JP2022040108A - Information processing apparatus - Google Patents

Abstract

To provide an information processing apparatus that facilitates desired power procurement.SOLUTION: In a power procurement system, a management server 2 further comprises: a token issuing unit that issues a token representing ownership and an off-take right of a power generation facility based on the power generation facility in a block chain; a demand amount input unit that receives a demanded amount of power demanded to procure from the power generation facility from a demander; a sales processing unit that performs processing associated with sales to the demander of the token; a token transfer unit that transfers the token of an amount depending on the demand amount, to a wallet of the demander; an electric power generation prediction acquisition unit that acquires a predicted value of the electric power generation amount based on the power generation facility; and an electric power generation plan output unit that divides a predicted value of the electric power generation amount according to a holding scheduled token amount of the demander to output, for each demander.SELECTED DRAWING: Figure 5

Description

The present invention relates to an information processing apparatus.

Self-consignment is known in which electric power generated by a business operator using its own power generation equipment is transmitted to the equipment of the business operator at another location via a power transmission / distribution network (see Patent Document 1).

Japanese Unexamined Patent Publication No. 2017-163780

However, owning a power generation facility usually requires a large initial investment, and the hurdle for ownership is high.

The present invention has been made to solve the above problems, and an object of the present invention is to provide a technique for facilitating desired power procurement.

The main invention of the present invention for solving the above-mentioned problems is an information processing device, which is a token issuing unit for issuing tokens representing the ownership and off-take rights of the power generation equipment backed by the power generation equipment in the blockchain. , A demand amount input unit that receives the demand amount of power to be procured from the power generation facility from the consumer, a sales processing unit that processes the sale of the token to the consumer, and the amount corresponding to the demand amount. A token transfer unit that transfers tokens to the wallet of the consumer, a power generation forecast acquisition unit that acquires a predicted value of the amount of power generated by the power generation facility, and a power generation forecast acquisition unit that acquires the predicted value of the amount of power generated by the power generation facility. Further, it is characterized by further including a power generation plan output unit that divides and outputs the predicted value of the power generation amount.

Other problems disclosed in the present application and solutions thereof will be clarified by the columns and drawings of the embodiments of the invention.

According to the present invention, it is possible to provide a technique for facilitating the desired power procurement.

It is a figure explaining the joint ownership form of the conventional solar panel. It is a figure explaining the distribution of the generated electric energy. It is a figure which shows the whole configuration example of a power procurement system. It is a figure which shows the hardware configuration example of management server 2. It is a figure which shows the software configuration example of management server 2. It is a figure explaining the purchase process of the token in this embodiment. It is a figure explaining the billing process of the electricity charge concerning this embodiment. It is a figure which shows the flow of the power transmission processing which concerns on this embodiment.

Hereinafter, the electric power procurement system according to the embodiment of the present invention will be described.

In the electric power procurement system of the present embodiment, a power generation facility (for example, a solar panel is assumed, but the present invention is not limited to this, and a thermal power generation facility, a storage battery, etc.) may be used as a securities token (ST). , Security Token) makes it possible to reduce the initial investment in power generation equipment by making it possible to own it separately. In addition, the power procurement system of the present embodiment realizes a marketplace that enables high-frequency trading in which tokens are held only when used. As a result, for example, the value of the power generation equipment can be improved by eliminating the paid state of the power generation equipment, pricing the power generation equipment in the secondary market, and ensuring the liquidity. By separately owning the power generation equipment, the electric power consumer can transmit power from the power generation equipment separately owned by the power demand equipment by using the self-consignment system.

In-house power generation equipment is usually owned by a certain business operator or individual. In this embodiment, a model in which one power generation facility is jointly owned by a plurality of consumers is adopted.

Conventional large-scale power generation equipment (not only solar power but also thermal power, wind power, etc.) requires a high initial investment, and it is a heavy burden for one company to own it. In addition, depending on the power generation facility, it is only used for peak cuts during the daytime, and there are many hours when it is not in operation, so there is a need to increase the operation rate. Alternatively, in the case of power generation equipment where it is difficult to adjust the output in a short time, the amount of power generated becomes excessive when the demand equipment is not in operation, and even if the price is not economical, there is no choice but to sell the power to other companies. Have the challenge. In order to improve economic efficiency, for example, there is no mechanism to increase liquidity by selling the divisional ownership of equipment and making the self-consignment system available to purchasers. In addition, even if joint ownership is actually carried out, there is no power generation facility that can be applied only to solar power generation facilities that can physically separate the ownership categories and install meters in each category to measure the amount of power generated. Even so, it is expected that the economic efficiency will deteriorate due to the installation of multiple meters. In addition, if a large-scale photovoltaic power generation facility is physically divided and owned, the amount of solar radiation and the deterioration of the panel will differ depending on the location, so even if the panel has the same area, it depends on the measurement point. The amount of power generated was different, causing unfairness. In addition, it was difficult to extend such a method of physically separating to other power generation facilities (thermal power, hydraulic power, wind power, geothermal power, biomass, nuclear power, other power generation methods and storage batteries). In the first place, in the case of solar panels, the form of possession can be physically separated from the panel unit, but it is difficult for other power generation facilities to physically separate them.

Therefore, in the power procurement system of the present embodiment, the power generation equipment is virtually divided instead of physically, the divided divisions are represented by blockchain tokens, and the ownership of the divided units is assigned to the power generation equipment. Made it possible for users to own it. This makes it possible to own a part of expensive power generation equipment for a small amount, and because it is virtually divided, it is possible to own power generation equipment other than solar power generation, which has physical restrictions on division. There is.

Further, in the power procurement system of the present embodiment, the amount of power generated by the power generation facility is measured, and the amount of power (kWh) is supplied in the form of self-consignment according to the ratio held at regular intervals (every 30 minutes, etc.). I try to do it.

Further, in the electric power procurement system of the present embodiment, the ease of buying and selling is improved by electronically recording the ratio of owning the power generation equipment, and the ownership right and the off-take right of the electric energy (kWh) associated therewith are obtained. By preparing a platform that can be bought and sold, it is possible to increase the liquidity of assets, and at the same time, it is possible to improve the operating rate of equipment by mounting existing equipment on the platform.

In this way, according to the power procurement system of the present embodiment, it is possible to own a power generation facility with a small initial investment by dividing the token.

Further, according to the power procurement system of the present embodiment, in order to realize a high-frequency token trading platform, it is possible to perform an operation such as selling only during a time period when the power generation facility is not used. As a result, it is expected that investment in assets will become more active by adding the option of selling or temporarily selling power generation equipment, which has been rigid. Therefore, it is possible to secure the liquidity of assets and improve the asset value.

Further, according to the power procurement system of the present embodiment, the actual power generation equipment is not physically separated (it is difficult to physically separate other than the solar panel in the first place), but virtually divided by tokens. It is possible to realize a mechanism that combines the ownership rights and the off-take rights of electric power (kWh). Therefore, there is no limit to the power generation equipment that can be jointly owned, and it can be applied to thermal power, hydropower, wind power, geothermal power, biomass, nuclear power, all other power generation methods, and storage batteries.

Further, according to the power procurement system of the present embodiment, for example, it is possible to temporarily sell a power generation facility that is used only in a specific season and time in a factory or the like during the time when it is not used. .. Therefore, even if there is a time zone when the power load is not operating, it is possible to enjoy profits while always operating the power generation facility. This is expected to improve the operating rate of the equipment, and as an additional effect, the operation cost for power generation in Japan will be reduced and the economic efficiency of having the power generation equipment will be improved (some consumers need short-term power procurement such as peak cut). Since it can be used regardless of the size of demand, it may sell at a higher price than selling electricity to a normal electric power company).

In addition, by virtually dividing and owning the power generation equipment, unfairness between owners due to the deterioration of each panel and the difference in the amount of generated power due to the difference in the amount of solar radiation will not occur. This makes it possible to eliminate unfairness due to fluctuations in the amount of power generated between solar panels, as in the case of conventional community solar.

FIG. 1 is a diagram illustrating a conventional joint ownership form of a solar panel. In the case of jointly owning a conventional solar panel, the division owner will own the power generation facility 13 (solar panel) in a physically divided unit, and the smart meter 14 for each physical division 131. Was installed to manage the amount of power generated in Category 131.

FIG. 2 is a diagram illustrating distribution of power generation amount. In the example of FIG. 2, the transition of the amount of power generated from the power generation facility 13 is shown by the curve 141. Assuming that the power generation facility 13 generates 30kWh at 12:00 (30 minutes from the time), Company A holds 60 tokens out of 100 tokens, and Company B holds 10 tokens out of 100 tokens. The amount of electric power procured by the company is 30kWh × 60/100 = 18kWh, and the amount of electric power procured by the company B is 30kWh × 10/100 = 3kWh. Similarly, if the power generation facility 13 generates 20kWh at 18:00, and Company A has 30 tokens and Company B has 40 tokens during that time, the amount of power procured by Company A is 20kWh x 30 /. 100 = 6kWh, the amount of electric power procured by Company B is 20kWh × 40/100 = 8kWh.

<Overview of the system>
FIG. 3 is a diagram showing an overall configuration example of the power procurement system. The power procurement system of the present embodiment includes a management server 2. The management server 2 is communicably connected to the user terminal 1 via the communication network 3. The communication network 3 is, for example, the Internet, and is constructed by a public telephone line network, a mobile phone line network, a wireless communication path, Ethernet (registered trademark), or the like. The management server 2 is also connected to a blockchain network (hereinafter referred to as a blockchain 4). The blockchain 4 is composed of a plurality of computers (nodes) and manages a distributed ledger.

The user terminal 1 is a computer operated by the consumer 10, and can be, for example, a smartphone, a tablet computer, or a personal computer. The OCCTO system 16 may also be included in the user terminal 1. The system of the retailer 17 and the retailer service provider 18 may also be included in the user terminal 1. The consumer 10 (OCCTO, retailer 17, service provider 18) can access the management server 2 by the user terminal 1.

The management server 2 is a computer that realizes the marketplace 12. The management server 2 may be a general-purpose computer such as a workstation or a personal computer, or may be logically realized by cloud computing.

<Management server 2>
FIG. 4 is a diagram showing a hardware configuration example of the management server 2. The configuration shown in the figure is an example, and may have other configurations. The management server 2 includes a CPU 201, a memory 202, a storage device 203, a communication interface 204, an input device 205, and an output device 206. The storage device 203 stores various data and programs, such as a hard disk drive, a solid state drive, and a flash memory. The communication interface 204 is an interface for connecting to the communication network 3, for example, an adapter for connecting to Ethernet (registered trademark), a modem for connecting to a public telephone network, and a wireless communication device for performing wireless communication. , USB (Universal Serial Bus) connector for serial communication, RS232C connector, etc. The input device 205 is, for example, a keyboard, a mouse, a touch panel, a button, a microphone, or the like for inputting data. The output device 206 is, for example, a display, a printer, a speaker, or the like that outputs data. Each functional unit included in the management server 2 described later is realized by the CPU 201 reading a program stored in the storage device 203 into the memory 202 and executing the program, and each storage unit included in the management server 2 is the memory 202. And as part of the storage area provided by the storage device 203.

FIG. 5 is a diagram showing a software configuration example of the management server 2. The management server 2 includes an asset registration unit 211, a token issuing unit 212, a demand amount input unit 213, a sales amount input unit 214, a matching processing unit 215, a sales processing unit 216, a token transfer unit 217, a power generation forecast acquisition unit 218, and a power generation record. It includes an acquisition unit 219, a report creation unit 220, an API processing unit 221 and an asset information storage unit 231.

The asset information storage unit 231 stores information about the power generation facility 13 (hereinafter referred to as asset information) for each of the power generation facilities 13. The asset information can include, for example, the type, output, installation location, etc. of the power generation facility 13.

The asset registration unit 211 registers the asset information in the asset information storage unit 231. The asset registration unit 211 can receive asset information from the user terminal 1 of the equipment provider 15 and write the received asset information in the asset information storage unit 231. In addition, the asset registration unit 211 can also register information (hereinafter, owner information) regarding the owner of the power generation facility 13 (initially, the facility provider 15). In the present embodiment, the owner information is managed in the ledger of the blockchain 4, and the asset registration unit 211 can issue a transaction for registering the owner information to the blockchain 4.

The token issuing unit 212 causes the blockchain 4 to issue tokens representing the ownership and off-take rights of the power generation facility 13 backed by the power generation facility 13. The issuance of tokens uses the technology adopted for general STO (Security Token Offering), and detailed description thereof will be omitted. The token issuing unit 212 can issue any number of tokens. In the example of FIG. 4, 100 tokens are issued for one power generation facility 13, but the present invention is not limited to this, and any number of tokens such as 10 tokens and 2000 tokens can be issued. The issued token is put into the wallet of the owner of the power generation facility 13 (equipment provider 15).

The demand amount input unit 213 receives the demand amount of the electric power to be procured from the power generation facility 13 from the consumer 10. The demand amount input unit 213 can set the demand amount in the purchase request for acquiring the category 133 of the power generation facility 13 and receive it from the user terminal 1 of the consumer 10. The demand amount input unit 213 may accept the designation of conditions for the power generation facility together with the demand amount. In the purchase request, the power generation type (solar power generation, wind power generation, etc.), the demand amount (the amount of power to be procured), and the time zone of the power generation facility 13 can be specified. In the purchase request, information for specifying an individual power generation facility 13, information for specifying a specific power plant, an area where the power generation facility 13 is located, and the like may be set. Further, in the purchase request, the amount of money to be purchased may be set as the limit price. Further, a plurality of conditions may be set to set the priority of the conditions.

The sale amount input unit 214 receives the designation of the token to be sold from the seller (equipment provider 15 or the consumer 10) who wants to sell the token. The sale amount input unit 214 can receive, for example, a sale request from the user terminal 1 of the seller. In the sale request, the token to be sold and the selling price thereof can be set. The selling price can be set to the lowest price. The selling price can also be specified in the range from the lowest price to the highest price.

The matching processing unit 215 can match the sale request with the purchase request. The matching processing unit 215 can search for asset information that matches the conditions specified in the purchase request. Further, the matching processing unit 215 can specify a token sale request backed by the power generation facility 13 indicated by the matched asset information, and assign the token related to the specified sale request to the purchaser. The matching processing unit 215 can, for example, assign a sale request in the order in which purchase requests are received, according to the conditions of the received purchase request. Further, the matching processing unit 215 can collectively allocate the purchase request and the sale request received in a certain period. The matching processing unit 215 can perform matching processing similar to sales processing in the stock market, for example.

The sales processing unit 216 performs processing related to the sale of the token to the consumer 10. The sales processing unit 216 can accept payment from the purchaser of the token and perform processing to pay the seller. The sales processing unit 216 may pay the seller by subtracting the commission from the amount paid by the purchaser.

The token transfer unit 217 transfers an amount of tokens corresponding to the share of the power generation facility 13 to be sold to the consumer's wallet. The transfer of tokens is automatically carried out by a program on the blockchain when the actual date and time reaches the date and time of each slot (eg, every 30 minutes). The token transfer unit 217 can issue a transaction to the blockchain 4 for transferring the token sold from the seller's wallet to the purchaser's wallet. As a result, the token transfer unit 217 can transfer an amount of tokens corresponding to the demand amount of the consumer 10 to the consumer's wallet.

The power generation prediction acquisition unit 218 acquires the predicted value of the amount of power generated by the power generation facility 13. The power generation prediction acquisition unit 218 may predict the amount of power generation by itself, or may acquire the predicted value from an external computer that has predicted the amount of power generation. The power generation prediction acquisition unit 218 can predict the amount of solar radiation for, for example, the power generation facility 13 related to photovoltaic power generation. The power generation prediction acquisition unit 218 may receive the predicted value of the power generation amount from the user terminal 1 of the owner of the power generation facility 13 or the provider 15.

The power generation record acquisition unit 219 can acquire the actual value of the amount of power generated by the power generation facility 13 from the smart meter 14 provided in the power generation facility 13.

The report creation unit 220 can output a report on the power generation plan. The report creation unit 220 uses the predicted value of the power generation amount of the power generation facility 13 as the total token amount of the token amount held in the wallet of the consumer 10 and the matched token amount to be moved in the future slot (hereinafter referred to as “holding”). It is divided according to the planned amount of tokens), and the predicted value of the divided power generation amount can be included in the power generation plan for each consumer 10. In addition, the report creation unit 220 can output a report on the power generation record. The report creation unit 220 may divide the actual value acquired from the smart meter 14 according to the amount of tokens planned to be held by the consumer 10, and include the divided power generation amount (divided power generation actual value) in the power generation actual value. can. The report creation unit 220 may include the predicted value predicted in the power generation plan in the power generation result.

The report creation unit 220 provides a GUI (browsing screen) for the equipment provider 15, the purchaser, and the seller of the power generation equipment 13 to view information (asset information) about the power generation equipment 13 owned by the report creation unit 220. can do. The browsing screen can include a predicted value of the amount of power generation, the ownership ratio of the power generation facility 13, basic information of the power generation facility 13, and the like.

The report preparation unit 220 can prepare a plan for the OCCTO. The report creation unit 220 can also automatically submit a plan to the wide area core system 16. The report creation unit 220 is required when the owner and the operator of the power generation facility 13 cooperate with each other based on the asset information, the predicted value of the generated power amount, the actual value of the generated power amount acquired from the smart meter 14, and the like. You can create a form that describes information.

The API processing unit 221 can provide the API to the external device of the management server 2. The API can be, for example, REST, and the API processing unit 221 extracts and provides necessary information from the information managed by the management server 2 and the blockchain 4 in response to a request from an external device. be able to. The management server 2 can perform data linkage with the OCCTO system 16 using the API. The API processing unit 221 additionally creates a form or cooperates with the system based on the data managed by the management server 2 and the blockchain 4 for the documents to be submitted to the retail business operator and the general power transmission and distribution business operator. be able to. In addition, through API, it is possible to provide a mechanism that allows retailers and companies that provide services for consumers to link and trade trading conditions via their own systems.

The power procurement system will be described below. While the legal ownership of the power generation facility 13 remains held by the electric power retailer 19, the virtual ownership of the power generation facility 13 is sold as an electronic token to the consumer 10 who is a customer of the retailer 19. .. It is assumed that the consumer 10 procures all the electricity from the retailer 19. The retailer 19 collects token purchase funds from the consumer 10, purchases the power generation facility 13 with the collected funds, and the consumer 10 purchases electric energy from the retailer 19 when the electricity bill is billed from the retailer 19. (KWh) and the amount of electric energy (kWh) generated by the power generation facility 13 associated with the purchased token can be netted and paid (or received).

The investment funds of the power generation facility 13 owned by the retailer 19 are allocated by the funds paid by the consumer 10 who purchased the token. As a result, the consumer 10 will have the power generation facility 13 in a pseudo manner, and the retailer 19 will pay the amount of power purchased by the consumer 10 and the power generated from the power generation facility 13 as compensation commensurate with the virtual ownership. Perform net metering with quantity.

By pseudo-divided ownership of the power generation facility 13, it is possible for the consumer 10 to have a pseudo-ownership from a small amount (realized by net metering), and since it is virtually divided, there are physical restrictions on the division. It is possible to have a power generation facility 13 other than a certain solar power generation in a split manner.

The amount of power generated by the power generation facility 13 can be measured, and the amount of power (kWh) can be supplied in the form of net metering according to the ratio held at regular intervals (every 30 minutes, etc.).

In addition, the ease of buying and selling is improved by electronically recording the percentage of ownership, and the liquidity of assets is provided by preparing a platform 12 that can buy and sell off-take rights of ownership and electric energy (kWh) associated with it. At the same time, the operating rate of the equipment can be improved by mounting the existing equipment on the platform 12.

The retailer 19 enjoys the contract maintenance effect of retaining the consumer 10 who is attracted to holding tokens as a customer for a certain period of time.

Part of the ownership of the power generation facility 13 is held by the retailer 19 in the form of tokens, but the original funds are from consumers. The electric power (kwh) generated from the power generation facility 13 can be supplied to the consumer 10 in the form of net metering. By reducing the initial investment cost and giving the liquidity of the virtual ownership of the power generation facility 13, it becomes possible to popularize the renewable energy power generation facility 13. In addition, since it is possible to create a secondary market (buying and selling) including new and existing idle equipment, it will be possible to easily sell assets, and the value of power generation equipment 13 will be improved and the operating rate of idle equipment will be improved. Through this, high-efficiency operation of Japan's electric power infrastructure can be expected. The ease of entry can be improved by automating the setting of the power generation facility 13 from transaction to reporting as much as possible.

FIG. 6 is a diagram illustrating a token purchase process. The retailer 19 collects funds from the consumer 10 to purchase tokens of the power generation facility 13 and acquires all or part of the sectional ownership. Retailer 19 sells this token to consumer 10. The retailer 19 continues to own the ownership of the power generation facility 13, but sells the off-take rights to the consumer 10. The token representing this off-take right is sold from the retailer 19 to the consumer 10. For the tokens sold here, the tokens purchased by retailer 19 may be resold, and a rule may be established in which only the ownership remains in the contract, or the retailer 19 represents a new token representing off-take rights. May be issued (STO).

In the example of FIG. 6, if the retailer 19 purchases 100 tokens per 100 kW power generation facility 13 and the consumer 10 (home X) purchases 2 tokens, the home X has acquired the 2 kW off-take right. Become.

FIG. 7 is a diagram illustrating a billing process for electricity charges. The example of FIG. 7 shows an example in which the monthly power consumption of the consumer 10 (household X) is 450 kWh and the monthly power generation of the power generation facility 13 is 10,000 kWh. Since the consumer 10 (household X) owns 2 tokens out of the 100 tokens acquired by the retailer 19, he / she has an off-take right of 10,000 kWh × 2/100 = 200 kWh. Therefore, the retailer 19 can make the consumer 10 (household X) bill for 250 kWh by subtracting 200 kWh from 450 kWh by net metering.

FIG. 8 is a diagram showing a flow of power transmission processing.

The management server 2 receives the asset information of the power generation facility 13 and records it in the asset information storage unit 231 (S301), and issues a token (STO) backed by the power generation facility 13 (S302). Here, the retailer 19 can solicit a pseudo-owner applicant (consumer 10) of the power generation facility 13. The retailer 19 purchases tokens using the collected funds (S401). In the example of FIGS. 6 and 7, retailer 19 would purchase a token corresponding to a 100% stake in a power generation facility 13. The management server 2 records the owner information of the retailer 19 who is the holder of the token in the ledger of the blockchain 4 (S303).

The retailer 19 sells the token to the consumer 10 (S402). It is assumed that the consumer 10 has an off-take right of the electric energy (kWh) generated from the power generation facility 13 pseudo-owned via the retailer 19 by holding the token.

The management server 2 acquires the amount of power generated by the power generation facility 13 from a measuring device such as a smart meter 14, and generates power in a certain reference time such as a 30-minute value (the measurement time can be set arbitrarily). The amount of electric power (kWh) can be aggregated (S304). The management server 2 can allocate the amount of power generation to the section owners according to the amount of tokens held (S305). In the example of FIGS. 6 and 7, all power generation is allocated to retailer 19.

The retailer 19 supplies the electric energy (kWh) to the consumer 10 in the form of net metering (S403). Specifically, although the consumer 10 does not legally own the power generation facility 13, an intermediary power sales company such as the retailer 19 owns the power generation facility 13 in a virtual division, and the power is sold from the retailer 19. With respect to the amount of electricity (kWh) generated from the amount of token purchases (pseudo, no ownership, only off-take rights) that the customer has applied for through retailer 19, retailer 19 uses net metering. Bill the consumer 10. For example, if the consumer 10 buys 400 kWh from the retailer 19 and procures 100 kWh from the power generation facility 13 via the retailer 19, the amount billed by the retailer 19 to the consumer 10 is equivalent to 400-100 = 300 kWh. It will be the amount to be retailed.

Although the present embodiment has been described above, the above embodiment is for facilitating the understanding of the present invention, and is not for limiting the interpretation of the present invention. The present invention can be modified and improved without departing from the spirit thereof, and the present invention also includes an equivalent thereof.

For example, in the present embodiment, the token issued by the blockchain 4 is used to manage the ownership of the power generation facility 13 and the location of the off-take right, but it is not always necessary to use the blockchain technology. For example, ownership and off-take rights may be managed in the database, and the database administrator (operator of the management server 2) may guarantee the authenticity of the contents.

Further, in the present embodiment, the owner information regarding the owner of the power generation facility 13 is managed in the ledger of the blockchain 4, but the management server 2 is provided with an owner information storage unit for storing the owner information. You may.

<Disclosure matters>
The present disclosure includes the following configurations.
[Item 1]
A token issuing department that issues tokens representing the ownership and off-take rights of the power generation equipment on the blockchain, backed by the power generation equipment.
A demand amount input unit that receives the demand amount of electric power desired to be procured from the power generation facility from the consumer, and
A sales processing unit that performs processing related to the sale of the token to the consumer, and
A token transfer unit that transfers the token in an amount corresponding to the demand amount to the wallet of the consumer,
A power generation forecast acquisition unit that acquires a predicted value of the amount of power generated by the power generation facility,
A power generation plan output unit that divides and outputs the predicted value of the generated power amount according to the amount of tokens planned to be held by the consumer for each of the consumers.
An information processing device characterized by being further equipped with.
[Item 2]
The information processing device according to item 1.
A power generation record acquisition unit that acquires the actual value of the amount of power generated by the power generation facility from the smart meter provided in the power generation facility, and a power generation record acquisition unit.
A power generation actual output unit that outputs the divided power generation actual value and the predicted value obtained by dividing the actual value according to the planned holding token amount, and
An information processing device characterized by being further equipped with.
[Item 3]
The information processing device according to item 1 or 2.
The demand amount input unit accepts the designation of conditions for the power generation facility together with the demand amount.
The information processing device is
For each of the plurality of power generation facilities, an asset information storage unit that stores asset information related to the power generation facility, and an asset information storage unit.
A matching processing unit that searches for the asset information that matches the conditions, and
Further prepare
The token transfer unit transfers the token in an amount corresponding to the demand from the wallet of the consumer to the wallet of the power generation facility corresponding to the matched asset information.
An information processing device characterized by.

1 User terminal 2 Management server 3 Communication network 4 Blockchain 10 Consumer 11 Demand equipment 12 Marketplace 13 Power generation equipment 14 Smart meter 15 Equipment provider 16 Wide area engine system 17 Retailer 18 Service provider 19 Retailer 131 Category 211 Assets Registration Department 212 Token Issuing Department 213 Demand Volume Input Department 214 Sales Volume Input Department 215 Matching Processing Department 216 Sales Processing Department 217 Token Transfer Department 218 Power Generation Prediction Acquisition Department 219 Power Generation Performance Acquisition Department 220 Report Creation Department 221 API Processing Department 231 Asset Information Storage Department

Claims (3)

A token issuing department that issues tokens representing the ownership and off-take rights of the power generation equipment on the blockchain, backed by the power generation equipment.
A demand amount input unit that receives the demand amount of electric power desired to be procured from the power generation facility from the consumer, and
A sales processing unit that performs processing related to the sale of the token to the consumer, and
A token transfer unit that transfers the token in an amount corresponding to the demand amount to the wallet of the consumer,
A power generation forecast acquisition unit that acquires a predicted value of the amount of power generated by the power generation facility,
A power generation plan output unit that divides and outputs the predicted value of the generated power amount according to the amount of tokens planned to be held by the consumer for each of the consumers.
An information processing device characterized by being further equipped with. The information processing apparatus according to claim 1.
A power generation record acquisition unit that acquires the actual value of the amount of power generated by the power generation facility from the smart meter provided in the power generation facility, and a power generation record acquisition unit.
A power generation actual output unit that outputs the divided power generation actual value and the predicted value obtained by dividing the actual value according to the planned holding token amount, and
An information processing device characterized by being further equipped with. The information processing apparatus according to claim 1 or 2.
The demand amount input unit accepts the designation of conditions for the power generation facility together with the demand amount.
The information processing device is
For each of the plurality of power generation facilities, an asset information storage unit that stores asset information related to the power generation facility, and an asset information storage unit.
A matching processing unit that searches for the asset information that matches the conditions, and
Further prepare
The token transfer unit transfers the token in an amount corresponding to the demand from the wallet of the consumer to the wallet of the power generation facility corresponding to the matched asset information.
An information processing device characterized by.

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