Nonlinear normal modes, resonances and energy exchange in single-walled carbon nanotubes

被引：25

作者：

Strozzi, Matteo ^{[1
]}

Smirnov, Valeri V. ^{[2
]}

Manevitch, Leonid, I ^{[2
]}

Pellicano, Francesco ^{[3
]}

机构：

[1] Univ Modena & Reggio Emilia, Dept Sci & Methods Engn, Via Giovanni Amendola 2, I-42122 Reggio Emilia, Italy

[2] Russian Acad Sci, NN Semenov Inst Chem Phys, 4 Kosygina St, Moscow 119991, Russia

[3] Univ Modena & Reggio Emilia, Dept Engn Enzo Ferrari, Via Pietro Vivarelli 10-1, I-41125 Modena, Italy

来源：

INTERNATIONAL JOURNAL OF NON-LINEAR MECHANICS | 2020年 / 120卷

基金：

俄罗斯科学基金会;

关键词：

Carbon nanotubes; Nonlinear oscillations; Resonance interactions; Normal modes; Threshold values; Coherence domains; Energy localization; LINEAR VIBRATIONS; SHELL;

D O I：

10.1016/j.ijnonlinmec.2019.103398

中图分类号：

O3 [力学];

学科分类号：

08 ; 0801 ;

摘要：

The nonlinear resonance interaction and energy exchange between bending and circumferential flexure modes in single-walled carbon nanotubes is studied. First, the results of an analytical model of the resonance interaction between the considered nonlinear normal modes previously developed are reported. This approach was based on a reduced form of the Sanders-Koiter thin shell theory obtained by using simplifying hypotheses on the shell deformations. The analytical model predicted that the nonlinear resonance interaction leads to energy localization in a certain coherence domain over the carbon nanotube surface within a specific range of the initial oscillation amplitude. Then, a numerical model of the resonance interaction between the analysed nonlinear normal modes in the framework of the complete Sanders-Koiter thin shell theory is reported. Numerical simulations are performed to verify the energy localization phenomenon over the carbon nanotube surface and to compute the threshold values of the initial oscillation amplitude giving rise to energy localization. Finally, from the comparison between the two different approaches, it is obtained that the results of the numerical model for the threshold values of the nonlinear energy localization confirm with very good accuracy the predictions of the analytical model.

引用

页数：19

共 50 条

[21] STM study of single-walled carbon nanotubes [J].

Kim, P ;

Odom, TW ;

Huang, JL ;

Lieber, CM .

CARBON, 2000, 38 (11-12) :1741-1744

[22] Diameter control of single-walled carbon nanotubes [J].

Kataura, H ;

Kumazawa, Y ;

Maniwa, Y ;

Ohtsuka, Y ;

Sen, R ;

Suzuki, S ;

Achiba, Y .

CARBON, 2000, 38 (11-12) :1691-1697

[23] Piezoresistive effect in single-walled carbon nanotubes [J].

Lyapkosova, O. S. ;

Lebedev, N. G. .

PHYSICS OF THE SOLID STATE, 2012, 54 (07) :1501-1506

[24] Excitons in semiconducting single-walled carbon nanotubes [J].

Zhao, HB ;

Mazumdar, S .

SYNTHETIC METALS, 2005, 155 (02) :250-253

[25] Piezoresistive effect in single-walled carbon nanotubes [J].

O. S. Lyapkosova ;

N. G. Lebedev .

Physics of the Solid State, 2012, 54 :1501-1506

[26] Purification and fractionation of single-walled carbon nanotubes [J].

Scheibe, Blazej ;

Borowiak-Palen, Ewa ;

Kalenczuk, Ryszard J. .

JOURNAL OF NANOPARTICLE RESEARCH, 2011, 13 (11) :5769-5780

[27] Transport spectroscopy of single-walled carbon nanotubes [J].

Cobden, DH ;

Bockrath, M ;

Chopra, NG ;

Zettl, A ;

McEuen, PL ;

Rinzler, A ;

Thess, A ;

Smalley, RE .

PHYSICA B-CONDENSED MATTER, 1998, 249 :132-135

[28] The problem of purifying single-walled carbon nanotubes [J].

Vivekchand, SRC ;

Jayakanth, R ;

Govindaraj, A ;

Rao, CNR .

SMALL, 2005, 1 (10) :920-923

[29] Oxygen interaction with single-walled carbon nanotubes [J].

Barberio, M. ;

Barone, P. ;

Bonanno, A. ;

Xu, F. .

SUPERLATTICES AND MICROSTRUCTURES, 2009, 46 (1-2) :365-368

[30] Physisorption of hydrogen in single-walled carbon nanotubes [J].

Sudan, P ;

Züttel, A ;

Mauron, P ;

Emmenegger, C ;

Wenger, P ;

Schlapbach, L .

CARBON, 2003, 41 (12) :2377-2383

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