Open Access Open Access  Restricted Access Subscription or Fee Access

Surface Properties of Magneto Plasmons on the Surface of Carbon Nanotubes (CNTs)

DAYA SHANKER, Arjun Mishra

Abstract


The theoretical study of Raman Spectroscopy of CNTs showed that on increasing the diameter of both semiconducting and metallic carbon nanotubes, the energy separation between valence band and conduction band decreases. In this review paper, the author also compares the obtained results with others and it is found that the result is in good agreement but the magnitude is slightly less. The experimental result of Raman Radial Breathing Mode (RBM) frequency is also reported and found that RBM frequency increases with increasing reciprocal diameter for both 635 nm and 785 nm Lasers. The study of Transition Energy Eii with chiral numbers is also done. The author also studies the electromagnetic properties of magneto Plasmons on the surface of CNT in dielectric medium. This study is very important for the characterization of CNTs and other nano-materials and their applications in electronics, opto-electronics and other emerging fields of science and technology.


Keywords


Semiconductors, RBM, Raman Spectroscopy

Full Text:

PDF

References


Bin Hu. Surface Magneto Plasmons and Their Applications. In tech Open.

Pradeep Kumar Sharma. Magneto Plasmon Excitation on the Surface of Condensed Materials. 2016.

Krishna Prasad Singh et al. A Theoretical Study of Raman Spectroscopy of Carbon

Nanotubes and Evaluation of Energy Separation as a Function of Nanotube Diameter. Journal of Pure Applied and Industrial Physics. Vol. 8 (10), 145–152; 2018.

Jaroslaw Sperling and Korbinian Hens, Spectroscopy at the Tip. Physics’ Best, April,(2019).

Qing Zhao et al. Raman spectroscopy of carbon nanotube based composites. Philosophical Transactions Royal Society. 2011.

Boris I. Afinogenov et al. Midinfrared Surface Plasmons in Carbon Nanotube Plasmonic Metasurface. Physical Review Applied 9,024027 (2018).

S.A. Afanas’ev et al. Continuous-wave laser generation of slow THz surface plasmons in an array of single-walled carbon nanotubes. Quantum Electronics 48 (9) 849–853 (2018).

Yue Wang et al. Tailoring terahertz surface Plasmon wave through free-standing multi-walled carbon nanotubes metasurface. Optics Express 15343, Vol. 26, No. 12 (2018), OCIS codes: (160.4236) Nanomaterials; (240.6680) Surface plasmons; (300.6495) Spectroscopy, terahertz.

Irati Soto Lamata et al. Plasmons in Cylindrical 2D Materials as a Platform for Nanophotonic Circuits. ACS Photonics 2,2, 280–286; 2015.

Luis Martin-Moreno et al. Ultra efficient Coupling of a Quantum Emitter to the Tunable Guided Plasmons Of a Carbon Nanotube. PACS Numbers: 78.67.Wj, 73.20.Mf, 2018.

Po-Hsun Ho et al. Intrinsically ultra-strong plasmon-exciton interactions in crystallized films of carbon nanotubes. PNAS, December 11, 2018, Vol. 115, No. 50.

Zhiwen Shi et al. Observation of a Luttinger-liquid plasmon in metallic single-walled carbon nanotubes. Nature Photonics. Vol. 9, August 2015.

Yi Xu, Yee Sin Ang et al. High Sensitivity surface Plasmon Resonance Sensor based on two-dimensional MXene and Transition metal Dichalcogenide: A Theoretical Study. MDPI/ Nanomaterials, 9,165; 2019.

Kazuhiro Yanagi et al. Intersubband plasmons in the quantum limit in gated and aligned carbon nanotubes. nature Communications. 2018; 9:1121


Refbacks

  • There are currently no refbacks.