Non-vacuum printing process for CIGS solar cells on rigid and flexible substrates
V. K. Kapur, Amrit Kaur Bansal, Phucan Le, Omar Isaac Asensio
Abstract
V. K. Kapur, Amrit Kaur Bansal, Phucan Le, Omar Isaac Asensio
Abstract
ISET has developed an ink based non-vacuum process for fabricating thin film CIGS solar cells both on rigid and flexible substrates. The key benefits of this process are (1) controlled stoichiometry of the absorber layer resulting in a high process yield, (2) high materials utilization and (3) low cost of processing equipment. The combined effect of these attributes of this process is low-cost manufacturing of CIGS solar cells. Using this process, ISET has fabricated CIGS solar cells on glass and other flexible substrates. The highest conversion efficiency observed in CIGS solar cells fabricated is 13.6% on glass substrate and 10.1% on Mo foil. Because this process uses inks, a number of relatively low cost printing technologies are available for processing absorber layers in CIGS solar cell. The basic principles of this novel approach and the results obtained are discussed in this paper.
OpenAlex reports 11 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
ISET has developed an ink based non-vacuum process for fabricating thin film CIGS solar cells both on rigid and flexible substrates. The key benefits of this process are (1) controlled stoichiometry of the absorber layer resulting in a high process yield, (2) high materials utilization and (3) low cost of processing equipment. The combined effect of these attributes of this process is low-cost manufacturing of CIGS solar cells. Using this process, ISET has fabricated CIGS solar cells on glass and other flexible substrates. The highest conversion efficiency observed in CIGS solar cells fabricated is 13.6% on glass substrate and 10.1% on Mo foil. Because this process uses inks, a number of relatively low cost printing technologies are available for processing absorber layers in CIGS solar cell. The basic principles of this novel approach and the results obtained are discussed in this paper.
Key concepts: Copper indium gallium selenide solar cells, Materials science, Quantum dot solar cell, Solar cell, FOIL method, Substrate (aquarium), Thin film solar cell, Process (computing)