CN106383937A - Method and system for calculating output power of water cooling photovoltaic-solar thermal power generation system - Google Patents
Method and system for calculating output power of water cooling photovoltaic-solar thermal power generation system Download PDFInfo
- Publication number
- CN106383937A CN106383937A CN201610808358.6A CN201610808358A CN106383937A CN 106383937 A CN106383937 A CN 106383937A CN 201610808358 A CN201610808358 A CN 201610808358A CN 106383937 A CN106383937 A CN 106383937A
- Authority
- CN
- China
- Prior art keywords
- water cooling
- photovoltaic
- power generation
- output
- thermal
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Granted
Links
Classifications
-
- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06F—ELECTRIC DIGITAL DATA PROCESSING
- G06F30/00—Computer-aided design [CAD]
- G06F30/20—Design optimisation, verification or simulation
-
- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06F—ELECTRIC DIGITAL DATA PROCESSING
- G06F2119/00—Details relating to the type or aim of the analysis or the optimisation
- G06F2119/06—Power analysis or power optimisation
-
- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E60/00—Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
Abstract
The invention discloses a method and a system for calculating output power of a water cooling photovoltaic-solar thermal integrated power generation system based on three-dimensional trapezoidal fuzzy. The method comprises the steps of calculating a temperature reduction value of a photovoltaic power generation panel and calculating an output power increment value of the photovoltaic power generation panel; calculating a three-dimensional generalized trapezoidal fuzzy set of a multi-value fuzzy uncertainty relation of output power and sunlight intensity of a water cooling photovoltaic system, and calculating effective sunlight intensity of a predetermined region by utilizing the three-dimensional generalized trapezoidal fuzzy set; calculating generation power of the photovoltaic power generation panel of the water cooling photovoltaic system and an available high-temperature high-pressure steam quantity of the water cooling photovoltaic system; calculating an electrical efficiency increment value of a water cooling solar thermal system; calculating generation power of the water cooling solar thermal system; and calculating the output power of the water cooling photovoltaic-solar thermal integrated power generation system. The output power of the water cooling photovoltaic-solar thermal integrated power generation system can be accurately predicted, so that necessary technical support is provided for distributed new energy power generation and intelligent power grid dispatching operation.
Description
Technical field
The present invention relates to technical field of electricity, particularly to a kind of based on the trapezoidal fuzzy water cooling photovoltaic-photo-thermal of three-dimensional
Integrated power generation system output calculates method and system.
Background technology
The little user such as urbanite and large user group's distributed photovoltaic power generation system such as commercial establishment, community, industrial occupancy
System is exactly that such a has that relation is complicated and interactive random and the system of fuzzy uncertainty event or parameter simultaneously.
Have the little user of the new forms of energy such as the urbanite of distributed photovoltaic power generation system and commercial establishment, community, industrial occupancy etc. are new
Energy large user group, under the influence of various Uncertain Stochastic and fuzzy event or parameter, its daily generation become more with
Machine characteristic and fuzzy behaviour.New forms of energy user distribution formula photovoltaic generating system daily generation generally adopted deterministic calculating in the past
Method, some are also adopted by the indeterminacy of calculation method of probability analyses.The method of deterministic parameters calculation is typically in hypothesis region
Solar radiation intensity, sunshine-duration and user location are in different time and spatially intensity of sunshine, sunshine-duration, sunshine
Shade, sunshine inclination angle calculate new forms of energy user distribution formula photovoltaic generating system daily generation in the case of all determining, also do not have
Being considered as continues generates electricity or the battery energy storage capacity of photovoltaic generating system of continuous generating or the fuse salt of solar-thermal generating system
The impact of the factors such as energy storage installed capacity, energy storage state, energy conversion efficiency, power distribution network pressure regulation requirement and Flexible Control mode,
Result of calculation is uniqueness and deterministic, tends not to react new forms of energy user distribution formula photovoltaic generating system daily generation
Practical situation.And the computational methods of probability analyses are uncertain factor typically only assuming the single factors such as intensity of sunshine
In the case of calculate new forms of energy user distribution formula photovoltaic generating system daily generation, result of calculation is have certain confidence level general
Rate value.In fact, new forms of energy user's photovoltaic generating system daily generation by solar radiation intensity in region, the sunshine-duration and its
Probability or fuzziness determine, also by user location different time and spatially intensity of sunshine, the sunshine-duration, sunshine shade,
Sunshine inclination angle and its probability or fuzziness determine, also depending on the photovoltaic generation system generating electricity as continuing or continuously generate electricity
The fuse salt energy storage installed capacity of the battery energy storage capacity of system or solar-thermal generating system, energy storage state, energy conversion efficiency, distribution
The factor such as net pressure regulation requirement and Flexible Control mode.And, these influence factors are usually constructed with stochastic uncertainty or obscure not
Definitiveness, or he is that have random and fuzzy uncertainty, is often deposited with random and fuzzy uncertainty event or parameter
?.
Output level due to photovoltaic and solar-thermal generating system has very big because multiple uncertain factors affect
Randomness and ambiguity, for fuzzy uncertainty, to be traditionally analyzed using Fuzzy Analysis and to locate
The information of reason fuzzy uncertainty.But traditional method such as Zadeh fuzzy set or TYPE1 fuzzy set imitation and description are fuzzy not
Deterministic case or the Imprecise information of parameter, the method mainly using monolayer membership function is to fuzzy uncertainty event
Or parameter is simulated, to be described with being subordinate to angle value.In real application systems, uncertain event becomes to become increasingly complex,
Uncertain parameter substantial amounts and relation is complicated, substantially increase event or parameter itself and information each other
Fog-level, seems clearly disadvantageous based on the monolayer membership function method of Zadeh fuzzy set and TYPE1 fuzzy set,
Analyze and process these fuzzy uncertainty events or parameter with being difficult in direct analog information.It can be seen that, new forms of energy user divide
Cloth photovoltaic generating system day output calculate prior art all not comprehensively consider influence factor uncertainty and with
Machine, the computational methods suitability, practicality and application are also difficult to be met.
Content of the invention
It is an object of the invention to provide a kind of based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration electricity generation system of three-dimensional
Output calculates method and system, can accurately predict the output work of water cooling photovoltaic-light-heat integration electricity generation system
Rate, is that distributed new generates electricity and intelligent grid management and running provide the necessary technical support.
For solving above-mentioned technical problem, the present invention provide a kind of based on the trapezoidal fuzzy water cooling photovoltaic-photo-thermal one of three-dimensional
Body elelctrochemical power generation system output power computational methods, including：
The first predefined parameter obtaining from water cooling photovoltaic system service data, the temperature calculating photovoltaic power generation plate reduces
Value, and the output value added of photovoltaic power generation plate is calculated according to temperature reduction；
Many-valued according to intensity of sunshine in environmental forecasting data acquisition predetermined period in predetermined area, using statistical analysis technique
The output calculating water cooling photovoltaic system is trapezoidal with the Three Dimensional Generalized of intensity of sunshine many-valued fuzziness uncertainty relation fuzzy
Collection, and the effective sunshine intensity in predetermined area is calculated using the trapezoidal fuzzy set of Three Dimensional Generalized；
Using described effective sunshine intensity, calculate the generated output of photovoltaic power generation plate and the water cooling of water cooling photovoltaic system
The available high temperature and high pressure steam amount of opto-thermal system；
The second predefined parameter obtaining from water cooling opto-thermal system service data, calculates the electricity effect of water cooling opto-thermal system
Rate value added；
According to high temperature and high pressure steam amount and electrical efficiency value added, calculate the generated output of water cooling opto-thermal system；
The generated output of the photovoltaic power generation plate according to water cooling photovoltaic system and the generated output of water cooling opto-thermal system, meter
Calculate water cooling photovoltaic-light-heat integration electricity generation system output.
Wherein, the first predefined parameter obtaining from water cooling photovoltaic system service data, calculates the temperature of photovoltaic power generation plate
Degree decreasing value, including：
Water cooling photovoltaic hot systems water system entrance cold water temperature T is obtained from water cooling photovoltaic system service datainWith
Outlet hot water's temperature Tout, ambient temperature TE, actual measurement temperature T of photovoltaic power generation platePVWith output current IPV；
Using formulaCalculate the temperature reduction of photovoltaic power generation plate
ΔTPV；
Wherein, kPVFor photovoltaic power generation plate temperature reduction for the outlet of photovoltaic power generation plate cooling water system and inlet water temperature degree
The response coefficient of difference, TEFor ambient temperature, TR,PV、TPVIt is respectively photovoltaic power generation plate in ambient temperature TEReference temperature and reality
Border measurement temperature, IPVFor photovoltaic power generation plate output current, kIT,PVCoefficient of relationship for photovoltaic generation plate temperature and output current.
Wherein, the output value added of photovoltaic power generation plate is calculated according to described temperature reduction, including：
Using formulaCalculating photovoltaic power generation plate increases generating efficiency Δ ePV；
According to Δ ePV, using formula Δ PPV=ηP,coolΔePVCalculate the output value added Δ P of photovoltaic power generation platePV；
Wherein, PPV0It is the generated output of photovoltaic power generation plate output when not adopting water cooling, ηP,coolFor photovoltaic power generation plate
The effect coefficient of exerting oneself of water cooling.
Wherein, many-valued according to intensity of sunshine in environmental forecasting data acquisition predetermined period in predetermined area, using statistical
Analysis method calculates the output of water cooling photovoltaic system and the Three Dimensional Generalized ladder of intensity of sunshine many-valued fuzziness uncertainty relation
Shape fuzzy set, including：
In predetermined area according to the many-valued data message of intensity of sunshine in environmental forecasting data acquisition predetermined period, according to water
Characteristic relation between cooling photovoltaic system output and intensity of sunshine, calculates water cooling photovoltaic system using statistical analysis technique
The output of system and trapezoidal fuzzy set E of Three Dimensional Generalized of intensity of sunshine many-valued fuzziness uncertainty relationH：
EH=(EHL,EHM,EHU)=[(EHL1,EHL2,EHL3,EHL4；kHL),
(EHM1,EHM2,EHM3,EHM4；kHM),
(EHU1,EHU2,EHU3,EHU4；kHU)]
Wherein, EHL、EHM、EHUAnd kHL、kHM、kHUIt is respectively intensity of sunshine three-dimensional trapezoidal fuzzy set lower bound, Zhong Jie, the upper bound
Fuzzy set and degree of membership coefficient, EHLj、EHMj、EHUj(j=1,2,3,4) be respectively the three-dimensional trapezoidal fuzzy set lower bound of intensity of sunshine, in
Boundary, the fuzzy number of upper bound fuzzy set；
Using trapezoidal fuzzy set E of Three Dimensional GeneralizedHCalculating predetermined regional effective sunshine intensity is：
Eeff=ηSYηSA(EHL,EHM,EHU)=ηSYηSA[(EHL1,EHL2,EHL3,EHL4；kHL),
(EHM1,EHM2,EHM3,EHM4；kHM),
(EHU1,EHU2,EHU3,EHU4；kHU)]
Wherein, EeffFor water cooling photovoltaic-region effective sunshine intensity, η residing for solar-thermal generating systemSY、ηSAIt is respectively day
Impact coefficient according to shade, sunshine drift angle counterglow intensity.
Wherein, the generated output of the photovoltaic power generation plate of water cooling photovoltaic system, bag using described effective sunshine intensity, are calculated
Include：
Using formula PPV=(1+ Δ ePV)APVkPVEE[Eeff] calculate water cooling photovoltaic system photovoltaic power generation plate generating
Power PPV；
Wherein, APVFor effective generating area of water cooling photovoltaic hot systems photovoltaic power generation plate, kPVEFor photovoltaic power generation plate photoelectricity
Conversion coefficient, Δ ePVIncrease generating efficiency for photovoltaic power generation plate.
Wherein, the available high temperature and high pressure steam amount of water cooling opto-thermal system, bag using described effective sunshine intensity, are calculated
Include：
Using formula WCSP=SCSPE[Eeff]fCSP(1-kTB) calculate water cooling opto-thermal system available high temperature and high pressure steam
Amount WCSP；
Wherein, SCSPFor the area of solar-thermal generating system condenser, fCSPThere is the collection of certain volume for solar-thermal generating system
The luminous efficiency of hot device, kTBExport coefficient of discharge for solar-thermal generating system light boiler high temperature high steam.
Wherein, the second predefined parameter obtaining from water cooling opto-thermal system service data, calculates water cooling opto-thermal system
Electrical efficiency value added, including：
The photovoltaic hot systems temperature obtaining from water cooling opto-thermal system service data is ToutCooling water and photo-thermal power generation
System temperature is TCSPGenerating is mixed with water, obtains making solar-thermal generating system generating coolant-temperature gage lift-off value be Δ TCSP；
Using formula Δ eCSP=ηheatΔTCSP(1-kSB) calculate water cooling opto-thermal system electrical efficiency value added Δ eCSP；
Wherein, ηheatFor the generating effect coefficient of solar-thermal generating system mixing water, kSBHold for solar-thermal generating system light boiler
Long-pending coefficient.
Wherein, the generated output of water cooling opto-thermal system, bag according to high temperature and high pressure steam amount and electrical efficiency value added, are calculated
Include：
Using formulaCalculate the generating of water cooling opto-thermal system
Power PCSP；
Wherein, WCSPFor water cooling photovoltaic-solar-thermal generating system solar-thermal generating system available High Temperature High Pressure hot water amount, a,
B, c, d are respectively and water cooling photovoltaic-related work(of solar-thermal generating system solar-thermal generating system available High Temperature High Pressure hot water amount
Rate coefficient.
Wherein, the generating work(of the generated output of the photovoltaic power generation plate according to water cooling photovoltaic system and water cooling opto-thermal system
Rate, calculates water cooling photovoltaic-light-heat integration electricity generation system output, including：
Using formula PPV-CSP=ηDC/ACPPV+(1-ηSCP)PCSPCalculate water cooling photovoltaic-light-heat integration electricity generation system defeated
Go out power PPV-CSP；
Wherein, ηDC/ACFor photovoltaic generating system inverter conversion efficiency, ηSCPFor solar-thermal generating system station service power consumption rate.
The present invention also provide a kind of based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration electricity generation system output work of three-dimensional
Rate computing system, including：
The output value added module of photovoltaic power generation plate, for obtain from water cooling photovoltaic system service data the
One predefined parameter, calculates the temperature reduction of photovoltaic power generation plate, and calculates the output work of photovoltaic power generation plate according to temperature reduction
Rate value added；
Three Dimensional Generalized trapezoidal fuzzy set module, for predetermined area according to day in environmental forecasting data acquisition predetermined period
Many-valued according to intensity, the output calculating water cooling photovoltaic system using statistical analysis technique is not true with intensity of sunshine many-valued fuzziness
The trapezoidal fuzzy set of Three Dimensional Generalized of qualitative relationships, and it is strong to calculate predetermined regional effective sunshine using the trapezoidal fuzzy set of Three Dimensional Generalized
Degree；
High temperature and high pressure steam amount computing module, for using described effective sunshine intensity, calculating water cooling photovoltaic system
The generated output of photovoltaic power generation plate and the available high temperature and high pressure steam amount of water cooling opto-thermal system；
Opto-thermal system electrical efficiency value added module, second for obtaining from water cooling opto-thermal system service data makes a reservation for
Parameter, calculates the electrical efficiency value added of water cooling opto-thermal system；
Water cooling opto-thermal system generated output module, for according to high temperature and high pressure steam amount and electrical efficiency value added, calculating
The generated output of water cooling opto-thermal system；
Output calculates module, the generated output for the photovoltaic power generation plate according to water cooling photovoltaic system and water cooling
The generated output of opto-thermal system, calculates water cooling photovoltaic-light-heat integration electricity generation system output.
Provided by the present invention based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration electricity generation system output of three-dimensional
Computational methods, including：The first predefined parameter obtaining from water cooling photovoltaic system service data, calculates the temperature of photovoltaic power generation plate
Degree decreasing value, and the output value added of photovoltaic power generation plate is calculated according to temperature reduction；Pre- according to environment in predetermined area
In report data acquisition predetermined period, intensity of sunshine is many-valued, calculates the output of water cooling photovoltaic system using statistical analysis technique
With the trapezoidal fuzzy set of Three Dimensional Generalized of intensity of sunshine many-valued fuzziness uncertainty relation, and utilize Three Dimensional Generalized trapezoidal fuzzy set meter
Calculate the effective sunshine intensity in predetermined area；Using described effective sunshine intensity, calculate the photovoltaic power generation plate of water cooling photovoltaic system
Generated output and water cooling opto-thermal system available high temperature and high pressure steam amount；Obtain from water cooling opto-thermal system service data
The second predefined parameter taking, calculates the electrical efficiency value added of water cooling opto-thermal system；According to high temperature and high pressure steam amount and electrical efficiency
Value added, calculates the generated output of water cooling opto-thermal system；The generated output of the photovoltaic power generation plate according to water cooling photovoltaic system
And the generated output of water cooling opto-thermal system, calculate water cooling photovoltaic-light-heat integration electricity generation system output；
It can be seen that the method can accurately predict the output of water cooling photovoltaic-light-heat integration electricity generation system, it is
Support that distributed new generates electricity and intelligent grid management and running provide the necessary technical；The present invention also provides one kind based on three-dimensional
Trapezoidal fuzzy water cooling photovoltaic-light-heat integration electricity generation system output calculates system, has above-mentioned beneficial effect, here
Repeat no more.
Brief description
In order to be illustrated more clearly that the embodiment of the present invention or technical scheme of the prior art, below will be to embodiment or existing
Have technology description in required use accompanying drawing be briefly described it should be apparent that, drawings in the following description be only this
Inventive embodiment, for those of ordinary skill in the art, on the premise of not paying creative work, can also basis
The accompanying drawing providing obtains other accompanying drawings.
The structured flowchart of water cooling photovoltaic-light-heat integration electricity generation system that Fig. 1 is provided by the embodiment of the present invention；
Fig. 2 by the embodiment of the present invention provided based on the trapezoidal fuzzy water cooling photovoltaic-photothermal integrated elelctrochemical power generation of three-dimensional
The flow chart of system output power computational methods；
Fig. 3 by the embodiment of the present invention provided based on the trapezoidal fuzzy water cooling photovoltaic-photothermal integrated elelctrochemical power generation of three-dimensional
The structured flowchart of system output power computing system.
Specific embodiment
The core of the present invention be provide a kind of based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration electricity generation system of three-dimensional
Output calculates method and system, can accurately predict the output work of water cooling photovoltaic-light-heat integration electricity generation system
Rate, is that distributed new generates electricity and intelligent grid management and running provide the necessary technical support.
Purpose, technical scheme and advantage for making the embodiment of the present invention are clearer, below in conjunction with the embodiment of the present invention
In accompanying drawing, the technical scheme in the embodiment of the present invention is clearly and completely described it is clear that described embodiment is
The a part of embodiment of the present invention, rather than whole embodiments.Based on the embodiment in the present invention, those of ordinary skill in the art
The every other embodiment being obtained under the premise of not making creative work, broadly falls into the scope of protection of the invention.
Can there is great diversity in zones of different radiant intensity, sunshine-duration in sunlight, in same place because of cloud layer
Block formation shade and cause also to there is great diversity, randomness in different time and spatially intensity of sunshine and obscure
Property, this uncertain characteristic determines photovoltaic and solar-thermal generating system is exerted oneself and also had great diversity, randomness and obscure
Property.Therefore, the size of photovoltaic to be determined and solar-thermal generating system output is it is necessary to strong to solar radiation in this region
Degree, sunshine-duration carry out probability analyses or fuzzy analysis, Probabilistic Fuzzy analysis, also will be to strong in different time and spatially sunshine
Degree carries out probability analyses or fuzzy analysis, Probabilistic Fuzzy analysis.
Using the electricity generating principle that continues of battery energy storage, photovoltaic generating system can in cloudy day on daytime or night when continue and send out
Electricity or continuous generating.But it continues, generating or continuous generating capacity depend on battery energy storage capacity, efficiency and control mode etc.
Factor, these factors impact battery energy storage continues electricity generation system output level.Using fuse salt energy storage it is also possible to realize light
Heat continues when generating electricity in cloudy day on daytime or night and generates electricity or continuously generate electricity.As photovoltaic generation, the connecing of solar-thermal generating system
Supervention electricity or continuous generating capacity depend on the factors such as fuse salt stored energy capacitance, energy conversion efficiency and Flexible Control mode, its
Output level also has very big randomness and ambiguity because multiple uncertain factors affect.
Distributed energy storage system is the distributed system that a kind of access electric pressure and access point are fixed, including compressed hydrogen storage
Energy, battery energy storage, super capacitor energy-storage etc., energy storage power can be soft controlled；Electric automobile distributed charging system is a kind of access
Electric pressure and the variable distributed system of access point, charge power can be soft controlled, and randomness is very big.Distributed power generation fluctuates
Property, intermittence, randomness and charging electric vehicle uncertain so that single new forms of energy user generate electricity, electricity consumption and charging more
Tool randomness, the little user such as urbanite and large user group's distributed power generation such as commercial establishment, community, industrial occupancy, energy storage
Randomness and the ambiguity of new forms of energy user's output can be further increased with the interactive relationship of charging system for electric automobile.
The present embodiment builds a kind of water cooling photovoltaic-light-heat integration electricity generation system, its water cooling photovoltaic-light-heat integration
The ultimate principle generating electricity is to carry out photovoltaic generation using the photovoltaic power generation plate in photovoltaic hot systems, adopts water cooling mode pair simultaneously
Photovoltaic power generation plate is cooled down, and obtains high-temperature water and mix with solar-thermal generating system generating water, temperature liter from cooling procedure
High mixed power generation water is sent into solar-thermal generating system light boiler and is produced high-temperature high-pressure steam, realizes photovoltaic-light-heat integration
The purpose generating electricity.
Refer to Fig. 1, in Fig. 1,1 is photovoltaic hot systems low temperature water inlet pipe, and the upper strata top board of photovoltaic hot systems is sent out for photovoltaic
Electroplax, lower floor are to form photovoltaic generation cooling water system by the photovoltaic heat pipe arranged according to certain rule；2 is photovoltaic generation system
System；3 is photovoltaic generation cooling water system；4 is photovoltaic hot systems high temperature water delivery pipe；5 is photovoltaic hot systems high-temperature water storage system
System；6 is photovoltaic hot systems high-temperature water stocking system high temperature water delivery pipe；7 is hot water and the solar-thermal generating system of photovoltaic hot systems
The hybrid system of generating water；8 is sunlight collector；9 is solar-thermal generating system optical collector；10 is solar-thermal generating system light pot
Stove, for generating high-temperature high-pressure steam；11 is solar-thermal generating system light boiler low-temperature water inlet pipe；12 is photovoltaic hot systems
The low temperature water inlet pipe of the hybrid system of hot water and solar-thermal generating system generating water；13 is solar-thermal generating system light boiler high temperature
High-pressure water vapor outlet tube；14 is Turbo-generator Set；15 is the low-voltage bus bar of solar-thermal generating system；16 is solar-thermal generating system
Transformator；17 is the high voltage bus of photovoltaic-light-heat integration electricity generation system；18 is photovoltaic-light-heat integration electricity generation system high pressure
Side reactive power compensator, adopts static reacance generator here；19 is photovoltaic generating system low-pressure side energy-storage system；20 is photovoltaic
Electricity generation system low-voltage bus bar；21 is photovoltaic generating system transformator；22 is the heat pipe from condenser, is also fuse salt energy storage system
The photo-thermal input pipe of system；23 is fuse salt energy-storage system；24 is the photo-thermal outlet tube of fuse salt energy-storage system.
Its expectation target is to improve utilization of new energy resources rate and improve photovoltaic-light-heat integration generating efficiency.The present embodiment institute
Building in water cooling photovoltaic-light-heat integration electricity generation system has generating efficiency lifting process and link twice：1) photovoltaic power generation plate
Water cooling, makes photovoltaic efficiency be further enhanced；2) photovoltaic generating system obtains high-temperature cooling water and gives photo-thermal power generation
System, makes photo-thermal power generation efficiency be further enhanced.The present embodiment is for generating efficiency lifting process and link are carried out twice
Mathematical modeling, proposing photovoltaic-solar-thermal generating system generating efficiency increases value calculating method, and then proposes based on three-dimensional trapezoidal fuzzy
Water cooling photovoltaic-light-heat integration electricity generation system output calculate method.The method is directed to the water cooling light shown in Fig. 1
Volt-light-heat integration electricity generation system, and consider the hot water of photovoltaic hot systems and the melange effect of solar-thermal generating system generating water,
Consider uncertainty, fuzzy and stochastic feature and the probability randomness of intensity of sunshine, sunshine-duration, sunshine shade, sunshine drift angle etc., tool
Body method is as follows.It is convenient to describe for ease of the present embodiment, can be divided into water-cooled in water cooling photovoltaic-light-heat integration electricity generation system
But the photovoltaic system (referred to as water cooling photovoltaic system or photovoltaic generating system) of photovoltaic-light-heat integration electricity generation system and water-cooled
But the opto-thermal system (referred to as water cooling opto-thermal system or solar-thermal generating system) of photovoltaic-light-heat integration electricity generation system.
Refer to Fig. 2, Fig. 2 by the embodiment of the present invention provided based on the trapezoidal fuzzy water cooling photovoltaic-photo-thermal of three-dimensional
The flow chart that integrated power generation system output calculates method；The method can include：
S100, the first predefined parameter obtaining from water cooling photovoltaic system service data, calculate the temperature of photovoltaic power generation plate
Degree decreasing value, and the output value added of photovoltaic power generation plate is calculated according to temperature reduction；
Wherein, this first predefined parameter is the data relevant with the temperature value of photovoltaic power generation plate, according to these data users
The temperature reduction of photovoltaic power generation plate can be calculated it is possible to final calculate the defeated of photovoltaic power generation plate according to this temperature reduction
Go out power increment value.The acquisition accuracy of the first predefined parameter influences whether the accuracy of final calculation result.
Specifically, from water cooling photovoltaic system service data (i.e. photovoltaic generation Surveillance center namely water cooling photovoltaic-photo-thermal
Integrated power generation system Surveillance center, or energy management system EMS) middle acquisition water cooling photovoltaic hot systems water system entrance
Cold water temperature TinWith outlet hot water's temperature Tout, ambient temperature TE, actual measurement temperature T of photovoltaic power generation platePVWith output current IPV；
Specific calculation using above-mentioned parameter can be as follows, it would however also be possible to employ other computing formula, here not to specific
Computing formula is defined.I.e. concrete calculating process can be determined according to the design parameter that user chooses.
Using formulaCalculate the temperature reduction of photovoltaic power generation plate
ΔTPV；
Wherein, kPVFor photovoltaic power generation plate temperature reduction for the outlet of photovoltaic power generation plate cooling water system and inlet water temperature degree
The response coefficient of difference, TEFor ambient temperature, TR,PV、TPVIt is respectively photovoltaic power generation plate in ambient temperature TEReference temperature and reality
Border measurement temperature, IPVFor photovoltaic power generation plate output current, kIT,PVFor the coefficient of relationship of photovoltaic generation plate temperature and output current,
Unit be DEG C/A.
Wherein, water cooling photovoltaic hot systems make photovoltaic power generation plate because making the temperature of photovoltaic power generation plate reduce using water cooling
Increase generating efficiency Δ ePV；Specific calculation can be as follows, it would however also be possible to employ other computing formula, here not to concrete
Computing formula be defined.Using formulaCalculating photovoltaic power generation plate increases generating efficiency Δ
ePV；
According to Δ ePV, using formula Δ PPV=ηP,coolΔePVCalculate the output value added Δ P of photovoltaic power generation platePV；
Wherein, PPV0It is the generated output of photovoltaic power generation plate output when not adopting water cooling, ηP,coolFor photovoltaic power generation plate
The effect coefficient of exerting oneself of water cooling.
S110, many-valued according to intensity of sunshine in environmental forecasting data acquisition predetermined period in predetermined area, using statistical
Analysis method calculates the output of water cooling photovoltaic system and the Three Dimensional Generalized ladder of intensity of sunshine many-valued fuzziness uncertainty relation
Shape fuzzy set, and the effective sunshine intensity in predetermined area is calculated using the trapezoidal fuzzy set of Three Dimensional Generalized；
Specifically, in predetermined period, intensity of sunshine is many-valued can obtain from Public meteorology data platform, that is, predetermined
Area obtains the many-valued data message of intensity of sunshine in predetermined period from Public meteorology data platform (can be basis for many years or count
The historical data of 10 years, is calculated using probability analysis method and determines), according to water cooling photovoltaic system output and intensity of sunshine
Between characteristic relation, calculate output and the intensity of sunshine many-valued fuzziness of water cooling photovoltaic system using statistical analysis technique
Trapezoidal fuzzy set E of Three Dimensional Generalized of uncertainty relationH：Specific calculation can be as follows, it would however also be possible to employ other calculating
Formula, is not defined to specific computing formula here.
EH=(EHL,EHM,EHU)=[(EHL1,EHL2,EHL3,EHL4；kHL),
(EHM1,EHM2,EHM3,EHM4；kHM),
(EHU1,EHU2,EHU3,EHU4；kHU)]
Wherein, EHL、EHM、EHUAnd kHL、kHM、kHUIt is respectively intensity of sunshine three-dimensional trapezoidal fuzzy set lower bound, Zhong Jie, the upper bound
Fuzzy set and degree of membership coefficient, EHLj、EHMj、EHUj(j=1,2,3,4) be respectively the three-dimensional trapezoidal fuzzy set lower bound of intensity of sunshine, in
Boundary, the fuzzy number of upper bound fuzzy set；
Consider uncertainty, fuzzy and stochastic feature and the probability randomness of sunshine shade, sunshine drift angle etc., using Three Dimensional Generalized
Trapezoidal fuzzy set EHThe effective sunshine intensity calculating predetermined area is Eeff：Specific calculation can be as follows, it would however also be possible to employ
Other computing formula, are not defined to specific computing formula here.
Eeff=ηSYηSA(EHL,EHM,EHU)=ηSYηSA[(EHL1,EHL2,EHL3,EHL4；kHL),
(EHM1,EHM2,EHM3,EHM4；kHM),
(EHU1,EHU2,EHU3,EHU4；kHU)]
Wherein, EeffFor water cooling photovoltaic-region effective sunshine intensity, unit residing for solar-thermal generating system：W/m2, ηSY、
ηSAIt is respectively sunshine shade, the impact coefficient of sunshine drift angle counterglow intensity.
S120, utilize described effective sunshine intensity, calculate water cooling photovoltaic system the generated output of photovoltaic power generation plate and
The available high temperature and high pressure steam amount of water cooling opto-thermal system；
Specifically, using described effective sunshine intensity, calculate the generated output of the photovoltaic power generation plate of water cooling photovoltaic system,
Including：
Using formula PPV=(1+ Δ ePV)APVkPVEE[Eeff] calculate water cooling photovoltaic system photovoltaic power generation plate generating
Power PPV；
Wherein, APVFor effective generating area of water cooling photovoltaic hot systems photovoltaic power generation plate, unit：m2, kPVESend out for photovoltaic
Electroplax photoelectric conversion factors, Δ ePVIncrease generating efficiency for photovoltaic power generation plate.Parameter acquiring in these data can be basis
For many years or many decades historical data, using probability analysis method calculate determine.
Specifically, using described effective sunshine intensity, calculate the available high temperature and high pressure steam amount of water cooling opto-thermal system,
Including：
Using formula WCSP=SCSPE[Eeff]fCSP(1-kTB) calculate water cooling opto-thermal system available high temperature and high pressure steam
Amount WCSP；
Wherein, SCSPFor the area of solar-thermal generating system condenser, unit：m2, fCSPHave necessarily for solar-thermal generating system
The luminous efficiency of the heat collector of volume can according to for many years or many decades historical data, calculated really using probability analysis method
Fixed, unit：m3/ W, kTBExport coefficient of discharge, 0≤k for solar-thermal generating system light boiler high temperature high steamTB≤1.
Here other computing formula can also be adopted, specific computing formula is not defined here.
S130, the second predefined parameter obtaining from water cooling opto-thermal system service data, calculate water cooling opto-thermal system
Electrical efficiency value added；
Wherein, this second predefined parameter is the data relevant with the temperature value of opto-thermal system, can according to these data users
To calculate the lift-off value of opto-thermal system water temperature, this temperature increase calculates the electrical efficiency value added of opto-thermal system.First makes a reservation for
The acquisition accuracy of parameter influences whether the accuracy of final calculation result.
Specifically, the photovoltaic hot systems temperature obtaining from water cooling opto-thermal system service data (obtaining from Surveillance center)
For ToutCooling water and solar-thermal generating system temperature be TCSPGenerating is mixed with water, obtains making solar-thermal generating system generating water temperature
Degree lift-off value is Δ TCSP；Solar-thermal generating system is led because being made the temperature of solar-thermal generating system generating water raise using mixing water
Generating efficiency is caused to improve, its generating efficiency value added Δ eCSPFor：
Using formula Δ eCSP=ηheatΔTCSP(1-kSB) calculate water cooling opto-thermal system electrical efficiency value added Δ eCSP；
Wherein, ηheatFor the generating effect coefficient of solar-thermal generating system mixing water, kSBHold for solar-thermal generating system light boiler
Long-pending coefficient, 0≤kSB≤1.
Here other computing formula can also be adopted, specific computing formula is not defined here.
S140, according to high temperature and high pressure steam amount and electrical efficiency value added, calculate the generated output of water cooling opto-thermal system；
Specifically, using formulaCalculate water cooling photo-thermal system
The generated output P of systemCSP；
Wherein, WCSPFor water cooling photovoltaic-solar-thermal generating system solar-thermal generating system available High Temperature High Pressure hot water amount, list
Position：m2, a, b, c, d are respectively and water cooling photovoltaic-solar-thermal generating system solar-thermal generating system available High Temperature High Pressure hot water amount
Related power coefficient.These coefficients can be obtained by probability calculation.
Here other computing formula can also be adopted, specific computing formula is not defined here.
S150, the generated output of photovoltaic power generation plate according to water cooling photovoltaic system and the generating work(of water cooling opto-thermal system
Rate, calculates water cooling photovoltaic-light-heat integration electricity generation system output.
Specifically, using formula PPV-CSP=ηDC/ACPPV+(1-ηSCP)PCSPCalculate water cooling photovoltaic-photothermal integrated elelctrochemical power generation
System output power PPV-CSP；
Wherein, ηDC/ACFor photovoltaic generating system inverter conversion efficiency, ηSCPFor solar-thermal generating system station service power consumption rate.Here
Other computing formula can also be adopted, specific computing formula is not defined here.
And this embodiment, the order of specific step is not defined it is only necessary to these data can be obtained.
Based on technique scheme, provided in an embodiment of the present invention based on the trapezoidal fuzzy water cooling photovoltaic-photo-thermal of three-dimensional
Integrated power generation system output calculates method, considers that impact new forms of energy user distribution formula photovoltaic generating system day generates electricity simultaneously
The random and fuzzy uncertainty of amount, in main consideration region, solar radiation intensity, sunshine-duration and user location exist
Different time and spatially intensity of sunshine, sunshine-duration, sunshine shade, sunshine inclination angle etc. be random and fuzzy uncertainty because
Element, further contemplates the battery energy storage capacity of photovoltaic generating system generating electricity as continuing or continuously generating electricity or solar-thermal generating system simultaneously
Fuse salt energy storage installed capacity, energy storage state, energy conversion efficiency, the factor such as power distribution network pressure regulation requirement and Flexible Control mode
Impact, N on daytime in user location one day is obtained by Public meteorology data platformSHIndividual period intensity of sunshine, the sunshine-duration,
The related data information of parameter maximum, meansigma methodss and the minima such as sunshine shade, sunshine drift angle, by local monitor data
The heart obtains the related data information of new forms of energy user's photovoltaic generating system period generated energy, by energy management system EMS
Obtain the data of operation of power networks, consider intensity of sunshine, the sunshine-duration, sunshine shade, the uncertainty of sunshine inclination angle etc., with
It is primarily introduced into the three-dimensional trapezoidal fuzzy set concept of broad sense and its computational methods it is assumed that intensity of sunshine, sunshine when machine and ambiguity
It is three-dimensional trapezoidal fuzzy that the parameters such as time, sunshine shade, sunshine inclination angle and user's battery energy storage charge event all obey broad sense
The regularity of distribution, calculates water cooling photovoltaic-light-heat integration electricity generation system output, for dividing on the basis of FUZZY PROBABILITY ANALYSIS
Cloth generation of electricity by new energy and intelligent grid management and running provide the necessary technical support.
Below to provided in an embodiment of the present invention based on the trapezoidal fuzzy water cooling photovoltaic-photothermal integrated elelctrochemical power generation system of three-dimensional
System output calculates system and is introduced, described below based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration of three-dimensional
Electricity generation system output is calculated system and is sent out based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration of three-dimensional with above-described
Electric system output calculates method can be mutually to should refer to.
Refer to Fig. 3, this system can include：
The output value added module 100 of photovoltaic power generation plate, for obtaining from water cooling photovoltaic system service data
The first predefined parameter, calculate photovoltaic power generation plate temperature reduction, and according to temperature reduction calculate photovoltaic power generation plate defeated
Go out power increment value；
Three Dimensional Generalized trapezoidal fuzzy set module 200, for predetermined area according to environmental forecasting data acquisition predetermined period
Interior intensity of sunshine is many-valued, calculates output and the intensity of sunshine many-valued fuzziness of water cooling photovoltaic system using statistical analysis technique
The trapezoidal fuzzy set of Three Dimensional Generalized of uncertainty relation, and effective day in predetermined area is calculated using the trapezoidal fuzzy set of Three Dimensional Generalized
According to intensity；
High temperature and high pressure steam amount computing module 300, for using described effective sunshine intensity, calculating water cooling photovoltaic system
The generated output of photovoltaic power generation plate and water cooling opto-thermal system available high temperature and high pressure steam amount；
Opto-thermal system electrical efficiency value added module 400, for second of acquisition from water cooling opto-thermal system service data
Predefined parameter, calculates the electrical efficiency value added of water cooling opto-thermal system；
Water cooling opto-thermal system generated output module 500, for according to high temperature and high pressure steam amount and electrical efficiency value added, counting
Calculate the generated output of water cooling opto-thermal system；
Output calculates module 600, the generated output for the photovoltaic power generation plate according to water cooling photovoltaic system and water
The generated output of cooling opto-thermal system, calculates water cooling photovoltaic-light-heat integration electricity generation system output.
Based on technique scheme, provided in an embodiment of the present invention based on the trapezoidal fuzzy water cooling photovoltaic-photo-thermal of three-dimensional
Integrated power generation system output calculate system, this system using photovoltaic power generation plate generating efficiency value added with its because adopting water
Cool down and lead to power generation plate temperature reduction to have proportional relation it is considered to the fuzzy and stochastic feature of intensity of sunshine, build photovoltaic generation system
The computational methods of system output；Using solar-thermal generating system generating efficiency value added with its because all or part of using coming from
Photovoltaic power generation plate high-temperature water cools down and leads to generating coolant-temperature gage lift-off value to have proportional relation it is considered to the fuzzy stochastic of intensity of sunshine
Property, build the computational methods of solar-thermal generating system output, adopt based on triangle or polygon membership function simultaneously
TYPE1 fuzzy set carrys out intensity of sunshine in zoning, and (sunshine-duration, user location are strong in different time and spatially sunshine
Degree, the battery energy storage state of photovoltaic generating system, the fuse salt energy storage state of solar-thermal generating system, energy conversion efficiency control
Value, power distribution network pressure regulation required value and droop control coefficient value) and the probability of these uncertain parameters or fuzziness, fuzzy
Water cooling photovoltaic-light-heat integration electricity generation system output can accurately be calculated on the basis of probability analyses, be distributed new
Support that the energy generates electricity and intelligent grid management and running provide the necessary technical.
In description, each embodiment is described by the way of going forward one by one, and what each embodiment stressed is real with other
Apply the difference of example, between each embodiment identical similar portion mutually referring to.For device disclosed in embodiment
Speech, because it corresponds to the method disclosed in Example, so description is fairly simple, referring to method part illustration in place of correlation
?.
Professional further appreciates that, in conjunction with the unit of each example of the embodiments described herein description
And algorithm steps, can with electronic hardware, computer software or the two be implemented in combination in, in order to clearly demonstrate hardware and
The interchangeability of software, generally describes composition and the step of each example in the above description according to function.These
Function to be executed with hardware or software mode actually, the application-specific depending on technical scheme and design constraint.Specialty
Technical staff can use different methods to each specific application realize described function, but this realization should
Think beyond the scope of this invention.
The step of the method in conjunction with the embodiments described herein description or algorithm can directly be held with hardware, processor
The software module of row, or the combination of the two is implementing.Software module can be placed in random access memory (RAM), internal memory, read-only deposit
Reservoir (ROM), electrically programmable ROM, electrically erasable ROM, depositor, hard disk, moveable magnetic disc, CD-ROM or technology
In known any other form of storage medium in field.
Above to provided by the present invention defeated based on the trapezoidal fuzzy water cooling photovoltaic-light-heat integration electricity generation system of three-dimensional
Go out power calculation algorithms and system is described in detail.Specific case used herein is to the principle of the present invention and embodiment party
Formula is set forth, and the explanation of above example is only intended to help and understands the method for the present invention and its core concept.Should refer to
Go out, for those skilled in the art, under the premise without departing from the principles of the invention, can also be to the present invention
Carry out some improvement and modify, these improve and modify and also fall in the protection domain of the claims in the present invention.
Claims (10)
1. a kind of method is calculated based on the trapezoidal fuzzy water cooling photovoltaic of three-dimensional-light-heat integration electricity generation system output, its
It is characterised by, including：
The first predefined parameter obtaining from water cooling photovoltaic system service data, calculates the temperature reduction of photovoltaic power generation plate,
And the output value added of photovoltaic power generation plate is calculated according to temperature reduction；
Many-valued according to intensity of sunshine in environmental forecasting data acquisition predetermined period in predetermined area, calculated using statistical analysis technique
The output of water cooling photovoltaic system and the trapezoidal fuzzy set of Three Dimensional Generalized of intensity of sunshine many-valued fuzziness uncertainty relation, and
Calculate the effective sunshine intensity in predetermined area using the trapezoidal fuzzy set of Three Dimensional Generalized；
Using described effective sunshine intensity, calculate the generated output of photovoltaic power generation plate and the water cooling photo-thermal of water cooling photovoltaic system
The available high temperature and high pressure steam amount of system；
The second predefined parameter obtaining from water cooling opto-thermal system service data, the electrical efficiency calculating water cooling opto-thermal system increases
Value added；
According to high temperature and high pressure steam amount and electrical efficiency value added, calculate the generated output of water cooling opto-thermal system；
The generated output of the photovoltaic power generation plate according to water cooling photovoltaic system and the generated output of water cooling opto-thermal system, calculate water
Cooling photovoltaic-light-heat integration electricity generation system output.
2. water cooling photovoltaic according to claim 1-light-heat integration electricity generation system output calculates method, its feature
It is that the first predefined parameter obtaining from water cooling photovoltaic system service data calculates the temperature reduction of photovoltaic power generation plate,
Including：
Water cooling photovoltaic hot systems water system entrance cold water temperature T is obtained from water cooling photovoltaic system service datainAnd outlet
Hot water temperature Tout, ambient temperature TE, actual measurement temperature T of photovoltaic power generation platePVWith output current IPV；
Using formulaCalculate the temperature reduction Δ T of photovoltaic power generation platePV；
Wherein, kPVFor photovoltaic power generation plate temperature reduction for the outlet of photovoltaic power generation plate cooling water system and inlet water temperature degree difference
Response coefficient, TEFor ambient temperature, TR,PV、TPVIt is respectively photovoltaic power generation plate in ambient temperature TEReference temperature and actual survey
Amount temperature, IPVFor photovoltaic power generation plate output current, kIT,PVCoefficient of relationship for photovoltaic generation plate temperature and output current.
3. water cooling photovoltaic according to claim 2-light-heat integration electricity generation system output calculates method, its feature
It is, calculate the output value added of photovoltaic power generation plate according to described temperature reduction, including：
Using formulaCalculating photovoltaic power generation plate increases generating efficiency Δ ePV；
According to Δ ePV, using formula Δ PPV=ηP,coolΔePVCalculate the output value added Δ P of photovoltaic power generation platePV；
Wherein, PPV0It is the generated output of photovoltaic power generation plate output when not adopting water cooling, ηP,coolFor photovoltaic power generation plate water-cooled
But effect coefficient of exerting oneself.
4. water cooling photovoltaic according to claim 3-light-heat integration electricity generation system output calculates method, its feature
It is, many-valued according to intensity of sunshine in environmental forecasting data acquisition predetermined period in predetermined area, using statistical analysis technique meter
Calculate the output of water cooling photovoltaic system and the trapezoidal fuzzy set of Three Dimensional Generalized of intensity of sunshine many-valued fuzziness uncertainty relation,
Including：
In predetermined area according to the many-valued data message of intensity of sunshine in environmental forecasting data acquisition predetermined period, according to water cooling
Characteristic relation between photovoltaic system output and intensity of sunshine, calculates water cooling photovoltaic system using statistical analysis technique
Output and trapezoidal fuzzy set E of Three Dimensional Generalized of intensity of sunshine many-valued fuzziness uncertainty relationH：
EH=(EHL,EHM,EHU)=[(EHL1,EHL2,EHL3,EHL4；kHL),
(EHM1,EHM2,EHM3,EHM4；kHM),
(EHU1,EHU2,EHU3,EHU4；kHU)]
Wherein, EHL、EHM、EHUAnd kHL、kHM、kHUBe respectively the three-dimensional trapezoidal fuzzy set lower bound of intensity of sunshine, Zhong Jie, the upper bound fuzzy
Collection and degree of membership coefficient, EHLj、EHMj、EHUj(j=1,2,3,4) be respectively the three-dimensional trapezoidal fuzzy set lower bound of intensity of sunshine, Zhong Jie,
The fuzzy number of upper bound fuzzy set；
Using trapezoidal fuzzy set E of Three Dimensional GeneralizedHCalculating predetermined regional effective sunshine intensity is：
Eeff=ηSYηSA(EHL,EHM,EHU)=ηSYηSA[(EHL1,EHL2,EHL3,EHL4；kHL),
(EHM1,EHM2,EHM3,EHM4；kHM),
(EHU1,EHU2,EHU3,EHU4；kHU)]
Wherein, EeffFor water cooling photovoltaic-region effective sunshine intensity, η residing for solar-thermal generating systemSY、ηSAIt is respectively sunshine cloudy
Shadow, the impact coefficient of sunshine drift angle counterglow intensity.
5. water cooling photovoltaic according to claim 4-light-heat integration electricity generation system output calculates method, its feature
It is, using described effective sunshine intensity, calculate the generated output of the photovoltaic power generation plate of water cooling photovoltaic system, including：
Using formula PPV=(1+ Δ ePV)APVkPVEE[Eeff] calculate water cooling photovoltaic system photovoltaic power generation plate generated output
PPV；
Wherein, APVFor effective generating area of water cooling photovoltaic hot systems photovoltaic power generation plate, kPVEFor photovoltaic power generation plate opto-electronic conversion
Coefficient, Δ ePVIncrease generating efficiency for photovoltaic power generation plate.
6. water cooling photovoltaic according to claim 5-light-heat integration electricity generation system output calculates method, its feature
It is, using described effective sunshine intensity, calculate the available high temperature and high pressure steam amount of water cooling opto-thermal system, including：
Using formula WCSP=SCSPE[Eeff]fCSP(1-kTB) calculate water cooling opto-thermal system available high temperature and high pressure steam amount
WCSP；
Wherein, SCSPFor the area of solar-thermal generating system condenser, fCSPThere is the heat collector of certain volume for solar-thermal generating system
Luminous efficiency, kTBExport coefficient of discharge for solar-thermal generating system light boiler high temperature high steam.
7. water cooling photovoltaic according to claim 6-light-heat integration electricity generation system output calculates method, its feature
It is that the second predefined parameter obtaining from water cooling opto-thermal system service data calculates the electrical efficiency of water cooling opto-thermal system
Value added, including：
The photovoltaic hot systems temperature obtaining from water cooling opto-thermal system service data is ToutCooling water and solar-thermal generating system
Temperature is TCSPGenerating is mixed with water, obtains making solar-thermal generating system generating coolant-temperature gage lift-off value be Δ TCSP；
Using formula Δ eCSP=ηheatΔTCSP(1-kSB) calculate water cooling opto-thermal system electrical efficiency value added Δ eCSP；
Wherein, ηheatFor the generating effect coefficient of solar-thermal generating system mixing water, kSBFor solar-thermal generating system light volume of boiler system
Number.
8. water cooling photovoltaic according to claim 7-light-heat integration electricity generation system output calculates method, its feature
It is, according to high temperature and high pressure steam amount and electrical efficiency value added, calculate the generated output of water cooling opto-thermal system, including：
Using formulaCalculate the generated output of water cooling opto-thermal system
PCSP；
Wherein, WCSPFor water cooling photovoltaic-solar-thermal generating system solar-thermal generating system available High Temperature High Pressure hot water amount, a, b, c, d
It is respectively and water cooling photovoltaic-related power train of solar-thermal generating system solar-thermal generating system available High Temperature High Pressure hot water amount
Number.
9. water cooling photovoltaic according to claim 8-light-heat integration electricity generation system output calculates method, its feature
It is, the generated output of the generated output of the photovoltaic power generation plate according to water cooling photovoltaic system and water cooling opto-thermal system, calculate
Water cooling photovoltaic-light-heat integration electricity generation system output, including：
Using formula PPV-CSP=ηDC/ACPPV+(1-ηSCP)PCSPCalculate water cooling photovoltaic-light-heat integration electricity generation system output
PPV-CSP；
Wherein, ηDC/ACFor photovoltaic generating system inverter conversion efficiency, ηSCPFor solar-thermal generating system station service power consumption rate.
10. a kind of system is calculated based on the trapezoidal fuzzy water cooling photovoltaic of three-dimensional-light-heat integration electricity generation system output, its
It is characterised by, including：
The output value added module of photovoltaic power generation plate, first for obtaining from water cooling photovoltaic system service data is pre-
Determine parameter, calculate the temperature reduction of photovoltaic power generation plate, and increased according to the output that temperature reduction calculates photovoltaic power generation plate
Value added；
Three Dimensional Generalized trapezoidal fuzzy set module, for strong according to sunshine in environmental forecasting data acquisition predetermined period in predetermined area
Degree is many-valued, and the output calculating water cooling photovoltaic system using statistical analysis technique is uncertain with intensity of sunshine many-valued fuzziness
The trapezoidal fuzzy set of Three Dimensional Generalized of relation, and the effective sunshine intensity in predetermined area is calculated using the trapezoidal fuzzy set of Three Dimensional Generalized；
High temperature and high pressure steam amount computing module, for using described effective sunshine intensity, calculating the photovoltaic of water cooling photovoltaic system
The generated output of power generation plate and the available high temperature and high pressure steam amount of water cooling opto-thermal system；
Opto-thermal system electrical efficiency value added module, the predetermined ginseng of second for obtaining from water cooling opto-thermal system service data
Number, calculates the electrical efficiency value added of water cooling opto-thermal system；
Water cooling opto-thermal system generated output module, for according to high temperature and high pressure steam amount and electrical efficiency value added, calculating water-cooled
But the generated output of opto-thermal system；
Output calculates module, the generated output for the photovoltaic power generation plate according to water cooling photovoltaic system and water cooling photo-thermal
The generated output of system, calculates water cooling photovoltaic-light-heat integration electricity generation system output.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201610808358.6A CN106383937B (en) | 2016-09-07 | 2016-09-07 | Water cools down photovoltaic-solar-thermal generating system output power and calculates method and system |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201610808358.6A CN106383937B (en) | 2016-09-07 | 2016-09-07 | Water cools down photovoltaic-solar-thermal generating system output power and calculates method and system |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN106383937A true CN106383937A (en) | 2017-02-08 |
| CN106383937B CN106383937B (en) | 2019-09-06 |
Family
ID=57939071
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201610808358.6A Expired - Fee Related CN106383937B (en) | 2016-09-07 | 2016-09-07 | Water cools down photovoltaic-solar-thermal generating system output power and calculates method and system |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN106383937B (en) |
Cited By (7)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107171364A (en) * | 2017-07-12 | 2017-09-15 | 广东工业大学 | The n that photovoltaic and photothermal integral system output power is calculated ties up trapezoidal FUZZY SET APPROACH TO ENVIRONMENTAL and device |
| CN107194620A (en) * | 2017-07-12 | 2017-09-22 | 广东工业大学 | An a kind of type point value Zadeh Fuzzy Calculation method and devices for photovoltaic generation daily generation |
| CN107292768A (en) * | 2017-07-12 | 2017-10-24 | 广东工业大学 | A kind of photovoltaic generating system daily generation Fuzzy Probability Calculation method and device |
| CN107332272A (en) * | 2017-07-12 | 2017-11-07 | 广东工业大学 | A kind of air cooling photovoltaic and photothermal electricity generation system power output calculates method |
| CN107330291A (en) * | 2017-07-12 | 2017-11-07 | 广东工业大学 | A kind of two type point value Zadeh Fuzzy Calculation method and devices of photovoltaic generation daily generation |
| CN107346474A (en) * | 2017-07-12 | 2017-11-14 | 广东工业大学 | The three-dimensional trapezoidal blur method that water cooling photovoltaic and photothermal integral system generated energy calculates |
| CN108171363A (en) * | 2017-12-13 | 2018-06-15 | 北京金风慧能技术有限公司 | The Forecasting Methodology and device of photo-thermal power generation power |
Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US20080053094A1 (en) * | 2006-09-06 | 2008-03-06 | Harris Corporation | System for providing continuous electric power from solar energy |
| CN103390199A (en) * | 2013-07-18 | 2013-11-13 | 国家电网公司 | Photovoltaic power generation capacity/power prediction device |
| CN103678872A (en) * | 2013-09-27 | 2014-03-26 | 国家电网公司 | Photovoltaic power generation system performance evaluation method and device |
| CN204858588U (en) * | 2015-07-22 | 2015-12-09 | 安徽理工大学 | Grid -connected PV power generation system based on improved generation fuzzy control |
| CN105207274A (en) * | 2015-10-29 | 2015-12-30 | 许继集团有限公司 | Self-adaptive adjusting reactive output distributed photovoltaic power generation control method |
| CN105716303A (en) * | 2016-03-04 | 2016-06-29 | 绵阳市金桥源科技有限公司 | Solar photo voltage/thermal collector energy collection system |
-
2016
- 2016-09-07 CN CN201610808358.6A patent/CN106383937B/en not_active Expired - Fee Related
Patent Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US20080053094A1 (en) * | 2006-09-06 | 2008-03-06 | Harris Corporation | System for providing continuous electric power from solar energy |
| CN103390199A (en) * | 2013-07-18 | 2013-11-13 | 国家电网公司 | Photovoltaic power generation capacity/power prediction device |
| CN103678872A (en) * | 2013-09-27 | 2014-03-26 | 国家电网公司 | Photovoltaic power generation system performance evaluation method and device |
| CN204858588U (en) * | 2015-07-22 | 2015-12-09 | 安徽理工大学 | Grid -connected PV power generation system based on improved generation fuzzy control |
| CN105207274A (en) * | 2015-10-29 | 2015-12-30 | 许继集团有限公司 | Self-adaptive adjusting reactive output distributed photovoltaic power generation control method |
| CN105716303A (en) * | 2016-03-04 | 2016-06-29 | 绵阳市金桥源科技有限公司 | Solar photo voltage/thermal collector energy collection system |
Non-Patent Citations (2)
| Title |
|---|
| 吴杰康等: ""基于模糊随机机会约束规划的输电可靠性裕度计算"", 《电力系统自动化》 * |
| 张恒: ""托克泰光伏发电项目可行性综合评价研究"", 《中国优秀硕士学位论文全文数据库 经济与管理科学辑》 * |
Cited By (11)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107171364A (en) * | 2017-07-12 | 2017-09-15 | 广东工业大学 | The n that photovoltaic and photothermal integral system output power is calculated ties up trapezoidal FUZZY SET APPROACH TO ENVIRONMENTAL and device |
| CN107194620A (en) * | 2017-07-12 | 2017-09-22 | 广东工业大学 | An a kind of type point value Zadeh Fuzzy Calculation method and devices for photovoltaic generation daily generation |
| CN107292768A (en) * | 2017-07-12 | 2017-10-24 | 广东工业大学 | A kind of photovoltaic generating system daily generation Fuzzy Probability Calculation method and device |
| CN107332272A (en) * | 2017-07-12 | 2017-11-07 | 广东工业大学 | A kind of air cooling photovoltaic and photothermal electricity generation system power output calculates method |
| CN107330291A (en) * | 2017-07-12 | 2017-11-07 | 广东工业大学 | A kind of two type point value Zadeh Fuzzy Calculation method and devices of photovoltaic generation daily generation |
| CN107346474A (en) * | 2017-07-12 | 2017-11-14 | 广东工业大学 | The three-dimensional trapezoidal blur method that water cooling photovoltaic and photothermal integral system generated energy calculates |
| CN107292768B (en) * | 2017-07-12 | 2021-01-26 | 广东工业大学 | Photovoltaic power generation system daily generated energy fuzzy probability calculation method and device |
| CN107194620B (en) * | 2017-07-12 | 2021-01-26 | 广东工业大学 | Linear point value Zadeh fuzzy calculation method and device for daily power generation amount of photovoltaic power generation |
| CN107346474B (en) * | 2017-07-12 | 2021-01-26 | 广东工业大学 | Three-dimensional trapezoidal fuzzy method for calculating generated energy of water-cooling photovoltaic photo-thermal integrated system |
| CN107330291B (en) * | 2017-07-12 | 2021-03-30 | 广东工业大学 | Two-type point value Zadeh fuzzy calculation method and device for daily generated energy of photovoltaic power generation |
| CN108171363A (en) * | 2017-12-13 | 2018-06-15 | 北京金风慧能技术有限公司 | The Forecasting Methodology and device of photo-thermal power generation power |
Also Published As
| Publication number | Publication date |
|---|---|
| CN106383937B (en) | 2019-09-06 |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN106383937B (en) | Water cools down photovoltaic-solar-thermal generating system output power and calculates method and system | |
| Yousif et al. | An optimal dispatch strategy for distributed microgrids using PSO | |
| Liu et al. | Coordinated operation of multi-integrated energy system based on linear weighted sum and grasshopper optimization algorithm | |
| Xie et al. | Review of modeling and control strategy of thermostatically controlled loads for virtual energy storage system | |
| Taneja et al. | Defining cps challenges in a sustainable electricity grid | |
| Wu et al. | Multi-time scale energy management of electric vehicle model-based prosumers by using virtual battery model | |
| CN109740808A (en) | A kind of scene water complemental power-generation plan calculation method and system | |
| CN103715688A (en) | Grid-connected micro-grid optimizing configuration method and device | |
| CN106300423B (en) | Based on the method and device of three-dimensional trapezoidal fuzzy determining photovoltaic generation daily generation | |
| CN109687506A (en) | Micro-capacitance sensor medium-small hydropower plants generated energy prediction technique | |
| Hu et al. | Energy management strategy for a society of prosumers under the IOT environment considering the network constraints | |
| Rajani et al. | A hybrid optimization based energy management between electric vehicle and electricity distribution system | |
| CN105762843A (en) | Power output allocation method for non-storage type dispatchable photovoltaic power station | |
| CN106355286B (en) | The generated energy calculation method and system of the cooling photovoltaic-solar-thermal generating system of water | |
| CN107346474B (en) | Three-dimensional trapezoidal fuzzy method for calculating generated energy of water-cooling photovoltaic photo-thermal integrated system | |
| Wang et al. | Stackelberg game-based optimal scheduling of integrated energy systems considering differences in heat demand across multi-functional areas | |
| CN107769268A (en) | Scope is adjusted to predict that province supplies load method a few days ago in a kind of ground containing small power station | |
| Cerna | A hybrid PV scheme as support to relieve congestion in the domestic supply network | |
| Liu et al. | Cooperative operation for integrated multi-energy system considering transmission losses | |
| WO2019158575A1 (en) | System and method for operating a combination of heterogeneous energy resources for fast grid services | |
| CN113935538A (en) | Active power distribution network planning method, device and system based on energy Internet | |
| CN109038655A (en) | It rations the power supply and requires the mating stored energy capacitance calculation method in lower large-sized photovoltaic power station | |
| CN110992206B (en) | Optimal scheduling method and system for multi-source electric field | |
| CN106372805A (en) | Water cooling photovoltatic-optothermal integrated power generation system generating capacity calculation method and system | |
| CN112886566A (en) | Power grid peak regulation demand calculation method and system |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C06 | Publication | ||
| PB01 | Publication | ||
| C10 | Entry into substantive examination | ||
| SE01 | Entry into force of request for substantive examination | ||
| GR01 | Patent grant | ||
| GR01 | Patent grant | ||
| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20190906 Termination date: 20200907 |
|
| CF01 | Termination of patent right due to non-payment of annual fee |