Yiping Huo

Shaanxi Normal University

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You Xie

Xi'an University of Science and Technology

Zhongyue Zhang

Shaanxi Normal University

Qiqiang Niu

Institute of Scientific and Technical Information

Y. Q. Guo

Wuhan University

Chen Zhou

Xi'an University of Technology

Zuxiong Liao

Shaanxi Normal University

Zhao Chen

Henan Polytechnic University

Xueying Jiang

Shaanxi Normal University

Meina Song

Beijing Tsinghua Chang Gung Hospital

Yunyan Wang

Hubei University of Technology

Cooperative Institutions

Shaanxi Normal University

Chinese Academy of Sciences

University of Chinese Academy of Sciences

University of Science and Technology of China

Xi'an University of Science and Technology

Xi'an Jiaotong University

Harbin Institute of Technology

Shanghai Jiao Tong University

Fudan University

Shanghai Institute of Optics and Fine Mechanics

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Double Fano resonances and electromagnetically induced transparency-like optical response achieved by breaking the symmetry of two double-split rings

Physica Scripta (2019)

Xueying Jiang Yiping Huo Nini Cai Chen Zhou Y. Q. Guo

In recent years, various nanostructures related to Fano resonance have been proposed by many researchers due to their outstanding optical properties. A structure consisting of two double-split rings (TD-SR) is researched by using finite element method in this paper. When the incident light is normal to the structure surface, a magnetic Fano resonance can be generated by the interference of bright electric mode and dark magnetic mode. In addition, when the symmetry of the structure is destroyed along x-axis or y-axis, double Fano resonances will be generated. At the same time, the maximum refractive index sensitivity (S) and the maximum figure of merit at resonance mode can reach 1200 nm/RIU and 30.61, respectively. More interestingly, the electromagnetically induced transparency (EIT)-like behavior can be induced when the cavity of inner split ring is biased and the corresponding electric and magnetic field enhancements can reach 229 and 52, respectively. The optical properties of our nanostructure make it has important application value in the fields of multi-wavelength sensor, ultra-sensitive biosensor, surface enhanced spectroscopy and slow light.

Electromagnetically Induced Transparency

Fano resonance

Fano plane

10.1088/1402-4896/ab1730

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Citations (3)

Tunable Electromagnetically Induced Transparency-Like in Plasmonic Stub Waveguide with Cross Resonator

Plasmonics (2016)

Shaofang Pang Yiping Huo You Xie Limei Hao

Stub (electronics)

Electromagnetically Induced Transparency

Slow Light

Waveguide

10.1007/s11468-016-0371-6

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Citations (17)

High-order magnetic modes and multiple Fano resonances generation by a Fish-like dimer nanostructure

Physica Scripta (2020)

Xueying Jiang Yiping Huo Chen Zhou Y. Q. Guo Yibo Hou

Fano resonance

Fano plane

10.1088/1402-4896/ab7850

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Citations (2)

Single attosecond pulse generation using two-color polarized time-gating technique

Optics Express (2005)

Yiping Huo Zhinan Zeng Ruxin Li Zhizhan Xu

It is proposed that single attosecond pulses be generated via high-order harmonic generation by using a two-color pump pulse with time dependent ellipticity. The two-color pump pulse is created by the fundamental field and its second harmonic: the fundamental field is left-circularly polarized and the second harmonic is right-circularly polarized. Numerical simulations show that single attosecond pulses can be produced in the cut-off region by using the synthesis of 20 fs left-hand and right-hand circularly polarized pulses with a pulse delay of 20 fs. The attosecond pulses produced this way are much stronger than that produced by a few-cycle linear polarized pulse of comparable intensity.

Attosecond

Harmonic

10.1364/opex.13.009897

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Citations (19)

Manipulation of Electrical Field Enhancements and Fano Resonances in Nanoellipsoid/Ring Plasmonic Cavities

Plasmonics (2015)

Kaijun Zhao Yiping Huo Tingzhuo Liu Junna Li Bing He

Fano resonance

Nanoring

Fano plane

Localized surface plasmon

10.1007/s11468-015-9899-0

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Citations (14)

First-principles study of transition metal linear monoatomic chains adsorption on boron nitride nanotube

Physica B Condensed Matter (2011)

You Xie Jian‐Min Zhang Yiping Huo

Monatomic gas

10.1016/j.physb.2011.09.022

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Citations (3)

Magnetic Field Enhanced Optical Chirality of Plasmonic Ring-disk Nanostructure

Plasmonics (2022)

Muhammad Ikram Ying Li Yu Bai Yongkai Wang Yiping Huo

Chirality

10.1007/s11468-022-01681-0

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Citations (2)

Manipulation of Magnetic Fano Resonances in Double Split-Hole Disk

Plasmonics (2015)

Kaijun Zhao Yiping Huo Tingzhuo Liu Yanni Wu Ting Zhao

Fano resonance

Fano plane

10.1007/s11468-015-0057-5

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Citations (4)

High Q-factor multi-Fano resonances in all-dielectric metasurface for high-performance optical switching and sensors

Journal of the Optical Society of America B (2024)

Tao Zhang Yiping Huo Congmu Xu Jiamin Li Zilong Zhang

Fano resonance

Fano plane

Q factor

10.1364/josab.537123

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Metal–Dielectric Waveguides for High-Efficiency Coupled Emission

ACS Photonics (2015)

Ramachandram Badugu Henryk Szmacinski Krishanu Ray Emiliano Descrovi Serena Ricciardi

We report a metal–dielectric planar structure that provides high-efficiency coupling of fluorescence at distances over 100 nm away from the metal surface. This hybrid metal–dielectric waveguide (MDW) consists of a continuous metal film coated with a dielectric layer. We observed efficient long-range coupling of rhodamine B on top of a 130 nm layer of silica, resulting in a narrow angular distribution of the emission. The high-efficiency radiation through the Ag film appears to be due to coupling of the fluorophore to an optical waveguide mode with a long propagation length and a narrow resonance. The results were consistent with simulations. These multilayer structures can be made using vapor deposition and/or spin coating, and the silica surface can be used for conjugation to biomolecules and surface-selective detection. This simple hybrid metal–dielectric structure provides new opportunities for fluorescence sensing, genomics, proteomics, and diagnostics.

10.1021/acsphotonics.5b00219

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Citations (38)