Wave Propagation Analysis for Fluid-Filled Single-Walled Carbon Nanotubes Based on Analytically Nonlocal Euler-Bernoulli Beam Model
2014 ◽
Vol 875-877
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pp. 917-922
Keyword(s):
Applying variation principle, the analytical nonlocal Euler-Bernoulli beam models for wave propagation in fluid-filled single-walled carbon nanotubes are established. The novel nonlocal governing equations are derived and used in wave propagation analysis. Comparing with partial nonlocal Euler-Bernoulli beam models used previously, the novel analytical nonlocal models predict stiffness enhancement of CNT and wave decaying at high wavenumber or high nonlocal effect area. Though the novel analytical model is less sensitive than partial nonlocal model when fluid velocity is high, it simulate much high nonlocal effect than the corresponding partial model in many cases.
Mathematical Analysis for Wave Propagation Characteristics of Fluid-Filled Nonlocal Carbon Nanotubes
2013 ◽
Vol 444-445
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pp. 209-213
2019 ◽
Vol 6
(9)
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pp. 095048
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2015 ◽
Vol 66
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pp. 283-292
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2016 ◽
Vol 6
(24)
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pp. 8418-8427
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2012 ◽
Vol 9
(4)
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pp. 497-514
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2012 ◽
Vol 9
(6)
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pp. 633-641
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2012 ◽
Vol 45
◽
pp. 86-96
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