Abstract

3D interference fringe pattern recognition using a plasmonic sensing circuit is proposed. The plasmonic sensing in the form of a panda ring comprises an embedded gold grating at the microring center. WGM (whispering gallery mode) is observed at the microring center with suitable parameters. The dark soliton of 1.50 µm wavelength excites the gold grating which leads to electron cloud oscillation and forms the electron densities where the trapped electrons inside the silicon microring are transported via wireless connection using WGM and cable connection. The spin down \(\left| \downarrow \right\rangle\left( {\left| 1 \right\rangle } \right)\) and spin up \(\left| \uparrow \right\rangle\left( {\left| 0 \right\rangle } \right)\) result from the electron cloud oscillation. By using the changes in gold lengths, the excited electron pattern recognition can be manipulated, where the values “0” and “1” are useful for pattern recognition. The fringe patterns of the plasmonic interferometric sensor are recorded, which means that the novel 3D pattern recognition can be possibly implemented and used in many applications. Therefore, the plasmonic sensing circuit can be used to form the quantum code, quantum encryption, quantum sensor, and pattern recognition.

Highlights

  • Pattern recognition involves the observation and recognition of regularities in a data set, which is generally classified according to the procedure or method used in generating the patterns

  • The 3D pattern recognition system is given in Figure 1, where the plasmonic sensor is formed by a gold grating driven by a space function

  • 10|of electrons results when the gold gratings are illuminated by the input light where the electron density[n is formed by the electron cloud oscillations.In manipulation, the change in the trapped electron density is formed by changing the gold sensing arm length

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Summary

Introduction

Pattern recognition involves the observation and recognition of regularities in a data set, which is generally classified according to the procedure or method used in generating the patterns. The plasmonic sensing circuit is employed for the construction and recognition of 3D fringe patterns that result from the interference of the input light of the circuit. To produce interference fringe patterns different instruments are used for this purpose One such instrument is the interferometer, which comes in different shapes and sizes, but the main working principle is the interference of light from different sources to produce the interference fringe patterns (Kowsari and Saghaei 2018). The plasmonic sensing circuit in this present work has been employed for 3D quantum interferometer (Arumona et al 2020). Extracted parameters from the OptiFDTD results are used by the Matlab program to simulate 3D interference fringe and the results have been interpreted for 3D interference fringe pattern recognition

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