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Using a field-assisted simultaneous synthesis and transfer method to print CIGS thin-film PV devices

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By Louay Eldada, CTO, HelioVolt Corp.

In recent years, a new generation of solar electric products has emerged from the lab into the global market: thin-film technologies that employ approximately 1% of the active, expensive photovoltaic material used by standard crystalline-silicon cells. Through a combination of cost advantages and new product applications, CdTe, a-Si and CIGS thin-film PV have the potential to foster a paradigm shift toward distributed electricity generation at cost parity with other forms of energy. But until recently, the photoactive compound has not had a reliable, rapid manufacturing process that could scale effectively to multi-megawatt-scale volume production and provide significant amounts of electricity at the point of use. This article describes a novel process, known as field-assisted simultaneous synthesis and transfer (FASST) printing, a manufacturing approach that enables the rapid printing of microscale CIGS films with p- and n-type nanodomains that are critical for achieving the highest efficiencies possible.

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The third edition of Photovoltaics International was published in February 2009. In Thin films we offer Heliovolt enabling rapid printing of microscale CIGS films, and Q-Cells presents requirements for improving diffusion techniques for higher efficiency solar cells in Cell Processing. In Market Watch, we discuss how the USA Stimulus Bill will benefit you.

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