Journal of Experimental Biology · 1996 · 97 citations · 28 references
Natural SciencesBiophysicsEcologyBiomechanicsMarine EcologyOcean WavesComputational BiomechanicsExtreme Ocean WavesHydrodynamic ResponseMarine HydrodynamicsSurface Wave DynamicsWave BreakingHydro-mechanical CouplingHydro-mechanical EffectsLocal TensionsWave Exposure EffectsWave Forces On StructuresWave Impact ForcesWave Impact LoadsWave-breaking Effects
We propose a hydro-mechanical numerical model that predicts the maximal tension to which stipes of the giant kelp Macrocystis pyrifera will be subjected when exposed to ocean waves. Predicted maximal tensions are close to those measured in the field. The strength of Macrocystis pyrifera stipes was measured, allowing our prediction of forces to be translated into a prediction of the fraction of stipes broken. Predicted breakage is low even for extreme storm waves, a testament to the mechanical design of individual kelp fronds. However, empirically measured rates of kelp mortality can be high, considerably higher than those predicted on the basis of hydrodynamic forces acting alone. This indicates that factors not taken into account in our model (such as holdfast dislodgment, entanglement of stipes, damage from herbivory and wave breaking) contribute substantially to mortality in Macrocystis pyrifera.
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On the Economy of Plant Form and Function.
Paul S. Mankiewicz, Thomas J. Givnish · Bulletin of the Torrey Botanical Club · 1988 · 1.1K citations
Life Sciences, Botany, Plant Biology +11
<i>An Introduction to Fluid Mechanics</i>
G. K. Batchelor, A. D. Young · Journal of Applied Mechanics · 1968 · 1K citations · Full text
Introduction to Fluid Mechanics
H. K. Moffatt, E. B. McLeod · The Mathematical Gazette · 1966 · 605 citations
Engineering, Mathematics, Physics +12