Cost Effective Large Blade Components by Using Carbon Fibers

Cost Effective Large Blade Components by Using Carbon Fibers

For large off-shore wind turbines, blades with relative low blade mass are becoming more important. The economic use of large-tow carbon fibers can help achieve lower blade masses. Basic material design data have been established for two promising material combinations, including the fatigue propert...

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Veröffentlicht in:Journal of solar energy engineering 2002-11, Vol.124 (4), p.412-418
Hauptverfasser: Joosse, P. A, van Delft, D. R. V, Kensche, Chr, Soendergaard, D, van den Berg, R. M, Hagg, F
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Economics
fatigue
Q1
Solar energy
Wind energy
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container_end_page 418
container_issue 4
container_start_page 412
container_title Journal of solar energy engineering
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creator Joosse, P. A
van Delft, D. R. V
Kensche, Chr
Soendergaard, D
van den Berg, R. M
Hagg, F
description For large off-shore wind turbines, blades with relative low blade mass are becoming more important. The economic use of large-tow carbon fibers can help achieve lower blade masses. Basic material design data have been established for two promising material combinations, including the fatigue properties for Panex33/epoxy. Blade root joints have been developed in a carbon/glass combination, resulting in a better price performance ratio. The initial cost assessment on a blade dominated by severe fatigue loads shows that application of carbon fibers in the spar leads to cost reductions.
doi_str_mv 10.1115/1.1510526
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source ASME Transactions Journals (Current)
subjects Economics
fatigue
Q1
Solar energy
Wind energy
title Cost Effective Large Blade Components by Using Carbon Fibers
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