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Symmetry-adapted phonon analysis of nanotubes
Amin Aghaei
, Kaushik Dayal
,
Ryan S. Elliott
Aerospace Engineering and Mechanics
Research output
:
Contribution to journal
›
Article
›
peer-review
11
Scopus citations
Overview
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Keyphrases
Nanotubes
100%
Objective Structures
100%
Symmetry Adapted
100%
Phonons
100%
Phonon Curves
75%
Energy Transport
50%
Long Wavelength
50%
Block-circulant
50%
Hessian
50%
Phonon Stability
50%
Normal Modes of Vibration
50%
Intermediate Space
50%
Optics
25%
Nanostructures
25%
Carbon Nanotubes
25%
Zero Energy
25%
Thermodynamics
25%
Oscillation
25%
Soft Mode
25%
Chirality
25%
Linear Transformation
25%
Second Derivative
25%
Density of States
25%
Hessian Matrix
25%
Real Space
25%
Deformation Mode
25%
Computational Efficiency
25%
Rank-one
25%
Discrete Fourier Transform
25%
Non-crystalline Materials
25%
Structural Mode
25%
Torsional Buckling
25%
Torsional Deformation
25%
Axial Torsion
25%
Armchair Nanotube
25%
Zigzag Nanotube
25%
Phonon Spectrum
25%
Nonlocal Model
25%
Block Diagonal Matrix
25%
Structure Framework
25%
Zero-energy Mode
25%
Axial Elongation
25%
Diagonalizable
25%
Highly Symmetric
25%
Engineering
Nanotubes
100%
Energy Transport
66%
Circulant
66%
Normal Modes
66%
Vibration Mode
66%
Carbon Nanotubes
33%
One Dimensional
33%
Computational Efficiency
33%
Oscillation Characteristic
33%
Deformation Mode
33%
Mode Energy
33%
Diagonal Matrix
33%
Nonlocal Model
33%
Nanomaterial
33%
Real Space
33%
Linear Transformation
33%
Hessian Matrix
33%
Discrete Fourier Transform
33%
Material Science
Nanotubes
100%
Density
33%
Carbon Nanotubes
33%
Chirality
33%
Nanostructure
33%