Optics and photonics articles within Nature Communications

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  • Article
    | Open Access

    The authors demonstrate how flexible metasurfaces powered by artificial neural network can dynamically manipulate the EM scattering behavior from an arbitrary surface - an ultimate ambition for many EM stealth and communication problems.

    • Erda Wen
    • , Xiaozhen Yang
    •  & Daniel F. Sievenpiper

  • Article
    | Open Access

    The authors introduce and demonstrate experimentally a novel fundamental property of nonlinear multimode optical systems, named mode rejection. This paves the way towards a more general idea of all-optical mode control and its related applications.

    • Kunhao Ji
    • , Ian Davidson
    •  & Massimiliano Guasoni

  • Article
    | Open Access

    Nonlinear optical processes like higher-order harmonic generation in solids depend on several factors. Here the authors explore the optical nonlinearity of hexagonal boron nitride and find that enhanced nonlinearity is due to electron-phonon and phonon-polariton couplings.

    • Jared S. Ginsberg
    • , M. Mehdi Jadidi
    •  & Alexander L. Gaeta

  • Article
    | Open Access

    The usual treatment of wave scattering theory relies on a formalism that does not easily allow for probing optimal spectral response. Here, the authors show how an alternative formalism, encoding fundamental principles of causality and passivity, can be used to make sense of complex scattered fields’ structures.

    • Lang Zhang
    • , Francesco Monticone
    •  & Owen D. Miller

  • Article
    | Open Access

    MEMS-based photonic integrated circuits (PICs) are often limited in speed by mechanical resonances. Here the authors report a programmable architecture for PICs which uses mechanical eigenmodes for synchronized, resonantly enhanced optical modulation.

    • Mark Dong
    • , Julia M. Boyle
    •  & Dirk Englund

  • Article
    | Open Access

    In this work, the authors use a surface plasmonic mechanism to efficiently confine TeraHertz photons inside ultrasmall cavities. These plasmonic-based TeraHertz cavities are shown to operate until the ultimate limit that is allowed fundamentally and at which plasmons start to behave in a nonlocal fashion.

    • Ian Aupiais
    • , Romain Grasset
    •  & Yannis Laplace

  • Article
    | Open Access

    The entanglement of fibrous elements produces flexible structures with enhanced strength and resilience to abrasion. Here, the authors report the weaving of organic crystals into flexible and robust patches with plain, twill, and satin topologies of arbitrary porosity, expanding one-dimensional crystals into flexible, two-dimensional planar structures with potential for future applications in flexible electronics.

    • Linfeng Lan
    • , Liang Li
    •  & Hongyu Zhang

  • Article
    | Open Access

    The authors provide an experimental demonstration of magnetic field generation in graphene disks via the inverse Faraday effect. When the disks are illuminated with circularly polarized radiation in resonance with the graphene plasmon frequency, the corresponding rotational motion of the charge carriers gives rise to a unipolar magnetic field.

    • Jeong Woo Han
    • , Pavlo Sai
    •  & Martin Mittendorff

  • Article
    | Open Access

    Designing robust blue organic light-emitting diodes is a long-standing challenge in the display industry. Here, the authors show that electron-induced degradation reactions play a more critical role in the short lifetime of devices with iridium-based emitters under real operational conditions.

    • Jaewook Kim
    • , Joonghyuk Kim
    •  & Woo Youn Kim

  • Article
    | Open Access

    Strong optical excitation near band extrema can drive novel correlated states. Here the authors report a non-equilibrium many-body state in graphite driven by a strong excitation near van Hove singularity, yielding a tenfold increase in optical conductivity attributed to carrier excitations in the flat bands.

    • T. P. H. Sidiropoulos
    • , N. Di Palo
    •  & J. Biegert

  • Article
    | Open Access

    Methods for generating macroscopic chiral matter struggle with limited scalability. Here, the authors show two vacuum filtration methods - twist stacking and mechanical rotation - to align carbon nanotubes into chiral structures at wafer scale with tunable circular dichroism.

    • Jacques Doumani
    • , Minhan Lou
    •  & Weilu Gao

  • Article
    | Open Access

    Current approaches to distinguish topological phases from topologically-trivial phases have limited general applicability. Here, in a photonic-crystal context, the authors demonstrate that in trivial structures the bulk local density of states (LDOS) extends all the way to the edges and corners, while in topological structures the bulk LDOS actually avoids the edges and corners.

    • Biye Xie
    • , Renwen Huang
    •  & Shuang Zhang

  • Article
    | Open Access

    Structured light has proven useful for numerous photonic applications. However, its current use in optical fibers is severely limited. The authors report a highly integrated metafiber platform based on 3D laser nanoprinting, capable of creating arbitrarily structured light.

    • Chenhao Li
    • , Torsten Wieduwilt
    •  & Haoran Ren

  • Article
    | Open Access

    Low-cost manufacturing of large-scale thermally activated delayed fluorescence organic light-emitting diodes has been restricted due to their incompatibility with solution processing techniques. Here, authors develop inkjet printing ink formulation to fabricate patterns without use of lithography.

    • Chandra Kant
    • , Atul Shukla
    •  & Monica Katiyar

  • Article
    | Open Access

    Methods to characterize the free-electron laser pulses are evolving and their performances are also improving. Here the authors demonstrate a method based on the artificial neural networks to predict the output pulses of the X-ray free-electron laser by considering the electron beam parameters as input.

    • Kenan Li
    • , Guanqun Zhou
    •  & Anne Sakdinawat

  • Article
    | Open Access

    Mie resonances are typically manipulated through varying nanostructure shape/size. Here, authors found that Gaussian beam displacement excites higher-order multipolar modes, not accessible by plane wave, featuring maximal linear and nonlinear scattering efficiency when the focus is misaligned.

    • Yu-Lung Tang
    • , Te-Hsin Yen
    •  & Shi-Wei Chu

  • Article
    | Open Access

    Circularly polarized light adds a unique dimension to optical information processing and communication. Here, the authors present a development of a photonic artificial synapse device using chiral perovskite hybrid materials and carbon nanotubes. The heterostructure exhibits efficient synaptic and neuromorphic behaviors, enabling accurate recognition of circularly polarized images.

    • Qi Liu
    • , Qi Wei
    •  & Mingjie Li

  • Article
    | Open Access

    The authors demonstrate a very stable yet broadly tunable photonic THz source, characterized from 2 GHz to 1.4 THz. A very narrow Lamb dip feature is observed in a water absorption line, showcasing its potential for sub-kHz resolution spectroscopy.

    • Léo Djevahirdjian
    • , Loïc Lechevallier
    •  & Samir Kassi

  • Article
    | Open Access

    Feedback oscillators are a fundamental tool in science and engineering. Here, Loughlin and Sudhir provide a generalized Schawlow-Townes-like formula for quantum-limited feedback oscillators, thus giving a general model to study the fundamental output noise of these devices and techniques to reduce their noise further.

    • Hudson A. Loughlin
    •  & Vivishek Sudhir

  • Article
    | Open Access

    Optoelectronic neural networks are a promising avenue in AI computing for parallelization, power efficiency, and speed. Here, the authors present a dual-neuron optical-artificial learning approach for training large-scale diffractive neural networks, achieving VGG-level performance on ImageNet in simulation with a network that is 10 times larger than existing ones.

    • Xiaoyun Yuan
    • , Yong Wang
    •  & Lu Fang

  • Article
    | Open Access

    The development of chemically diverse boron-oxygen-fused polycyclic aromatic hydrocarbons has been limited by their synthetic complexity. Here, authors report a one-pot strategy for their facile synthesis and demonstrate their potential as ultralong afterglow and host materials for deep-blue OLEDs.

    • Guijie Li
    • , Kewei Xu
    •  & Yuan-Bin She

  • Article
    | Open Access

    The authors showcase a method to design negative lumped elements by engineering the effective permittivity within the waveguide, which enables realizations of wideband waveguide metatronics and promises performance enhancement in various fields.

    • Xu Qin
    • , Pengyu Fu
    •  & Yue Li

  • Article
    | Open Access

    Designing an efficient activation function for optical neural networks remains a challenge. Here, the authors demonstrate a modulator-detector-in-one graphene/silicon heterojunction ring resonators enabling on-chip reconfigurable activation function devices with phase activation capability for optical neural networks.

    • Chuyu Zhong
    • , Kun Liao
    •  & Hongtao Lin

  • Article
    | Open Access

    Preparation of photodiodes with photomultiplication/photovoltaic two operating modes is promising but challenging. Here, the authors report a bias-switchable dual-mode organic photodiode by adopting traps and blocking layer, achieving detectivity of 1012 Jones and fast response speed in both modes.

    • Qingxia Liu
    • , Lingfeng Li
    •  & Yadong Jiang

  • Article
    | Open Access

    Deep imaging in complex scattering media is hindered by multiple light scattering. Here, the authors proposed a method to trace multiple scattering trajectories in situ using a recorded reflection matrix and achieved enhanced imaging depth by converting these multiple scattering to signal waves.

    • Sungsam Kang
    • , Yongwoo Kwon
    •  & Wonshik Choi

  • Article
    | Open Access

    Highly reflective surfaces are notorious in 3D sensing because they can cause errors in depth perception. Here, the authors devise a polarization structured light 3D sensor for this problem, in which high-contrast-grating VCSELs are used. Experiments are reported to demonstrate the sensor can be used to see and see through the highly reflective surfaces.

    • Xuanlun Huang
    • , Chenyang Wu
    •  & Connie J. Chang-Hasnain

  • Article
    | Open Access

    Light-responsive polymers with polarization-dependent deformation are promising material to develop tunable devices usually limited by irreversible dynamic control. Here, the authors use controlled polarization of visible light to produce arbitrary deformations into amorphous composites containing azopolymer microdomains to unlock the next level of complex actuation in soft lightdriven robots.

    • David Urban
    • , Niccolò Marcucci
    •  & Emiliano Descrovi

  • Article
    | Open Access

    Researchers demonstrate robust optical communication around fully opaque occlusions, partially or entirely blocking the light path, using a pair of electronic encoder and passive diffractive decoder that are jointly optimized using deep learning.

    • Md Sadman Sakib Rahman
    • , Tianyi Gan
    •  & Aydogan Ozcan

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