
Horizontal Axis Wind Turbine Performance Analysis
Author(s) -
Norzelawati Asmuin,
AUTHOR_ID,
Bambang Basuno,
Mohd Fauzi Yaakub,
Nor Adrian Nor Salim,
Mimi Faisyalini Ramli,
Latifah Md Ariffin,
AUTHOR_ID,
AUTHOR_ID,
AUTHOR_ID,
AUTHOR_ID,
AUTHOR_ID
Publication year - 2021
Publication title -
progress in aerospace and aviation technology
Language(s) - English
Resource type - Journals
ISSN - 2821-2924
DOI - 10.30880/paat.2021.01.01.003
Subject(s) - blade element momentum theory , blade element theory , airfoil , turbine , blade (archaeology) , momentum (technical analysis) , thrust , work (physics) , wind speed , radius , mechanics , structural engineering , turbine blade , physics , mathematics , marine engineering , geology , engineering , meteorology , computer science , mechanical engineering , finance , economics , computer security
The present work uses the method of Blade Element Momentum Theory as suggested by Hansen. The method applied to three blade models adopted from Rahgozar S. with the airfoil data used the data provided by Wood D. The wind turbine performance described in term of the thrust coefficient C_T, torque coefficient C_Q and the power coefficient C_p . These three coefficient can be deduced from the Momentum theory or from the Blade element Theory(BET). The present work found the performance coefficient derived from the Momentum theory tent to over estimate. It is suggested to used the BET formulation in presenting these three coefficients. In overall the Blade Element Momentum Theory follows the step by step as described by Hansen work well for these three blade models. However a little adjustment on the blade data is needed. To the case of two bladed horizontal axis wind