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Growth mechanism of iron-filled carbon nanotubules

Iron-filled nanotubules were synthesized in a carbon arc in the presence of He and Fe(CO)5 gases. The consumption of the Fe(CO)5 inside the arc chamber was controlled by the pressure of the pentacarbonyliron Fe(CO)5 gas. Different shapes and filling extents of nanotubules were found depending on the...

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Published in:Journal of applied physics 1996-07, Vol.80 (1), p.579-581
Main Authors: Zhang, G. L., Ambe, F., du Marchie Van Voorthuysen, E. H., Niesen, L., Szymanski, K.
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Language:English
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description Iron-filled nanotubules were synthesized in a carbon arc in the presence of He and Fe(CO)5 gases. The consumption of the Fe(CO)5 inside the arc chamber was controlled by the pressure of the pentacarbonyliron Fe(CO)5 gas. Different shapes and filling extents of nanotubules were found depending on the pentacarbonyliron concentration supplied. Based on high-resolution transmission electron microscope images, we propose a growth model of iron-filled carbon nanotubules. The growth proceeds through the deposition and surface diffusion of carbon on the liquidlike metal. The hollow tubules probably grow spontaneously.
doi_str_mv 10.1063/1.362720
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title Growth mechanism of iron-filled carbon nanotubules
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