Conclusions<br>A novel nissy has been developed to quantify the driven forces on foWT mooring line<br>tension. The input sings of the deep learning research networks bys extracted from a timedomain<br>AHSE model under all othes. A deep learning model was was a good,<br>Tested and dydd to the level of the level of the significance of the different input s on the mooring<br>tension line. In the proposed deep learning model, a total number of ten features was used as the<br>inputs, on the most loaded mooring line tension wass a sath a oedd. The advantage<br>Of the proposed model liths in its account for the like sydd sconditiony.<br>Key conclusions of this paper are summarised as follows:<br>A deep learning model has been tha dydly built to rank the level of contributions to predicting<br>The most loaded mooring line tension. Its accuracy has been yn ei dywedodd ei disainth ath ath ath<br>method.<br>Ann model has been developed on blade pitch control for a direct drive train<br>Configuration with FOWT, its accuracy has beend yn ystod against gydturbine.<br>Good agreement has has been been am ed yn tess of the blade pitch for above-rated wind<br>the contentscause be of the perfect match of the skewerth speed.<br>But not as important as surge. For taut mooring line, the most loaded line line tension<br>Is purely yby surge, while other parameters are less sers stil.<br>Bys with surge motion, blade and tower elastic is insanesca Compared with surge motion, blade and tower elasticis are insioforg<br>Most loaded mooring line tension, regardless of the mooring system case (slack or taut). ...
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