Cookies ussage consent
Our site saves small pieces of text information (cookies) on your device in order to deliver better content and for statistical purposes. You can disable the usage of cookies by changing the settings of your browser. By browsing our site without changing the browser settings you grant us permission to store that information on your device.
I agree, do not show this message again.Role of noise-binding energy interplay on Stark shift and dipole polarizabilities of impurity doped quantum dots
AINDRILA BERA1, ANUJA GHOSH1, MANAS GHOSH1,*
Affiliation
- Department of Chemistry, Physical Chemistry Section, Visva-Bharati University, Santiniketan, Birbhum 731235, West Bengal, India
Abstract
Current work explores the influence of noise-binding energy (BE) interplay on three important electrical properties of GaAs quantum dot (QD) containing impurity. The said properties are Stark shift (SS), static dipole polarizability (SDP) and dynamic dipole polarizability (DDP). The study exploits Gaussian white noise and as a dopant we invoke Gaussian impurity. The route of introduction of noise to the system noticeably affects the said interplay giving rise to important characteristics in the manifestation of above properties. Only in case of DDP, the control of external photon energy also appears to be significant. On the whole, the study reveals that by delicate adjustment of several control parameters it is indeed feasible to fine-tune the noise-BE interplay and consequently the above three electrical properties of doped QD system..
Keywords
Quantum dot, Binding energy, Stark shift, Static dipole polarizability, Dynamic dipole polarizability, Gaussian white noise.
Submitted at: Jan. 14, 2019
Accepted at: Aug. 20, 2019
Citation
AINDRILA BERA, ANUJA GHOSH, MANAS GHOSH, Role of noise-binding energy interplay on Stark shift and dipole polarizabilities of impurity doped quantum dots, Journal of Optoelectronics and Advanced Materials Vol. 21, Iss. 7-8, pp. 499-504 (2019)
- Download Fulltext
- Downloads: 557 (from 350 distinct Internet Addresses ).