Distributed power supply management system
The distributed power management system optimizes power sources and calculates compensation levels to encourage consumers to adjust their power usage, addressing the challenge of determining appropriate rewards for consumer equipment owners to manage local voltage fluctuations and supply-demand imbalances.
Patent Information
- Application Number
- JP2024081858
- Authority / Receiving Office
- JP · JP
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2024-05-20
- Publication Date
- 2025-12-03
AI Technical Summary
Existing distributed power management systems lack a mechanism to determine an appropriate level of reward for consumer equipment owners to encourage them to adjust their power usage in response to local voltage fluctuations and supply-demand imbalances.
A distributed power management system that includes a processing unit to optimize distributed power sources, a setting value calculation unit, and a transmission means to determine and transmit voltage regulator operation constraints, along with a reward sensitivity generation unit to calculate appropriate compensation levels for consumer actions.
Enables the determination of appropriate rewards to encourage consumers to provide balancing capacity, optimizing power distribution and reducing system congestion.
Smart Images

Figure 2025175647000001_ABST
Abstract
Description
[Technical Field]
[0001] The present invention relates to a distributed power management system. [Background technology]
[0002] In recent years, due to mismatches in power supply and demand and local voltage fluctuations in distribution systems, aggregation businesses have been expanding, which aggregate and provide the balancing power of distributed power sources from DERs (Distributed Energy Resources) such as EVs and batteries owned by consumers. In particular, in distribution systems, the increase in residential PV panels has created a demand for procuring the balancing power of local distributed power sources. Given this situation, overseas distribution system operators (DSOs) are introducing distributed energy resource management systems (DERMS) that contribute to the control of distribution systems by utilizing distributed energy sources (DERs), such as renewable energy, storage batteries, and EV chargers, which are expected to increase in number in the future.
[0003] Regarding the provision of adjustment power possessed by distributed power sources, a voltage control device that adjusts the load taking into consideration the supply and demand situation, controls the distribution voltage taking into consideration the amount of load adjustment, and maintains the distribution line voltage at an appropriate value while suppressing loss of power generation opportunities is described in Patent Document 1. According to this invention, the control logic of the PCS is the main focus, and active power target values and reactive power target values are set by directly issuing commands to the PCS, and system voltage control is performed by performing the desired active power control and reactive power control.
[0004] Regarding the provision of adjustment power from distributed power sources, there is a technology described in Patent Document 2 as a power suppression control system that can adjust load taking into account supply and demand conditions and appropriately evaluate incentives for the amount of load adjustment.
[0005] This publication describes a system that "calculates, at predetermined times based on the database, the amount of load suppression performed by discharging the storage battery, generating the distributed power source, and suppressing the load itself, and the amount of load creation created by charging the storage battery and starting up the load that can be shifted in time, in order to control the amount of load adjustment at the distribution substation, and distributes the amount of load adjustment requested at the distribution substation for each feeder below the distribution substation based on the calculated amount of load suppression and the amount of load creation." a second allocation calculation device that allocates the load adjustment amount transmitted from the first allocation calculation device to each pole transformer below the feeder based on the calculated load suppression amount per feeder and the load creation amount per feeder, and a third allocation calculation device that calculates the contribution of each consumer to the load adjustment amount using the load adjustment amount of the consumer and the load amount of the entire distribution substation based on the calculated load suppression amount per pole transformer and the load creation amount per pole transformer for the load adjustment amount transmitted from the second allocation calculation device. [Prior art documents] [Patent documents]
[0006] [Patent Document 1] Japanese Patent Publication No. 2022-119641 [Patent Document 2] Japanese Patent Application Laid-Open No. 2014-128140 Summary of the Invention [Problem to be solved by the invention]
[0007] In Patent Document 1, control is based on the assumption that a PCS such as a renewable energy system is used, but control that takes into account the entire distribution system is not anticipated, and the impact on the distribution system when multiple PCSs exist is not anticipated.
[0008] Patent Document 2 describes a method for adjusting the supply and demand of electricity by allocating the necessary adjustment capacity of a distributed power source to the target equipment of contracted consumers, and then calculating and allocating the contribution level according to the allocated adjustment amount.However, when securing the adjustment capacity of a flexible distributed power source through temporary cooperation from each consumer, such as by asking an EV to connect to a charging station at a necessary location in response to local voltage fluctuations, or by asking consumers such as households to cooperate in increasing or decreasing their power usage, it is not possible to determine the level of compensation to be awarded to encourage cooperation.
[0009] An object of the present invention is to determine an appropriate level of reward to be given to owners of consumer equipment in a distributed power management system to encourage them to take action to ensure the adjustment capability of distributed power sources. [Means for solving the problem]
[0010] The distributed power supply management system of the present invention is a distributed power supply management system that manages distributed power sources arranged in a power distribution network, and is characterized by having a processing unit that optimizes the amount and load of the distributed power sources, a setting value calculation unit that calculates the power flow in the power distribution network and calculates setting values for a voltage regulator from the calculation results, and a transmission means that transmits voltage regulator operation constraints of the voltage regulator to a power distribution system operation unit. [Effects of the Invention]
[0011] According to the present invention, a distributed power supply management system can determine an appropriate level of reward to be given to the owner of consumer equipment in order to encourage the owner to take action to ensure the adjustment capability of the distributed power supply. [Brief explanation of the drawings]
[0012] [Figure 1] FIG. 1 is a diagram showing the overall configuration of an embodiment. [Figure 2] FIG. 2 is a diagram showing the relationship between a distributed power management system and consumers in the embodiment. [Figure 3] An example of a customer behavior database is shown below. [Figure 4] Here is an example of reward sensitivity. [Figure 5] 10 shows a processing flow of a reward sensitivity generation unit. [Figure 6] 10 shows a processing flow of a regulation capability provision remuneration level calculation unit. [Figure 7] An example of price sensitivity adjustment is shown below. [Figure 8] FIG. 2 is a diagram showing the relationship between a distributed power management system and consumers in the embodiment. [Figure 9] FIG. 2 is a diagram showing the relationship between a distributed power management system and consumers in the embodiment. DETAILED DESCRIPTION OF THE INVENTION
[0013] Hereinafter, an embodiment will be described with reference to the drawings. [Example]
[0014] FIG. 1 is a diagram showing the overall configuration of an embodiment. The distributed power management system of this embodiment mainly includes a processing unit (optimization unit 9) that optimizes the amount and load of distributed power sources, a power flow calculation unit that calculates the power flow of the power distribution network, a setting value calculation unit 10 that calculates the setting values of the voltage regulator from the results calculated by the power flow calculation unit, and a transmission means that transmits voltage regulator operation constraints of the voltage regulator to a distribution system operation unit (distribution system information 4). This makes it possible to optimize the amount and load of distributed power sources, calculate the setting values of the voltage regulator from the results of the power flow calculation, and transmit the voltage regulator operation constraints to the distribution system operation unit. Therefore, the distribution system operator can make appropriate decisions based on the information from the distribution system operation unit.
[0015] In addition, Figure 1 shows that the amount of distributed power generation to be controlled in advance is optimized, preferably while grasping future system conditions, to avoid system congestion. The power flow in the power distribution network 3 is then calculated, and the voltage regulator setting values are calculated from the power flow calculation results. The future amount of distributed power generation, load, and voltage regulator operating constraints are then sent to the distribution system operation unit (distribution system information 4), which shares the information with the distribution system operator (DSO).
[0016] The distributed power management system 101 cooperates with a distributed energy resource 2 (DER) and transmits an output command for the DER. Then, an operation plan value is transmitted back to the distributed power management system 101 using an operation plan unit 7 in the DER.
[0017] The operation realization value aggregation unit 8 accumulates the information in a database as demand and output estimation information 5. Meanwhile, the distributed power management system 101 collects the information on the system impedance of the power distribution network 3, information on interconnected renewable energy sources and loads accumulated as power distribution system information 4, and the demand and output estimation information 5, and transmits them to the optimization unit 9. After providing an estimated DER output amount, the optimization unit 9 calculates setting values for voltage regulators such as SVR and LRT so that the range falls within the upper and lower voltage limits in the power distribution system, and then performs a power flow calculation. Note that although optimization is used in this embodiment, optimization is also acceptable, and optimization is preferable.
[0018] If the node voltage of the distribution system at this time is within the allowable range, the DER output estimate is increased and the power flow calculation is performed again. On the other hand, if the node voltage of the distribution system exceeds the allowable range, the DER output estimate is lowered by one level, and the setting calculation is performed and the power flow calculation is performed again. The setting calculation is performed using multiple regression analysis. First, a unit time for multiple regression analysis is set. For example, calculations for all time periods during the day, in one-hour or three-hour increments, are completed. Subsequent processing is performed on the data set included in the unit time. A search is performed to find the PV combination and determine the ideal voltage between the potential difference ΔV and the SVR passing currents Irsvr and Iisvr so that the margin between the upper and lower system voltage limits is equal. Then, multiple regression analysis is performed, and α, where ΔV = α × Irsvr + β × Iisvr + ΔV0, is set as the SVR LDC setting value R (Ω). β is set as the SVR LDC setting value X (Ω). In the case of a distribution system, the upper and lower limits of the system voltage are determined as 6450V, 6600V, and 6750V based on the values of the tap map of the pole transformer.
[0019] 2 is a diagram showing the details of the relationship between the distributed power supply management system 101 and consumers. The distributed power supply management system 101 includes an adjustment capacity-related action designation unit 102 that designates an action related to the adjustment capacity of the distributed power supply and corresponds to the adjustment capacity of the distributed power supply, an adjustment capacity-related action learning unit 104 of the distributed power supply that links information in a consumer action database (consumer action DB 103) with the action designated by the adjustment capacity-related action designation unit 102 of the distributed power supply to learn the presence or absence of the relevant action and its frequency, a reward sensitivity generation unit 106 that generates a reward sensitivity of the consumer from the granted reward given to the consumer and the resulting action DB 105, and a reward sensitivity generation unit 107 that generates a reward sensitivity of the consumer from the granted reward given to the consumer and the resulting action DB 105. The system is equipped with a distributed power source adjustment capacity provision compensation level calculation unit 109 which determines an appropriate compensation level for the consumer to provide the adjustment capacity of the distributed power source using the consumer's compensation sensitivity obtained by the sensitivity generation unit 106, the related behavior learning model of the adjustment capacity of the distributed power source obtained by the distributed power source adjustment capacity related behavior learning unit 104, and the amount of adjustment capacity of the distributed power source and adjustment capacity information 108 of the distributed power source regarding its location and time period provided by the transmission and distribution company 107, and transmits and notifies the determined compensation level to the transmission and distribution company 107, which is the distribution system operation unit.
[0020] The details of each element of the distributed power management system 101 and its processing are described below. First, the distributed power supply's adjustment capability-related action designation unit 102 provides information on actions linked to the distributed power supply's adjustment capability. Distributed power supplies have multiple types of adjustment capability. However, since this study focuses on individual consumers, frequency adjustments by large generators, etc., are not included. The following applies. Examples of measures necessary to maintain supply and demand balance include negawatts, which require various consumers to reduce their power consumption when demand exceeds the available power during the heatwaves of summer daytime, and posiwatts, which require consumers to increase their power consumption to avoid curtailing renewable energy sources when there is excess power, such as wind power during low-power consumption times like nighttime or photovoltaic (PV) power generation during the daytime during intermediate seasons. In the future, in addition to increasing consumption as posiwatts to prevent localized voltage increases that occur when PV power generation increases, we can also consider cases where consumers will output reactive power from inverters installed in EVs and homes.
[0021] Actions related to the adjustment power of distributed power sources are linked to the above-mentioned contents. Examples include consuming electricity late at night, going out even during the hottest part of the day in summer, staying at home during the day on a weekday, and visiting a specific location by EV. Each of these corresponds to the adjustment power of each distributed power source mentioned above. For the above contents, the time period can be specified in more detail, such as from 1:00 to 4:00, rather than at night, and the location information can be specified in a wider range (2km) rather than being limited to a specific area such as one location. 2 It is also possible to specify a facility name such as a specific shopping center rather than location information. Furthermore, as for actions related to the adjusting capacity of distributed power sources, users of this system may input any actions other than those listed here as long as they are closely related to the provision of adjusting capacity of distributed power sources.
[0022] The consumer behavior DB 103 is a DB that records various consumer behaviors, an example of which is shown in FIG. 3. While a tabular relational database is shown, this format is not necessarily required, and various other formats may be used. For example, for each consumer, detailed information about the behavior, including the time period and duration, such as behavior A, is shown, in which various behaviors are recorded for each date, along with the time period, whether or not they were performed, and their duration. Alternatively, information about behavior B, which only records whether or not the behavior was performed on that day, may be used. Furthermore, the content of the data is not limited to this; for example, if the behavior is charging an EV at a certain location, information describing the amount of charge of the EV, or other specific figures, may be used.
[0023] The adjustment capacity related action learning unit 104 of the distributed power source searches for actions given by the adjustment capacity related action specifying unit 102 of the distributed power source that are identical to the action content recorded in the consumer action DB 103, and extracts that information. This can be done by syntactically analyzing the action content and selecting actions that are considered to be identical, or, if a specific action DB exists and its items are known, by aligning the action content with the content recorded in the adjustment capacity related action specifying unit 102 of the distributed power source in advance and selecting the identical action content. Furthermore, when creating a new consumer action DB, only actions related to the adjustment capacity of the distributed power source can be used as the consumer action DB.
[0024] The granted reward + result action DB 105 is data obtained by the customer management system. The granted reward is, for example, various coupons that can be used for shopping, or information on various discounts. The result action is the action taken by the target consumer in response to the given coupon or discount, and this DB provides this combination. This DB can be a DB provided by a general customer management system, and the granted reward and result action are not limited to those described above.
[0025] The reward sensitivity generator 106 generates a reward sensitivity that indicates the degree of behavior of a consumer depending on the size of the reward. Figure 4 shows an example of reward sensitivity thus generated. The reward sensitivity is given by a curve 301 that indicates the degree of behavior that is predicted for the reward given to the consumer.
[0026] FIG. 5 shows the processing flow of the reward sensitivity generation unit 106 for providing this curve. First, the behavior execution rate relative to the reward is calculated from the behavior history performed in response to the granted reward (S401). Next, the obtained behavior execution rate is interpolated to create the reward sensitivity relative to the granted reward (S402). In other words, the reward sensitivity is the relationship between the execution rate relative to the granted reward, and an appropriate granted reward can be provided. The reward sensitivity is generated in this manner. When creating the reward sensitivity, generally known interpolation methods such as polynomials, exponential functions, and other curve approximations can be used.
[0027] Next, the remuneration level calculation unit 109 for providing the adjustment capacity of the distributed power source calculates the value required to derive the adjustment capacity of the distributed power source. The processing flow is shown in Figure 6. Adjustment capacity information of the distributed power source is received from the electricity transmission and distribution company (S501). For each consumer, adjustment capacity information of the related distributed power source is selected from the adjustment capacity information held by the distributed power source (S502). The price sensitivity of consumers with relevant information is increased, and the price sensitivity of consumers without relevant information is decreased (S503). The amount to be offered to each consumer whose expected value of the adjustment capacity of the distributed power source exceeds the conditions and whose required amount is minimized is determined (S504). As a result of the above, it is possible to determine the appropriate remuneration level to be offered to each consumer for providing the adjustment capacity of the distributed power source.
[0028] The adjustment of price sensitivity in S503 is shown in Figure 7. If the consumer is engaging in behavior that corresponds to the required adjustment capacity of the distributed power source, the price sensitivity is increased (curve 601), while if no such behavior is present, the sensitivity is decreased (curve 602). In this case, the increase and decrease rates may be set to a certain fixed value, or different values may be used for each consumer. Next, the calculation in S504 is shown in Equation 1 and Equation 2.
[0029]
number
[0030]
number
[0031] Here, i is the number of each consumer, s(i) is the amount of adjustment capacity provided by each consumer's distributed power source, p(i) is the behavior implementation rate of each consumer, S is the value of the adjustment capacity that the distributed power source wishes to secure, and m(p(i)) is the amount of compensation offered to each consumer. Equation 1 is the constraint, and equation 2 is the objective function. Equation 1 ensures that the expected value of the adjustment capacity that the distributed power source obtains exceeds the value of the adjustment capacity that the distributed power source wishes to secure, while minimizing the overall required cost.
[0032] In addition, by multiplying the left or right side of Equation 1 by a coefficient, it is possible to specify how many times the required expected value is compared to the required adjustment capacity of the distributed power source. This optimization problem can be solved by applying various NLP (Non-Linear Programming) techniques as a non-linear problem, or by using MILP (Mixed Integer Linear Programming), which linearly segments the non-linear characteristics, or by using a heuristic technique such as particle swarm optimization. The obtained amount is transmitted to each power transmission and distribution company 107.
[0033] As a result, it is possible to determine the level of reward to be given to owners of consumer equipment to encourage them to take action to secure the balancing capacity of distributed power sources. This makes it easier for consumers to decide to provide the balancing capacity of distributed power sources. In other words, the indicators for making a decision become clear, increasing their motivation. [Example]
[0034] 8 is a diagram showing the relationship between the distributed power management system and consumers in an embodiment. In this embodiment, it is possible to modify the adjustment amount of price sensitivity to be given to each consumer based on the behavior of each consumer.
[0035] The difference in configuration is that information is received from each consumer 701. Based on the received remuneration amount, the calculation unit 109 for remuneration level for provision of adjustment capacity owned by the distributed power source requests each consumer 701 to provide the adjustment capacity of the distributed power source in order to secure the adjustment capacity of the distributed power source. Information on whether each consumer 701 actually responded to the request from the electricity transmission and distribution company 107 is then transmitted to the calculation unit 109 for remuneration level for provision of adjustment capacity owned by the distributed power source. Then, the degree of adjustment of price sensitivity in S503 is changed. For example, the price sensitivity adjustment is multiplied by a coefficient, and the coefficient is increased if there is a response, or decreased if there is no response. By repeating this process, the value of the adjustment capacity owned by the distributed power source required to take action regarding the provision of the adjustment capacity of the distributed power source is corrected.
[0036] As a result, it is possible to correct the adjustment amount of price sensitivity to be given to each consumer based on the behavior of each consumer. [Example]
[0037] 9 is a diagram showing the relationship between the distributed power management system and consumers in an embodiment. In this embodiment, in addition to monetary incentives to be provided to consumers, it is possible to provide non-monetary incentives as data within the application.
[0038] The configuration differs in that an application server 801 owned by the operating company is connected between each consumer 701 and the adjustment capability provision remuneration level calculation unit 109 owned by each distributed power source and each consumer 701. The application server 801 is connected to a personal terminal (such as a smartphone) owned by each consumer 701 via a network.
[0039] The application server 801 stores the amount of service charges and the like from each consumer 701, and receives this information. Upon receiving the adjustment capacity information 108 of the distributed power source, the calculation unit 109 for remuneration level for providing adjustment capacity of the distributed power source notifies each consumer 701 via the application server 801 that the adjustment capacity of the distributed power source is available when provided, based on the usage status of each consumer 701 from the application server 801. At this time, this may be implemented in combination with monetary remuneration as described in the first two embodiments, or in some cases, remuneration alone may be used.
[0040] As an example of the adjustment power information 108 possessed by a distributed power source, if a user desires to connect an EV to a location where the distributed power source's adjustment power can be provided in response to voltage increases due to PV power generation, the location information can also be provided to the application server 801, and a system can be established in which each consumer 701 performs a specified action at the corresponding location to obtain that information from each consumer 701, and the information can be transmitted to the application server 801, thereby providing a reward.
[0041] As a result, in addition to monetary incentives to be provided to consumers, non-monetary incentives can be provided as data within the application.
[0042] In addition, by providing information about the location of the distributed power source at a location where the distributed power source is desired to provide its adjustment power, each consumer can provide the adjustment power of a specified distributed power source at a specified location, and this information can be obtained from each consumer and transmitted to the application server, which can then provide a reward.
[0043] The adjustment capacity provision reward level calculation unit periodically calculates the correlation between the setting value for the voltage regulator and the output amount of the distributed power source, and if a setting value that shows a correlation is obtained, it calculates an incentive for the transmission and distribution company to provide to the owner of the distributed power source, providing useful information to the owner of the distributed power source.
[0044] If there is a correlation between the number of voltage regulators and the amount of suppression of distributed power sources, the transmission and distribution company can calculate an incentive corresponding to the unit price of the voltage regulator to be provided to the distributed power source owner, which will provide useful information to the distributed power source owner.
[0045] If an overvoltage or overload state occurs in the system, the distributed power source adjustment amount and the adjustment amount unit price at a specific time are presented to the market in advance, and if the presented distributed power source adjustment amount and adjustment amount unit price are commensurate at the specific time, the distributed power source owner or the aggregator that aggregates distributed power source owners settles the purchase price determined by the distributed power source adjustment amount and adjustment amount unit price, and the distributed power source owner or the aggregator that aggregates distributed power source owners controls the distributed power source output amount. [Explanation of symbols]
[0046] 101...Distributed power management system, 102... Coordination Capability Related Action Designation Section, 103...Customer behavior DB, 104... Department of Coordination-Related Behavioral Learning, 105... Granted reward + result behavior DB, 106...Reward sensitivity generation unit, 107...Electricity transmission and distribution operators, 108...Adjustment power information, 109...Adjustment power provision reward level calculation unit
Claims
1. A distributed power management system that manages distributed power sources arranged in a power distribution network, a processing unit that optimizes the amount of the distributed power source and the amount of load; a setting value calculation unit that calculates the power flow of the power distribution network and calculates setting values of a voltage regulator based on the calculation result; a transmission unit that transmits the voltage regulator operation constraints of the voltage regulator to a power distribution system operation unit.
2. 2. The distributed power management system according to claim 1, The processing unit optimizes the amount of distributed power sources and the amount of load; The power flow is calculated after optimization by the processing unit; a transmitting unit that transmits the future amount of the distributed power source, the load amount, and the voltage regulator operation constraint to a power distribution system operation unit.
3. 2. The distributed power management system according to claim 1, an adjustment capability related action designation unit corresponding to the adjustment capability of the distributed power source; a regulation capacity related behavior learning unit that learns information about the consumer by linking it with the regulation capacity related behavior designation unit; a reward sensitivity generation unit that generates a reward sensitivity of the consumer from a given reward to be given to the consumer; a compensation sensitivity of the consumer obtained by the compensation sensitivity generation unit, and a regulation capacity-related behavior learning model obtained by the regulation capacity-related behavior learning unit; A distributed power source management system characterized by comprising an adjustment capacity provision remuneration level calculation unit that determines an appropriate remuneration level for the consumer to provide adjustment capacity using adjustment capacity information about the distributed power source, its location, and time period provided by the transmission and distribution company, and transmits the remuneration level to the transmission and distribution company.
4. 4. The distributed power management system according to claim 3, A distributed power management system, wherein the remuneration sensitivity generated by the remuneration sensitivity generation unit is a relationship between the rate of implementation and the granted remuneration.
5. 4. The distributed power management system according to claim 3, The distributed power source management system is characterized in that the adjustment capacity provision remuneration level calculation unit modifies the remuneration sensitivity of the consumer based on the adjustment capacity information of the distributed power source obtained from the transmission and distribution company and the adjustment capacity related information of the consumer, and uses this information to determine the remuneration to be offered to the consumer.
6. 4. The distributed power management system according to claim 3, The distributed power management system is characterized in that the adjustment capacity provision remuneration level calculation unit changes the degree of adjustment of price sensitivity or provides a non-monetary incentive through an application server as a remuneration to be provided to the consumer.
7. 7. The distributed power management system according to claim 6, A distributed power supply management system characterized in that when a consumer provides the adjustment power of a specified distributed power supply at a specified location, the consumer provides the adjustment power of the specified distributed power supply at the specified location together with information about the location to an application server, and the system obtains the information from the consumer, transmits the information to the application server, and provides a reward.
8. 4. The distributed power management system according to claim 3, The distributed power source management system is characterized in that the adjustment power provision reward level calculation unit periodically calculates the correlation between the setting value for the voltage regulator and the output amount of the distributed power source, and if a setting value that shows a correlation is obtained, it calculates an incentive for the transmission and distribution company to provide to the owner of the distributed power source.
9. 9. The distributed power management system according to claim 8, A distributed power management system characterized by calculating, when there is a correlation between the number of voltage regulators and the amount of distributed power source suppression, an incentive corresponding to the unit price of the voltage regulator to be provided by the transmission and distribution company to the distributed power source owner.
10. 10. The distributed power management system according to claim 9, In the event of an overvoltage or overload condition in the grid, the amount of distributed power source adjustment and the adjustment unit price at a specific time are presented to the market in advance, and the owner of the distributed power source or A distributed power management system characterized in that an aggregator that aggregates distributed power source owners settles the purchase price determined by the distributed power source adjustment amount and the adjustment amount unit price if the presented distributed power source adjustment amount and the adjustment amount unit price are commensurate, and the distributed power source owner or the aggregator that aggregates distributed power source owners controls the distributed power source output amount.
Citation Information
Patent Citations
Power suppression control system and power suppression control method
JP2014128140A
Voltage control device, voltage control method, voltage control program, and voltage control system
JP2022119641A