Wind tunnel model tests of Magnus type wind rotors with a horizontal rotation axis
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Published:
Jun 11, 2013
Issue Vol. 12 No. 2 (2013)
Articles
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Computational analysis of possibility protection of frame bridge object on considerable mining influences
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The effect of braking forces on displacement of integral bridges
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The effect of bond end geometry on steel – FRP joint strength
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Investigation of horizontal forces result in railway viaduct with curved truck
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Engineering modelling of structural details of a bridge
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The application of composites (FRP) in military bridges
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Investigations of dynamic characteristics of a tall industrial chimney due to light wind and solar radiation
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Model tests in wind tunnel of correct work of chimneys and ventilations draughts for a building in compact development
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Resistance of railway vehicles to roll-over in strong across winds
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The Analysis of wind action on building and scaffolding system
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Verification of computational calculations based on physical tests of plane jet used to separate zones full of smoke
135-141
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Wind effects on tall buildings according to own measurements and code approach
143-150
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Wind tunnel model tests of Magnus type wind rotors with a horizontal rotation axis
151-156
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Smoke and heat flow in a large volume building in case of fire
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An influence of foundation settlement on the selected mast structure
245-250
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Main Article Content
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Abstract
The paper presents results of wind tunnel tests of horizontal axis wind rotors of Magnus type. Firstly, measurements of aerodynamic side (lift) force and aerodynamic drag on rotating cylinder attached to horizontal aerodynamic balance were performed. Secondly, the model of single-blade rotor with counterbalance was tested.
Keywords:
Magnus effect, wind turbines, wind rotors, rotating cylinder
Article Details
Matys, P. and Flaga, A. (2013) “Wind tunnel model tests of Magnus type wind rotors with a horizontal rotation axis”, Budownictwo i Architektura, 12(2), pp. 151–156. doi: 10.35784/bud-arch.2115.
