can be further reduced. Moreover, when installing the solar cell panel 11a on the 1st container 81, it can suppress that sunlight is interrupted | blocked by the surrounding building etc., and can improve the operating efficiency of the solar power generation device 11. FIG.

(Third embodiment)
Next, the container assembly for a hydrogen system in the third embodiment will be described with reference to FIG.

  The third embodiment shown in FIG. 18 is mainly different in that a vibration absorbing mechanism is interposed between the first container and the second container, and the other configuration is the second configuration shown in FIG. This is substantially the same as the embodiment. In FIG. 18, the same parts as those of the second embodiment shown in FIG.

  As shown in FIG. 18, in the present embodiment, a vibration absorbing mechanism 83 is interposed between the first container 81 and the second container 82. Examples of the vibration absorbing mechanism 83 include laminated rubber, but are not limited to this as long as vibration can be absorbed.

  As described above, according to the present embodiment, the vibration of the first container 81 is transmitted to the second container 82 by the vibration absorbing mechanism 83 interposed between the first container 81 and the second container 82. While being able to suppress, it can suppress that the vibration of the 2nd container 82 is transmitted to the 1st container 81. FIG. In particular, when the solar power generation device 11 is installed in the first container 81 or the second container 82, the vibration of the second container 82 is suppressed from being transmitted to the solar cell panel 11a of the solar power generation device 11. It is possible to prevent a decrease in the mounting reliability between the solar cell panel 11a and the containers 81 and 82.

(Fourth embodiment)
Next, the hydrogen system container assembly in the fourth embodiment will be described with reference to FIG.

  In the fourth embodiment shown in FIG. 19, the third container is installed on the side of the second container, the fourth container is vertically stacked on the third container, the upper surface of the first container and the fourth container The main difference is that a solar power generation device is installed on the upper surface, and the other configuration is substantially the same as that of the second embodiment shown in FIG. In FIG. 19, the same parts as those of the second embodiment shown in FIG.

  As shown in FIG. 19, in the present embodiment, the third container 84 is installed on the side (back side) of the second container 82, and the fourth container 85 is stacked vertically on the third container 84. . The third container 84 accommodates at least one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60, and the fourth container 85 also includes these devices 20, 40. , 50 and 60 may be accommodated, and the device configuration accommodated in the third container 84 and the fourth container 85 is arbitrary.

  As shown in FIG. 19, not only the upper surface of the first container 81 but also the upper surface of the fourth container 85 is provided with a solar cell panel 11 a of the solar power generation device 11 constituting the natural energy power generation device 10. Similarly to the embodiment shown in FIG. 17, the solar power generation device 11 is also provided on the front surface of the first container 81 or the second container 82 (the side surface opposite to the third container 83 or the fourth container 84 side). The solar cell panel 11a may be installed.

  Thus, according to the present embodiment, the third container 84 is installed on the side of the second container 82, and the fourth container 85 is stacked vertically on the third container 84. And the solar cell panel 11a of the solar power generation device 11 is installed on the upper surface of the first container 81 and the upper surface of the fourth container 85. As a result, the number or surface area of the solar cell panels 11a can be increased, and the output amount of power output from the solar power generation device 11 can be increased.

(Fifth embodiment)
Next, a container assembly for a hydrogen system in the fifth embodiment will be described with reference to FIG.

  In the fifth embodiment shown in FIG. 20, a photovoltaic power generation apparatus is provided such that an inclined installation container is installed on the side of the second container, and the solar cell panel is inclined on the first container and the inclined installation container. Is mainly different, and other configurations are substantially the same as those of the second embodiment shown in FIGS. In FIG. 20, the same parts as those of the first embodiment shown in FIGS. 1 to 16 are denoted by the same reference numerals, and detailed description thereof is omitted.

  As shown in FIG. 20, in the present embodiment, a third container 84 is installed on the side (back side) of the second container 82, and the fourth container 85 is vertically stacked on the third container 84. . The third container 84 accommodates at least one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60, and the fourth container 85 also includes these devices 20, 40. , 50 and 60 may be accommodated, and the device configuration accommodated in the third container 84 and the fourth container 85 is arbitrary.

  An inclined installation container 86 is installed on the side (front side) of the second container 82. In addition, second inclined installation containers 87 are vertically stacked on the fourth container 85. In this way, when viewed along the longitudinal direction of each container, the inclined installation container 86, the first container 81, and the second inclined installation container 87 are arranged in a staircase pattern. The inclined installation container 86 and the second inclined installation container 87 accommodate at least one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60.

  The solar cell panel 11a of the solar power generation device 11 as the natural energy power generation device 10 is installed in the first container 81, the inclined installation container 86, and the second inclined installation container 87 so as to be inclined. The solar cell panel 11a only needs to be attached to the first container 81, the inclined installation container 86, and the second inclined installation container 87 via a gantry (not shown). As a result, it is possible to easily realize the installation in which the solar cell panel 11a is inclined. In addition, it is preferable that the solar cell panel 11a is inclined and installed so that the side surface with the large width dimension of each container is the front side facing the south side, and is stacked on the front surface.

  As described above, according to the present embodiment, the inclined installation container 86 is installed on the side of the second container 82, and the second inclined installation container 87 is vertically stacked on the fourth container 85. Accordingly, the first container 81, the inclined installation container 86, and the second inclined installation container 87 can be arranged in a step shape when viewed along the longitudinal direction of the container. For this reason, while installing the solar cell panel 11a of the solar power generation device 11 in the first container 81, the inclined installation container 86, and the second inclined installation container 87, the solar panel 11a can be easily inclined, The surface area of the battery panel 11a can be increased. As a result, it is possible to easily improve the daylighting efficiency of the solar cell panel 11a and increase the output amount of power. Moreover, the installation space of the hydrogen system 1 can be reduced.

  In the present embodiment described above, the third container 84 and the fourth container 85 are installed, the second inclined installation container 87 is vertically stacked on the fourth container 85, and the photovoltaic power generation apparatus 11 is The example installed in the 1st container 81, the container 86 for inclination installation, and the container 87 for 2nd inclination installation was demonstrated. However, the present invention is not limited to this, and the solar power generation apparatus 11 is installed in the first container 81 and the inclined installation without the third container 84, the fourth container 85, and the second inclined installation container 87 installed. The solar cell panel 11a may be inclined by being installed in the container 86 for use. Also in this case, when viewed along the longitudinal direction of the container, the first container 81 and the inclined installation container 86 are arranged in a step shape, and the solar cell panel 11a can be easily inclined.

(Sixth embodiment)
Next, a container assembly for a hydrogen system according to the sixth embodiment will be described with reference to FIG.

  In the sixth embodiment shown in FIG. 21, the device accommodated in the first container is the same as the device accommodated in the second container, and accommodated in the device accommodated in the third container and the fourth container. The main difference is that the apparatus is the same as that of the fourth embodiment, and the other configuration is substantially the same as that of the fourth embodiment shown in FIG. In FIG. 21, the same parts as those in the fourth embodiment shown in FIG.

  As shown in FIG. 21, in the present embodiment, the apparatus accommodated in the first container 81 and the apparatus accommodated in the second container 82 are the same. That is, the first container 81 and the second container 82 accommodate the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60, respectively.

  Further, the device housed in the third container 84 and the device housed in the fourth container 85 are the same. That is, the hydrogen storage device 50 is accommodated in the third container 84 and the fourth container 85, respectively.

  As described above, the hydrogen system 1 according to the present embodiment includes the two power conditioner devices 20, the two hydrogen generation devices 40, the two hydrogen storage devices 50, and the two fuel cell power generation devices 60. In the configuration shown in FIG. 21, the solar power generation device 11 is not installed in the container. However, as in the fourth embodiment shown in FIG. 19, the solar power generation device 11 is installed in the container. It may be.

  Thus, according to the present embodiment, two each of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 are provided. As a result, the amount of electricity stored can be increased, the production capacity of hydrogen can be increased, the storage capacity of hydrogen can be increased, and the amount of power generated by hydrogen can be increased. Furthermore, the amount of hot water produced can be increased. Moreover, since containers containing the same device are stacked vertically, it is possible to easily connect piping, wiring, and the like between the same devices.

  In the present embodiment described above, the first container 81 and the second container 82 accommodate the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60, respectively, and the third container 84 and The example in which the hydrogen storage device 50 is accommodated in the fourth container 85 has been described. However, the present invention is not limited to this. If the apparatus accommodated in the first container 81 and the apparatus accommodated in the second container 82 are the same, the apparatus is accommodated in the first container 81 and the second container 82. The device may be at least one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60. Similarly, if the device accommodated in the third container 84 and the device accommodated in the fourth container 85 are the same, the device accommodated in the third container 84 and the fourth container 85 is the power conditioner device 20. Any one of the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 may be used.

(Seventh embodiment)
Next, the container assembly for a hydrogen system in the seventh embodiment will be described with reference to FIG.

  The seventh embodiment shown in FIG. 22 is mainly different in that two sets each constituted by two containers that are housed in different directions and housed vertically are arranged in parallel. Is substantially the same as the sixth embodiment shown in FIG. In FIG. 22, the same parts as those of the sixth embodiment shown in FIG.

  As shown in FIG. 22, in the present embodiment, the device housed in the first container 81 and the device housed in the fourth container 85 are the same. That is, the hydrogen storage device 50 is accommodated in the first container 81 and the fourth container 85, respectively.

  Further, the device accommodated in the second container 82 and the device accommodated in the third container 84 are the same. That is, in the second container 82 and the third container 84, the power conditioner device 20, the hydrogen generator 40, and the fuel cell power generator 60 are accommodated, respectively.

  In this way, in the hydrogen system 1 according to the present embodiment, different sets of apparatuses are housed in the same manner as the set constituted by the first container 81 and the second container 82 that are housed and stacked vertically. A set constituted by the third container 84 and the fourth container 85 accommodated and vertically stacked is arranged in parallel.

  As described above, according to the present embodiment, a set including two containers 81 and 82 that are vertically stacked with different devices accommodated therein, and includes two containers 84 and 85 that are similarly stacked vertically. The set to be done is arranged side by side. As a result, the third container 84 and the fourth container 85 are replaced with the first container 81 and the second container in accordance with the peak and size of the power demand at the load section 3 and the power generation capacity of the natural energy power generation apparatus 10. 82 can be juxtaposed with each other, or can be easily transferred to another hydrogen system 1. For this reason, according to the change of the condition of the hydrogen system 1, an apparatus structure can be changed flexibly and an efficient driving | operation can be performed. Moreover, since the apparatus configuration of the first container 81 and the second container 82 and the apparatus configuration of the third container 84 and the fourth container 85 are the same, the hydrogen storage amount and the power generation amount can be changed at the same rate. There are also advantages.

  In the present embodiment described above, the hydrogen storage device 50 is accommodated in the first container 81 and the fourth container 85, respectively, and the power conditioner device 20, the second container 82 and the third container 84, The example in which the hydrogen generator 40 and the fuel cell power generator 60 are accommodated has been described. However, the present invention is not limited to this. If the device accommodated in the first container 81 and the device accommodated in the fourth container 85 are the same, the device is accommodated in the first container 81 and the fourth container 85. The device may be at least one of the power conditioner device 20, the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60. Similarly, if the device accommodated in the second container 82 and the device accommodated in the third container 84 are the same, the device accommodated in the second container 82 and the third container 84 is the power conditioner device 20. Any one of the hydrogen generator 40, the hydrogen storage device 50, and the fuel cell power generator 60 may be used.

  Although several embodiments of the present invention have been described, these embodiments are presented by way of example 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. Moreover, as a matter of course, these embodiments can be partially combined as appropriate within the scope of the present invention.

DESCRIPTION OF SYMBOLS 1 Hydrogen system 11a Solar cell panel 20 Power conditioner apparatus 40 Hydrogen generating apparatus 50 Hydrogen storage apparatus 60 Fuel cell power generation apparatus 80 Container assembly 81 for hydrogen systems 1st container 82 2nd container 83 Vibration absorption mechanism 84 3rd container 85 1st 4 container 86 Inclined container

Claims (12)

A hydrogen generator for generating hydrogen, a hydrogen storage device for storing hydrogen generated by the hydrogen generator, a fuel cell power generator for generating power using hydrogen stored in the hydrogen storage device, and a supply to the hydrogen generator A first container in which at least one of the power adjustment devices for adjusting the power to be stored is accommodated;
A second container in which at least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated, and
A container assembly for a hydrogen system, wherein the first container is stacked vertically on the second container. One or more and three or less of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device are accommodated in the first container,
2. The hydrogen system container combination according to claim 1, wherein the second container accommodates the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the remainder of the power adjustment device. body. The hydrogen storage device is accommodated in the first container,
3. The hydrogen system container assembly according to claim 1, wherein the hydrogen generation device, the fuel cell power generation device, and the power adjustment device are accommodated in the second container. 4.   The container assembly for a hydrogen system according to any one of claims 1 to 3, wherein a vibration absorption mechanism is interposed between the first container and the second container.   The solar cell panel is installed in the upper surface of the said 1st container, and / or the side surface of the said 1st container or the said 2nd container, The Claim 1 thru | or 4 characterized by the above-mentioned. Container assembly for hydrogen systems. A third container installed on the side of the second container;
A fourth container vertically stacked on the third container,
In the third container, at least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated,
At least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated in the fourth container,
The solar cell panel is installed in the upper surface of the said 1st container, and the upper surface of the said 4th container, The container assembly for hydrogen systems as described in any one of the Claims 1 thru | or 4 characterized by the above-mentioned.   7. The hydrogen system container combination according to claim 6, wherein another solar cell panel is installed on a side surface of the first container or the second container opposite to the third container. body. A container for inclined installation installed on the side of the second container;
At least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated in the inclined installation container,
The container assembly for a hydrogen system according to any one of claims 1 to 4, wherein a solar cell panel is installed on the first container and the inclined installation container so as to be inclined. A third container installed on the side of the second container;
A fourth container vertically stacked on the third container,
In the third container, at least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated,
At least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated in the fourth container,
The device housed in the first container and the device housed in the second container are the same,
2. The hydrogen system container assembly according to claim 1, wherein the apparatus accommodated in the third container and the apparatus accommodated in the fourth container are the same. A third container installed on the side of the second container;
A fourth container vertically stacked on the third container,
In the third container, at least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated,
At least one of the hydrogen generation device, the hydrogen storage device, the fuel cell power generation device, and the power adjustment device is accommodated in the fourth container,
The device housed in the first container and the device housed in the fourth container are the same,
2. The hydrogen system container assembly according to claim 1, wherein the device housed in the second container and the device housed in the third container are the same. The power adjustment device includes a storage battery,
The container assembly for a hydrogen system according to any one of claims 1 to 10, wherein the storage battery is configured to store electric power generated by the fuel cell power generation device.   The container assembly for a hydrogen system according to any one of claims 1 to 5, wherein the first container and the second container each have a standardized transportable size. .

Images