1991
DOI: 10.2514/3.10598
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Refined engineering beam theory based on the asymptotic expansion approach

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Cited by 20 publications
(12 citation statements)
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“…Accurate results are obtained for n = 4 and higher. Similar solutions may also be obtained using the theory presented in [26], resulting in displacements that are inferior to the Timoshenko theory (not presented here). Note in this static case that the exact results may not be obtained directly from the static counterpart of the dynamic solution presented in Section 7.2.…”
Section: Boundary Value Problemssupporting
confidence: 62%
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“…Accurate results are obtained for n = 4 and higher. Similar solutions may also be obtained using the theory presented in [26], resulting in displacements that are inferior to the Timoshenko theory (not presented here). Note in this static case that the exact results may not be obtained directly from the static counterpart of the dynamic solution presented in Section 7.2.…”
Section: Boundary Value Problemssupporting
confidence: 62%
“…Consequently there are n z − 1 BCs at each end in the normal direction as expected. For a prescribed stress using (26) and (29) this results in the set {σ zz,{m,m} , . .…”
Section: End Boundary Conditionsmentioning
confidence: 99%
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“…This is done without assumptions on the displacement field, which is approximated as part of the asymptotic solution process. The problem can be posed from either a weak [3][4][5] or a strong [6][7][8] form of the equations of elasticity and its solution, except for a few particular configurations, needs to be obtained numerically. In general, this problem can be seen as the estimation of how much the actual displacement field in the slender solid deviates from the rigid cross sections along a deformable reference line (which corresponds to the limit h=L !…”
mentioning
confidence: 99%