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Solar Engineering of Thermal Processes, Photovoltaics and Wind || Design of Photovoltaic Systems

DOI:10.1002/9781119540328.ch23 出版年份:2020 更新时间:2025-09-16 10:30:52
摘要: This chapter is an anomaly in that the processes it treats are not primarily thermal in nature. However, the equations that are encountered in design of many photovoltaic (PV) systems are very similar to those describing passive heating processes, and design methods based on utilizability concepts have been developed that are analogous to those in Chapter 22 for passive heating. Radiation calculations developed for thermal processes are directly applicable to PV converters. This chapter includes a brief description of PV converters (solar cells), models that describe their electrical and thermal characteristics, a short treatment of models of batteries and other components in the systems, and notes on applications. These serve as introductions to the design method and to comments on simulation of PV systems.
作者: John A. Duffie,William A. Beckman,Nathan Blair
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Investigating the design and performance of photovoltaic systems, including the electrical and thermal characteristics of PV converters, models of batteries and other components, and applications.

The chapter concludes that the same considerations of incident radiation on fixed and tracking surfaces apply to PV systems as in strictly thermal processes. It also notes that the spectral response of PV cells is more significant than in thermal devices. The chapter provides an introduction to the large and dynamic topic of PV cells and their applications, emphasizing the groundwork provided by earlier chapters for understanding both thermal and PV processes.

The chapter notes that detailed models for PV system design do not appear to be needed, and simple models work well. However, the accuracy of these models may be limited by the assumptions made, such as the independence of series resistance from temperature and solar radiation.

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