Light Confinement in Twisted Single-Layer 2D+ Moiré Photonic Crystals and Bilayer Moiré Photonic Crystals

被引:1
作者
Kamau, Steve [1 ]
Hurley, Noah [1 ]
Kaul, Anupama B. [2 ,3 ]
Cui, Jingbiao [1 ]
Lin, Yuankun [1 ,3 ]
机构
[1] Univ North Texas, Dept Phys, Denton, TX 76203 USA
[2] Univ North Texas, Dept Mat Sci & Engn, Denton, TX 76203 USA
[3] Univ North Texas, Dept Elect Engn, Denton, TX 76203 USA
关键词
interference; photonic crystal; twisted bilayer photonic crystal; moire photonic crystal; resonance mode; micro-nano optics; HOLOGRAPHIC FABRICATION; LATTICE; SUPERCONDUCTIVITY; DELOCALIZATION; LOCALIZATION; GENERATION;
D O I
10.3390/photonics11010013
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
Twisted photonic crystals are photonic analogs of twisted monolayer materials such as graphene and their optical property studies are still in their infancy. This paper reports optical properties of twisted single-layer 2D+ moire photonic crystals where there is a weak modulation in z direction, and bilayer moire-overlapping-moire photonic crystals. In weak-coupling bilayer moire-overlapping-moire photonic crystals, the light source is less localized with an increasing twist angle, similar to the results reported by the Harvard research group in References 37 and 38 on twisted bilayer photonic crystals, although there is a gradient pattern in the former case. In a strong-coupling case, however, the light source is tightly localized in AA-stacked region in bilayer PhCs with a large twist angle. For single-layer 2D+ moire photonic crystals, the light source in Ex polarization can be localized and forms resonance modes when the single-layer 2D+ moire photonic crystal is integrated on a glass substrate. This study leads to a potential application of 2D+ moire photonic crystal in future on-chip optoelectronic integration.
引用
收藏
页数:12
相关论文
共 50 条
[31]   Channel waveguides fabricated in 2D photonic crystals of Si nanopillars [J].
Tada, T ;
Poborchii, VV ;
Kanayama, T .
MICROELECTRONIC ENGINEERING, 2002, 63 (1-3) :259-265
[32]   Optical Tweezers Array System Based on 2D Photonic Crystals [J].
Ren, Xuechang ;
Wang, Canhui ;
Li, Yanshuang ;
Shen, Shaoxin ;
Liu, Shou .
2011 INTERNATIONAL CONFERENCE ON PHYSICS SCIENCE AND TECHNOLOGY (ICPST), 2011, 22 :493-497
[33]   Resonant multiple diffraction of light in 3D opal-like photonic crystals [J].
Fedotov, V. G. ;
Sel'kin, A. V. ;
Ukleev, T. A. ;
Men'shikova, A. Yu. ;
Shevchenko, N. N. .
PHYSICA STATUS SOLIDI B-BASIC SOLID STATE PHYSICS, 2011, 248 (09) :2175-2179
[34]   Light Waves in 1D Photonic Crystals with Arbitrarily Changing Dielectric and Magnetic Permittivities [J].
Nanumyan, V. L. ;
Gevorgyan, A. H. .
INTERNATIONAL CONFERENCE ON LASER PHYSICS 2010, 2011, 7998
[35]   Thermal emission properties of 2D and 3D silicon photonic crystals [J].
Gesemann, Benjamin ;
Schweizer, Stefan L. ;
Wehrspohn, Ralf B. .
PHOTONICS AND NANOSTRUCTURES-FUNDAMENTALS AND APPLICATIONS, 2010, 8 (02) :107-111
[36]   Achieving Large Band Gaps in 2D Symmetric and Asymmetric Photonic Crystals [J].
Meng, Fei ;
Li, Yangfan ;
Li, Shuo ;
Lin, Han ;
Jia, Baohua ;
Huang, Xiaodong .
JOURNAL OF LIGHTWAVE TECHNOLOGY, 2017, 35 (09) :1670-1676
[37]   Efficient effective permittivity treatment for the 2D-FDTD simulation of photonic crystals [J].
Jalali, T. ;
Rauscher, K. ;
Mohammadi, A. ;
Erni, D. ;
Hafner, Ch. ;
Baechtold, W. ;
Shoushtari, M. Z. .
JOURNAL OF COMPUTATIONAL AND THEORETICAL NANOSCIENCE, 2007, 4 (03) :644-648
[38]   Mathematical simulation of nonlinear waveguiding systems based on 2D photonic crystals [J].
A. N. Bogolyubov ;
I. A. Butkarev ;
Yu. S. Dement’eva .
Moscow University Physics Bulletin, 2008, 63
[39]   Fabrication of high aspect ratio microtube arrays for 2D photonic crystals [J].
Kraeh, C. ;
Popsecu, A. ;
Schieber, M. ;
Hedler, H. ;
Bieniek, T. ;
Wielgoszewski, G. ;
Moczala, M. ;
Finley, J. .
MATERIALS RESEARCH EXPRESS, 2014, 1 (02)
[40]   Antenna Gain Enhancement by 2-D Photonic Crystals with the Γ-Point Dirac Cone [J].
Kambayashi, Daigo ;
Sanada, Atsushi .
2018 ASIA-PACIFIC MICROWAVE CONFERENCE PROCEEDINGS (APMC), 2018, :1073-1075