The content of the invention
The present invention provides a kind of energy scheduling method and distributed energy resource system, distributed energy network system, to solve
The dispatching flexibility of energy scheduling method certainly of the prior art is poor, the synthesis of the energy in distributed energy network system be present
The relatively low technical problem of utilization ratio.
A kind of energy scheduling method provided in an embodiment of the present invention, methods described are applied to distributed energy network system,
The distributed energy network system includes multiple distributed energy resource systems;Methods described includes:
First distributed energy resource system if it is determined that need carry out energy scheduling when, into the distributed energy network system
Other distributed energy resource systems send information on bidding;The information on bidding includes the energy source type of required scheduling;Described
One distributed energy resource system is any distributed energy resource system in the distributed energy network system;
First distributed energy resource system receives each distribution for participating in submitting a tender in the distributed energy network system
The bid information that formula energy resource system is sent;The bid information that any distributed energy resource system for participating in submitting a tender is sent includes
The Demand Side Response of any distributed energy resource system, the scheduling interval that can be provided for the energy source type, Yi Jisuo
State unit energy cost corresponding to each scheduling quantum in scheduling interval;
First distributed energy resource system is according to scheduling total amount, the demand for each distributed energy resource system for participating in bid
Side response, the scheduling interval that can be provided, unit energy cost corresponding to each scheduling quantum in the scheduling interval, it is determined that respectively
The scheduling quantum of middle target distributed energy resource system and each middle target distributed energy resource system;
First distributed energy resource system sends notice of award to each middle target distributed energy resource system, so that institute
State the conveying that each middle target distributed energy resource system scheduling quantum corresponding to carries out the energy.
Alternatively, each distributed energy system that first distributed energy resource system is submitted a tender according to scheduling total amount, participation
The Demand Side Response of system, the scheduling interval that can be provided, unit energy corresponding to each scheduling quantum in the scheduling interval into
This, determines the scheduling quantum of each middle target distributed energy resource system and each middle target distributed energy resource system, including:
The scheduling that first distributed energy resource system can be provided according to each distributed energy resource system for participating in submitting a tender
Section, determine to meet the scheduling total amount requirement, and meet the N kind energy scheduling modes of default sets of constraints;The N kinds
Any energy scheduling mode in energy scheduling mode includes each distributed energy resource system for participating in scheduling and each participation scheduling
Distributed energy resource system scheduling quantum;N is the integer more than or equal to 1;
For any energy scheduling mode in the N kinds energy scheduling mode, the first distributed energy resource system root
According to each distribution that the scheduling quantum of each distributed energy resource system for participating in scheduling, participation are submitted a tender in any energy scheduling mode
Unit energy cost corresponding to the Demand Side Response of formula energy resource system, each scheduling quantum in its corresponding scheduling interval, really
Make the operating cost of the distributed energy network system corresponding to any energy scheduling mode;
First distributed energy resource system is true by the minimum scheduling mode of operating cost in the N kinds energy scheduling mode
It is set to target dispatch mode, and the distributed energy resource system that each participation that the target dispatch mode includes is dispatched is defined as
Each middle target distributed energy resource system, by the scheduling quantum of each distributed energy resource system for participating in scheduling in the target dispatch mode
It is defined as the scheduling quantum of each middle target distributed energy resource system.
Alternatively, any energy scheduling mode in the N kinds energy scheduling mode meets to dispatch total amount requirement, including:
The scheduling quantum sum of each distributed energy resource system for participating in scheduling is equal to described in any energy scheduling mode
Dispatch total amount;
Any energy scheduling mode in the N kinds energy scheduling mode meets default sets of constraints, including:
Any energy scheduling mode meets the first constraints and the second constraint in the sets of constraints simultaneously
Condition;Wherein, first constraints is expression using the distributed energy network after any energy scheduling mode
The energy of each energy source type reaches the equilibrium of supply and demand in system;Second constraints represents to use any energy scheduling
The actual consumption ratio of renewable resource reaches default consumption target in the distributed energy network system after mode.
Alternatively, also each energy source type including any distributed energy resource system is right respectively in the bid information
The supply answered, transportation quantity, yield and just need load consumption;
First constraints meets equation below:
Pi,sp(t)+Pi,st(t)=Pi,dr(t)+Pi,rc(t)+Pi,ld(t)
Wherein, i is energy source type, and value includes hot and cold, electric, 4 kinds of gas, Pi,sp(t) it is to use any energy scheduling
The total supply of i-th kind of energy of distributed energy network system, P after modei,st(t) it is to use any energy scheduling
The accumulating total amount of described i-th kind of energy of distributed energy network system, P after modei,dr(t) it is to use any energy scheduling
The Demand Side Response total amount of described i-th kind of energy of distributed energy network system, P after modei,rc(t) it is to use any energy
The recovery total of i-th kind of energy of distributed energy network system, P after the scheduling mode of sourcei,ld(t) it is to use any energy
Described i-th kind of energy of distributed energy network system just needs load total amount consumed after the scheduling mode of source.
Alternatively, in the bid information also including any distributed energy resource system the potential amount of renewable resource,
And any distributed energy resource system renewable resource corresponding to each scheduling quantum in its corresponding scheduling interval dissolves
Amount;
Second constraints meets equation below:
Wherein, ηrFor using renewable resource in the distributed energy network system after any energy scheduling mode
Actual consumption ratio, EreFor using the renewable money of the distributed energy network system after any energy scheduling mode
Source dissolves total amount, EpotFor the potential total amount of renewable resource in the distributed energy network system, ηcFor the distributed energy
The default consumption target of renewable resource in network system.
Alternatively, first distributed energy resource system is according to each point for participating in scheduling in any energy scheduling mode
The scheduling quantum of cloth energy resource system, and participate in the Demand Side Response of each distributed energy resource system of bid, in its dispatch area
Unit energy cost corresponding to interior each scheduling quantum, determine that any energy scheduling mode is corresponding by equation below
The operating cost of the distributed energy network system:
Wherein, F is the operating cost of the distributed energy network system, and N is in the distributed energy network system
The number of distributed energy resource system, Csp(n) it is the energy supply of n-th of distributed energy resource system in the distributed energy network system
Cost, Cst(n) it is the carrying cost of n-th of distributed energy resource system, Cdr(n) it is n-th of distributed energy resource system
Demand Side Response cost, Crc(n) it is the energy regenerating cost of n-th of distributed energy resource system, i is energy source type, is taken
Value includes hot and cold, electric, 4 kinds of gas, Pn(i) for n-th distributed energy resource system i-th kind of energy supply, fnFor described n-th
The unit energy cost of individual distributed energy resource system.
Another embodiment of the present invention provides a kind of control device, and it includes memory and processor, wherein, the storage
Device instructs for storage program, and the processor is used to call the programmed instruction stored in the memory, according to the journey of acquisition
Sequence performs any of the above-described kind of method.
Another embodiment of the present invention provides a kind of computer-readable storage medium, and the computer-readable recording medium storage has
Computer executable instructions, the computer executable instructions are used to make the computer perform any of the above-described kind of method.
Based on same inventive concept, the energy that the embodiment of the present invention also provides another distributed energy network system is adjusted
Degree method, methods described are applied to distributed energy network system, and the distributed energy network system includes multiple distributions
Formula energy resource system;Methods described includes:
Second distributed energy resource system receives the information on bidding that the first distributed energy resource system is sent, and is believed according to the bid
The energy source type for the required scheduling that breath includes, however, it is determined that participate in submitting a tender, then send and throw to first distributed energy resource system
Mark information;The bid information includes the Demand Side Response of second distributed energy resource system, for the required scheduling
Each scheduling in the scheduling interval that second distributed energy resource system described in energy source type can be provided, and the scheduling interval
Unit energy cost corresponding to amount;First distributed energy resource system is any point in the distributed energy network system
Cloth energy resource system, second distributed energy resource system are except described first is distributed in the distributed energy network system
Any distributed energy resource system outside energy resource system;
If second distributed energy resource system receives the notice of award that first distributed energy resource system is sent,
Scheduling quantum corresponding to the second distributed energy resource system carries out the conveying of the energy according to the notice of award.
Alternatively, second distributed energy resource system to first distributed energy resource system send bid information it
Before, in addition to the tune that be can be provided in second distributed energy resource system for each energy source type is calculated in the following way
Unit energy cost corresponding to each scheduling quantum spent in section, and the scheduling interval:
Second distributed energy resource system determines described second point according to preset data, default energy processing plan
Maximum energy supply amount corresponding to each energy source type of cloth system;
Maximum energy supply amount and second distributed energy resource system are each according to corresponding to each energy source type
The current energy supply amount of energy source type, determine the scheduling interval that can be provided for each energy source type;Wherein, the tune
Section is spent for [0, maximum energy supply amount-current energy supply amount];
For any scheduling quantum in the scheduling interval, according to any scheduling quantum and any scheduling quantum is used
Energy supply amount corresponding to each energy source type of second distributed energy resource system afterwards, by solving following object function and
Three constraintss, unit energy cost corresponding to any scheduling quantum is calculated, and using any scheduling quantum when institute
State the energy output quantity of each unit in the second distributed energy resource system:
Object function:
3rd constraints:
Wherein, fnFor list corresponding to any scheduling quantum of n-th of the distributed energy resource system in the scheduling interval
Position cost of energy;I is energy source type, and value includes hot and cold, electric, 4 kinds of gas;Pn(i) it is using after any scheduling quantum n-th
The supply of i-th kind of energy of individual distributed energy resource system, Cfuel[Pn(i) it is] fuel of n-th of distributed energy resource system
Cost, Cop[Pn(i) it is] the start operating cost of n-th of distributed energy resource system, Cm[Pn(i) it is] described n-th distribution
The start and stop maintenance cost of formula energy resource system, Cpr[Pn(i) it is] the outside purchase cost of n-th of distributed energy resource system,The energy supply total amount of n-th of distributed energy resource system in default research cycle is represented, K is institute
The unit sum of n-th of distributed energy resource system is stated,For of kth platform unit in n-th of distributed energy resource system
The output quantity of the i kind energy.
Alternatively, second distributed energy resource system to first distributed energy resource system send bid information it
Before, in addition to judge whether to participate in submitting a tender in the following way:
Second distributed energy resource system is if it is determined that it is directed to the scheduling interval of the energy source type of the required scheduling not
For sky, and the unit energy cost when scheduling quantum is zero is more than default cost threshold value, it is determined that participates in submitting a tender.
Another embodiment of the present invention provides another control device, and it includes memory and processor, wherein, it is described to deposit
Reservoir instructs for storage program, and the processor is used to call the programmed instruction stored in the memory, according to acquisition
Program performs any of the above-described kind of method.
Another embodiment of the present invention provides a kind of another computer-readable storage medium, the computer-readable recording medium
Computer executable instructions are stored with, the computer executable instructions are used to make the computer perform any of the above-described kind of side
Method.
Based on same inventive concept, a kind of distributed energy resource system provided in an embodiment of the present invention, including N types
Energy supplying system and/or Demand-side load, any type of energy supplying system in the energy supplying system of the N types include generating electricity single
Member, energy conversion unit and energy-storage units;N is the integer more than or equal to 1;
The generator unit includes renewable resource generator unit and non-renewable resources generator unit, the generator unit with
Electric power networks are connected, for by the electrical energy transportation of production into the electric power networks;
The energy conversion unit includes one or both of electric energy recovery unit or energy reconstruction unit, the electric energy
Recovery unit is used to produce to energize in any kind using the dump energy of renewable resource generator unit production
The fuel recycled in system, the energy reconstruction unit are used for the mistake residual electricity using renewable resource generator unit production
Or it can produce hot and cold using caused waste heat in the non-renewable resources generator unit production process or generated electricity;
The energy-storage units are used to store heat energy, electric energy or fuel superfluous in any type of energy supplying system.
Alternatively, in the first kind energy supplying system in the N types, the non-renewable resources generator unit is combustion
Gas generator unit, the fuel gas generation unit connect with gas ductwork and cold and hot pipe network, defeated in the gas ductwork for utilizing
The combustion gas sent is generated electricity, and caused waste heat in production process is delivered into cold and hot pipe network;
The energy conversion unit includes electric energy recovery unit, and the electric energy recovery unit is that electricity turns gas equipment, the electricity
Turn gas equipment to be used to produce the fuel gas generation cellular manufacture using the dump energy of renewable resource generator unit production
Required combustion gas;
The energy-storage units are air accumulator, and the air accumulator turns the combustion gas that gas equipment is produced for storing the electricity, and defeated
Give the fuel gas generation unit.
Alternatively, in the Second Type energy supplying system in the N types, the non-renewable resources generator unit is combustion
Gas generator unit, the fuel gas generation unit are connected with gas ductwork, for utilizing the combustion gas conveyed in the gas ductwork
Generated electricity;
The energy conversion unit includes energy reconstruction unit, and the energy reconstruction unit is ORC (Organic
Rankine Cycle, organic Rankine bottoming cycle) equipment and bromine cooling machine;The ORC equipment is used to give birth to using the fuel gas generation unit
Caused waste heat is generated electricity during production, and is transported in electric power networks;The bromine cooling machine is used to utilize the fuel gas generation
Caused waste heat is produced cold during cellular manufacture, and is transported in the cold and hot pipe network;
The energy-storage units are phase-change heat accumulation unit, for storing in the ORC equipment and the bromine cooling machine production process
Caused waste heat.
Alternatively, in the 3rd type energy supplying system in the N types, the renewable resource generator unit and electricity
Power network-in-dialing, for being generated electricity using renewable resource;The energy conversion unit includes energy reconstruction unit, the energy
Source reconstruction unit is compressed-air energy storage equipment, and the compressed-air energy storage equipment is used to utilize the renewable energy power generation list
The dump energy compressed air of member production, caused waste heat in air compression process is delivered to cold and hot pipe network, and by air
During release it is caused it is cold be delivered to cold and hot pipe network, caused mechanical energy is generated electricity during being discharged using air, and defeated
Deliver in the electric power networks;
The energy-storage units are electrochemical energy storage unit, and the electrochemical energy storage unit is used to store the renewable resource
The dump energy of generator unit production;
Also include earth-source hot-pump system in the 3rd type energy supplying system, the earth-source hot-pump system is used for described in utilization
The dump energy of renewable energy power generation cellular manufacture is produced cold and hot, and is transported in the cold and hot pipe network.
Based on same inventive concept, a kind of distributed energy network system that the embodiment of the present invention also provides, described point
Cloth energy network system includes the multiple distributions as described in above-mentioned claim connected according to default topological structure
Energy resource system, and coordinate control unit;
The coordination control unit is used for energy in the multiple distributed energy resource system of side load coordinated control according to demand
The scheduling of the energy between the production in source, and multiple distributed energy resource systems, so that the energy of the distributed energy network system
Source reaches the equilibrium of supply and demand.
In the embodiment of the present invention, the first distributed energy resource system is if it is determined that need to carry out energy scheduling, then to distributed energy
Other distributed energy resource systems in source network system send information on bidding, and the information on bidding includes the energy of scheduling needed for it
Type, the bid information that each distributed energy resource system for participating in submitting a tender is sent then is received, participate in any distribution submitted a tender
The bid information that energy resource system is sent includes the Demand Side Response of its own, the energy source type institute energy for above-mentioned required scheduling
The scheduling interval of offer, and unit energy cost corresponding to each scheduling quantum in scheduling interval;And then the first distributed energy
Source system can be according to scheduling total amount, the Demand Side Response for each distributed energy resource system for participating in submitting a tender, the scheduling interval provided,
And unit energy cost corresponding to each scheduling quantum in scheduling interval, determine each middle target distributed energy resource system and
The scheduling quantum of each middle target distributed energy resource system.It can be seen that the first distributed energy system of bid is initiated in the embodiment of the present invention
System can participate in each distributed energy resource system submitted a tender according to the scheduling total amount of its own, and in distributed energy network system
Demand Side Response, each scheduling quantum in the scheduling interval and scheduling interval that provide for unit energy cost etc. it is more
Individual factor, come the scheduling quantum of target distributed energy resource system and each middle target distributed energy resource system in determining jointly, therefore,
The flexibility of scheduling is higher, can not only effectively improve the comprehensive utilization ratio of the energy in whole distributed energy network system,
The supply-demand mode degree of distributed energy network system can also be lifted.
Specific embodiment three:3rd type energy supplying system
Fig. 5 is the structure of the energy supplying system of the 3rd type in a kind of distributed energy resource system provided in an embodiment of the present invention
Schematic diagram, as shown in figure 5, the 3rd type energy supplying system is a variety of including generator unit, energy conversion unit and energy-storage units etc.
The equipment of type, above-mentioned polytype equipment are connected with electric power networks, cold and hot pipe network, the various energy resources type in energy supplying system
Load (electric load, refrigeration duty and thermic load i.e. shown in Fig. 5) obtain the energy from corresponding energy network respectively.
Specifically, in the 3rd type energy supplying system, generator unit only includes renewable resource generator unit, and this can be again
Production-goods source generator unit is specially to be set using what the renewable resources such as the solar energy in natural environment, wind energy, waterpower were generated electricity
It is standby, such as the wind power plant, the photovoltaic power generation equipment that are illustrated in Fig. 5.
Energy reconstruction unit is only included in the energy conversion unit, energy reconstruction unit is specially compressed-air energy storage
Equipment.The compressed-air energy storage equipment supporting can be provided with corresponding heat exchange unit, for being enriched in renewable resource, but load
Relatively low period, the superfluous electric energy produced by compressed-air energy storage equipment utilization renewable resource generator unit, compression are empty
Gas is simultaneously stored in air accumulator.Low temperature exhaust heat can be produced in air compression process, these low temperature exhaust heats can be transported to hot and cold tube
In net, so that the thermic load in energy supplying system utilizes;Correspondingly, in the period of load is higher, the pressure that will can be stored in air accumulator
The air release of contracting, and during air is discharged it is caused it is cold be transported in cold and hot pipe network, so as to cold negative in energy supplying system
Lotus utilizes, meanwhile, can also produce mechanical energy during air release, can caused by mechanical energy generate electricity, and by the electric energy of production
It is transported in electric power networks.
The energy-storage units are electrochemical energy storage unit, and the electrochemical energy storage unit is specifically as follows with electric automobile electric power storage
Pond or electrical changing station are the energy storage device of representative, simple for description, merely exemplary in Fig. 5 to depict accumulator of electric car.
The electrochemical energy storage unit, on the one hand adjust the renewable resource generator unit such as wind-power electricity generation and photovoltaic generation goes out fluctuation,
On the other hand it can be additionally used in peak load regulation network, i.e., enriched in renewable resource, but renewable resource is stored in the case that load is relatively low
The superfluous electric energy of generator unit production, the electric energy of its storage is discharged in the period of load is higher, to tackle higher load.
3rd type energy supplying system also includes earth-source hot-pump system, and the earth-source hot-pump system can be in renewable energy power generation
Produce cold and hot under the driving of the dump energy of cellular manufacture, and be transported in the cold and hot pipe network, for the heating of resident
And refrigeration.
In the specific embodiment of the invention, the 3rd type energy supplying system is one kind using environmental benefit and power peak regulation as target
Cold, heat and electricity triple supply scheme, on the one hand, due to not using traditional fossil energy generate electricity gas internal-combustion engine, gas turbine
Deng nonrenewable resources generating equipment, only carried out using renewable resources such as wind energy, solar energy, it is possible to achieve zero-emission,
Influence to environment is smaller;On the other hand, the electrochemical energy storage such as accumulator of electric car therein unit and compressed air storage
Energy equipment can adjust the processing fluctuation of renewable resource generator unit, and participate in power peak regulation, consumption renewable resource production
Dump energy, cold, heat and electricity triple supply is realized on the basis of zero-emission.
Based on same inventive concept, the embodiment of the present invention also provides a kind of distributed energy network system, and Fig. 6 is this hair
The structural representation for a kind of distributed energy network system that bright embodiment provides, as shown in fig. 6, the distributed energy network
System includes multiple distributed energy resource systems, and the plurality of distributed energy resource system is attached according to default topological structure, entered
And the height fusion of various energy resources type is realized, form the energy interconnection of connection electric power networks, gas distributing system, cold and hot pipe network
Net.
Show that multiple distributed energy resource systems are attached with the topological structure of annular in Fig. 6, but be only for one kind
Example, in actual applications, those skilled in the art can be according to the topological structures being actually needed to distributed energy network system
Specifically set, such as, star-like, bus-type, tree-shaped can be designed to, or can also be that other kinds of topology is tied
Structure, the present invention are not particularly limited to this.
In the embodiment of the present invention, multiple distributed energy resource systems in distributed energy network system, which are connected with each other, includes two
The implication of aspect.One, on a control level, the control system of each distributed energy resource system is connected with each other, and can be used for whole
The signaling that the energy coordinates control is transmitted in the range of individual distributed energy network system.Two, on physical layer, each distribution
The energy conveyance conduit of energy resource system is interconnected, under the control of the signaling of control plane, a distributed energy system
System can convey the energy to another distributed energy resource system by energy conveyance conduit.
Coordination control unit is may also include in the distributed energy network system, the coordination control unit can side according to demand
The production of energy of multiple distributed energy resource systems in load coordinated control distributed energy network system, and in multiple distributions
The scheduling of the energy is carried out between energy resource system, to realize the coordination control of energy in macroscopic aspect and disappearing extensively for renewable resource
Receive.In the embodiment of the present invention, the coordination control unit can be one independently of each distributed energy resource system, but with each point
The control system of cloth energy resource system connection, or can also be collectively constituted by the control system of each distributed energy resource system.
By taking the distributed energy network system of the ring topology shown in Fig. 6 as an example, each point on physical layer
The energy conveyance conduit of cloth energy resource system is attached with loop configuration.And then based on multi-agent Technology, distributed energy
Each distributed energy resource system in network system can be abstracted as an intelligent body, the namely each distributed energy of the intelligent body
The controller of source system.On a control level, the abstract obtained intelligent body of each distributed energy resource system is also with identical annular
Structure is attached, and a multi-agent system, i.e. distributed energy network system is collectively constituted based on contract net protocol, at this
In individual instantiation, the intelligent body of each distributed energy resource system has collectively constituted the coordination control of distributed energy network system
Unit.
In the embodiment of the present invention, each distributed energy resource system in distributed energy network system is with being in identical
Position, not existing master slave relation, therefore, can mutually transmit letter between each other between the intelligent body of each distributed energy resource system
Breath, and finally determine the coordinated allocation scheme of the energy in distributed energy network system.
It should be noted that in distributed energy network system, any distributed energy resource system may each comprise including more
Individual energy supplying system and Demand-side load, moreover, above-mentioned multiple energy supplying systems can be the energy supply system for including one or more types
System.Therefore, in the embodiment of the present invention, any distributed energy resource system can select suitable type according to the characteristics of own user
Energy supplying system, formulate corresponding energy integration program, further, the energy supplying system that each distributed energy resource system includes
Number amount and type be able to can also be differed with identical, and the present invention is not particularly limited to this.As a special case, at one point
In cloth energy resource system, the function system of any known type can not also be included, but can resource generator unit, it is non-can be again
The power-supply devices such as production-goods source generator unit are simply combined with the load of Demand-side.
By taking the distributed energy network system shown in Fig. 6 as an example, the distributed energy network system includes 4 distributions
Formula energy resource system, each distributed energy resource system are connected with each other with ring topology.In distributed energy resource system 1, including
There are a first kind energy supplying system, a Second Type energy supplying system, and the Demand-side such as electric automobile, interruptible load rings
Should.Include a first kind energy supplying system, two Second Type energy supplying systems, and one in distributed energy resource system 2
3rd type energy supplying system.In distributed energy resource system 3, including three Second Type energy supplying systems, the 3rd type supply
Can system.And in distributed energy resource system 4, not including any kind of energy supplying system, but only it is generation by gas turbine
The nonrenewable resources generator unit of table, using photovoltaic generation, wind-power electricity generation as the renewable resource power generating source of representative, Yi Ji electricity
The Demand-side such as electrical automobile load carries out simple combination.
Based on distributed energy network system described above, the embodiment of the present invention also provides one kind and applied in distribution
Energy scheduling method in energy network system, Fig. 7 are a kind of distributed energy network system provided in an embodiment of the present invention
Method flow diagram corresponding to energy scheduling method, as shown in fig. 7, methods described includes steps S701 to step
S706:
Step S701:First distributed energy resource system if it is determined that need carry out energy scheduling when, to the distributed energy
Other distributed energy resource systems in network system send information on bidding;The information on bidding includes the energy class of required scheduling
Type;First distributed energy resource system is any distributed energy resource system in the distributed energy network system;
Step S702:Second distributed energy resource system receives the information on bidding that the first distributed energy resource system is sent, according to
The energy source type for the required scheduling that the information on bidding includes, however, it is determined that participate in submitting a tender, then to first distributed energy
System sends bid information;The bid information includes the Demand Side Response of second distributed energy resource system, for described
In the scheduling interval that second distributed energy resource system described in the energy source type of required scheduling can be provided, and the scheduling interval
Each scheduling quantum corresponding to unit energy cost;
Step S703:First distributed energy resource system, which receives, participates in what is submitted a tender in the distributed energy network system
The bid information that each distributed energy resource system is sent;
Step S704:Each distributed energy that first distributed energy resource system is submitted a tender according to scheduling total amount, participation
The Demand Side Response of system, the scheduling interval that can be provided, unit energy corresponding to each scheduling quantum in the scheduling interval
Cost, determine the scheduling quantum of each middle target distributed energy resource system and each middle target distributed energy resource system;
Step S705:First distributed energy resource system sends acceptance of the bid to each middle target distributed energy resource system and led to
Know, so that each middle target distributed energy resource system scheduling quantum corresponding to carries out the conveying of the energy;
Step S706:If second distributed energy resource system is received in the first distributed energy resource system transmission
The conveying of mark notice, then the scheduling quantum progress energy corresponding to the second distributed energy resource system according to the notice of award.
It can be seen that in the embodiment of the present invention, Demand Side Response resource is no longer demand can change, rigid, but is become
For controllable resources flexible, that scheduling can be actively engaged in, based on the interactive thought of source lotus, the first distributed energy to call for bid is initiated
System can participate in each distributed energy system to submit a tender according to the scheduling total amount of its own, and in distributed energy network system
Each scheduling quantum in the Demand Side Response of system, the scheduling interval and scheduling interval that provide for unit energy cost etc.
Multiple factors, come the scheduling quantum of target distributed energy resource system and each middle target distributed energy resource system in determining jointly, because
This, the energy scheduling method in the embodiment of the present invention can coordinate the elastic load of supply side power supply and Demand-side, realize a variety of
The fusion of energy source type and ladder utilize, so as to effectively improve the comprehensive profit of the energy in whole distributed energy network system
With efficiency, the supply-demand mode degree of distributed energy network system is lifted, reaches the purpose that renewable resource dissolves extensively.
Specifically, because distributed energy network system includes multiple distributed energy resource systems, each of which point
Cloth energy resource system can be abstracted as an intelligent body, and each intelligent body can be based on contract net protocol composition multiple agent system
System, therefore, any distributed energy resource system in distributed energy network system can interact letter with other distributed energy resource systems
Breath, and determine by the form of bid the scheduling scheme of the energy.
In step s 701, the first distributed energy resource system is if it is determined that its own needs to carry out energy scheduling, then to distribution
Other distributed energy resource systems in formula energy network system send information on bidding;Wherein, first distributed energy resource system can
For any distributed energy resource system in distributed energy network system, the information on bidding transmitted by it includes required scheduling
Energy source type.
In the embodiment of the present invention, the first distributed energy resource system can determine to need energy scheduling in several ways, citing
For, the load of certain energy source type is higher, and the supply of its own is not if it is determined that it is present for the first distributed energy resource system
Can meet the needs of load, then can determine that its own needs to carry out energy scheduling.Or if the first distributed energy resource system is true
Although the balance of supply and demand can be reached by determining its own, its unit energy cost will than the minimum unit energy cost of its own
Height, select from other distributed energy resource systems dispatch the energy on the contrary than itself production the energy it is more cost-effective, then may be used
Determine that its own needs to carry out energy scheduling.
In step S702, other distributed energy resource systems in distributed energy network system can receive first point
The information on bidding that cloth energy resource system is sent, introduces specific scheduling flow by taking the second distributed energy resource system as an example below,
Wherein second distributed energy resource system refers to appointing in addition to the first distributed energy resource system in distributed energy network system
One distributed energy resource system.
Second distributed energy resource system receives the information on bidding that the first distributed energy resource system is sent, and is believed according to the bid
The energy source type of scheduling needed for the first distributed energy resource system that breath includes, however, it is determined that participate in submitting a tender, then it is distributed to first
Energy resource system sends bid information.Wherein, the bid information includes the Demand Side Response of second distributed energy resource system, pin
The scheduling interval that can be provided to energy source type second distributed energy resource system dispatched needed for the first distributed energy resource system,
And unit energy cost corresponding to each scheduling quantum in scheduling interval.
Wherein, it is transferable to refer to that the second distributed energy resource system includes for the Demand Side Response of the second distributed energy resource system
Load, load that can be including reduction plans, interruptible load.For the energy class dispatched needed for the first distributed energy resource system
The scheduling interval that type second distributed energy resource system can be provided refer to [0, maximum energy supply amount-current energy supply
Amount], i.e., what the maximum energy supply amount of distributed energy resource system and the difference of current energy supply amount were formed from 0 to the second closes
Section, any value in the section are the scheduling quantum that the second distributed energy can provide.Each tune in scheduling interval
Measurement corresponds to a unit energy cost, and the unit energy cost refers to energy supply amount of the second distributed energy resource system etc.
When current energy scheduling amount adds any scheduling quantum, the cost of cost, its unit can be needed for the production of unit source
Member/joule.
In the embodiment of the present invention, the second distributed energy resource system can calculate its own pin before bid information is sent
To maximum energy supply amount corresponding to each energy source type, can into distributed energy network system other distributed energy systems
Unit energy cost corresponding to the scheduling interval that system provides and each scheduling quantum in scheduling interval.Fig. 8 is real for the present invention
Apply the distributed energy resource system of one kind second provided in example calculate maximum energy supply amount corresponding to its each energy source type, can
The scheduling interval and each in scheduling interval that other distributed energy resource systems provide into distributed energy network system
Schematic flow sheet corresponding to scheduling quantum corresponding to the method for unit energy cost, as shown in figure 8, comprising the following steps S801 extremely
Step S803:
Step S801:Second distributed energy resource system determines institute according to preset data, default energy processing plan
State the maximum energy supply amount of the second distributed system;
Step S802:Maximum energy supply amount and second distributed energy according to corresponding to each energy source type
The current energy supply amount of each energy source type of system, determine the scheduling interval that can be provided for each energy source type;Its
In, the scheduling interval is [0, maximum energy supply amount-current energy supply amount];
Step S802:For any scheduling quantum in the scheduling interval, according to any scheduling quantum and use
Energy supply amount corresponding to each energy source type of second distributed energy resource system after any scheduling quantum, by solving target letter
Number and the 3rd constraints, unit energy cost corresponding to any scheduling quantum is calculated, and use any scheduling
The energy output quantity of each unit in second distributed energy resource system described in during amount.
If regarding the energy scheduling method in the embodiment of the present invention as a problem solving process, will can entirely divide
Solution procedure (i.e. step S701 to the energy scheduling described in step S706 bulk flow in cloth energy network system scope
Journey) regard the solution of upper layer issue as, then in the case where the solution procedure in the range of some distributed energy resource system can be regarded as
The solution of layer problem.The essence of lower layer problem is set optimization problem, and main purpose is to reach the energy supply of upper strata scheduling
On the premise of amount, the unit output of all kinds of energy devices in Optimum distribution formula energy resource system, so as to reduce whole distributed energy
The operating cost of source network system.Therefore, lower layer problem should be entered first during the energy scheduling of the embodiment of the present invention
Row solves, then after drawing the optimal solution space (referring to the unit commitment in distributed energy resource system) of lower layer problem, then will
It substitutes into the solved function on upper strata as parameter, carries out the solution of macroscopic aspect.
Fig. 9 is the schematic flow sheet that lower layer problem solves in the embodiment of the present invention, with reference to Fig. 8 and Fig. 9 to the present invention
Lower layer problem solution procedure in embodiment describes in detail:
In step S801, the second distributed energy resource system first according to preset data, default energy processing plan, it is determined that
Go out the maximum energy supply amount of each energy source type of second distributed system.
Wherein, preset data mainly includes data unit operation, Unit Economic parameter, weather prognosis data, load prediction
Several classes such as data, specific data unit operation refer to the running status of each unit in second distributed energy resource system,
For example current energy supply amount accounts for the ratio of unit Maximum Supply Quantity in normal operation, or in maintenance down state;
Unit Economic parameter refers to specifications parameter of the unit in economic aspect, such as the cost of the cost of unit starting once, unit
Generate a kilowatt cost of consuming etc.;Meteorological preset data is primarily referred to as to the renewable money in second distributed energy resource system
The ambient parameter that source generator unit has a great influence, such as environment temperature, wind speed, intensity of illumination;Default load data refers to this
The load of all kinds of energy source types in second distributed system, including electric load, thermic load, refrigeration duty etc., if electric load compared with
Height, then mean to the supply of increase agency.
Default energy processing plan includes the conventional power unit start and stop of second distributed energy resource system, processing plan, foundation
The intermittent renewable energy that ambient parameter obtains, which is contributed, to be predicted, and accumulating plan, demand response plan etc..
Then, in step S802, the second distributed energy resource system can be according to each energy obtained in step S801
Maximum energy supply amount corresponding to type, and the current energy supply amount of its own each energy source type under current state,
Determine to be directed to scheduling interval corresponding to each energy source type, the scheduling interval is [0, maximum energy supply amount-current energy supplies
It should measure].
In step S803, for any in the scheduling interval corresponding to any energy source type in each energy source type
Scheduling quantum, the second distributed energy resource system is according to any scheduling quantum and using the second distributed energy system after any scheduling quantum
Unite energy supply amount corresponding to each energy source type, pass through the following object function of particle swarm optimization algorithm and the 3rd constraint article
Part, unit energy cost corresponding to any scheduling quantum is calculated, and using the second distributed energy during any scheduling quantum
The energy output quantity of each unit in system:
Object function:
3rd constraints:
Wherein, fnFor list corresponding to any scheduling quantum of n-th of the distributed energy resource system in the scheduling interval
Position cost of energy;I is energy source type, and value includes hot and cold, electric, 4 kinds of gas;Pn(i) it is using after any scheduling quantum n-th
The supply of i-th kind of energy of individual distributed energy resource system, Cfuel[Pn(i) it is] fuel of n-th of distributed energy resource system
Cost, Cop[Pn(i) it is] the start operating cost of n-th of distributed energy resource system, Cm[Pn(i) it is] described n-th distribution
The start and stop maintenance cost of formula energy resource system, Cpr[Pn(i) it is] the outside purchase cost of n-th of distributed energy resource system,The energy supply total amount of n-th of distributed energy resource system in default research cycle is represented, K is institute
The unit sum of n-th of distributed energy resource system is stated,For of kth platform unit in n-th of distributed energy resource system
The output quantity of the i kind energy.
Specifically, the 3rd above-mentioned constraints refers to after any of the above-described scheduling quantum is considered, the second distributed energy system
The output of unit combines in system, for including K platform units in even the second distributed energy resource system, then the energy output of K platforms unit
Measure sum and be equal to the energy supply amount considered after any scheduling quantum in the second distributed energy resource system.Due to meeting K platform machines
The energy supply amount sum of group is equal to the bar for considering the energy supply amount after any scheduling quantum in the second distributed energy resource system
Under part, there is a variety of Unit Combinations, and therefore, for any Unit Combination, the second distributed energy resource system will use above-mentioned
Object function, to calculate unit energy cost corresponding to each Unit Combination, and by the minimum unit group of unit energy cost
Cooperate the optimal unit combination under the energy supply amount for the second distributed energy resource system.The unit energy cost is second point
Fuel cost, start operating cost, start and stop maintenance cost are purchased with outside corresponding to each energy source type in cloth energy resource system
The ratio of energy supply total amount of the cost sum with the second distributed system within default research cycle.Wherein, the fuel cost, start
Operating cost, start and stop maintenance cost are relevant with the energy supply amount of each energy source type with outside purchase cost.
It can be seen that after above-mentioned steps S803 calculating, any energy that can solve the second distributed energy resource system supplies
Corresponding optimal unit combination and unit energy cost should be measured, due to each energy source type of the second distributed energy resource system
Energy supply amount is known, so as to also obtain using any scheduling quantum when institute in scheduling interval corresponding to each energy source type
Corresponding optimal unit combination and unit energy cost.Therefore, asked when using the upper layer issue in above-mentioned steps S701 to S706
Step is solved, after the scheduling quantum for determining the second distributed energy resource system, the second distributed energy resource system can use above-mentioned determination
The scheduling quantum gone out carries out the production of the energy to the fixed Unit Combination of drink.
In the embodiment of the present invention, it is preferred to use particle swarm optimization algorithm solves above-mentioned lower layer problem, or with science and technology
Continuous development, if industry proposes the algorithm of other effect of optimization, those skilled in the art also can be according to being actually needed selection
Other algorithms are solved, and the present invention is not particularly limited to this.
It should be noted that in the embodiment of the present invention, the second distributed energy resource system can determine it in several ways
Whether itself, which participates in, is submitted a tender.A kind of possible implementation is that the second distributed energy resource system is if it is determined that it is distributed for first
The scheduling interval of the energy source type of scheduling needed for formula energy resource system is not sky, and the unit energy cost when scheduling quantum is zero is big
In default cost threshold value, it is determined that participate in submitting a tender.For the scheduling for the energy source type dispatched needed for the first distributed energy resource system
Section is not sky, it is meant that for the energy source type specified, the maximum energy supply amount of the second distributed energy resource system, which is more than, to be worked as
Preceding energy supply amount, the second distributed energy resource system have the ability to improve the energy supply amount of itself, and to the first distributed energy
Source system provides the energy scheduling of specified type;Unit energy cost when scheduling quantum is zero is more than default cost threshold value
Refer to, although the current state of the second distributed energy resource system can reach the equilibrium of supply and demand of itself, the economy of its own
Condition is poor, and the unit energy cost in the case of currently not providing the scheduling energy for the first distributed energy resource system is more than it certainly
The minimum unit energy cost of body, therefore, the part energy for specifying energy source type is supplied to the first distributed energy resource system, not only
The energy output quantity of its own unit can be improved, reduces operating cost, but also can be taken in the fetching portion energy.
Alternatively possible implementation is that the first distributed energy resource system can further wrap in the information on bidding sent
The energy total amount of the energy source type of scheduling needed for including, so as to which the second distributed energy resource system can consider the dispatching of itself
On the basis of economy condition, further consider whether its current energy supply ability disclosure satisfy that the first distributed energy
The energy demand of system, and then determine whether to participate in submitting a tender.
In the embodiment of the present invention, the second distributed energy resource system can also enter if it is determined that participation bid in bid information
One step includes each energy source type of its own corresponding supply, transportation quantity, yield and just needs load consumption respectively, with
And the potential amount of renewable resource, the information such as renewable resource consumption amount corresponding to each scheduling quantum in scheduling interval, in order to
First distributed energy resource system is considered according to these information out of distributed energy network network system entire scope,
And determine final energy scheduling and coordinate scheme.
And then in step S703, the first distributed energy resource system, which receives distributed energy network system, includes
, can basis after the bid information that the distributed energy resource system that each participation including two distributed energy network systems is submitted a tender is sent
The Demand Side Response of scheduling total amount, each distributed energy resource system for participating in submitting a tender needed for its own, the scheduling that can be provided
Unit energy cost corresponding to each scheduling quantum in section, the scheduling interval, determine each middle target distributed energy resource system
And the scheduling quantum of each middle target distributed energy resource system.
As shown in Figure 10, this process further specifically includes step S1001 to step S1003:
Step S1001:First distributed energy resource system is according to each distributed energy resource system institute energy for participating in submitting a tender
The scheduling interval of offer, determine to meet the scheduling total amount requirement, and meet the N kinds energy scheduling side of default sets of constraints
Formula;
Step S1002:For any energy scheduling mode in the N kinds energy scheduling mode, described first is distributed
Energy resource system is submitted a tender according to the scheduling quantum of each distributed energy resource system for participating in scheduling, participation in any energy scheduling mode
The Demand Side Response of each distributed energy resource system, unit energy corresponding to each scheduling quantum in its corresponding scheduling interval
Cost is measured, determines the operating cost of the distributed energy network system corresponding to any energy scheduling mode;
Step S1003:First distributed energy resource system is minimum by operating cost in the N kinds energy scheduling mode
Scheduling mode is defined as target dispatch mode, and the distributed energy that each participation that the target dispatch mode is included is dispatched
System is defined as each middle target distributed energy resource system, by each distributed energy system for participating in scheduling in the target dispatch mode
The scheduling quantum of system is defined as the scheduling quantum of each middle target distributed energy resource system.
Specifically, in step S901, the first distributed energy resource system is according to each distributed energy system for participating in submitting a tender
The scheduling interval that system can be provided, determine to meet the scheduling total amount requirement, and meet the N kind energy of default sets of constraints
Scheduling mode.Wherein, any energy scheduling mode in the N kind energy scheduling modes includes each distributed energy for participating in scheduling
The scheduling quantum of source system and each distributed energy resource system for participating in scheduling;N is the integer more than or equal to 1;
For any energy scheduling mode in N kind energy scheduling modes, any energy scheduling mode meets that scheduling is total
Amount requirement refers to that the scheduling quantum sum of each distributed energy resource system for participating in scheduling is equal to described in any energy scheduling mode
Dispatch total amount.
Any energy scheduling mode meets that default sets of constraints refers to, any energy scheduling mode meets about simultaneously
The first constraints and the second constraints in beam condition group.
Wherein, the first constraints is expression using the distributed energy network system after any energy scheduling mode
In the energy of each energy source type reach the equilibrium of supply and demand, specifically, first constraints meets equation below:
Pi,sp(t)+Pi,st(t)=Pi,dr(t)+Pi,rc(t)+Pi,ld(t) formula three
Wherein, i is energy source type, and value includes hot and cold, electric, 4 kinds of gas, Pi,sp(t) it is to use any energy scheduling
The total supply of i-th kind of energy of distributed energy network system after mode, it is equal to each in any energy scheduling mode
Participate in the supply sum of the distributed energy resource system of scheduling, Pi,st(t) it is using described after any energy scheduling mode
The accumulating total amount of i-th kind of energy of distributed energy network system, it is equal to each participation scheduling in any energy scheduling mode
The transportation quantity sum of distributed energy resource system, Pi,dr(t) it is using the distributed energy after any energy scheduling mode
The Demand Side Response total amount of i-th kind of energy of network system, it is equal to each distribution for participating in scheduling in any energy scheduling mode
The Demand Side Response amount sum of formula energy resource system, Pi,rc(t) it is using the distributed energy after any energy scheduling mode
The recovery total of i-th kind of energy of source network system, it is equal to each distributed energy for participating in scheduling in any energy scheduling mode
The yield sum of source system, Pi,ld(t) it is using the distributed energy network system after any energy scheduling mode
I-th kind of the firm of the energy needs load total amount consumed, and it is equal to each distributed energy for participating in scheduling in any energy scheduling mode
System just needs load consumption sum.
Can be again in the distributed energy network system after second constraints expression use any energy scheduling mode
The actual consumption ratio in production-goods source reaches default consumption target, specifically, second constraints meets equation below:
Wherein, ηrFor using renewable resource in the distributed energy network system after any energy scheduling mode
Actual consumption ratio, EreFor using the renewable money of the distributed energy network system after any energy scheduling mode
Source dissolves total amount, and it is equal to the renewable resource of each distributed energy resource system for participating in scheduling in any energy scheduling mode and disappeared
The amount of receiving sum, EpotFor the potential total amount of renewable resource in the distributed energy network system, it is equal to any energy scheduling
The potential amount sum of renewable resource of each distributed energy resource system for participating in scheduling, η in modecFor the distributed energy network
The default consumption target of renewable resource in system, it can be carried out specifically by those skilled in the art according to actual conditions
Set, the present invention is not particularly limited to this.
And then in step S1002, for any energy scheduling mode in the N kinds energy scheduling mode, first point
Cloth energy resource system can be according to the scheduling quantum of each distributed energy resource system for participating in scheduling, participation in any energy scheduling mode
It is single corresponding to the Demand Side Response of each distributed energy resource system submitted a tender, each scheduling quantum in its corresponding scheduling interval
Position cost of energy, by equation below, calculates the distributed energy network system corresponding to any energy scheduling mode
Operating cost;
Wherein, F is the operating cost of the distributed energy network system, and N is in the distributed energy network system
The number of distributed energy resource system, Csp(n) it is the energy supply of n-th of distributed energy resource system in the distributed energy network system
Cost, Cst(n) it is the carrying cost of n-th of distributed energy resource system, Cdr(n) it is n-th of distributed energy resource system
Demand Side Response cost, Crc(n) it is the energy regenerating cost of n-th of distributed energy resource system, i is energy source type, is taken
Value includes hot and cold, electric, 4 kinds of gas, Pn(i) for n-th distributed energy resource system i-th kind of energy supply, fnFor described n-th
The unit energy cost of individual distributed energy resource system.
The operating cost in whole distributed energy network system is can be seen that from the formula of above-mentioned calculating operating cost
Equal to the cost sum of all distributed energy resource systems in the distributed energy network system, each distributed energy resource system
Cost may particularly include energy supply cost, carrying cost, Demand Side Response cost and the class of energy regenerating cost four again.
Specifically, the energy supply cost of any distributed energy resource system is directly related with its energy supply amount, it is equal to each
The product of the energy supply amount sum unit energy cost corresponding with the distributed energy resource system of energy source type;Similarly, it is any
The carrying cost of distributed energy resource system is directly related with the accumulating supply of its energy, Demand Side Response cost and its Demand-side
Response quautity is directly related, and energy regenerating cost is directly related with the yield of its energy, and here is omitted.
In the embodiment of the present invention, due to all first distributed energy systems not in addition to the first distributed energy resource system
Unite and be involved in the bid that the first distributed energy resource system is initiated, those are often certainly to participate in the distributed energy resource system submitted a tender
Body has reached the equilibrium of supply and demand, and the preferable distributed energy resource system of economy condition, and therefore, the embodiment of the present invention is solving distribution
During the overall operation cost of formula energy network system, only for the first distributed energy resource system and each point to submit a tender can be participated in
Cloth energy resource system optimizes.
Further, in the step s 1003, the first distributed energy resource system is in N kind energy scheduling modes are calculated
Each energy scheduling mode corresponding to after overall operation cost, operating cost in the N kinds energy scheduling mode is minimum
Scheduling mode is defined as target dispatch mode, and the distributed energy that each participation that the target dispatch mode is included is dispatched
System is defined as each middle target distributed energy resource system, by each distributed energy system for participating in scheduling in the target dispatch mode
The scheduling quantum of system is defined as the scheduling quantum of each middle target distributed energy resource system.
Then, in step S705, during the first distributed energy resource system can be sent to each middle target distributed energy resource system
Mark notice, so that each middle target distributed energy resource system scheduling quantum corresponding to carries out the conveying of the energy.
Further, so that middle target distributed energy resource system is the second distributed energy resource system as an example, in step S706
In, if the second distributed energy resource system receives the notice of award of the first distributed energy resource system transmission, according to the acceptance of the bid
Scheduling quantum corresponding to second distributed energy resource system described in notice, the optimal unit combination of its own is determined to carry out the energy
Production and conveying.
It should be noted that in the embodiment of the present invention, each distributed energy resource system in distributed energy network system
It is physically interconnected, any distributed energy resource system can correspond to one piece of physical location region, such as, in a city
In city, the corresponding distributed energy resource system in an administrative area, the distributed energy resource system in multiple administrative areas of city administration
After being interconnected, the energy internet of an entirety, i.e. distributed energy network system may make up.It can be seen that in a distribution
Difference on position present in energy network system, therefore, when the first distributed energy resource system initiates to call for bid, other distributions
There is also far and near differentiation, distance is more remote, then is entering for the distance between formula energy resource system and first distributed energy resource system
During row energy scheduling, the energy conveying cost to be spent is also higher.Thus, the first distributed energy resource system it is determined that in target
During each distributed energy resource system, it is also contemplated that the factor of distance, prioritizing selection participate in the distributed energy resource system distance the of scheduling
The all nearer energy scheduling mode of one distributed energy resource system.
Based on same inventive concept, the embodiment of the present invention also provides another control device, and the control device can wrap
Include central processing unit (Center Processing Unit, CPU), memory, input-output apparatus etc., input equipment can be with
Including keyboard, mouse, touch-screen etc., output equipment can include display device, such as liquid crystal display (Liquid Crystal
Display, LCD), cathode-ray tube (Cathode Ray Tube, CRT) etc..
Memory can include read-only storage (ROM) and random access memory (RAM), and provide storage to processor
The programmed instruction and data stored in device.In embodiments of the present invention, memory can be used for storage based on the different of transaction data
The program of normal monitoring method.
By calling the programmed instruction of memory storage, processor is used to perform according to the programmed instruction of acquisition processor
State the energy scheduling method of distributed energy network system.
Based on same inventive concept, the embodiments of the invention provide a kind of computer-readable storage medium, for saving as
The computer program instructions used in control device are stated, it includes the energy scheduling for being used for performing above-mentioned distributed energy network system
The program of method.
The computer-readable storage medium can be any usable medium or data storage device that computer can access, bag
Include but be not limited to magnetic storage (such as floppy disk, hard disk, tape, magneto-optic disk (MO) etc.), optical memory (such as CD, DVD,
BD, HVD etc.) and semiconductor memory (such as it is ROM, EPROM, EEPROM, nonvolatile memory (NAND FLASH), solid
State hard disk (SSD)) etc..
By the above it can be seen that:
In the embodiment of the present invention, the first distributed energy resource system is if it is determined that need to carry out energy scheduling, then to distributed energy
Other distributed energy resource systems in source network system send information on bidding, and the information on bidding includes the energy of scheduling needed for it
Type, the bid information that each distributed energy resource system for participating in submitting a tender is sent then is received, participate in any distribution submitted a tender
The bid information that energy resource system is sent includes the Demand Side Response of its own, the energy source type institute energy for above-mentioned required scheduling
The scheduling interval of offer, and unit energy cost corresponding to each scheduling quantum in scheduling interval;And then the first distributed energy
Source system can be according to scheduling total amount, the Demand Side Response for each distributed energy resource system for participating in submitting a tender, the scheduling interval provided,
And unit energy cost corresponding to each scheduling quantum in scheduling interval, determine each middle target distributed energy resource system and
The scheduling quantum of each middle target distributed energy resource system.It can be seen that in the embodiment of the present invention, Demand Side Response resource is no longer to change
Become, rigid demand, but it is changed into controllable resources flexible, that scheduling can be actively engaged in, based on the interactive thought of source lotus, hair
The first distributed energy resource system for playing bid can be according to the scheduling total amount of its own, and is participated in distributed energy network system
Each scheduling in the Demand Side Response for each distributed energy resource system submitted a tender, the scheduling interval and scheduling interval that provide
Measure for the Multiple factors such as unit energy cost, come target distributed energy resource system and each middle target distribution in determining jointly
The scheduling quantum of formula energy resource system, therefore, the energy scheduling method in the embodiment of the present invention can coordinate supply side power supply and demand
The elastic load of side, the fusion and ladder for realizing various energy resources type utilize, so as to effectively improve whole distributed energy net
The comprehensive utilization ratio of the energy in network system, the supply-demand mode degree of distributed energy network system is lifted, reaches renewable money
The purpose that source dissolves extensively.
It should be understood by those skilled in the art that, embodiments of the invention can be provided as method, system or computer program
Product.Therefore, the present invention can use the reality in terms of complete hardware embodiment, complete software embodiment or combination software and hardware
Apply the form of example.Moreover, the present invention can use wherein includes the meter of computer usable program code at one or more
The computer journey that calculation machine usable storage medium is implemented on (including but is not limited to magnetic disk storage, CD-ROM, optical memory etc.)
The form of sequence product.
The present invention is the flow with reference to method according to embodiments of the present invention, equipment (system) and computer program product
Figure and/or block diagram describe.It should be understood that can be by every first-class in computer program instructions implementation process figure and/or block diagram
Journey and/or the flow in square frame and flow chart and/or block diagram and/or the combination of square frame.These computer programs can be provided
The processors of all-purpose computer, special-purpose computer, Embedded Processor or other programmable data processing devices is instructed to produce
A raw machine so that produced by the instruction of computer or the computing device of other programmable data processing devices for real
The function of being specified in present one flow of flow chart or one square frame of two or more flow and/or block diagram or two or more square frame
Device.
These computer program instructions, which may be alternatively stored in, can guide computer or other programmable data processing devices with spy
Determine in the computer-readable memory that mode works so that the instruction being stored in the computer-readable memory, which produces, to be included referring to
The manufacture of device is made, the command device is realized in one flow of flow chart or two or more flow and/or one side of block diagram
The function of being specified in frame or two or more square frame.
These computer program instructions can be also loaded into computer or other programmable data processing devices so that counted
Series of operation steps is performed on calculation machine or other programmable devices to produce computer implemented processing, so as in computer or
The instruction performed on other programmable devices is provided for realizing in one flow of flow chart or two or more flow and/or square frame
The step of function of being specified in one square frame of figure or two or more square frame.
Although preferred embodiments of the present invention have been described, but those skilled in the art once know basic creation
Property concept, then can make other change and modification to these embodiments.So appended claims be intended to be construed to include it is excellent
Select embodiment and fall into having altered and changing for the scope of the invention.
Obviously, those skilled in the art can carry out the essence of various changes and modification without departing from the present invention to the present invention
God and scope.So, if these modifications and variations of the present invention belong to the scope of the claims in the present invention and its equivalent technologies
Within, then the present invention is also intended to comprising including these changes and modification.