Open Access Published since February 1, 2012

Nanophotonics

ISSN: 2192-8614

Editor-in-chief: Stefan Maier

Edited by: Dennis Couwenberg

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About this journal

Nanophotonics covers recent international research results, specific developments in the field and novel applications and is published in partnership with Sciencewise. It belongs to the top journals in the field. Nanophotonics focuses on the interaction of photons with nano-structures, such as carbon nano-tubes, nano metal particles, nano crystals, semiconductor nano dots, photonic crystals, tissue and DNA. The journal covers the latest developments for physicists, engineers and material scientists, working in fields related to:

Plasmonics: metallic nanostructures and their optical properties
Meta materials, fundamentals and applications
Nanophotonic concepts and devices for solar energy harvesting and conversion
Near-field optical microscopy
Nanowaveguides and devices
Nano Lasers
Nanostructures, nanoparticles, nanotubes, nanowires, nanofibers
Photonic crystals
Integrated silicon photonics
Semiconductor quantum dots
Quantum optics & Quantum information
Ultrafast and nonlinear pulse propagation in nano materials and structures
Light-matter interaction, optical manipulation techniques
Nano-biophotonics
Optofluidics
Optomechanics
System applications based on nanophotonic devices
Nanofabrication techniques, thin film processing, self-assembly

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EARLY CAREER AWARD 2022

The Nanophotonics Early Career Award is an annual award presented to 4 early-career-stage scientists who have contributed significantly to advancements in the field of nanophotonics. The award winners are awarded a prize of 1000 EUR and have their Article Processing Charges waived for a period of two years. This award is fully sponsored by the Nanophotonics journal.

We are delighted to announce the winners of the 2022 award. Full details of the 2022 winners can be found on the Early Career Award webpage.

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Publication Metrics

Average time from submission to initial Editorial Manager assessment: 5 days
Average time from submission to final decision (all article types): 57 days
Average time from acceptance to publication: 13 days

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Special/Topical Issues

Published in 2023:

Quantum Nanophotonics (Guest Editors: Jaehyuck Jang, Minsu Jeong, and Junsuk Rho)
Neural network learning with photonics and for photonic circuit design (Guest Editors: Daniel Brunner, Miguel C. Soriano, and Shanhui Fan)
Nanofabrication (Guest Editors: Maria Farsari, Sang-Hyun Oh, and Joel Yang)

Published in 2022:

Photonic Angular Momentum (Guest Editors: Andrew Forbes, Qiwen Zhan and Siddharth Ramachandran)
New Trends in Nanophotonics and Advanced Photonic Materials (Guest Editor: Junsuk Rho)
Metamaterials and Plasmonics in Asia (Guest Editors: Lei Zhou, Tiejun Cui, JeongWeon Wu and Teruya Ishihara)
Tunable Nanophotonics (Guest Editors: Juejun Hu, Arseniy I. Kuznetsov, Volker J. Sorger, and Isabelle Staude)
Novel Two-Dimensional Materials Based Bio-Nanophotonic (Guest Editors: Hans Ågren, Jong Seung Kim and Han Zhang)

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Highly cited articles:

Polariton panorama
by D. N. Basov, Ana Asenjo-Garcia, P. James Schuck, Xiaoyang Zhu, Angel Rubio

Ultrasensitive terahertz sensing with high-Q toroidal dipole resonance governed by bound states in the continuum in all-dielectric metasurface
by Yulin Wang, Zhanghua Han, Yong Du, Jianyuan Qin

Non-Hermitian and topological photonics: optics at an exceptional point
by Midya Parto, Yuzhou G. N. Liu, Babak Bahari, Mercedeh Khajavikhan, Demetrios N. Christodoulides

Metasurfaces for biomedical applications: imaging and sensing from a nanophotonics perspective
by Shuyan Zhang, Chi Lok Wong, Shuwen Zeng, Renzhe Bi, Kolvyn Tai, Kishan Dholakia, Malini Olivo

THz spintronic emitters: a review on achievements and future challenges
by Evangelos Th. Papaioannou and René Beigang

Machine learning–assisted global optimization of photonic devices
by Zhaxylyk A. Kudyshev, Alexander V. Kildishev, Vladimir M. Shalaev, Alexandra Boltasseva

Topological photonics: Where do we go from here?
by Mordechai Segev, Miguel A. Bandres

Polymerization mechanisms initiated by spatio-temporally confined light
by Edvinas Skliutas, Migle Lebedevaite, Elmina Kabouraki, Tommaso Baldacchini, Jolita Ostrauskaite, Maria Vamvakaki, Maria Farsari, Saulius Juodkazis, Mangirdas Malinauskas

Highly ordered arrays of hat-shaped hierarchical nanostructures with different curvatures for sensitive SERS and plasmon-driven catalysis
by Chao Zhang, Zhaoxiang Li, Si Qiu, Weixi Lu, Mingrui Shao, Chang Ji, Guangcan Wang, Xiaofei Zhao, Jing Yu and Zhen Li

Manipulating the surface-enhanced Raman spectroscopy (SERS) activity and plasmon-driven catalytic efficiency by the control of Ag NP/graphene layers under optical excitation
by Xianwu Xiu, Liping Hou, Jing Yu, Shouzhen Jiang, Chonghui Li, Xiaofei Zhao, Qianqian Peng, Si Qiu, Chao Zhang, Baoyuan Man and Zhen Li

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Supplementary Materials

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External Links

Volume 12 Issue 11

May 2023

Publicly Available May 19, 2023

Frontmatter

Page range: i-ii

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Research Articles

Open Access April 13, 2023

Inverse design in quantum nanophotonics: combining local-density-of-states and deep learning

Guang-Xin Liu, Jing-Feng Liu, Wen-Jie Zhou, Ling-Yan Li, Chun-Lian You, Cheng-Wei Qiu, Lin Wu

Page range: 1943-1955

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Abstract

Recent advances in inverse-design approaches for discovering optical structures based on desired functional characteristics have reshaped the landscape of nanophotonic structures, where most studies have focused on how light interacts with nanophotonic structures only. When quantum emitters (QEs), such as atoms, molecules, and quantum dots, are introduced to couple to the nanophotonic structures, the light–matter interactions become much more complicated, forming a rapidly developing field – quantum nanophotonics. Typical quantum functional characteristics depend on the intrinsic properties of the QE and its electromagnetic environment created by the nanophotonic structures, commonly represented by a scalar quantity, local-density-of-states (LDOS). In this work, we introduce a generalized inverse-design framework in quantum nanophotonics by taking LDOS as the bridge to connect the nanophotonic structures and the quantum functional characteristics. We take a simple system consisting of QEs sitting on a single multilayer shell–metal–nanoparticle (SMNP) as an example, apply fully-connected neural networks to model the LDOS of SMNP, inversely design and optimize the geometry of the SMNP based on LDOS, and realize desirable quantum characteristics in two quantum nanophotonic problems: spontaneous emission and entanglement. Our work introduces deep learning to the quantum optics domain for advancing quantum device designs; and provides a new platform for practicing deep learning to design nanophotonic structures for complex problems without a direct link between structures and functional characteristics.

Open Access April 28, 2023

Towards chiral acoustoplasmonics

Beatriz Castillo López de Larrinzar, Chushuang Xiang, Edson Rafael Cardozo de Oliveira, Norberto Daniel Lanzillotti-Kimura, Antonio García-Martín

Page range: 1957-1964

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Abstract

The possibility of creating and manipulating nanostructured materials encouraged the exploration of new strategies to control electromagnetic properties. Among the most intriguing nanostructures are those that respond differently to helical polarization, i.e., exhibit chirality. Here, we present a simple structure based on crossed elongated bars where light-handedness defines the dominating cross-section absorption or scattering, with a 200 % difference from its counterpart (scattering or absorption). The proposed chiral system opens the way to enhanced coherent phonon excitation and detection. We theoretically propose a simple coherent phonon generation (time-resolved Brillouin scattering) experiment using circularly polarized light. In the reported structures, the generation of acoustic phonons is optimized by maximizing the absorption, while the detection is enhanced at the same wavelength and different helicity by engineering the scattering properties. The presented results constitute one of the first steps towards harvesting chirality effects in the design and optimization of efficient and versatile acoustoplasmonic transducers.

Open Access April 20, 2023

Comparing between steady-state excitonic transitions and ultrafast polaronic photoexcitations in layered perovskites: the role of electron–phonon interaction

Pingyuan Yan, Tao Li, Haoxiang Zhou, Shu Hu, Chenhong Xiang, Yang Zhang, Chengqiang Wang, Zihan Wu, Heng Li, Haibin Zhao, ChuanXiang Sheng

Page range: 1965-1977

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Abstract

We have studied four 2D layered perovskites, including OA 2 PbI 4 (RP phase), ODAPbI 4 and BDAPbI 4 (DJ phase), (GA)MAPbI 4 (ACI phase), where OA is [(C m H 2 m +1 )NH 3 ]( m = 8), ODA is [NH 3 (CH 2 ) m NH 3 ]( m = 8), BDA is [NH 3 (CH 2 ) m NH 3 ]( m = 4), and GA is [C(NH 2 ) 3 ]; RP, DJ, and ACI means Ruddlesden–Popper, Dion–Jacobson and alternating cations in the interlayer, respectively. The temperature dependence of absorption and photoluminescence (PL) spectra have been measured. From which the average phonon energy (electron-phonon interaction strength) is analyzed as around 34 (80), 47 (184), 50 (402), and 63 (758) with the unit of meV for OA 2 PbI 4 , ODAPbI 4, BDAPbI 4 , and (GA)MAPbI 4 , respectively. Larger phonon energy indicates the involvement of more phonons in organic spacer layer, with the corresponding stronger electron-phonon interaction. Furthermore, ultrafast transient absorption spectroscopy proves that, when the excitation photon energy is serval hundred meV higher than bandgap, the excitons still are the major photoexcitations in OA 2 PbI 4 , but polarons are major one in ODAPbI 4 , BDAPbI 4 , and (GA)MAPbI 4 films, no matter the excitonic transitions dominate the absorption at their band edges. This work proves the organic spacers can regulate electron–phonon interaction then optoelectronic properties in 2D perovskites profoundly, which have implications toward future rational design for relevant devices.

Open Access April 24, 2023

Coexistence of quantum key distribution and optical communication with amplifiers over multicore fiber

Weiwen Kong, Yongmei Sun, Yaoxian Gao, Yuefeng Ji

Page range: 1979-1994

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Abstract

In this paper, the influence of classical signals on quantum key distribution (QKD) is studied over multi-core fiber (MCF) when optical amplifiers exist. Firstly, the long-distance simultaneous transmission architectures of QKD and classical signals are proposed based on advanced asymmetric sending or not sending QKD (SNS-QKD) and classical Bennett–Brassard 1984-QKD (BB84-QKD), and the segment length between optical amplifiers can be adjusted according to requirement. Then, theoretical models of spontaneous Raman scattering noise and four-wave mixing noise are established based on the proposed architectures. Next, the calculation models of the secure key rate under the influence of noises from classical signals are derived. Finally, the experimental results show that the theoretical models match well with the experimental photons, and the maximum difference between experimental and simulated noise photons is less than 2.6 dB. Simulation results show that the performance of asymmetric SNS-QKD is better than that of BB84-QKD architecture when classical signals and quantum signals are transmitted in different cores of MCF.

Open Access May 3, 2023

Dynamic selection of visible wavelengths using resonant TiO₂ nanostructures

Han-Don Um, Deokjae Choi, Amit Solanki, Emerald Huang, Kwanyong Seo, Fawwaz Habbal

Page range: 1995-2005

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Abstract

All-dielectric nanoarrays have strong electromagnetic resonances with various interesting applications and are tuned by adjusting their geometrical parameters. However, their optical properties are permanently encoded during fabrication. This study presents robust dynamically tunable all-dielectric nanoresonators for controllable, reversible, and reproducible color filtering. Our design uses an array of TiO 2 nanodiscs embedded in a transparent, stretchable polydimethylsiloxane (PDMS) membrane and exhibits a narrow spectral response due to Mie magnetic and electric dipole resonances hybridized with the TiO 2 nanodiscs lattice modes. By mechanically stretching the PDMS membrane, the pitch of the TiO 2 nanodiscs was increased and the spectral location of the resonances was altered. Additionally, an optically asymmetric structure was fabricated by partially embedding TiO 2 nanodiscs in PDMS. Thus, the magnitude of the Rayleigh anomaly diffraction, which could interrupt the dipole resonances, was reduced. Our design has sharp, frequency-tunable resonances in the visible spectrum, and we demonstrated dynamic tunability by stretching the metasurfaces.

Open Access April 25, 2023

Crosstalk prohibition at the deep-subwavelength scale by epsilon-near-zero claddings

Wenjie Ji, Jie Luo, Hongchen Chu, Xiaoxi Zhou, Xiangdong Meng, Ruwen Peng, Mu Wang, Yun Lai

Page range: 2007-2017

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Abstract

To prevent the crosstalk between adjacent waveguides in photonic integrated circuits, the minimum thickness of the cladding layers is around half a wavelength, which imposes a fundamental limitation to further integration and miniaturization of photonic circuits. Here, we reveal that epsilon-near-zero claddings, either isotropic or anisotropic, can break the above bottleneck by prohibiting the crosstalk for the modes with magnetic field polarized in the z direction at a deep-subwavelength thickness (e.g., λ 0 /30, λ 0 is the free-space wavelength), therefore bestowing ultra-compact waveguide systems. The physical origin of this remarkable effect attributes to the divergent impedance of epsilon-near-zero materials far beyond those of dielectric or epsilon-negative claddings. Through full-wave simulations and microwave experiments, we have verified the effectiveness of the ultrathin epsilon-near-zero cladding in crosstalk prohibition. Our finding reveals the significant impact of impedance difference in waveguide designs and opens a promising route toward ultra-compact photonic chips.

Open Access May 1, 2023

Back-propagation-assisted inverse design of structured light fields for given profiles of optical force

Xiaoshu Zhao, Haoze Lin, Huajin Chen, Hongxia Zheng, Jack Ng

Page range: 2019-2027

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Abstract

Designing a monochromatic spatially-structured light field that recovers the pre-specified profile of optical force (OF) exerted on a particle is an inverse problem. It usually requires high dimensional optimization and involves lengthy calculations, thus remaining little studied despite decades of research on OF. We report here the first attempt to attack this inverse design problem. The modus operandi relies on the back-propagation algorithm, which is facilitated by the currently available machine learning framework, and, in particular, by an exact and efficient expression of OF that shows only polynomial and trigonometric functional dependence on the engineered parameters governing the structured light field. Two illustrative examples are presented in which the inversely designed structured light fields reproduce, respectively, a predefined spatial pattern of OF and a negative longitudinal OF in a transversely trapping area.

Open Access April 19, 2023

Electrical addressing of exceptional points in compact plasmonic structures

Hoon Yeub Jeong, Yeonsoo Lim, Jungho Han, Soo-Chan An, Young Chul Jun

Page range: 2029-2039

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Abstract

Exceptional points (EPs) are degenerate singularities in a non-Hermitian system that can be induced by controlling the interaction between resonant photonic modes. EPs can enable unusual optical phenomena and significantly enhance the optical sensitivity under small perturbations. However, most studies thus far have been limited to static photonic structures. In this study, we propose and experimentally demonstrate electrically addressable EP in a plasmonic structure. Inspired by optical microcavity studies, we employ a localized spoof plasmon structure that supports circulating plasmonic modes in compact single-resonator geometry. The plasmonic modes are perturbed by an angled metal line, and the interaction between the plasmonic modes is electrically controlled using a varactor. Continuous electrical tuning of the varactor capacitance facilitates simultaneous coalescence of the real and imaginary parts of the eigenfrequency, allowing the direct addressing of EPs. We first investigate the eigenmodes and their coupling in localized plasmonic structures using numerical simulations. We then present experimentally measured spectra that manifest the coalescence of the two resonant modes in both the resonance frequency and linewidth. Electrically addressable EPs in compact plasmonic structures may provide exciting opportunities for highly functional and tunable elements in integrated device platforms.

Open Access April 25, 2023

Advanced optical nanolithography by enhanced transmission through bull’s eye nanostructured meta-mask

Taeyeon Kim, Heesang Ahn, Soojung Kim, Hyerin Song, Jong-ryul Choi, Kyujung Kim

Page range: 2041-2050

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Abstract

Plasmonic optical nanolithography using extraordinary optical transmission through a metallic nanohole mask has been actively applied to the high-resolution fabrication of nanostructures over a large area. Although there have been studies on improving the nanostructure fabrication performance in optical nanolithography, such as on adjustable external gap spacing, additional performance enhancement is required for practical applications and commercialization of large-area and high-resolution nanostructure array fabrication techniques. In this study, we design and apply a plasmonic bull’s eye nanostructured meta-mask to enhance the performance of optical nanolithography. Through simulation results and experimental verification, it is confirmed that advanced optical nanolithography using the bull’s eye nanostructured meta-mask has several merits compared to conventional Talbot lithography using nanoholes: (1) Optical nanolithography using the bull’s eye nanostructured meta-mask effectively fabricates nanopillar arrays even at a shorter exposure time than conventional optical lithography using nanoholes. (2) It is possible to create a large-area nanopillar array with various nanopillar diameters by exposure time control in optical nanolithography using the bull’s eye meta-mask. (3) Using water or objective immersion oil to increase the refractive index of the contact medium, light can be focused on smaller sizes, and large-area nanopillar arrays with smaller nanopillar diameters are established. With the upgradation of hardware for large-area fabrication, application of immersion media supplying techniques, and additional studies to establish complex nanostructures, optical nanolithography using the bull’s eye nanostructured meta-mask is an efficient modality to produce various nanostructure-based devices.

Open Access May 1, 2023

Quasi-bound states in the continuum with a stable resonance wavelength in dimer dielectric metasurfaces

Shaojun You, Mimi Zhou, Lei Xu, Deliang Chen, Menghui Fan, Jing Huang, Wenbin Ma, Shengyun Luo, Mohsen Rahmani, Chaobiao Zhou, Andrey E. Miroshnichenko, Lujun Huang

Page range: 2051-2060

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Abstract

Symmetry-protected bound states in the continuum (SP-BICs) are one of the most intensively studied BICs. Typically, SP-BICs must be converted into quasi-BICs (QBICs) by breaking the unit cell’s symmetry so that they can be accessed by the external excitation. The symmetry-broken usually results in a varied resonance wavelength of QBICs which are also highly sensitive to the asymmetry parameters. In this work, we demonstrate that QBICs with a stable resonance wavelength can be realized by breaking translational symmetry in an all-dielectric metasurface. The unit cell of metasurface is made of a silicon nanodisk dimer. The Q-factor of QBICs is precisely tuned by changing the interspacing of two nanodisks while their resonance wavelength is quite stable against the interspacing. We also find that such BICs show weak dependence on the shape of the nanodisk. Multiple decompositions indicate that the toroidal dipole dominates this type of QBIC. The resonance wavelengths of QBICs can be tuned only by changing either the lattice constants or the radius of nanodisk. Finally, we present experimental demonstrations on such a QBIC with a stable resonance wavelength. The highest measured Q-factor of QBICs is >3000. Our results may find promising applications in enhancing light–matter interaction.

Open Access April 14, 2023

High numerical aperture imaging allows chirality measurement in individual collagen fibrils using polarization second harmonic generation microscopy

MacAulay Harvey, Richard Cisek, Mehdi Alizadeh, Virginijus Barzda, Laurent Kreplak, Danielle Tokarz

Page range: 2061-2071

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Abstract

Second harmonic generation (SHG) microscopy is a commonly used technique to study the organization of collagen within tissues. However, individual collagen fibrils, which have diameters much smaller than the resolution of most optical systems, have not been extensively investigated. Here we probe the structure of individual collagen fibrils using polarization-resolved SHG (PSHG) microscopy and atomic force microscopy. We find that longitudinally polarized light occurring at the edge of a focal volume of a high numerical aperture microscope objective illuminated with linearly polarized light creates a measurable variation in PSHG signal along the axis orthogonal to an individual collagen fibril. By comparing numerical simulations to experimental data, we are able to estimate parameters related to the structure and chirality of the collagen fibril without tilting the sample out of the image plane, or cutting tissue at different angles, enabling chirality measurements on individual nanostructures to be performed in standard PSHG microscopes. The results presented here are expected to lead to a better understanding of PSHG results from both collagen fibrils and collagenous tissues. Further, the technique presented can be applied to other chiral nanoscale structures such as microtubules, nanowires, and nanoribbons.

Ahead of Print / Just Accepted

Ahead of Print / Just Accepted

Volume 12 (2023)

Volume 11 (2022)

Volume 10 (2021)

Volume 9 (2020)

Volume 8 (2019)

Volume 7 (2018)

Volume 6 (2017)

Volume 5 (2016)

Volume 4 (2015)

Volume 3 (2014)

Volume 2 (2013)

Volume 1 (2012)

5-year Journal Impact Factor	8.606
CiteScore	10.6
Journal Impact Factor	7.923
Journal Citation Indicator	1.17
SCImago Journal Rank	2.124
Source Normalized Impact per Paper	1.735

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Editorial

FOUNDING EDITOR
Federico Capasso, Harvard University, USA

EDITOR IN CHIEF
Stefan Maier, Monash University, Australia
Email: stefan.maier@monash.edu

PUBLISHING EDITOR
Dennis Couwenberg, Science Wise Publishing, The Netherlands
Email: dcouwenberg@nanophotonics-journal.com

MANAGING EDITORS
Javier Aizpurua, Center for Materials Physics in San Sebastián (CSIC-UPV/EHU), Spain
Daniel Brunner, FEMTO-ST Institute, France
Jonathan Fan, Stanford University, USA
Kian Ping Loh, National University of Singapore, Singapore
Matthew A. Pelton, University of Maryland, USA
Junsuk Rho, Pohang University of Science and Technology, Korea
Giulia Tagliabue, École Polytechnique Fédérale de Lausanne (EPFL), Switzerland
Lei Zhou, Fudan University, China
Jia Zhu, Nanjing University, China

EDITORIAL ADVISORY BOARD
Javier Garcia de Abajo, IQFR-CSIC, Spain
Andrea Alu, City University of New York, USA
Dimitri Basov, Columbia University, USA
Mark Brongersma, Stanford University, USA
Jennifer Dionne, Stanford University, USA
Nader Engheta, University of Pennsylvania, USA
Shaya Fainman, UC San Diego, USA
Shanghui Fan, Stanford University, USA
Harald Giessen, University of Stuttgart, Germany
Michael Hochberg, University of Washington, USA
Frank Koppens, ICFO, Spain
Uriel Levy, The Hebrew University of Jerusalem, Israel
Michal Lipson, Cornell University, USA
Tony Low, University of Minnesota, USA
Asger Mortensen, DKU, Denmark
Evghenii Narimanov, Purdue University, USA
Masaya Notomi, NTT Basic Research Laboratories, Japan
Rupert Oulton, Imperial College London, UK
Aydogan Ozcan, UCLA, USA
Romain Quidant, ICFO, Spain
Vladimir Shalaev, Purdue University, USA
Volker Sorger, George Washington University, USA
Takuo Tanaka, RIKEN, Japan
Jelena Vuckovic, Stanford University, USA
Hongxing Xu, Wuhan University, China
Anatoly Zayats, King’s College London, UK
Xiang Zhang, UC Berkeley, USA
Nikolay Zheludev, University of Southampton, UK

Journal Coordinator
Justyna Zuk, De Gruyter
E-mail: nanophotonics.editorial@degruyter.com

(Deutsch)

Type: Journal
Language: English
Publisher: De Gruyter
First published: February 1, 2012
Publication Frequency: 24 Issues per Year
Audience: Physicists, Engineers and Material Scientists, in public and private research.

Nanophotonics

Frontmatter

Inverse design in quantum nanophotonics: combining local-density-of-states and deep learning

Abstract

Towards chiral acoustoplasmonics

Abstract

Comparing between steady-state excitonic transitions and ultrafast polaronic photoexcitations in layered perovskites: the role of electron–phonon interaction

Abstract

Coexistence of quantum key distribution and optical communication with amplifiers over multicore fiber

Abstract

Dynamic selection of visible wavelengths using resonant TiO2 nanostructures

Abstract

Crosstalk prohibition at the deep-subwavelength scale by epsilon-near-zero claddings

Abstract

Back-propagation-assisted inverse design of structured light fields for given profiles of optical force

Abstract

Electrical addressing of exceptional points in compact plasmonic structures

Abstract

Advanced optical nanolithography by enhanced transmission through bull’s eye nanostructured meta-mask

Abstract

Quasi-bound states in the continuum with a stable resonance wavelength in dimer dielectric metasurfaces

Abstract

High numerical aperture imaging allows chirality measurement in individual collagen fibrils using polarization second harmonic generation microscopy

Abstract

Dynamic selection of visible wavelengths using resonant TiO₂ nanostructures