Near‐Infrared Tunable Surface Lattice Induced Transparency in a Plasmonic Metasurface

Michaeli, Lior; Suchowski, Haim; Ellenbogen, Tal

doi:10.1002/lpor.201900204

Cited by 19 publications

(22 citation statements)

References 52 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…These EIT‐like features arise due to the interaction of the individual plasmonic particles with a lattice mode, as further described in ref. [ 41 ] . For comparison, we also simulated the phase (Figure 4c) and transmission (Figure 4d) of the measured metasurface with FDTD solver.…”

Section: Resultsmentioning

confidence: 99%

Spectral Interferometric Microscopy for Fast and Broadband Phase Characterization

Michaeli

Haim

Sharma

et al. 2020

Adv. Optical Mater.

Self Cite

View full text Add to dashboard Cite

The rapid growth in the development of new optical materials such as 2D materials, layered heterostructures, active phase changing materials, optical metasurfaces, and metamaterials, requires new methods which enable accurate, broadband, and real‐time microscopic characterization of their optical and physical properties. Here, this necessity is addressed and a novel method is presented to dynamically and accurately obtain the spectral phase of a microscopic sample, either in reflection or transmission. The method is based on a designed optical relay that couples the output port of a typical microscope setup to an imaging spectrometer. By post‐processing the acquired images, a stable, accurate, and easy‐to‐align broadband spectral microscopic interferometer is obtained. This approach is experimentally demonstrated by measuring the spectral phase response of two different types of metasurfaces in reflection and in transmission and also by accurately measuring the dispersion of a thick glass slab in transmission. Moreover, the method's applicability to broadband dynamic measurements is demonstrated by real‐time tracking the phase response of optically driven nematic to isotropic and isotropic to nematic phase transitions of a liquid crystal. Altogether this method enables accurate, dynamic, and easy microscopic phase characterization and can become widely used for materials characterization.

show abstract

Section: Resultsmentioning

confidence: 99%

Spectral Interferometric Microscopy for Fast and Broadband Phase Characterization

Michaeli

Haim

Sharma

et al. 2020

Adv. Optical Mater.

Self Cite

View full text Add to dashboard Cite

show abstract

“…[286][287][288][289][290][291][292][293] Owing to the formation of a collective optical response and its coupling to the in-plane diffraction orders of the array, substantially high-Q lineshapes associated with the SLRs can be excited. [294] While theoretical studies confirmed the excitation of SLR lineshapes with Q-factors on the order of 10 3 , in a recent work, the possibility of achieving experimentally sharp SLRs (up to 2340) was verified. [293] Such pronouncedly high-Q metasurfaces are capable of developing diverse and efficient plasmonic devices including ultrasensitive metasensors.…”

Section: Surface Lattice Resonance (Slr) Metasensorsmentioning

confidence: 96%

“…Figure 7 comprises SEM images of various types of SLR-resonant metasurfaces from recent studies. [293,[294][295][296][297][298] From the biosensing perspective, the promise of SLR modes in periodically decorated resonators for sensing applications has initially been demonstrated in plasmonic platforms. [299][300][301] As one of the leading research teams, Rivas' group utilized SLR modes to scale the FOM of plasmonic sensors.…”

Section: Surface Lattice Resonance (Slr) Metasensorsmentioning

confidence: 99%

Photonic and Plasmonic Metasensors

Ahmadivand

Gerislioglu

2021

Laser & Photonics Reviews

View full text Add to dashboard Cite

Biosensors have been designed and developed for detecting biomarkers, biomolecules, proteins, enzymes, organisms, and various types of bacterial and viral diseases since the turn of the century. Initially marred by poor sensitivity, specificity, and selectivity, the advent of the notion of photonic biosensors has successfully addressed such drawbacks. One of the hallmarks of modern pharmaceutical industries is the miniaturization of photonic platforms via continuous scaling down of their sizes, which was accomplished by leveraging the concept of artificial media. Numerous forms of photonic and plasmonic devices have been configured for next-generation technologies since the emergence of metamaterials. Among diverse applications, the development of cost-effective, label-free, selective, precise, and on-chip immunobiosensors with rapid sample-to-result feature has received copious interest, recently. This focused Review brings clarity to the rapidly growing body of available and in-development metamaterials-enabled diagnostic instruments based on inventive and promising approaches. Through centering on the operating principles of plasmonic, photonic, and hybrid metasensors, we mechanistically characterize and describe the properties of such tools and summarize the most recent achievements in devising metasensors and bioimaging tools with high precision. This insightful understanding serves as a comprehensive source for scientists, physicians, and students to construct ultradense and high-throughput clinical screening metadevices.

show abstract

“…and demonstrated for their capability of realizing PIT as an analogy to EIT in the atomic system. [104][105][106][107][108][109][110][111][112][113][114][115] In 2008, Zhang et al demonstrated a novel plasmonic metamaterial structure consisting of a radiative element and a dark element that enables PIT to appear. [116] Figure 7a shows the alignment of this plasmonic structure, and it is advantageous in room-temperature operation, wide bandwidth, and easy integration with plasmonic circuit.…”

Section: Plasmon-induced Transparencymentioning

confidence: 99%

Induced Transparency with Optical Cavities

Qin

Ding

Yin

2020

Advanced Photonics Research

View full text Add to dashboard Cite

Induced transparency, an interference effect due to mode coupling, has attracted significant research interest. The first discovered and most striking type of induced transparency plays electromagnetically induced transparency (EIT) in atomic systems. Optical cavities serve as a more ideal and feasible platform for realizing the effects of induced transparency, which leads to considerable demonstrations in theory and experiments. This review provides a run‐through of research findings on different types of induced transparency phenomenon, including, inter alia, EIT, optomechanically induced transparency, plasmon‐induced transparency, Brillouin scattering induced transparency, optically induced transparency, photothermally induced transparency, and dipole‐induced transparency. Their mechanisms, developments, techniques, and applications are discussed in detail. Most importantly, the emerging area of induced transparency at exceptional points is analyzed for its great promise. The last section presents a brief summary and perspective of induced transparency with optical cavities.

show abstract

Near‐Infrared Tunable Surface Lattice Induced Transparency in a Plasmonic Metasurface

Cited by 19 publications

References 52 publications

Spectral Interferometric Microscopy for Fast and Broadband Phase Characterization

Spectral Interferometric Microscopy for Fast and Broadband Phase Characterization

Photonic and Plasmonic Metasensors

Induced Transparency with Optical Cavities

Contact Info

Product

Resources

About