All-optical Noise-free Circuit using Silicon Nonlinear Kerr Effect Space-Time Distortion Control
DOI:
https://doi.org/10.55674/snrujiti.v1i1.246557Keywords:
Optical noise-free circuit, Silicon microring, Optical noise reduction, Successive filtering, Space-time controlAbstract
A silicon microring resonator system designed for the optical noise-free circuit consists of a silicon microring with two nanorings at its sides and has the form of a Panda-ring resonator. From which the nonlinear Kerr effect is introduced for space-time distortion control. Firstly, the input light (bright soliton) of 1.50 m center wavelength fed into the system with suitable parameters. The space signal with three types of noise (white, blue- and pink) fed into the system for manipulation. Secondly, the controlled space-time signals multiplexed into the circuit via the add port, the successive filtering employed for noisy space-time signal filtering. The optimum space-time distortion formed by the space-time uncertainty saturation, where the squeezing of light was produced and the whispering gallery mode obtained. The novelty of this work is the use of the Pandaring circuit successive filtering with the space-time distortion control based on the circuit's nonlinear Kerr effect, which can achieve the optical noise-free circuit requirement. By using the Optiwave and MATLAB programs, the simulation results obtained. Results were plotted in time, frequency, and wavelength domains, respectively. The selected modulation time signal is femtosecond (fs), in which the noisy signals extracted from the resonant successive filtering signals.
References
F. Prebianca, H. A. Albuquerque, M. W. Beims. Describing intrinsic noise in Chua’s circuit. Physics Letters A (2018) 2420-2423.
A. Raeesi, H. Rabbani, L. Beygi, S. Zokaee. Discretized Gaussian model for nonlinear noise in elastic optical networks. Optics Communications, 460 (2020) 125002.
Y. Chen, S. Fomel. Random noise attenuation using local signal-and-noise orthogonalization. Geophysics 80, 6 (2015) WD1-WD9.
D. Xile, Z, Caiping, J. Jiuchun. Evaluation of SOC estimation method based on EKF/AEKF under noise interference Energy Procedia 152 (2018) 520-525.
T. Jeong, I. H. Bae, H. S. Moon. Noise filtering via electromagnetically induced transparency. Optics Communications, 383 (2017) 31-35.
L. Luo, J. Sun, B. Huang. A novel feedback active noise control for broadband chaotic noise and random noise Applied Acoustics 116(2017) 229-237.
A.E. Willner, M. R. Chitgarha, O. M. Yilmaz. All-optical signal processing. Journal of Lightwave Technology 32, 4(2014) 660-680.
B. Chen, S. Yu, Y. Yu, R. Guo. Nonlinear active noise control system based on correlated EMD and Chebyshev filter. Mechanical System and Signal Processing 130 (2019) 74-86.
S.N. Yao, T. Collins, P. Jancovic. Hybrid method for designing digital Butterworth filters. Computers and Electrical Engineering 38 (2012) 811-818.
A. Bensky. Short-range Wireless Communication. 3rded (Newnes, Elsevier, 2019).
J. Benesty, J. Chen, Y. Huang. Binaural Noise Reduction in the time domain with a stereo setup. IEEE Transaction on Audio, Speech and Language Processing 19, 8 (2011) 2260-2272.
J. Chen, J. Benesty. On the time-domain widely linear LCMV filter for noise reduction with a stereo system. IEEE Transaction on Audio, Speech and Language Processing 21, 7 (2013) 1343-1354.
K. Simonov, B.C. Hiesmayr. Constraints on the noise in dynamical reduction models. Physics Letters A (2016) 1253¬1255.
H. Zhang, X. Chen, J. Yao, X. Shu, C. Liu. Relative intensity noise reduction with fiber ring resonator. Optics Communications, 429 (2018) 163-165.
A. Awad. Impulse noise reduction in audio signal through multi-stage technique. Engineering Science and Technology, an International Journal 22 (2019) 629-635.
J. Chang, L. Zhu, H. Li, F. Xu, B. Liu, Z. Yang. Noise reduction in Lidar signal using correlation-based EMD combined with soft thresholding and roughness penalty. Optics Communications, 407 (2018) 290-295.
J. Babu, A. Ramacahndran, J. Philip, C. S. Chandran. Development of noise reduction panel using piezoelectric material. Procedia Technology 25 (2016) 1022-1029.
C. H. Chang, C. F. Jou. A direct conversion merged LNA-I/Q-mixer with noise reduction using dual cross coupling for WiMAX/WiBro applications. IEEE Microwave and Wireless Components Letters 22, 1 (2012) 32-34.
K. Gharibdoust, M. S. Bakhtiar. A method for noise reduction in active-RC circuits. IEEE Transactions on Circuits and Systems 58, 12 (2011) 906-910.
M. Kubo, J. Taniguchi, M. Kato. Howling reduction by analog phase-locked loop and active noise control circuits Applied Acoustics 87 (2015) 174-182.
M. Bahadoran, J. Ali, P.P. Yupapin. Ultrafast all-optical switching using signal flow graph for PANDA resonator Applied Optics 52, 12 (2013) 2866-2873.
M. Bahadoran, 1.S. Amiri. Double critical coupled ring resonator-based add-drop filters Journal of Theoretical Physics 13 (2019) 213-220.
A.E. Arumona, I.S. Amiri, G. Singh, P. Yupapin. Full-time slot teleportation using unified space-time function control. Microwave and Optical Technological Letters, Early view: https://doi.org/10.1002/mop.32307.
Z. Tan, J. Sun, Y. Li, W. Ren, T. Li. All optical space-to-time mapping using modal dispersion of multimode fiber. Optics Communications, 389 (2017) 79-84.
M. Bunruangses, P. Youplao, I. S. Amiri, N. Pornsuwancharoen, P. Yupapin. Double vision model using space-time function control within silicon microring system. Silicon (2019) 1-6: DOI: 10.1007/s12633-019-00356-6.
H. Fan, X. Gu, D. Zhou, H. Fan, L. Fan, C. Xia. Confined whispering-gallery mode in silica double-toroid microcavities for optical sensing and trapping. Optics Communications, 434 (2018) 97-103.
T. Kyeong Lee, H. S. Kim, G. Y. Oh, B. H. Lee, D. G. Kim, T. K. Chung, D. McCloskey, J. F. Donegan, Y. W. Choi. Systematic analysis of whispering-gallery modes in planar silicon nitride microdisks. Optics Communications, 322 (2014) 188-197.
H.J. Chen, X.W. Mi. Optomechanical dynamics in detuned whispering-gallery modes cavity. Optics Communications, 285 (2012) 673-679.
S. Punthawanunt, M. S. Aziz, P. Phatharacorn, S.Chiangga, Jalil Ali, P. Yupapin. LiFi cross-connection node model using whispering gallery mode of light in a microring resonator, Microsystem Technologies 24 (2018) 4833-4838.
H. B. N. Trong, Y. C. Chang. Whispering gallery modes in hybrid AU-ZnO microsphere resonators: experimental and theoretical investigations Optical Materials Express 7, 8 (2017) 2962-2967.
G.P. Agrawal. Nonlinear fiber optics: its history and recent progress [Invited]. Journal of Optical Society America B 28, 12 (2011) A1-A10.
H. Zhivomirov. A method for colored noise generation. Romanian Journal of Acoustics and Vibration, XV, 1 (2018) 14-19.
P P Yupapin, N. Pornsuwanchroen, S. Chaiyasoonthorn. Attosecond pulse generation using nonlinear micro ring resonators.Microwave and Optical Technological Letters 50 (2008)3108-3111.
P Prateep, C. Surasak, P. Yupapin. Analytical and simulation of a triple micro whispering gallery mode probe system for a 3D blood flow rate sensor. Applied Optics 55 (2016) 9504-9513.
OptiFDTD Technical Background and Tutorials (Finite Difference Time Domain) Photonics Simulation Software, Version 12.0. http://www.optiwave.com, Searched on 20th Sept, 2019.
P Yupapin, C. Teeka, J. Ali. Nanoscale nonlinear PANDA ring resonator. 1st ed. CRC Press (2012).
A. M. Prabhu, A. Tsay, Z. Han, V. Van. Extreme miniaturization of silicon add-drop microring filters for VLSI photonics applications IEEE Photonics Journal 2 (2010)436-444.
Downloads
Published
How to Cite
Issue
Section
License
Copyright (c) 2022 Journal of Industrial Technology and Innovation
This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.
