Optimized plasmonic reversible logic gate for low loss communication

Choudhary Kuldeep; Kumar Santosh

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Optimized plasmonic reversible logic gate for low loss communication

机译：低损耗通信优化等离子体可逆逻辑门

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With the development of plasmonic optical waveguides, numerous nanostructures based on different materials can be fabricated in a controlled way. While doing reversible computing, reversible logic gates are the necessary requirement to reduce the loss of information with less power consumption. The proposed design of the Feynman logic gate is simulated by a cascading metal-insulator-metal optical waveguide based on Mach-Zehnder interferometers. The footprint of the proposed Feynman logic gate is 62 mu m x 9 mu m, the extinction ratio is 10.57 dB, and the insertion loss is -0.969 dB and -1.191 dB, which is much better compared to an electro-optic-based exiting Feynman logic gate. The results are obtained by simulating the proposed structure using the finite difference time domain method and verified by using mathematical computation in MATLAB. (C) 2021 Optical Society of America

机译：随着等离子体光波导的发展，许多基于不同材料的纳米结构可以以可控的方式制造。在进行可逆计算时，可逆逻辑门是以较少的功耗减少信息损失的必要条件。用基于马赫-曾德尔干涉仪的级联金属-绝缘体-金属光波导模拟了费曼逻辑门的设计。提出的费曼逻辑门的占地面积为62μm×9μm，消光比为10.57 dB，插入损耗为-0.969 dB和-1.191 dB，这比现有的基于电光的费曼逻辑门要好得多。利用时域有限差分法对所提出的结构进行了仿真，并在MATLAB中进行了数学计算验证。（2021）美国光学学会

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《Applied optics》 |2021年第16期|共6页
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Choudhary Kuldeep; Kumar Santosh;
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DIT Univ Adv Res Lab Dept Elect &

Elect &

Commun Engn Dehra Dun 248009 Uttarakhand India;

DIT Univ Adv Res Lab Dept Elect &

Elect &

Commun Engn Dehra Dun 248009 Uttarakhand India;

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3. Lightweight porous silica foams with extreme-low dielectric permittivity and loss for future 6G wireless communication technologies [J] . Petra S.Pálv(o)lgyi, Sami Myllym(a)ki, Akos Kukovecz, 纳米研究（英文版） . 2021,第005期
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8. Design of low power barrel shifter and vedic multiplier with kogge-stone adder using reversible logic gates [C] . G. V. Nikhil, B. P. Vaibhav, Vishnu G. Naik, 2017 International Conference on Communication and Signal Processing . 2017

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11. All-optical logic gates based on nanoring insulator–metal–insulator plasmonic waveguides at optical communications band [O] . Saif H. Abdulnabi 2019

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12. DEVELOPMENT OF A 1000V, 200A, LOW-LOSS, FAST-SWITCHING, GATE-ASSISTED TURN-OFF THYRISTOR [R] . E. S. Schlegel, L. R. Lowry 1975

机译：开发1000V，200a，低损耗，快速开关，门控熄火式THYRIsTOR

Optimized plasmonic reversible logic gate for low loss communication

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