We present a visual, intuitive connection between optical absorption line shapes and the underlying carbon nanotube structures. Within the tight-binding model, the absorption spectra can be linked directly to plots of energy contours and transition dipoles of a graphene sheet. Via two additional approaches, spectral features are shown only slightly altered by electronic correlations and σ-π orbital rehybridization. Despite dependence of electronic structures on chiral angles, it is proved that, if the tube diameter D is greater than the C-C bond length a, the absorption spectra are determined by D to the lowest order in a/D. © 2004 Elsevier B.V. All rights reserved.link_to_subscribed_fulltex
Optical properties of a series of finite sized hydrogenated carbon nanotubes with the smallest diame...
Here we present a parametrized tight-binding (TB) model to calculate the band structure of single-wa...
The unique optical properties of low dimensional carbon nanostructures, such as graphene nanoribbons...
We present a visual, intuitive connection between optical absorption line shapes and the underlying ...
We present a visual, intuitive connection between optical absorption line shapes and the underlying ...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
The electronic structures of a series of carbon nanotubes with different sizes, chiralities, ends, a...
We calculated the optical absorption spectrum response of single-walled carbon nanotubes under charg...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
Absorption-spectral features of single-walled carbon nanotubes, Chemical physics letters. 387(1-3)
The electronic structure and optical properties of single-wall carbon nanotubes (SWCN's) have been s...
$^{a}$ S. Yokojima, and G. H. Chen, Chem. Phys. Lett. 292, 379 (1998).Author Institution: Department...
Optical properties of a series of finite sized hydrogenated carbon nanotubes with the smallest diame...
Here we present a parametrized tight-binding (TB) model to calculate the band structure of single-wa...
The unique optical properties of low dimensional carbon nanostructures, such as graphene nanoribbons...
We present a visual, intuitive connection between optical absorption line shapes and the underlying ...
We present a visual, intuitive connection between optical absorption line shapes and the underlying ...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
The electronic structures of a series of carbon nanotubes with different sizes, chiralities, ends, a...
We calculated the optical absorption spectrum response of single-walled carbon nanotubes under charg...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
We discuss how tight-binding band-structure calculations with a chirality- and diameter-dependent ne...
Absorption-spectral features of single-walled carbon nanotubes, Chemical physics letters. 387(1-3)
The electronic structure and optical properties of single-wall carbon nanotubes (SWCN's) have been s...
$^{a}$ S. Yokojima, and G. H. Chen, Chem. Phys. Lett. 292, 379 (1998).Author Institution: Department...
Optical properties of a series of finite sized hydrogenated carbon nanotubes with the smallest diame...
Here we present a parametrized tight-binding (TB) model to calculate the band structure of single-wa...
The unique optical properties of low dimensional carbon nanostructures, such as graphene nanoribbons...