Electro-plasmonic Modal Power Shifting in Metal/Insulator/Semiconductor Structure Tailored as a CMOS-compatible Plasmonic Waveguide
- 115 Downloads
In this paper, we have proposed a new npn-type design of a CMOS-compatible metal/semiconductor/insulator/metal (MSIM) plasmonic structure, to be used as a different geometry to manipulate, guide, and route surface plasmon polaritons (SPPs). Relying on the sub-wavelength diffraction-free plasmonic technology, the proposed ultra-compact structure has only a 20-nm-thick dynamic region accompanied by 1 to 2-nm thin-film HfO2 gate insulator as a distinct carrier barrier to serve both electronic and optic characteristics. The device is tailored as a mixture of MOSFET and BJT transistors in which to attain electro-plasmonic tuning goals; the npn-type structure uses rather large electron concentration densities accumulated near the oxide/semiconductor interface under 7.6-v switching voltage. This fact leads to adequate modal index variation of a doped Si, dynamic region by which routing of plasmonic traveling waves at a fiber communications wavelength of λ = 1550 nm will be possible. To investigate the optical and electronic behaviors of design, we have launched electromagnetic simulations solved on the rigorous finite element method (FEM) and also quantum mechanical (QM) included carrier transport simulations, respectively. To be reported, the estimated plasmonic modal power movement from the left-side-half-Si-core to the right-side-half-Si-core can reach to percentages of even 23.7%. This MSIM electro-plasmonic-addressed structure can be dramatically used to design specific-application routing/switching devices.
KeywordsPlasmonic mode Schrödinger-Poisson solver Metal/semiconductor/insulator/metal Surface plasmon polariton P and n-type doped silicon
The authors would like to thank the Research Deputy of Amirkabir University of Technology for the research grant support of this work. Also, we thank our colleagues in P.R.L.
- 5.Barnes WL, Dereux A, Ebbesen TW (2003) Surface plasmon subwavelength optics. Nature, insight review articles 424:824–830Google Scholar
- 7.Papaioannou S, Kalavrouziotis D, Vyrsokinos K, Weeber J-C, Hassan K, Markey L, Dereux A, Kumar A, Bozhevolnyi SI, Baus M, Tekin T, Apostolopoulos D, Avramopoulos H, Pleros N (2012) Active plasmonics in WDM traffic switching applications. Sci Rep 2:652. doi: 10.1038/srep00652 CrossRefPubMedPubMedCentralGoogle Scholar
- 8.Papaioannou S, Vyrsokinos K, Tsilipakos O, Pitilakis A, Hassan K, Weeber J-C, Markey L, Dereux A, Bozhevolnyi SI, Miliou A, Kriezis EE, Pleros N (2011) A 320 Gbs-throughput capable 2x2 silicon-plasmonic router architecture for optical interconnects. J Lightw Technol 29(21):3185–3195CrossRefGoogle Scholar
- 23.V. J. Sorger, Z. Ye, R. F. Oulton, Y. Wang, G. Bartal, X. Yin and X. Zhang (2011), Experimental demonstration of low-loss optical waveguiding at deep sub-wavelength scales, Nature Communications, DOI: 10.1038/ncomms1315, pp. 1–5
- 27.H. Kaatuzian and M. Keshavarz M (2014) Analysis and design of a 1x2 ring resonator-based plasmonic switch, 2 nd international conf. on Applications of Optics and Photonics (AOP2014), Aviero, Proc. of SPIE, vol. 9286, 92863B 1–4Google Scholar
- 31.Kaatuzian H (2012) Quantum photonics, a theory for attosecond optics. Amirkabir University Press, TehranGoogle Scholar
- 41.Simulation standard, “Quantum Modeling, Part I: Poisson-Schrodinger Solver,” (2002) Silvaco Group, vol. 12, no. 11, pp. 7-9, Nov. 2002. https://www.silvaco.co.kr/tech_lib_TCAD/simulationstandard/2002/nov/a3/a3.html. Accessed 6 Aug 2017