Elastic Wave Propagation in 2D Carbon Nano‐Onion Lattices

Abstract This study presents a simple analytical model to investigate wave propagation in 2D carbon nano‐onions (CNOs) and nitrogen‐doped carbon nano‐onions (N‐CNOs) lattices. Furthermore, the dispersion relationships of the waves and bandgaps in these lattices are derived based on Bloch's theorem. The CNOs and N‐CNOs lattices are modeled as infinite 2D mass‐in‐mass structures accurately assembled using linear springs. The Lennard–Jones potential energy is employed to obtain equivalent spring constants. A key finding of this research is the identification of bandgaps within all lattice structures, signifying regions where wave propagation is prohibited. The existence of these bandgaps offers potential for the advancement of adjustable nano‐scale metamaterials.

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Publication Details

Journal
Advanced Theory and Simulations
Published
2024-09-17
DOI
https://doi.org/10.1002/adts.202400444
Citations
2
Primary Topic
Acoustic Wave Phenomena Research
Type
article
Field-Weighted Citation Impact
0.37
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article

Elastic Wave Propagation in 2D Carbon Nano‐Onion Lattices

Esmaeal Ghavanloo, Reza Lashani
2 citations
Advanced Theory and Simulations
Acoustic Wave Phenomena Research
0.37
article

Elastic Wave Propagation in 2D Carbon Nano‐Onion Lattices

Esmaeal Ghavanloo, Reza Lashani
article en
2 citations

Abstract

Abstract This study presents a simple analytical model to investigate wave propagation in 2D carbon nano‐onions (CNOs) and nitrogen‐doped carbon nano‐onions (N‐CNOs) lattices. Furthermore, the dispersion relationships of the waves and bandgaps in these lattices are derived based on Bloch's theorem. The CNOs and N‐CNOs lattices are modeled as infinite 2D mass‐in‐mass structures accurately assembled using linear springs. The Lennard–Jones potential energy is employed to obtain equivalent spring constants. A key finding of this research is the identification of bandgaps within all lattice structures, signifying regions where wave propagation is prohibited. The existence of these bandgaps offers potential for the advancement of adjustable nano‐scale metamaterials.

Advanced Theory and SimulationsVol. 7(12)
Shiraz University (IR)
Openalex Percentile: Top 44%
Acoustic Wave Phenomena Research
0.37
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