Bulyarskiy S. V.1, Molodenskiy M. S.1, L’vov P. E.1, Pavlov A. A.1, Anufriev Yu. V.1, Shaman Yu. P.1, Gusarov G. G.1, Modestov K. A.1, Sysa A. V.1, Shevchenko A. R.1
1 Institute of Nanotechnology of Microelectronics, Russian Academy of Sciences, Moscow, Russia
Email: bulyar2954@mail.ru, molodenskiy@mail.ru, lvovpe@sv.uven.ru, alexander.a.pavlov@gmail.com, anufriev.u@inme-ras.ru, shaman.yu.p@yandex.ru, geog1@mail.ru, k.modestov57@yandex.ru, sysa.artem@yandex.ru, starosta5050@gmail.com
The paper studies the effect of hydrogen flow on vapor-phase synthesis of carbon nanotubes in gas discharge plasma. Increasing the hydrogen flow in the reactor reduces the plasma temperature and increases the number of defects in the synthesized nanotubes. Analysis of the thermodynamics of synthesis shows that increasing the hydrogen concentration reduces the activity of the catalyst and reduces the amount of carbon supplied to the growing nanotube, which leads to an increase in the number of defects. Keywords: carbon nanotubes, synthesis, defects.
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