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首页> 外文期刊>Renewable & Sustainable Energy Reviews >Development of a simple analytical model to quantify the PV module cost premium associated with module efficiency and cell technology
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Development of a simple analytical model to quantify the PV module cost premium associated with module efficiency and cell technology

机译:开发简单的分析模型以量化与组件效率和电池技术相关的PV组件成本溢价

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摘要

A simple analytical model and corresponding analytical equations were developed to rapidly determine the module cost premium associated with module efficiency, temperature coefficient (gamma), irradiance weighted operating cell temperature (T-iwoct), and balance of system (BOS) cost. The model provides guidelines for selecting the most appropriate photovoltaic (PV) module for a given application and establishes the price of various modules without affecting the LCOE. Analytical calculations in this paper were verified with the more elaborate PV system analysis program called the System Advisor Model (SAM) from National Renewable Energy Laboratory (NREL). For example, it is shown that 16% efficient $1/W module with area-related BOS cost=$1/W, total BOS cost=$2/W, gamma= -0.45%/degrees C, and T-iwoct=47.3 degrees C is equivalent to a 20% $1.20/W module if BOS, gamma, and T-iwoct remain the same. This corresponds to a premium of $0.20/W due to a higher efficiency. If the 20% efficient module has gamma of -0.40%/degrees C instead of -0.45%/degrees C, then it will produce more energy, so the module cost can be increased to $1.24/W without altering levelized cost of electricity (LCOE). This corresponds to an additional price premium of $0.04/W due to gamma. If T-iwoct is reduced to 42.3 degrees C instead of 47.3 degrees C by cooling or changing location, then another $0.06/W premium can be added on the module cost. (C) 2014 Elsevier Ltd. All rights reserved.
机译:开发了一个简单的分析模型和相应的分析方程式,以快速确定与模块效率,温度系数(γ),辐照度加权工作电池温度(T-iwoct)和系统平衡(BOS)成本相关的模块成本溢价。该模型提供了为给定应用选择最合适的光伏(PV)组件的指南,并确定了各种组件的价格而不影响LCOE。美国国家可再生能源实验室(NREL)使用称为“系统顾问模型(SAM)”的更精细的光伏系统分析程序验证了本文中的分析计算。例如,显示出效率为16%的$ 1 / W模块,其中与区域相关的BOS成本= $ 1 / W,总BOS成本= $ 2 / W,gamma = -0.45%/摄氏度,T-iwoct = 47.3摄氏度如果BOS,γ和T-iwoct保持不变,则相当于20%的$ 1.20 / W模块。由于效率更高,这相当于$ 0.20 / W的溢价。如果效率为20%的模块的伽马值为-0.40%/°C,而不是-0.45%/°C,则它将产生更多的能量,因此模块成本可以增加到$ 1.24 / W,而不会改变平均电费成本(LCOE )。这对应于由于伽玛造成的$ 0.04 / W的额外价格溢价。如果通过冷却或更改位置将T-iwoct降低至42.3摄氏度而不是47.3摄氏度,则模块成本可能会再增加0.06美元/瓦。 (C)2014 Elsevier Ltd.保留所有权利。

著录项

  • 来源
    《Renewable & Sustainable Energy Reviews》 |2014年第9期|380-385|共6页
  • 作者单位

    Georgia Inst Technol, Sch Elect & Comp Engn, Univ Ctr Excellence Photovolta Res & Educ, Atlanta, GA 30332 USA;

    Georgia Inst Technol, Sch Elect & Comp Engn, Univ Ctr Excellence Photovolta Res & Educ, Atlanta, GA 30332 USA|Suniva Inc, Norcross, GA 30092 USA;

    Photovoltech NV, Ind Area West Grijpen, B-3300 Tienen, Belgium;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    Photovoltaic; Analytical model; Module cost; LCOE;

    机译:光伏;分析模型;模块成本;LCOE;

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