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   <ref-type name="Journal Article">17</ref-type>
   <contributors>
    <authors>
     <author></author>
     <author></author>
     <author></author>
     <author></author>
     <author></author>
     <author></author>
    </authors>
   </contributors>
   <titles>
    <title></title>
   </titles>
   <dates>
    <year>2022</year>
    <pub-dates>
     <date>2023-01-26</date>
    </pub-dates>
   </dates>
   <doi>10.1016/j.mechmat.2022.104460</doi>
   <abstract>A single-walled carbon nanotube (CNT) bundle under shock loading in lateral direction is studied by means of&#13;
the chain model with reduced number of degrees of freedom. One or two compressive shock waves are initiated&#13;
by a piston moving at a constant speed 𝑉0&#13;
. At lower piston speeds, only the faster wave front resulting in an&#13;
elliptization of CNTs propagates, while at higher speeds this is followed by the slower wave front resulting&#13;
in CNT collapse. Time evolution of the CNT bundle structure during compression is investigated in detail.&#13;
Energy absorption rate 𝑊 as a function of the piston speed 𝑉0&#13;
is evaluated for bundles having CNTs of&#13;
different diameter 𝐷. Bundles with smaller CNT diameter demonstrate a higher energy absorption rate scaling&#13;
as 𝑊 ∼ 𝐷−3. The rate of energy absorption increases bilinearly with 𝑉0&#13;
, and in the regime of CNT collapse&#13;
the slope of the line is twice as high as in the case when only elliptization takes place. The obtained results&#13;
can be useful for the development of new types of elastic dampers.</abstract>
   <urls>
    <web-urls>
     <url>https://repo.bashgmu.ru/publication/3941</url>
    </web-urls>
    <pdf-urls>
     <url>https://repo.bashgmu.ru/files/4117</url>
    </pdf-urls>
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