MMM
YYYY
Enhanced amplified spontaneous emission via splitted strong coupling mode in large-area plasmonic cone lattices
大面积等离子体锥晶格中强耦合模分裂增强放大自发辐射
大面積プラズマコーン格子における強結合モード分裂増強増幅自発放射
대면적 플라스마 원추 격자 중 강한 결합 모드 분열 증강 증폭 자발적 복사
La División de modo fuertemente acoplada mejora la amplificación de la radiación espontánea en una red de cono de plasma de gran área
Forte Division de mode de couplage dans le réseau conique de plasma de grande surface amplifie le rayonnement spontané amplifié
Усиленный спонтанный выброс при помощи сильного сцепного устройства с удаленными кожухом в больших пластиковых конусах
Jiazhi Yuan 袁佳智 ¹, Jiang Hu 胡江 ¹, Yan Zheng 郑燕 ¹ ³ ⁴, Hao Wei 魏浩 ¹ ³, Jiamin Xiao 肖佳敏 ¹, Yi Wang 王祎 ¹ ², Xuchao Zhao 赵绪超 ¹, Ye Xiang 向冶 ¹, Yong Lei 雷勇 ⁴, Wenxin Wang 王文鑫 ¹ ² ⁵
¹ Qingdao Innovation and Development Center of Harbin Engineering University, Harbin Engineering University, Qingdao 266500, China
中国 青岛 哈尔滨工程大学青岛创新发展基地
² College of Physics and Optoelectronic Engineering, Harbin Engineering University, Harbin 150001, China
中国 哈尔滨 哈尔滨工程大学物理与光电工程学院
³ College of Material Sciences and Chemical Engineering, Harbin Engineering University, Harbin 150001, China
中国 哈尔滨 哈尔滨工程大学材料科学与化学工程学院
⁴ Institute of Physics, Department of Mathematics and Natural Sciences, TU Ilmenau, Ilmenau 98693, Germany
⁵ College for Advanced Interdisciplinary Studies, National University of Defense Technology, Changsha 410073, China
中国 长沙 国防科技大学前沿交叉学科学院
Opto-Electronic Science, 19 December 2024
Abstract

Periodic metal nanoarrays serving as cavities can support directional-tunable amplified spontaneous emission that goes beyond the diffraction limit due to the hybrid states of surface plasmons and Bloch surface waves. Most of these modes' interactions remain within the weak coupling regime, yet strong coupling is also anticipated to occur.

In this work, we present an intriguing case of amplified spontaneous emission (ASE), amplified by the splitting upper polariton mode within a strong coupling system, stemming from a square lattice of plasmonic cone lattices (PCLs). The PCLs are fabricated using an anodized aluminum oxide membrane (AAO), which facilitates strong coupling between surface plasmons and Bloch surface wave modes, with the maximum Rabi splitting observed at 0.258 eV for the sample with an aspect ratio of 0.33.

A 13.5-fold increase in amplified spontaneous emission is recorded when the emission from Nile Red coincides with this flat energy branch of upper polariton, which exhibits a high photon density of states. Reduced group velocity can prolong photon lifetime and boost the probability of light-matter interaction. The observed ASE phenomenon in this strong coupling plasmonic system widens the scope for applications in nanolasing and polariton lasing.
Opto-Electronic Science_1
Opto-Electronic Science_2
Opto-Electronic Science_3
Opto-Electronic Science_4
Reviews and Discussions
https://www.hotpaper.io/index.html
Integrated optical transceivers: architectures, key technologies, and applications
Interface and integration challenges in 0D/2D hybrid photodetection: optimizing assembly, interface and charge transfer
AI-enabled electromagnetic metasurfaces for wireless communication and invisibility cloak
Triplet exciton harvesting via TADF in hafnium chlorides array scintillator screen enables ultrahigh-resolution X-ray imaging
Vacancy oscillating mode in amorphous binary oxide film by terahertz time domain spectroscopy
Rayleigh-driven ethanol cluster tracking based on non-contact deep optical molecular diagnosis
Imprinted high-Q polymer micro-ring resonator array for high-resolution photoacoustic tomography
Emerging optical techniques for sorting and detection of chiral particles
Multistable soliton dynamics in an optical microresonator
AI-powered nonlinear optical imaging reveals protein spatial homogenization as an indicator of impaired bone quality in type 2 diabetes
Highly sensitive SWCNT-based pyroelectric phototransistors for broadband room temperature infrared detection
Active retinal projection augmented reality display via pixel-to-pixel collimation



Previous Article                                Next Article
About
|
Contact
|
Copyright © Hot Paper