CN107503886B - Wind, power and hydrogen micro-topology network system and method - Google Patents

Wind, power and hydrogen micro-topology network system and method Download PDF

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CN107503886B
CN107503886B CN201710692657.2A CN201710692657A CN107503886B CN 107503886 B CN107503886 B CN 107503886B CN 201710692657 A CN201710692657 A CN 201710692657A CN 107503886 B CN107503886 B CN 107503886B
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curtailment
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CN107503886A (en
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薛宇
李显达
王虎
唐宏芬
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China Datang Corp Science and Technology Research Institute Co Ltd
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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03—MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03D—WIND MOTORS
    • F03D9/00—Adaptations of wind motors for special use; Combinations of wind motors with apparatus driven thereby; Wind motors specially adapted for installation in particular locations
    • F03D9/10—Combinations of wind motors with apparatus storing energy
    • F03D9/11—Combinations of wind motors with apparatus storing energy storing electrical energy
    • C—CHEMISTRY; METALLURGY
    • C25—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES; APPARATUS THEREFOR
    • C25B—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES FOR THE PRODUCTION OF COMPOUNDS OR NON-METALS; APPARATUS THEREFOR
    • C25B1/00—Electrolytic production of inorganic compounds or non-metals
    • C25B1/01—Products
    • C25B1/02—Hydrogen or oxygen
    • C25B1/04—Hydrogen or oxygen by electrolysis of water
    • C—CHEMISTRY; METALLURGY
    • C25—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES; APPARATUS THEREFOR
    • C25B—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES FOR THE PRODUCTION OF COMPOUNDS OR NON-METALS; APPARATUS THEREFOR
    • C25B15/00—Operating or servicing cells
    • C25B15/02—Process control or regulation
    • C—CHEMISTRY; METALLURGY
    • C25—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES; APPARATUS THEREFOR
    • C25B—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES FOR THE PRODUCTION OF COMPOUNDS OR NON-METALS; APPARATUS THEREFOR
    • C25B9/00—Cells or assemblies of cells; Constructional parts of cells; Assemblies of constructional parts, e.g. electrode-diaphragm assemblies; Process-related cell features
    • C25B9/60—Constructional parts of cells
    • C25B9/65—Means for supplying current; Electrode connections; Electric inter-cell connections
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03—MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03D—WIND MOTORS
    • F03D7/00—Controlling wind motors 
    • F03D7/02—Controlling wind motors  the wind motors having rotation axis substantially parallel to the air flow entering the rotor
    • F03D7/04—Automatic control; Regulation
    • F03D7/042—Automatic control; Regulation by means of an electrical or electronic controller
    • F03D7/048—Automatic control; Regulation by means of an electrical or electronic controller controlling wind farms
    • 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
    • Y02E10/00—Energy generation through renewable energy sources
    • Y02E10/70—Wind energy
    • Y02E10/72—Wind turbines with rotation axis in wind direction
    • 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
    • Y02E60/30—Hydrogen technology
    • Y02E60/36—Hydrogen production from non-carbon containing sources, e.g. by water electrolysis
    • 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
    • Y02E70/00—Other energy conversion or management systems reducing GHG emissions
    • Y02E70/30—Systems combining energy storage with energy generation of non-fossil origin
    • 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
    • Y02P—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
    • Y02P20/00—Technologies relating to chemical industry
    • Y02P20/10—Process efficiency
    • Y02P20/133—Renewable energy sources, e.g. sunlight

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
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  • Electrochemistry (AREA)
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Abstract

本发明涉及一种风、电、氢微型拓扑网络系统及方法,所述系统包括:发电风机;电能制氢及氢燃料发电组件,所述电能制氢及氢燃料发电组件包括制氢及氢发电控制器以及分别与所述制氢及氢发电控制器电连接的电解水制氢装置、氢燃料发电装置,所述电解水制氢装置的进水端连接储水装置,所述电解水制氢装置的出气端连接储氢装置,所述氢燃料发电装置的进气端连通所述储氢装置,所述氢燃料发电装置在发电过程中产生的水通过水管进入所述储水装置内;所述电能制氢及氢燃料发电组件集成在运输车上,所述的电解水制氢装置采用可插拔方式与所述的功率分配器电连接。

The invention relates to a wind, electricity and hydrogen micro-topology network system and method. The system includes: a power generation fan; an electric energy hydrogen production and a hydrogen fuel power generation component. The electric energy hydrogen production and hydrogen fuel power generation components include hydrogen production and hydrogen power generation. A controller and an electrolytic water hydrogen production device and a hydrogen fuel power generation device that are electrically connected to the hydrogen production and hydrogen power generation controller respectively. The water inlet end of the electrolytic water hydrogen production device is connected to a water storage device. The electrolytic water hydrogen production device The air outlet end of the device is connected to the hydrogen storage device, the air inlet end of the hydrogen fuel power generation device is connected to the hydrogen storage device, and the water generated by the hydrogen fuel power generation device during the power generation process enters the water storage device through the water pipe; The electric hydrogen production and hydrogen fuel power generation components are integrated on the transport vehicle, and the water electrolysis hydrogen production device is electrically connected to the power distributor in a pluggable manner.

Description

风、电、氢微型拓扑网络系统及方法Wind, power and hydrogen micro-topology network system and method

技术领域Technical field

本发明涉及一种风、电、氢微型拓扑网络系统及方法。The invention relates to a wind, electricity and hydrogen micro topology network system and method.

背景技术Background technique

随着国民经济的迅速增长,对能源的需求日益旺盛,能源短缺以及化石能源所产生的环境污染问题日益尖锐。新能源资源潜力大,可持续利用,在满足能源需求、改善能源结构、减少环境污染、促进经济发展等方面发挥了重要作用,已引起了国际社会的广泛关注。在能源安全与环境保护的双重压力下,技术相对成熟、具备规模化开发条件的风力发电技术作为一种清洁的可再生能源,在世界范围内取得了飞速发展。特别是近年来,风力发电的产业规模和市场化程度逐年提高。截至2015年底,全年风电新增装机容量3297万千瓦,新增装机容量再创历史新高,累计并网装机容量达到1.29亿千瓦,占全部发电装机容量的8.6%,全国风电产业继续保持强劲增长势头。With the rapid growth of the national economy, the demand for energy is becoming increasingly strong, and the problems of energy shortage and environmental pollution caused by fossil energy are becoming increasingly acute. New energy resources have great potential and can be used sustainably. They play an important role in meeting energy needs, improving energy structure, reducing environmental pollution, and promoting economic development. They have attracted widespread attention from the international community. Under the dual pressure of energy security and environmental protection, wind power generation technology, which is relatively mature in technology and has the conditions for large-scale development, has achieved rapid development around the world as a clean and renewable energy source. Especially in recent years, the industrial scale and marketization of wind power generation have increased year by year. As of the end of 2015, the newly installed capacity of wind power in the year was 32.97 million kilowatts. The newly installed capacity reached a record high. The cumulative installed capacity of the grid reached 129 million kilowatts, accounting for 8.6% of the total installed power generation capacity. The national wind power industry continued to maintain strong growth. momentum.

但是,现有的风机都存在弃风量的问题,例如,某地多风的季节时,可能当地的用电量不足以消耗风机全部发电量,但是在用电的季节,风机可能无法满足当地的总用电量需求。However, existing wind turbines all have the problem of abandoned wind. For example, during the windy season in a certain place, the local electricity consumption may not be enough to consume all the power generated by the wind turbine. However, during the electricity consumption season, the wind turbine may not be able to meet the local demand. Total electricity demand.

鉴于上述的缺陷,本设计人积极加以研究创新,以期创设一种风、电、氢微型拓扑网络系统及方法,使其更具有产业上的利用价值。In view of the above-mentioned shortcomings, the designer actively conducts research and innovation in order to create a wind, power, and hydrogen micro-topology network system and method to make it more industrially valuable.

发明内容Contents of the invention

针对上述问题,本发明提供一种微电网,能够随时自由组合,随时插拔,无捆绑,资源最合理的分配利用的风、电、氢微型拓扑网络系统及方法。In response to the above problems, the present invention provides a microgrid that can be freely combined and plugged in at any time without bundling, and the wind, electricity and hydrogen micro topology network system and method can allocate and utilize resources in the most reasonable manner.

本发明风、电、氢微型拓扑网络系统,包括:The wind, power and hydrogen micro topological network system of the present invention includes:

发电风机,所述发电风机包括底座,所述底座上设有塔筒,所述塔筒顶端设有风机叶片,所述风机叶片连接风能发电机,所述底座内设有主控制器,所述主控制器通过控制电缆线与蓄电装置连接,所述蓄电装置电连接功率分配器、风能发电机,所述功率分配器与用于将直流电转化为交流电的逆变器电连接;A power generating wind turbine. The power generating wind turbine includes a base. A tower is provided on the base. Fan blades are provided on the top of the tower. The fan blades are connected to the wind energy generator. A main controller is provided in the base. The main controller is connected to a power storage device through a control cable, the power storage device is electrically connected to a power divider and a wind energy generator, and the power divider is electrically connected to an inverter for converting direct current into alternating current;

电能制氢及氢燃料发电组件,所述电能制氢及氢燃料发电组件包括制氢及氢发电控制器以及分别与所述制氢及氢发电控制器电连接的电解水制氢装置、氢燃料发电装置,所述电解水制氢装置的进水端连接储水装置,所述电解水制氢装置的出气端连接储氢装置,所述氢燃料发电装置的进气端连通所述储氢装置,所述氢燃料发电装置在发电过程中产生的水通过水管进入所述储水装置内;Electric energy hydrogen production and hydrogen fuel power generation components, the electric energy hydrogen production and hydrogen fuel power generation components include hydrogen production and hydrogen power generation controllers, and electrolysis water hydrogen production devices and hydrogen fuel that are electrically connected to the hydrogen production and hydrogen power generation controllers respectively. Power generation device, the water inlet end of the electrolysis water hydrogen production device is connected to a water storage device, the air outlet end of the electrolysis water hydrogen production device is connected to a hydrogen storage device, and the air inlet end of the hydrogen fuel power generation device is connected to the hydrogen storage device , the water generated by the hydrogen fuel power generation device during the power generation process enters the water storage device through the water pipe;

所述电能制氢及氢燃料发电组件集成在运输车上,所述的电解水制氢装置采用可插拔方式与所述的功率分配器电连接;The electric energy hydrogen production and hydrogen fuel power generation components are integrated on the transport vehicle, and the electrolysis water hydrogen production device is electrically connected to the power distributor in a pluggable manner;

所述主控制器包括:The main controller includes:

弃风范围与请求距离对照表生成单元,用于将发电风机的弃风量划分为N个弃风范围;对不同的弃风范围分配不同的电能制氢及氢燃料发电组件运输车可请求距离,生成弃风范围与请求距离对照表,其中,所述的可请求距离为电能制氢及氢燃料发电组件运输车距离发电风机的距离;The wind curtailment range and request distance comparison table generation unit is used to divide the wind curtailment volume of power generation wind turbines into N wind curtailment ranges; allocate different electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requestable distances to different wind curtailment ranges. Generate a comparison table between the wind curtailment range and the requested distance, where the requested distance is the distance between the electric hydrogen production and hydrogen fuel power generation component transport vehicle and the power generation wind turbine;

配置请求单元,用于对发电风机的弃风量进行预测,并确定发电风机的弃风量属于哪个弃风范围;Configure a request unit to predict the wind curtailment volume of the power generation wind turbine and determine which wind curtailment range the wind curtailment volume of the power generation wind turbine belongs to;

若弃风量属于第一弃风范围,则判断发电风机是否对应有本地电能制氢及氢燃料发电组件,若有,则启动该本地电能制氢及氢燃料发电组件,利用发电风机输出的多余电量提供电解水制氢装置制氢所需电量;若没有,则不做处理;If the amount of wind curtailment falls within the first wind curtailment range, it is determined whether the power generation fan corresponds to the local electric energy hydrogen production and hydrogen fuel power generation components. If so, the local electric energy hydrogen production and hydrogen fuel power generation components are activated to utilize the excess electricity output by the power generation fan. Provide the electricity required for hydrogen production by the electrolysis water hydrogen production device; if not, no processing will be performed;

若弃风量属于第二弃风范围、第三弃风范围……或第N弃风范围,则根据所述弃风范围与请求距离对照表向所述弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求,If the wind curtailment amount belongs to the second wind curtailment range, the third wind curtailment range... or the Nth wind curtailment range, then according to the wind curtailment range and the request distance comparison table, a configuration electric energy control is sent to the request distance corresponding to the wind curtailment range. Hydrogen and hydrogen fuel power generation component transport vehicle request,

电能制氢及氢燃料发电组件运输车响应该请求,电能制氢及氢燃料发电组件运输车运输至发电风机,并与发电风机的主控制器通过可插拔方式进行电连接;The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle responds to the request, and the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle transports it to the power generation wind turbine, and is electrically connected to the main controller of the power generation wind turbine in a pluggable manner;

其中,若发电风机对应有本地电能制氢及氢燃料发电组件,则启动所述的本地电能制氢及氢燃料发电组件;Among them, if the power generation wind turbine corresponds to local electric energy hydrogen production and hydrogen fuel power generation components, then start the local electric energy hydrogen production and hydrogen fuel power generation components;

对所述的弃风量划分为N个不同的弃风范围的划分方法为根据不同的弃风量用于发电,风机发电能够发出的电量进行划分,其中第一弃风范围发出的电量小于第二弃风范围发出的电量,第二弃风范围发出的电量小于第三弃风范围发出的电量,以此类推,第N弃风范围发出的电量最多。The method of dividing the wind curtailment volume into N different wind curtailment ranges is to divide the amount of electricity that can be generated by wind turbines according to the different amounts of wind curtailment used for power generation, where the electricity generated by the first wind curtailment range is smaller than that of the second wind curtailment range. The power generated by the wind range, the power generated by the second wind curtailment range is less than the power generated by the third wind curtailment range, and so on, the Nth wind curtailment range generates the most power.

进一步地,所述氢燃料发电装置的电能输出端依次经燃料电量控制开关、所述逆变器连接负载。Further, the electric energy output end of the hydrogen fuel power generation device is connected to the load through the fuel power control switch and the inverter in sequence.

进一步地,所述塔筒上设有至少一个太阳能光伏板,所述太阳能光伏板电连接太阳能转换电能装置,所述太阳能转换电能装置电连接所述蓄电装置。Further, at least one solar photovoltaic panel is provided on the tower, the solar photovoltaic panel is electrically connected to a solar energy conversion device, and the solar energy conversion device is electrically connected to the electricity storage device.

进一步地,所述塔筒顶部设有避雷针,所述避雷针呈90°弯折绕过发电风机,所述避雷针的顶端高于发电风机。Further, a lightning rod is provided on the top of the tower, and the lightning rod is bent at 90° to bypass the power generation fan, and the top of the lightning rod is higher than the power generation fan.

进一步地,所述塔筒上设有风力、风速传感器,所述的风力传感器、风速传感器分别电连接所述主控制器,并将所述的风力传感器、风速传感器获取的风力数据、风速数据输出至主控制器保存;Further, the tower is provided with wind power and wind speed sensors. The wind power sensor and wind speed sensor are electrically connected to the main controller respectively, and the wind power data and wind speed data obtained by the wind power sensor and wind speed sensor are output. Save to main controller;

所述电能制氢及氢燃料发电组件运输车包括响应选择单元,用于当在预定的时间区间内得到了至少两个发电风机输出的配置电能制氢及氢燃料发电组件运输车请求,所述的电能制氢及氢燃料发电组件运输车的响应方法包括:The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle includes a response selection unit, which is used to receive a configured electric energy hydrogen production and hydrogen fuel power generation component transport vehicle request for the output of at least two power generation fans within a predetermined time interval. The response methods of electric hydrogen production and hydrogen fuel power generation component transport vehicles include:

获取各个发出请求的发电风机的位置信息,根据发电风机的位置信息计算该电能制氢及氢燃料发电组件运输车的运输成本;Obtain the location information of each requested power generation wind turbine, and calculate the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle based on the location information of the power generation wind turbine;

获取各个发电风机的弃风量对应的市电价格,计算各个发电风机的弃风量对应的电能制氢及氢燃料发电组件运输车的运输成本的差值;Obtain the market power price corresponding to the abandoned wind volume of each power generation wind turbine, and calculate the difference in the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle corresponding to the abandoned wind volume of each power generation wind turbine;

选择差值最大的对应的发电风机进行响应。The corresponding power generation fan with the largest difference is selected to respond.

进一步地,所述制氢及氢发电控制器电连接主控制器,所述主控制器输出用于控制所述的电解水制氢装置、氢燃料发电装置工作的控制信号至所述制氢及氢发电控制器。Further, the hydrogen production and hydrogen power generation controller is electrically connected to a main controller, and the main controller outputs a control signal for controlling the operation of the electrolytic water hydrogen production device and the hydrogen fuel power generation device to the hydrogen production and hydrogen power generation device. Hydrogen power generation controller.

本发明风、电、氢微型拓扑网络组网方法,包括:上述的风、电、氢微型拓扑网络组网系统,所述的方法包括:The wind, power, and hydrogen micro-topology network networking method of the present invention includes: the above-mentioned wind, power, and hydrogen micro-topology network networking system. The method includes:

将发电风机的弃风量划分为N个弃风范围;对不同的弃风范围分配不同的电能制氢及氢燃料发电组件运输车可请求距离,生成弃风范围与请求距离对照表,其中,所述的可请求距离为电能制氢及氢燃料发电组件运输车距离发电风机的距离;Divide the wind curtailment volume of the power generation wind turbine into N wind curtailment ranges; allocate different electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requestable distances to different wind curtailment ranges, and generate a comparison table between the wind curtailment range and the requested distance, where, The above requestable distance is the distance between the electric hydrogen production and hydrogen fuel power generation component transport vehicle and the power generation wind turbine;

对发电风机的弃风量进行预测,并确定发电风机的弃风量属于哪个弃风范围;Predict the wind curtailment volume of power generation wind turbines and determine which wind curtailment range the wind curtailment volume of power generation wind turbines falls into;

若弃风量属于第一弃风范围,则判断发电风机是否对应有本地电能制氢及氢燃料发电组件,若有,则启动该本地电能制氢及氢燃料发电组件,利用发电风机输出的多余电量提供电解水制氢装置制氢所需电量;若没有,则不做处理;If the amount of wind curtailment falls within the first wind curtailment range, it is determined whether the power generation fan corresponds to the local electric energy hydrogen production and hydrogen fuel power generation components. If so, the local electric energy hydrogen production and hydrogen fuel power generation components are activated to utilize the excess electricity output by the power generation fan. Provide the electricity required for hydrogen production by the electrolysis water hydrogen production device; if not, no processing will be performed;

若弃风量属于第二弃风范围、第三弃风范围……或第N弃风范围,则根据所述弃风范围与请求距离对照表向所述弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求,If the wind curtailment amount belongs to the second wind curtailment range, the third wind curtailment range... or the Nth wind curtailment range, then according to the wind curtailment range and the request distance comparison table, a configuration electric energy control is sent to the request distance corresponding to the wind curtailment range. Hydrogen and hydrogen fuel power generation component transport vehicle request,

电能制氢及氢燃料发电组件运输车响应该请求,电能制氢及氢燃料发电组件运输车运输至发电风机,并与发电风机的主控制器通过可插拔方式进行电连接;The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle responds to the request, and the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle transports it to the power generation wind turbine, and is electrically connected to the main controller of the power generation wind turbine in a pluggable manner;

其中,若发电风机对应有本地电能制氢及氢燃料发电组件,则启动所述的本地电能制氢及氢燃料发电组件;Among them, if the power generation wind turbine corresponds to local electric energy hydrogen production and hydrogen fuel power generation components, then start the local electric energy hydrogen production and hydrogen fuel power generation components;

对所述的弃风量划分为N个不同的弃风范围的划分方法为根据不同的弃风量用于发电,风机发电能够发出的电量进行划分,其中第一弃风范围发出的电量小于第二弃风范围发出的电量,第二弃风范围发出的电量小于第三弃风范围发出的电量,以此类推,第N弃风范围发出的电量最多。The method of dividing the wind curtailment volume into N different wind curtailment ranges is to divide the amount of electricity that can be generated by wind turbines according to the different amounts of wind curtailment used for power generation, where the electricity generated by the first wind curtailment range is smaller than that of the second wind curtailment range. The power generated by the wind range, the power generated by the second wind curtailment range is less than the power generated by the third wind curtailment range, and so on, the Nth wind curtailment range generates the most power.

进一步地,弃风范围与请求距离对照表的建立方法包括:Further, the method of establishing a comparison table between the wind abandonment range and the requested distance includes:

获取电能制氢及氢燃料发电组件运输车运往发电风机本地的运输成本X的历史数据;Obtain historical data on the transportation cost X of electric hydrogen production and hydrogen fuel power generation component transport vehicles to the local power generation wind turbine;

获取N个弃风范围的弃风量用于发电,风机发电能够发出的电量对应的当地市电价格Y;Obtain the amount of wind curtailment in N wind curtailment ranges for power generation, and the local electricity price Y corresponding to the amount of electricity that the wind turbine can generate;

对电能制氢及氢燃料发电组件运输车的运输成本X和风机发电能够发出的电量对应的当地市电价格Y进行整合,各个弃风范围对应的电能制氢及氢燃料发电组件运输车的请求距离满足条件Y≥1.5X,也即一个弃风范围对应多个电能制氢及氢燃料发电组件运输车的请求距离,且请求距离按照Y与X之间差值的由大至小排列请求优先级。Integrate the transportation cost The distance satisfies the condition Y ≥ 1.5X, that is, a wind curtailment range corresponds to the requested distances of multiple electric energy hydrogen production and hydrogen fuel power generation component transport vehicles, and the requested distances are prioritized according to the difference between Y and X from large to small. class.

进一步地,发出配置电能制氢及氢燃料发电组件运输车请求的方法具体包括:Further, the method of issuing a request to configure a transport vehicle for electric hydrogen production and hydrogen fuel power generation components specifically includes:

根据请求距离的优先级逐次对一个弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求;若遍历完该弃风范围对应的全部请求距离均未收到响应,则以预定时间间隔向优先级排在第一位的请求距离分别发出配置电能制氢及氢燃料发电组件运输车请求,若发出5次请求后,没有得到响应,则放弃配置电能制氢及氢燃料发电组件运输车请求。According to the priority of the request distance, requests for configuring electric hydrogen production and hydrogen fuel power generation component transport vehicles are issued one by one to the request distance corresponding to a wind curtailment range; if no response is received after traversing all the request distances corresponding to the wind curtailment range, the At predetermined time intervals, requests for configuring electric hydrogen production and hydrogen fuel power generation component transport vehicles are sent to the request distance with the first priority. If no response is received after sending 5 requests, the configuration of electric hydrogen production and hydrogen fuel power generation will be given up. Component Transporter Request.

进一步地,一辆电能制氢及氢燃料发电组件运输车在预定的时间区间内得到了至少两个发电风机输出的配置电能制氢及氢燃料发电组件运输车请求,所述的电能制氢及氢燃料发电组件运输车的响应方法包括:Further, an electric energy hydrogen production and hydrogen fuel power generation component transport vehicle received at least two power generation fan output configuration electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requests within a predetermined time interval, and the electric energy hydrogen production and hydrogen fuel generation component transport vehicle Response methods for hydrogen-fueled power generation component transport vehicles include:

获取各个发出请求的发电风机的位置信息,根据发电风机的位置信息计算该电能制氢及氢燃料发电组件运输车的运输成本;Obtain the location information of each requested power generation wind turbine, and calculate the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle based on the location information of the power generation wind turbine;

获取各个发电风机的弃风量对应的市电价格,计算各个发电风机的弃风量对应的电能制氢及氢燃料发电组件运输车的运输成本的差值;Obtain the market power price corresponding to the abandoned wind volume of each power generation wind turbine, and calculate the difference in the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle corresponding to the abandoned wind volume of each power generation wind turbine;

选择差值最大的对应的发电风机进行响应。The corresponding power generation fan with the largest difference is selected to respond.

本发明风、电、氢微型拓扑网络系统及方法的有益效果至少具有以下几点:The beneficial effects of the wind, power and hydrogen micro-topology network system and method of the present invention have at least the following points:

在弃风期间,发电风机照常运行也即不减少发电风机的发电功率,并将风机发出的多余电量提供给电解制氢装置进行制氢,电解制氢装置清洁无污染;其终端产品——氢气(也包括氧气)也是绿色清洁环保燃料和化工原料。同时在用电量大,发电风机供电不足时,通过氢燃料发电装置将储存的氢气转化为电能。并且根据需要电能制氢及氢燃料发电组件随时插拔,无捆绑,资源最合理的分配利用。During the wind curtailment period, the power generation wind turbines operate as usual, that is, the power generation of the power generation wind turbines is not reduced, and the excess power generated by the wind turbines is provided to the electrolysis hydrogen production device for hydrogen production. The electrolysis hydrogen production device is clean and pollution-free; its end product - hydrogen (Also including oxygen) It is also a green, clean and environmentally friendly fuel and chemical raw material. At the same time, when the power consumption is high and the power supply of the power generation fan is insufficient, the stored hydrogen is converted into electrical energy through the hydrogen fuel power generation device. Moreover, the electric energy hydrogen production and hydrogen fuel power generation components can be plugged in and out at any time according to the needs, without bundling, and the resources are allocated and utilized in the most reasonable manner.

附图说明Description of the drawings

图1是本发明风、电、氢微型拓扑网络方法流程图;Figure 1 is a flow chart of the wind, power and hydrogen micro-topology network method of the present invention;

图2是本发明风、电、氢微型拓扑网络系统示意图;Figure 2 is a schematic diagram of the wind, power and hydrogen micro-topology network system of the present invention;

图3是发明风、电、氢微型拓扑网络系统的集装箱的结构示意图;Figure 3 is a schematic structural diagram of the container used to invent the wind, power and hydrogen micro-topology network system;

图4是发明风、电、氢微型拓扑网络系统的电路框图。Figure 4 is a circuit block diagram of the invented wind, power and hydrogen micro-topology network system.

具体实施方式Detailed ways

下面结合附图和实施例,对本发明的具体实施方式作进一步详细描述。以下实施例用于说明本发明,但不用来限制本发明的范围。Specific implementations of the present invention will be described in further detail below with reference to the accompanying drawings and examples. The following examples are used to illustrate the invention but are not intended to limit the scope of the invention.

实施例1Example 1

如图1至3所示,本实施例风、电、氢微型拓扑网络系统,包括:As shown in Figures 1 to 3, the wind, power, and hydrogen micro-topology network system in this embodiment includes:

发电风机,所述发电风机包括底座1,所述底座上设有塔筒2,所述塔筒顶端设有风机叶片4,所述风机叶片连接风能发电机5,所述底座内设有主控制器,所述主控制器通过控制电缆线与蓄电装置连接,所述蓄电装置电连接功率分配器、风能发电机,所述功率分配器与用于将直流电转化为交流电的逆变器电连接;Power generation wind turbine, the power generation wind turbine includes a base 1, a tower 2 is provided on the base, a fan blade 4 is provided at the top of the tower, the fan blade is connected to a wind energy generator 5, and a main control unit is provided in the base The main controller is connected to a power storage device through a control cable. The power storage device is electrically connected to a power divider and a wind energy generator. The power divider is electrically connected to an inverter for converting direct current into alternating current. connect;

电能制氢及氢燃料发电组件,所述电能制氢及氢燃料发电组件包括制氢及氢发电控制器31以及分别与所述制氢及氢发电控制器电连接的电解水制氢装置32、氢燃料发电装置35,所述电解水制氢装置的进水端连接储水装置33,所述电解水制氢装置的出气端连接储氢装置34,所述氢燃料发电装置的进气端连通所述储氢装置,所述氢燃料发电装置在发电过程中产生的水通过水管进入所述储水装置内;Electric energy hydrogen production and hydrogen fuel power generation components, the electric energy hydrogen production and hydrogen fuel power generation components include hydrogen production and hydrogen power generation controller 31 and an electrolysis water hydrogen production device 32 electrically connected to the hydrogen production and hydrogen power generation controller respectively. Hydrogen fuel power generation device 35, the water inlet end of the electrolysis water hydrogen production device is connected to the water storage device 33, the gas outlet end of the electrolysis water hydrogen production device is connected to the hydrogen storage device 34, and the air inlet end of the hydrogen fuel power generation device is connected to In the hydrogen storage device, the water generated by the hydrogen fuel power generation device during the power generation process enters the water storage device through a water pipe;

所述电能制氢及氢燃料发电组件集成在运输车7上,所述的电解水制氢装置采用可插拔方式与所述的功率分配器电连接;The electric energy hydrogen production and hydrogen fuel power generation components are integrated on the transport vehicle 7, and the electrolysis water hydrogen production device is electrically connected to the power distributor in a pluggable manner;

所述主控制器包括:The main controller includes:

弃风范围与请求距离对照表生成单元,用于将发电风机的弃风量划分为N个弃风范围;对不同的弃风范围分配不同的电能制氢及氢燃料发电组件运输车可请求距离,生成弃风范围与请求距离对照表,其中,所述的可请求距离为电能制氢及氢燃料发电组件运输车距离发电风机的距离;The wind curtailment range and request distance comparison table generation unit is used to divide the wind curtailment volume of power generation wind turbines into N wind curtailment ranges; allocate different electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requestable distances to different wind curtailment ranges. Generate a comparison table between the wind curtailment range and the requested distance, where the requested distance is the distance between the electric hydrogen production and hydrogen fuel power generation component transport vehicle and the power generation wind turbine;

配置请求单元,用于对发电风机的弃风量进行预测,并确定发电风机的弃风量属于哪个弃风范围;Configure a request unit to predict the wind curtailment volume of the power generation wind turbine and determine which wind curtailment range the wind curtailment volume of the power generation wind turbine belongs to;

若弃风量属于第一弃风范围,则判断发电风机是否对应有本地电能制氢及氢燃料发电组件,若有,则启动该本地电能制氢及氢燃料发电组件,利用发电风机输出的多余电量提供电解水制氢装置制氢所需电量;若没有,则不做处理;If the amount of wind curtailment falls within the first wind curtailment range, it is determined whether the power generation fan corresponds to the local electric energy hydrogen production and hydrogen fuel power generation components. If so, the local electric energy hydrogen production and hydrogen fuel power generation components are activated to utilize the excess electricity output by the power generation fan. Provide the electricity required for hydrogen production by the electrolysis water hydrogen production device; if not, no processing will be performed;

若弃风量属于第二弃风范围、第三弃风范围……或第N弃风范围,则根据所述弃风范围与请求距离对照表向所述弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求,If the wind curtailment amount belongs to the second wind curtailment range, the third wind curtailment range... or the Nth wind curtailment range, then according to the wind curtailment range and the request distance comparison table, a configuration electric energy control is sent to the request distance corresponding to the wind curtailment range. Hydrogen and hydrogen fuel power generation component transport vehicle request,

电能制氢及氢燃料发电组件运输车响应该请求,电能制氢及氢燃料发电组件运输车运输至发电风机,并与发电风机的主控制器通过可插拔方式进行电连接;The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle responds to the request, and the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle transports it to the power generation wind turbine, and is electrically connected to the main controller of the power generation wind turbine in a pluggable manner;

其中,若发电风机对应有本地电能制氢及氢燃料发电组件,则启动所述的本地电能制氢及氢燃料发电组件;Among them, if the power generation wind turbine corresponds to local electric energy hydrogen production and hydrogen fuel power generation components, then start the local electric energy hydrogen production and hydrogen fuel power generation components;

对所述的弃风量划分为N个不同的弃风范围的划分方法为根据不同的弃风量用于发电,风机发电能够发出的电量进行划分,其中第一弃风范围发出的电量小于第二弃风范围发出的电量,第二弃风范围发出的电量小于第三弃风范围发出的电量,以此类推,第N弃风范围发出的电量最多。The method of dividing the wind curtailment volume into N different wind curtailment ranges is to divide the amount of electricity that can be generated by wind turbines according to the different amounts of wind curtailment used for power generation, where the electricity generated by the first wind curtailment range is smaller than that of the second wind curtailment range. The power generated by the wind range, the power generated by the second wind curtailment range is less than the power generated by the third wind curtailment range, and so on, the Nth wind curtailment range generates the most power.

所述电能制氢及氢燃料发电组件运输车包括响应选择单元,用于当在预定的时间区间内得到了至少两个发电风机输出的配置电能制氢及氢燃料发电组件运输车请求,所述的电能制氢及氢燃料发电组件运输车的响应方法包括:The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle includes a response selection unit, which is used to receive a configured electric energy hydrogen production and hydrogen fuel power generation component transport vehicle request for the output of at least two power generation fans within a predetermined time interval. The response methods of electric hydrogen production and hydrogen fuel power generation component transport vehicles include:

获取各个发出请求的发电风机的位置信息,根据发电风机的位置信息计算该电能制氢及氢燃料发电组件运输车的运输成本;Obtain the location information of each requested power generation wind turbine, and calculate the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle based on the location information of the power generation wind turbine;

获取各个发电风机的弃风量对应的市电价格,计算各个发电风机的弃风量对应的电能制氢及氢燃料发电组件运输车的运输成本的差值;Obtain the market power price corresponding to the abandoned wind volume of each power generation wind turbine, and calculate the difference in the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle corresponding to the abandoned wind volume of each power generation wind turbine;

选择差值最大的对应的发电风机进行响应。The corresponding power generation fan with the largest difference is selected to respond.

本实施例中,在一个区域内设置一台或两台发电风机组成一个微网发电系统,该微网发电系统,制氢、发电装置与发电风机的随时可插拔结构随时插拔,无捆绑,资源最合理的分配利用。In this embodiment, one or two power generation fans are set up in an area to form a microgrid power generation system. In this microgrid power generation system, the hydrogen production and power generation devices and the power generation wind turbines are pluggable and unplugged at any time without binding. , the most reasonable allocation and utilization of resources.

实施例2Example 2

本实施例风、电、氢微型拓扑网络系统,在实施例1的基础上,所述氢燃料发电装置的电能输出端依次经燃料电量控制开关、所述逆变器连接负载。所述塔筒上设有至少一个太阳能光伏板3,所述太阳能光伏板电连接太阳能转换电能装置,所述太阳能转换电能装置电连接所述蓄电装置。所述制氢及氢发电控制器电连接主控制器,所述主控制器输出用于控制所述的电解水制氢装置、氢燃料发电装置工作的控制信号至所述制氢及氢发电控制器。也即本实施例中,电能制氢及氢燃料发电组件的电解水制氢装置、氢燃料发电装置的工作运行方式通过发电风机的主控制器进行控制,同时氢燃料发电装置和发电风机共用逆变器。In this embodiment, the wind, electricity and hydrogen micro topology network system is based on Embodiment 1. The electric energy output end of the hydrogen fuel power generation device is connected to the load through the fuel power control switch and the inverter in sequence. At least one solar photovoltaic panel 3 is provided on the tower. The solar photovoltaic panel is electrically connected to a solar energy conversion device, and the solar energy conversion device is electrically connected to the electricity storage device. The hydrogen production and hydrogen power generation controller is electrically connected to a main controller, and the main controller outputs a control signal for controlling the operation of the electrolysis water hydrogen production device and the hydrogen fuel power generation device to the hydrogen production and hydrogen power generation control. device. That is to say, in this embodiment, the working modes of the electrolysis hydrogen production device and the hydrogen fuel power generation device of the hydrogen production and hydrogen fuel power generation components are controlled by the main controller of the power generation fan. At the same time, the hydrogen fuel power generation device and the power generation fan share the same inverter. converter.

为了防雷、保证发电风机的安全运行,所述塔筒顶部设有避雷针,所述避雷针呈90°弯折绕过发电风机,所述避雷针的顶端高于发电风机。In order to protect against lightning and ensure the safe operation of the power generation fan, a lightning rod is provided on the top of the tower. The lightning rod is bent at 90° to bypass the power generation fan. The top of the lightning rod is higher than the power generation fan.

本实施例中,所述塔筒上设有风力、风速传感器6,所述的风力传感器、风速传感器分别电连接所述主控制器,并将所述的风力传感器、风速传感器获取的风力数据、风速数据输出至主控制器保存。In this embodiment, the tower is provided with wind force and wind speed sensors 6. The wind force sensor and wind speed sensor are electrically connected to the main controller respectively, and the wind force data acquired by the wind force sensor and wind speed sensor are The wind speed data is output to the main controller for storage.

实施例3Example 3

本实施例风、电、氢微型拓扑网络组网方法,包括:上述实施例1的风、电、氢微型拓扑网络组网系统,所述的方法包括:The wind, power, and hydrogen micro-topology network networking method in this embodiment includes: the wind, power, and hydrogen micro-topology network networking system of the above-mentioned Embodiment 1. The method includes:

将发电风机的弃风量划分为N个弃风范围;对不同的弃风范围分配不同的电能制氢及氢燃料发电组件运输车可请求距离,生成弃风范围与请求距离对照表,其中,所述的可请求距离为电能制氢及氢燃料发电组件运输车距离发电风机的距离;Divide the wind curtailment volume of the power generation wind turbine into N wind curtailment ranges; allocate different electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requestable distances to different wind curtailment ranges, and generate a comparison table between the wind curtailment range and the requested distance, where, The above requestable distance is the distance between the electric hydrogen production and hydrogen fuel power generation component transport vehicle and the power generation wind turbine;

对发电风机的弃风量进行预测,并确定发电风机的弃风量属于哪个弃风范围;Predict the wind curtailment volume of power generation wind turbines and determine which wind curtailment range the wind curtailment volume of power generation wind turbines falls into;

若弃风量属于第一弃风范围,则判断发电风机是否对应有本地电能制氢及氢燃料发电组件,若有,则启动该本地电能制氢及氢燃料发电组件,利用发电风机输出的多余电量提供电解水制氢装置制氢所需电量;若没有,则不做处理;If the amount of wind curtailment falls within the first wind curtailment range, it is determined whether the power generation fan corresponds to the local electric energy hydrogen production and hydrogen fuel power generation components. If so, the local electric energy hydrogen production and hydrogen fuel power generation components are activated to utilize the excess electricity output by the power generation fan. Provide the electricity required for hydrogen production by the electrolysis water hydrogen production device; if not, no processing will be performed;

若弃风量属于第二弃风范围、第三弃风范围……或第N弃风范围,则根据所述弃风范围与请求距离对照表向所述弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求,If the wind curtailment amount belongs to the second wind curtailment range, the third wind curtailment range... or the Nth wind curtailment range, then according to the wind curtailment range and the request distance comparison table, a configuration electric energy control is sent to the request distance corresponding to the wind curtailment range. Hydrogen and hydrogen fuel power generation component transport vehicle request,

电能制氢及氢燃料发电组件运输车响应该请求,电能制氢及氢燃料发电组件运输车运输至发电风机,并与发电风机的主控制器通过可插拔方式进行电连接;The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle responds to the request, and the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle transports it to the power generation wind turbine, and is electrically connected to the main controller of the power generation wind turbine in a pluggable manner;

其中,若发电风机对应有本地电能制氢及氢燃料发电组件,则启动所述的本地电能制氢及氢燃料发电组件;Among them, if the power generation wind turbine corresponds to local electric energy hydrogen production and hydrogen fuel power generation components, then start the local electric energy hydrogen production and hydrogen fuel power generation components;

对所述的弃风量划分为N个不同的弃风范围的划分方法为根据不同的弃风量用于发电,风机发电能够发出的电量进行划分,其中第一弃风范围发出的电量小于第二弃风范围发出的电量,第二弃风范围发出的电量小于第三弃风范围发出的电量,以此类推,第N弃风范围发出的电量最多。The method of dividing the wind curtailment volume into N different wind curtailment ranges is to divide the amount of electricity that can be generated by wind turbines according to the different amounts of wind curtailment used for power generation, where the electricity generated by the first wind curtailment range is smaller than that of the second wind curtailment range. The power generated by the wind range, the power generated by the second wind curtailment range is less than the power generated by the third wind curtailment range, and so on, the Nth wind curtailment range generates the most power.

进一步地,弃风范围与请求距离对照表的建立方法包括:Further, the method of establishing a comparison table between the wind abandonment range and the requested distance includes:

获取电能制氢及氢燃料发电组件运输车运往发电风机本地的运输成本X的历史数据;Obtain historical data on the transportation cost X of electric hydrogen production and hydrogen fuel power generation component transport vehicles to the local power generation wind turbine;

获取N个弃风范围的弃风量用于发电,风机发电能够发出的电量对应的当地市电价格Y;Obtain the amount of wind curtailment in N wind curtailment ranges for power generation, and the local electricity price Y corresponding to the amount of electricity that the wind turbine can generate;

对电能制氢及氢燃料发电组件运输车的运输成本X和风机发电能够发出的电量对应的当地市电价格Y进行整合,各个弃风范围对应的电能制氢及氢燃料发电组件运输车的请求距离满足条件Y≥1.5X,也即一个弃风范围对应多个电能制氢及氢燃料发电组件运输车的请求距离,且请求距离按照Y与X之间差值的由大至小排列请求优先级。Integrate the transportation costs The distance satisfies the condition Y ≥ 1.5X, that is, a wind curtailment range corresponds to the requested distances of multiple electric hydrogen production and hydrogen fuel power generation component transport vehicles, and the requested distances are prioritized according to the difference between Y and X from large to small. class.

本实施例中,发出配置电能制氢及氢燃料发电组件运输车请求的方法具体包括:In this embodiment, the method of issuing a request to configure a transport vehicle for hydrogen production and hydrogen fuel power generation components specifically includes:

根据请求距离的优先级逐次对一个弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求;若遍历完该弃风范围对应的全部请求距离均未收到响应,则以预定时间间隔向优先级排在第一位的请求距离分别发出配置电能制氢及氢燃料发电组件运输车请求,若发出5次请求后,没有得到响应,则放弃配置电能制氢及氢燃料发电组件运输车请求。According to the priority of the request distance, requests for configuring electric hydrogen production and hydrogen fuel power generation component transport vehicles are issued one by one to the request distance corresponding to a wind curtailment range; if no response is received after traversing all the request distances corresponding to the wind curtailment range, then At predetermined time intervals, requests for configuring electric hydrogen production and hydrogen fuel power generation component transport vehicles are sent to the request distance with the first priority. If no response is received after sending 5 requests, the configuration of electric hydrogen production and hydrogen fuel power generation will be given up. Component Transporter Request.

本实施例中,一辆电能制氢及氢燃料发电组件运输车在预定的时间区间内得到了至少两个发电风机输出的配置电能制氢及氢燃料发电组件运输车请求,所述的电能制氢及氢燃料发电组件运输车的响应方法包括:In this embodiment, an electric energy hydrogen production and hydrogen fuel power generation component transport vehicle has received at least two power generation fan output configuration requests for the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle within a predetermined time interval. Response methods for hydrogen and hydrogen fuel power generation component transport vehicles include:

获取各个发出请求的发电风机的位置信息,根据发电风机的位置信息计算该电能制氢及氢燃料发电组件运输车的运输成本;Obtain the location information of each requested power generation wind turbine, and calculate the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle based on the location information of the power generation wind turbine;

获取各个发电风机的弃风量对应的市电价格,计算各个发电风机的弃风量对应的电能制氢及氢燃料发电组件运输车的运输成本的差值;Obtain the market power price corresponding to the abandoned wind volume of each power generation wind turbine, and calculate the difference in the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle corresponding to the abandoned wind volume of each power generation wind turbine;

选择差值最大的对应的发电风机进行响应。The corresponding power generation fan with the largest difference is selected to respond.

以上所述仅是本发明的优选实施方式,并不用于限制本发明,应当指出,对于本技术领域的普通技术人员来说,在不脱离本发明技术原理的前提下,还可以做出若干改进和变型,这些改进和变型也应视为本发明的保护范围。The above are only preferred embodiments of the present invention and are not intended to limit the present invention. It should be pointed out that for those of ordinary skill in the art, several improvements can be made without departing from the technical principles of the present invention. and modifications, these improvements and modifications should also be regarded as the protection scope of the present invention.

Claims (10)

1.一种风、电、氢微型拓扑网络系统,其特征在于,包括:1. A wind, power and hydrogen micro-topology network system, characterized by including: 发电风机,所述发电风机包括底座,所述底座上设有塔筒,所述塔筒顶端设有风机叶片,所述风机叶片连接风能发电机,所述底座内设有主控制器,所述主控制器通过控制电缆线与蓄电装置连接,所述蓄电装置电连接功率分配器、风能发电机,所述功率分配器与用于将直流电转化为交流电的逆变器电连接;A power generating wind turbine. The power generating wind turbine includes a base. A tower is provided on the base. Fan blades are provided on the top of the tower. The fan blades are connected to the wind energy generator. A main controller is provided in the base. The main controller is connected to a power storage device through a control cable, the power storage device is electrically connected to a power divider and a wind energy generator, and the power divider is electrically connected to an inverter for converting direct current into alternating current; 电能制氢及氢燃料发电组件,所述电能制氢及氢燃料发电组件包括制氢及氢发电控制器以及分别与所述制氢及氢发电控制器电连接的电解水制氢装置、氢燃料发电装置,所述电解水制氢装置的进水端连接储水装置,所述电解水制氢装置的出气端连接储氢装置,所述氢燃料发电装置的进气端连通所述储氢装置,所述氢燃料发电装置在发电过程中产生的水通过水管进入所述储水装置内;Electric energy hydrogen production and hydrogen fuel power generation components, the electric energy hydrogen production and hydrogen fuel power generation components include hydrogen production and hydrogen power generation controllers, and electrolysis water hydrogen production devices and hydrogen fuel that are electrically connected to the hydrogen production and hydrogen power generation controllers respectively. Power generation device, the water inlet end of the electrolysis water hydrogen production device is connected to a water storage device, the air outlet end of the electrolysis water hydrogen production device is connected to a hydrogen storage device, and the air inlet end of the hydrogen fuel power generation device is connected to the hydrogen storage device , the water generated by the hydrogen fuel power generation device during the power generation process enters the water storage device through the water pipe; 所述电能制氢及氢燃料发电组件集成在运输车上,所述的电解水制氢装置采用可插拔方式与所述的功率分配器电连接;The electric energy hydrogen production and hydrogen fuel power generation components are integrated on the transport vehicle, and the electrolysis water hydrogen production device is electrically connected to the power distributor in a pluggable manner; 所述主控制器包括:The main controller includes: 弃风范围与请求距离对照表生成单元,用于将发电风机的弃风量划分为N个弃风范围;对不同的弃风范围分配不同的电能制氢及氢燃料发电组件运输车可请求距离,生成弃风范围与请求距离对照表,其中,所述的可请求距离为电能制氢及氢燃料发电组件运输车距离发电风机的距离;The wind curtailment range and request distance comparison table generation unit is used to divide the wind curtailment volume of power generation wind turbines into N wind curtailment ranges; allocate different electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requestable distances to different wind curtailment ranges. Generate a comparison table between the wind curtailment range and the requested distance, where the requested distance is the distance between the electric hydrogen production and hydrogen fuel power generation component transport vehicle and the power generation wind turbine; 配置请求单元,用于对发电风机的弃风量进行预测,并确定发电风机的弃风量属于哪个弃风范围;Configure a request unit to predict the wind curtailment volume of the power generation wind turbine and determine which wind curtailment range the wind curtailment volume of the power generation wind turbine belongs to; 若弃风量属于第一弃风范围,则判断发电风机是否对应有本地电能制氢及氢燃料发电组件,若有,则启动该本地电能制氢及氢燃料发电组件,利用发电风机输出的多余电量提供电解水制氢装置制氢所需电量;若没有,则不做处理;If the amount of wind curtailment falls within the first wind curtailment range, it is determined whether the power generation fan corresponds to the local electric energy hydrogen production and hydrogen fuel power generation components. If so, the local electric energy hydrogen production and hydrogen fuel power generation components are activated to utilize the excess electricity output by the power generation fan. Provide the electricity required for hydrogen production by the electrolysis water hydrogen production device; if not, no processing will be performed; 若弃风量属于第二弃风范围、第三弃风范围……或第N弃风范围,则根据所述弃风范围与请求距离对照表向所述弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求,If the wind curtailment amount belongs to the second wind curtailment range, the third wind curtailment range... or the Nth wind curtailment range, then according to the wind curtailment range and the request distance comparison table, a configuration electric energy control is sent to the request distance corresponding to the wind curtailment range. Hydrogen and hydrogen fuel power generation component transport vehicle request, 电能制氢及氢燃料发电组件运输车响应该请求,电能制氢及氢燃料发电组件运输车运输至发电风机,并与发电风机的主控制器通过可插拔方式进行电连接;The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle responds to the request, and the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle transports it to the power generation wind turbine, and is electrically connected to the main controller of the power generation wind turbine in a pluggable manner; 其中,若发电风机对应有本地电能制氢及氢燃料发电组件,则启动所述的本地电能制氢及氢燃料发电组件;Among them, if the power generation wind turbine corresponds to local electric energy hydrogen production and hydrogen fuel power generation components, then start the local electric energy hydrogen production and hydrogen fuel power generation components; 对所述的弃风量划分为N个不同的弃风范围的划分方法为根据不同的弃风量用于发电,风机发电能够发出的电量进行划分,其中第一弃风范围发出的电量小于第二弃风范围发出的电量,第二弃风范围发出的电量小于第三弃风范围发出的电量,以此类推,第N弃风范围发出的电量最多。The method of dividing the wind curtailment volume into N different wind curtailment ranges is to divide the amount of electricity that can be generated by wind turbines according to the different amounts of wind curtailment used for power generation, where the electricity generated by the first wind curtailment range is smaller than that of the second wind curtailment range. The power generated by the wind range, the power generated by the second wind curtailment range is less than the power generated by the third wind curtailment range, and so on, the Nth wind curtailment range generates the most power. 2.根据权利要求1所述的风、电、氢微型拓扑网络系统,其特征在于,所述氢燃料发电装置的电能输出端依次经燃料电量控制开关、所述逆变器连接负载。2. The wind, electricity and hydrogen micro topological network system according to claim 1, characterized in that the electric energy output end of the hydrogen fuel power generation device is connected to the load through the fuel power control switch and the inverter in sequence. 3.根据权利要求1所述的风、电、氢微型拓扑网络系统,其特征在于,所述塔筒上设有至少一个太阳能光伏板,所述太阳能光伏板电连接太阳能转换电能装置,所述太阳能转换电能装置电连接所述蓄电装置。3. The wind, electricity and hydrogen micro topology network system according to claim 1, characterized in that at least one solar photovoltaic panel is provided on the tower, and the solar photovoltaic panel is electrically connected to a solar energy conversion device, and the The solar power conversion device is electrically connected to the power storage device. 4.根据权利要求1所述的风、电、氢微型拓扑网络系统,其特征在于,所述塔筒顶部设有避雷针,所述避雷针呈90°弯折绕过发电风机,所述避雷针的顶端高于发电风机。4. The wind, electricity and hydrogen micro topology network system according to claim 1, characterized in that a lightning rod is provided on the top of the tower, and the lightning rod is bent at 90° to bypass the power generation fan, and the top of the lightning rod is Higher than the power generating wind turbine. 5.根据权利要求1所述的风、电、氢微型拓扑网络系统,其特征在于,所述塔筒上设有风力、风速传感器,所述的风力传感器、风速传感器分别电连接所述主控制器,并将所述的风力传感器、风速传感器获取的风力数据、风速数据输出至主控制器保存;5. The wind, electricity and hydrogen micro topological network system according to claim 1, characterized in that the tower is provided with wind power and wind speed sensors, and the wind power sensor and wind speed sensor are electrically connected to the main control unit respectively. device, and output the wind data and wind speed data obtained by the wind sensor and wind speed sensor to the main controller for storage; 所述电能制氢及氢燃料发电组件运输车包括响应选择单元,用于当在预定的时间区间内得到了至少两个发电风机输出的配置电能制氢及氢燃料发电组件运输车请求,所述的电能制氢及氢燃料发电组件运输车的响应方法包括:The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle includes a response selection unit, which is used to receive a configured electric energy hydrogen production and hydrogen fuel power generation component transport vehicle request for the output of at least two power generation fans within a predetermined time interval. The response methods of electric hydrogen production and hydrogen fuel power generation component transport vehicles include: 获取各个发出请求的发电风机的位置信息,根据发电风机的位置信息计算该电能制氢及氢燃料发电组件运输车的运输成本;Obtain the location information of each requested power generation wind turbine, and calculate the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle based on the location information of the power generation wind turbine; 获取各个发电风机的弃风量对应的市电价格,计算各个发电风机的弃风量对应的电能制氢及氢燃料发电组件运输车的运输成本的差值;Obtain the market power price corresponding to the abandoned wind volume of each power generation wind turbine, and calculate the difference in the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle corresponding to the abandoned wind volume of each power generation wind turbine; 选择差值最大的对应的发电风机进行响应。The corresponding power generation fan with the largest difference is selected to respond. 6.根据权利要求1所述的风、电、氢微型拓扑网络系统,其特征在于,所述制氢及氢发电控制器电连接主控制器,所述主控制器输出用于控制所述的电解水制氢装置、氢燃料发电装置工作的控制信号至所述制氢及氢发电控制器。6. The wind, electricity and hydrogen micro topology network system according to claim 1, characterized in that the hydrogen production and hydrogen power generation controller are electrically connected to a main controller, and the output of the main controller is used to control the Control signals for the operation of the water electrolysis hydrogen production device and the hydrogen fuel power generation device are sent to the hydrogen production and hydrogen power generation controller. 7.一种风、电、氢微型拓扑网络组网方法,其特征在于,包括:权利要求1至6任一所述的风、电、氢微型拓扑网络组网系统,所述的方法包括:7. A wind, power, and hydrogen micro-topology network networking method, characterized in that it includes: the wind, power, and hydrogen micro-topology network networking system according to any one of claims 1 to 6, and the method includes: 将发电风机的弃风量划分为N个弃风范围;对不同的弃风范围分配不同的电能制氢及氢燃料发电组件运输车可请求距离,生成弃风范围与请求距离对照表,其中,所述的可请求距离为电能制氢及氢燃料发电组件运输车距离发电风机的距离;Divide the wind curtailment volume of the power generation wind turbine into N wind curtailment ranges; allocate different electric energy hydrogen production and hydrogen fuel power generation component transport vehicle requestable distances to different wind curtailment ranges, and generate a comparison table between the wind curtailment range and the requested distance, where, The above requestable distance is the distance between the electric hydrogen production and hydrogen fuel power generation component transport vehicle and the power generation wind turbine; 对发电风机的弃风量进行预测,并确定发电风机的弃风量属于哪个弃风范围;Predict the wind curtailment volume of power generation wind turbines and determine which wind curtailment range the wind curtailment volume of power generation wind turbines falls into; 若弃风量属于第一弃风范围,则判断发电风机是否对应有本地电能制氢及氢燃料发电组件,若有,则启动该本地电能制氢及氢燃料发电组件,利用发电风机输出的多余电量提供电解水制氢装置制氢所需电量;若没有,则不做处理;If the amount of wind curtailment falls within the first wind curtailment range, it is determined whether the power generation fan corresponds to the local electric energy hydrogen production and hydrogen fuel power generation components. If so, the local electric energy hydrogen production and hydrogen fuel power generation components are activated to utilize the excess electricity output by the power generation fan. Provide the electricity required for hydrogen production by the electrolysis water hydrogen production device; if not, no processing will be performed; 若弃风量属于第二弃风范围、第三弃风范围……或第N弃风范围,则根据所述弃风范围与请求距离对照表向所述弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求,If the wind curtailment amount belongs to the second wind curtailment range, the third wind curtailment range... or the Nth wind curtailment range, then according to the wind curtailment range and the request distance comparison table, a configuration electric energy control is sent to the request distance corresponding to the wind curtailment range. Hydrogen and hydrogen fuel power generation component transport vehicle request, 电能制氢及氢燃料发电组件运输车响应该请求,电能制氢及氢燃料发电组件运输车运输至发电风机,并与发电风机的主控制器通过可插拔方式进行电连接;The electric energy hydrogen production and hydrogen fuel power generation component transport vehicle responds to the request, and the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle transports it to the power generation wind turbine, and is electrically connected to the main controller of the power generation wind turbine in a pluggable manner; 其中,若发电风机对应有本地电能制氢及氢燃料发电组件,则启动所述的本地电能制氢及氢燃料发电组件;Among them, if the power generation wind turbine corresponds to local electric energy hydrogen production and hydrogen fuel power generation components, then start the local electric energy hydrogen production and hydrogen fuel power generation components; 对所述的弃风量划分为N个不同的弃风范围的划分方法为根据不同的弃风量用于发电,风机发电能够发出的电量进行划分,其中第一弃风范围发出的电量小于第二弃风范围发出的电量,第二弃风范围发出的电量小于第三弃风范围发出的电量,以此类推,第N弃风范围发出的电量最多。The method of dividing the wind curtailment volume into N different wind curtailment ranges is to divide the amount of electricity that can be generated by wind turbines according to the different amounts of wind curtailment used for power generation, where the electricity generated by the first wind curtailment range is smaller than that of the second wind curtailment range. The power generated by the wind range, the power generated by the second wind curtailment range is less than the power generated by the third wind curtailment range, and so on, the Nth wind curtailment range generates the most power. 8.根据权利要求7所述的风、电、氢微型拓扑网络组网方法,其特征在于,弃风范围与请求距离对照表的建立方法包括:8. The wind, power, and hydrogen micro-topology network networking method according to claim 7, characterized in that the method for establishing a comparison table between the wind abandonment range and the requested distance includes: 获取电能制氢及氢燃料发电组件运输车运往发电风机本地的运输成本X的历史数据;Obtain historical data on the transportation cost X of electric hydrogen production and hydrogen fuel power generation component transport vehicles to the local power generation wind turbine; 获取N个弃风范围的弃风量用于发电,风机发电能够发出的电量对应的当地市电价格Y;Obtain the amount of wind curtailment in N wind curtailment ranges for power generation, and the local electricity price Y corresponding to the amount of electricity that the wind turbine can generate; 对电能制氢及氢燃料发电组件运输车的运输成本X和风机发电能够发出的电量对应的当地市电价格Y进行整合,各个弃风范围对应的电能制氢及氢燃料发电组件运输车的请求距离满足条件Y≥1.5X,也即一个弃风范围对应多个电能制氢及氢燃料发电组件运输车的请求距离,且请求距离按照Y与X之间差值的由大至小排列请求优先级。Integrate the transportation cost The distance satisfies the condition Y ≥ 1.5X, that is, a wind curtailment range corresponds to the requested distances of multiple electric energy hydrogen production and hydrogen fuel power generation component transport vehicles, and the requested distances are prioritized according to the difference between Y and X from large to small. class. 9.根据权利要求8所述的风、电、氢微型拓扑网络组网方法,其特征在于,发出配置电能制氢及氢燃料发电组件运输车请求的方法具体包括:9. The wind, electricity, and hydrogen micro-topology network networking method according to claim 8, characterized in that the method of issuing a request for configuring electric energy hydrogen production and hydrogen fuel power generation component transport vehicles specifically includes: 根据请求距离的优先级逐次对一个弃风范围对应的请求距离发出配置电能制氢及氢燃料发电组件运输车请求;若遍历完该弃风范围对应的全部请求距离均未收到响应,则以预定时间间隔向优先级排在第一位的请求距离分别发出配置电能制氢及氢燃料发电组件运输车请求,若发出5次请求后,没有得到响应,则放弃配置电能制氢及氢燃料发电组件运输车请求。According to the priority of the request distance, requests for configuring electric hydrogen production and hydrogen fuel power generation component transport vehicles are issued one by one to the request distance corresponding to a wind curtailment range; if no response is received after traversing all the request distances corresponding to the wind curtailment range, then At predetermined time intervals, requests for configuring electric hydrogen production and hydrogen fuel power generation component transport vehicles are sent to the request distance with the first priority. If no response is received after sending 5 requests, the configuration of electric hydrogen production and hydrogen fuel power generation will be given up. Component Transporter Request. 10.根据权利要求8所述的风、电、氢微型拓扑网络组网方法,其特征在于,一辆电能制氢及氢燃料发电组件运输车在预定的时间区间内得到了至少两个发电风机输出的配置电能制氢及氢燃料发电组件运输车请求,所述的电能制氢及氢燃料发电组件运输车的响应方法包括:10. The wind, electricity and hydrogen micro-topology network networking method according to claim 8, characterized in that an electric energy hydrogen production and hydrogen fuel power generation component transport vehicle obtains at least two power generation wind turbines within a predetermined time interval. The output configures the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle request. The response method of the electric energy hydrogen production and hydrogen fuel power generation component transport vehicle includes: 获取各个发出请求的发电风机的位置信息,根据发电风机的位置信息计算该电能制氢及氢燃料发电组件运输车的运输成本;Obtain the location information of each requested power generation wind turbine, and calculate the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle based on the location information of the power generation wind turbine; 获取各个发电风机的弃风量对应的市电价格,计算各个发电风机的弃风量对应的电能制氢及氢燃料发电组件运输车的运输成本的差值;Obtain the market power price corresponding to the abandoned wind volume of each power generation wind turbine, and calculate the difference in the transportation cost of the electric hydrogen production and hydrogen fuel power generation component transport vehicle corresponding to the abandoned wind volume of each power generation wind turbine; 选择差值最大的对应的发电风机进行响应。The corresponding power generation fan with the largest difference is selected to respond.
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