Non-IPR Fullertube Series C<sub>10+10+6<i>n</i></sub>: A Theoretical Prediction

While a few fullertubes satisfying the isolated pentagon rule have been experimentally synthesized, non-IPR isomers may become accessible through endohedral or exohedral functionalization. Density functional theory has been used to predict a novel class of non-IPR [3,3] fullertube chlorides, attributed to the release of strains from a triplet of directly fused pentagons (TDFP) in the fullertube end-caps. Additionally, we proposed that the growth of fullertubes proceeds via the continuous insertion of C<sub>2</sub> fragments, involving nonclassical fullerene intermediates containing heptagonal rings. These findings have significant implications for the synthesis of novel fullertube structures and, more broadly, carbon nanotubes.

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Publication Details

Journal
ACS Omega
Published
2025-09-22
DOI
https://doi.org/10.1021/acsomega.5c03858
Primary Topic
Fullerene Chemistry and Applications
Type
article
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article

Non-IPR Fullertube Series C10+10+6n: A Theoretical Prediction

Anan Wu, Kexin Ma, Xin Lü, Kai Tan
ACS Omega
Fullerene Chemistry and Applications
article

Non-IPR Fullertube Series C10+10+6n: A Theoretical Prediction

Anan Wu, Kexin Ma, Xin Lü, Kai Tan
article en

Abstract

While a few fullertubes satisfying the isolated pentagon rule have been experimentally synthesized, non-IPR isomers may become accessible through endohedral or exohedral functionalization. Density functional theory has been used to predict a novel class of non-IPR [3,3] fullertube chlorides, attributed to the release of strains from a triplet of directly fused pentagons (TDFP) in the fullertube end-caps. Additionally, we proposed that the growth of fullertubes proceeds via the continuous insertion of C<sub>2</sub> fragments, involving nonclassical fullerene intermediates containing heptagonal rings. These findings have significant implications for the synthesis of novel fullertube structures and, more broadly, carbon nanotubes.

ACS OmegaVol. 10(38)
Solid State Physics Laboratory (IN), Xiamen University (CN), Computational Physics (United States) (US)
Openalex Percentile: Top 81%
Fullerene Chemistry and Applications
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Non-IPR Fullertube Series C<sub>10+10+6<i>n</i></sub>: A Theoretical Prediction — Anan Wu, Kexin Ma, et al. · ACS Omega (2025) | TGRS Research Map | TGRS