电力系统论文中英文献

Harnessing the Power of the SunWith rising fuel costs, climate change concerns and a growing demand for electricity, renewable energy resources such as solar power are becoming an increasingly valuable part of the world's energy mix. Around the globe, businesses and homeowners are harnessing the power of the earth's most abundant natural resource - sunlight - to provide energy using solar power.GE's solar electric power systems and products offer high quality, reliable power generation for residential, commercial and industrial applications. By partnering with the sun, solar energy can supply local power for on-and off-grid applications with zero noise pollution and air emissions. 掌握太阳与不断上涨的燃料成本，气候变化的关注和对电力的需求日益增加，可再生能源资源，如太阳能发电正在成为越来越有价值的一部分，世界上能源结构。全球各地的企业和业主都掌握了地球上最丰富的天然资源-阳光-提供能源利用太阳能发电。 通用电气公司的太阳能电力系统和产品提供高品质，可靠发电的住宅，商业和工业应用。通过与太阳，太阳能可以提供当地的电力，供市民和离网应用与零噪音污染和废气排放。这个不行的话，你去这里看下，应该可以~

太阳光照在半导体p-n结上，形成新的空穴-电子对，在p-n结电场的作用下，空穴由n区流向p区，电子由p区流向n区，接通电路后就形成电流。这就是光电效应太阳能电池的工作原理。 一、太阳能发电方式太阳能发电有两种方式，一种是光—热—电转换方式，另一种是光—电直接转换方式。 （1） 光—热—电转换方式通过利用太阳辐射产生的热能发电，一般是由太阳能集热器将所吸收的热能转换成工质的蒸气，再驱动汽轮机发电。前一个过程是光—热转换过程；后一个过程是热—电转换过程，与普通的火力发电一样.太阳能热发电的缺点是效率很低而成本很高，估计它的投资至少要比普通火电站贵5～10倍.一座1000MW的太阳能热电站需要投资20～25亿美元，平均1kW的投资为2000～2500美元。因此，目前只能小规模地应用于特殊的场合，而大规模利用在经济上很不合算，还不能与普通的火电站或核电站相竞争。 （2） 光—电直接转换方式该方式是利用光电效应，将太阳辐射能直接转换成电能，光—电转换的基本装置就是太阳能电池。太阳能电池是一种由于光生伏特效应而将太阳光能直接转化为电能的器件，是一个半导体光电二极管，当太阳光照到光电二极管上时，光电二极管就会把太阳的光能变成电能，产生电流。当许多个电池串联或并联起来就可以成为有比较大的输出功率的太阳能电池方阵了。太阳能电池是一种大有前途的新型电源，具有永久性、清洁性和灵活性三大优点.太阳能电池寿命长，只要太阳存在，太阳能电池就可以一次投资而长期使用；与火力发电、核能发电相比，太阳能电池不会引起环境污染；太阳能电池可以大中小并举，大到百万千瓦的中型电站，小到只供一户用的太阳能电池组，这是其它电源无法比拟的The sun light in the semiconductor pn junction, the formation of a new hole - electron pairs in the pn junction of the role of the electric field, the hole flow from the n area p areas, electronic flow n by p zone area, connected to the circuit after the current form. This is the photoelectric effect of the working principle of solar cells. First, the way solar power generation solar power in two ways, one is light - heat - electricity conversion mode, and the other is light - electric direct conversion approach. (1) light - heat - electricity conversion of solar radiation through the use of thermal energy generated by power generation, is normally provided by solar collectors to heat absorbed by refrigerant into steam, and steam turbine-driven power generation. A process before it is light - heat conversion process; after a process of heat - electricity conversion process, as with an ordinary power. Drawback of solar thermal power generation is highly inefficient and costly, it is estimated that at least its investment than the average fire Power your 5 to 10 times. a 1000MW of solar thermal power plants need to invest 20 to 25 billion U.S. dollars, an average of 1kW of investment from 2000 to 2500 U.S. dollars. Therefore, at present, can only be applied to small-scale special occasions, and large-scale use in the economy is very uneconomical, but also with ordinary competing power plant or nuclear power plants. (2) Optical - Electric direct conversion approach is the use of the photoelectric effect, solar radiation will be directly converted into electrical energy, light - the basic power conversion is the solar cell device. Solar cell is a kind of volts due to the effects of photovoltaic solar energy will be directly converted into electrical energy device is a semiconductor photodiode, when the sun's light to the photodiode, the photodiode will be the sun's light energy into power, resulting in current. When many cells are connected in series or parallel can be up to become a relatively large output power of a square solar cells. Solar cells is a promising new type of power supply, with a permanent, clean and flexibility of the three major advantages. Solar battery life long, as long as there is sun, solar cells can be an investment in long-term use; and thermal power, nuclear power generation compared to solar cells will not cause environmental pollution; Xinhuanet both solar cells can be as large as one million kilowatts of medium-sized power plants, small enough to only use a solar battery, which is unmatched by other power分给我吧 看Harnessing the Power of the SunWith rising fuel costs, climate change concerns and a growing demand for electricity, renewable energy resources such as solar power are becoming an increasingly valuable part of the world's energy mix. Around the globe, businesses and homeowners are harnessing the power of the earth's most abundant natural resource - sunlight - to provide energy using solar power.GE's solar electric power systems and products offer high quality, reliable power generation for residential, commercial and industrial applications. By partnering with the sun, solar energy can supply local power for on-and off-grid applications with zero noise pollution and air emissions. 掌握太阳与不断上涨的燃料成本，气候变化的关注和对电力的需求日益增加，可再生能源资源，如太阳能发电正在成为越来越有价值的一部分，世界上能源结构。全球各地的企业和业主都掌握了地球上最丰富的天然资源-阳光-提供能源利用太阳能发电。 通用电气公司的太阳能电力系统和产品提供高品质，可靠发电的住宅，商业和工业应用。通过与太阳，太阳能可以提供当地的电力，供市民和离网应用与零噪音污染和废气排放。这个不行的话，你去这里看下，应该可以~ 参考资料： 分现在给我吧

电力工程论文参考文献

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参考文献：

[1]吴在军,胡敏强.基于IEC61850标准的变电站自动化系统研究[J].电网技术,20xx,27(10):61-65

[2]张沛超,高翔.数字化变电站系统结构[J].电网技术,20xx,30(24):73-77

[3]高翔,张沛超.数字化变电站的主要特征和关键技术[J].电网技术,20xx,30(23):67-71

[4]吴国威.基于IEC61850的变电站自动化系统的应用研究[D].浙江大学,20xx年

[5]陈轶玮.数字化变电站实用化研究[D].浙江大学,20xx年

[6]马辉数字化变电站技术丛书)))设计分册[M].北京:中国电力出版社,20xx.

[7]高翔数字化变电站应用技术[M].北京:中国电力出版社,20xx.

[8]吴少华220kV变电站数字化改造工程[J].广东电力,20xx,23(6):38-42.

[9]郭永基.电力系统可靠性分析[M].北京：清华大学出版社,20xx.

[10]王钢,丁茂生,李晓华等.数字继电保护装置可靠性研究[J].中国电机工程学报，20xx,24(7):47-52.

参考文献：

[1]吴在军，胡敏强。基于IEC61850标准的变电站自动化系统研究[J]。电网技术，20xx，27（10）：61—65

[2]张沛超，高翔。数字化变电站系统结构[J]。电网技术，20xx，30（24）：73—77

[3]高翔，张沛超。数字化变电站的主要特征和关键技术[J]。电网技术，20xx，30（23）：67—71

[4]吴国威。基于IEC61850的变电站自动化系统的应用研究[D]。浙江大学，20xx年

[5]陈轶玮。数字化变电站实用化研究[D]。浙江大学，20xx年

[6]马辉数字化变电站技术丛书）））设计分册[M]。北京：中国电力出版社，20xx。

[7]高翔数字化变电站应用技术[M]。北京：中国电力出版社，20xx。

[8]吴少华220kV变电站数字化改造工程[J]。广东电力，20xx，23（6）：38—42。

[9]郭永基。电力系统可靠性分析[M]。北京：清华大学出版社，20xx。

[10]王钢，丁茂生，李晓华等。数字继电保护装置可靠性研究[J]。中国电机工程学报，20xx，24（7）：47—52。