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REVIEW 1 major objections 5 minor 148 references

Light-matter interactions in layered materials and heterostructures: from moir\'e physics and magneto-optical effects to ultrafast dynamics and hybrid meta-photonics

T0 review · 1 major / 5 minor · reviewed 2026-08-12 · deepseek-v4-flash

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Pith's one-line read The paper argues that layered semiconductors, especially transition-metal dichalcogenides, now form a single platform where ultrafast exciton dynamics, spin-valley control, moiré band engineering, and hybrid photonic integration reinforce…

desk verdict A competent, well-referenced perspective that honestly flags open problems, with one over-optimistic section on moiré cavities that leans heavily on a single experiment. read the letter →

arxiv 2412.01252 v1 pith:2JXPYYXZ submitted 2024-12-02 cond-mat.mtrl-sci cond-mat.mes-hallphysics.optics

Luca Sortino , Marcos H. D. Guimarães , Alejandro Molina-Sánchez , Jiamin Quan , Denis Garoli , Nicolò Maccaferri This is my paper · ORCID
classification cond-mat.mtrl-scicond-mat.mes-hallphysics.optics
keywords moiréexcitonstransitionmetaldichalcogenidesultrafastdynamicsspin-valleyphysicsstronglight-mattercouplingtime-resolvedmagneto-opticsquasi-boundstatesinthecontinuumvanderWaalsheterostructures
verification ladder T0 review T1 audit T2 compute T3 formal

The pith

A machine-rendered reading of the paper's core claim, the machinery that carries it, and where it could break.

The reading

This perspective sets out to show that two-dimensional semiconductors are not just a collection of interesting effects but a coherent platform for controlling light at atomic scales. The authors highlight three converging research fronts: moiré superlattices that bound excitons and host correlated states, time-resolved magneto-optics that tracks spin and valley information, and hybrid photonic structures that couple these excitations to confined light. They argue that these directions together open routes to valleytronic memory, low-threshold polariton lasers, and tunable quantum simulators. A sympathetic reader takes the paper as a roadmap: the evidence already reported for moiré exciton imaging, strong coupling in cavities, and ultrafast interface dynamics justifies investing in 2D materials as versatile building blocks for ultrafast photonics and quantum technologies.

What carries the argument

The load-bearing objects are the moiré superlattice, which imposes a nanometer-scale periodic potential that localizes interlayer excitons and creates flat bands; the spin-valley locked band structure of TMD monolayers, which couples circular photon helicity to valley index and spin; time-resolved magneto-optical spectroscopy (TR-MOKE), which reads spin/valley accumulation through Kerr rotation; three-pulse pump-push-probe spectroscopy at TMD/metal junctions, which separates thermionically injected carriers from directly excited ones; and high-Q quasi-bound-states-in-the-continuum metasurfaces made from TMD films, which concentrate light enough for strong coupling with excitons under ambient conditions.

What would settle it

A direct replication attempt of the central examples would settle the claim: if independent groups repeat the WSe2/MoS2 TR-ARPES measurement of Ref. [32] and fail to observe the reported 5.2 nm interlayer-exciton diameter and momentum-space structure, or if a carefully built moiré cavity (following Ref. [44]) shows no anticrossing or no density-dependent nonlinearity, then the optimistic roadmap would lose its experimental foundation. Similarly, a systematic study correlating pump-push-probe-derived Schottky barriers (Ref. [97]) with electrical transport measurements on the same junctions could confirm or refute the proposed optical contact probe.

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Extended reading notes

Core claim

The paper's central claim is that monolayer and twisted stacked transition-metal dichalcogenides provide a unique testbed where strong Coulomb binding, spin-valley locking, and moiré periodic potentials combine with easy integration into photonic structures, enabling ultrafast control of excitons, spins, and valleys. It presents recent experimental milestones as evidence: time-resolved ARPES captures the spatial structure of moiré excitons and their formation dynamics, strongly coupled microcavities reveal moiré-induced nonlinearities consistent with exciton blockade, time-resolved magneto-optical measurements show gate- and field-tunable spin/valley lifetimes, and pump-push-probe spectroscopy disentangles hot-electron injection from direct excitation at TMD/metal interfaces, even allowing Schottky barrier heights to be read out. The authors further claim that all-2D photonic structures such as quasi-bound-state-in-the-continuum metasurfaces achieve strong exciton-photon coupling at room temperature, making the platform practical for ambient-condition devices.

Load-bearing premise

The roadmap assumes that the key cited experimental milestones—TR-ARPES imaging of moiré excitons, strong coupling with moiré nonlinearity, gate-tunable spin lifetimes, and pump-push-probe Schottky extraction—are reproducible and that the underlying samples and methods are reliable across laboratories.

Editorial extensions

If this is right

  • Moiré excitons confined by superlattice potentials should act as a lattice of quantum emitters whose occupancy can be controlled optically, enabling excitonic Hubbard-model simulation and single-photon nonlinearities.
  • Gate- and magnetic-field-controlled spin/valley lifetimes in TMD monolayers and heterostructures can be harnessed for nonvolatile valleytronic memory and spin-based information transfer.
  • Pump-push-probe spectroscopy at metal/TMD contacts can map Schottky barrier heights and hot-carrier injection dynamics, informing faster and more efficient optoelectronic devices.
  • Strong coupling of moiré excitons to cavity photons could drive the system into non-equilibrium hidden phases that are inaccessible without the photonic environment.
  • All-2D qBIC metasurfaces, operating at room temperature with coupling strengths above 55 meV, provide a scalable and stable route to polaritonic devices without external cavities.

Reading between the lines

Editorial extensions of the paper, not claims the author makes directly.

  • If moiré-induced nonlinearities arise from single-occupancy blockade, then arrays of moiré cells embedded in cavities may behave as a scalable quantum nonlinear medium, enabling few-photon switches or sources of nonclassical light.
  • Time-resolved MOKE, already used to detect current-induced orbital polarization in strained MoS2, could be extended to measure relaxation of orbital moments in heterostructures, giving the orbitronics field a direct ultrafast probe.
  • Chiral cavities and waveguides coupled to TMD valleys could route emission by valley index, so a testable extension is measuring directional, helicity-locked photoluminescence from a MoS2 or WSe2 monolayer on a chiral metasurface.
  • A direct comparison of pump-push-probe-derived Schottky barriers with electrical transport measurements across the same metal/TMD junctions would validate the optical method as a routine contact-quality probe.
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Editorial analysis

A structured set of objections, weighed in public.

Desk editor's note, referee report, and a circularity audit.

Referee Report

1 major / 5 minor

Summary. This manuscript is a perspective article surveying recent advances in light-matter interactions in layered two-dimensional materials, with emphasis on moiré physics, ultrafast magneto-optical dynamics, metal-TMD interfaces, and hybrid photonic structures. The authors summarize established experimental milestones (e.g., moiré exciton imaging by TR-ARPES, strong coupling in moiré cavities, Schottky barrier extraction via pump-push-probe) and extrapolate from these to a roadmap for next-generation optoelectronic and quantum devices. The paper also explicitly acknowledges several open challenges, including the lack of scalable theoretical methods for hybrid moiré-photonic systems and reproducibility issues in moiré optical measurements.

Significance. The paper is a well-structured perspective that compiles a large body of recent literature, with careful citation of primary sources for quantitative claims (e.g., interlayer exciton diameter of 5.2 nm in Ref. 32, coupling strength above 55 meV in Ref. 143). It provides a useful overview for nonspecialists and highlights several genuinely promising directions. The explicit discussion of limitations—such as the absence of a clear computational strategy for coupled moiré-photonic Hamiltonians and the reproducibility concerns in moiré optics—adds credibility and distinguishes this perspective from a purely promotional roadmap. If the cited milestones hold, the outlined integration of 2D materials with photonic structures offers a plausible pathway toward cavity-controlled correlated states and ultrafast optoelectronic devices.

major comments (1)
  1. [§2.2, paragraphs 1–2] The argument that photonic structures can overcome the diffraction limit and provide access to intrinsic moiré phenomena is internally inconsistent with the experimental evidence cited. The text claims that 'photonic structures, capable of confining light to ultra-small volumes, can overcome this limitation and enable optical investigations at scales commensurate with moiré periodicities,' yet the milestone highlighted (Ref. 44) is an open DBR microcavity—a macroscopic cavity whose mode volume is far larger than a moiré unit cell and which does not provide sub-wavelength spatial resolution. The paper therefore does not substantiate the spatial-resolution benefit with the cited experiment. Please clarify which advantage of photonic integration is being claimed: strong coupling/nonlinearities (as in Ref. 44) or spatial resolution (requiring near-field or nanoscale cavities, which are not the cited example). Without this distinction, the motivational link in this subsection is not load-bearing as written.
minor comments (5)
  1. [Abstract] There is a typo in the abstract: 'th e' should be 'the'.
  2. [§2.2, paragraph 2] The sentence 'This approach holds significant promise for realizing novel and high-temperature correlated non-equilibrium states [40] []' contains an empty bracket after the citation; also 'driving force' has a double space.
  3. [Figure 4 caption] The caption lists panels (e-f) and then (h), (i), (l), but the text refers to 'Fig. 4e-j' and the figure appears to contain more panels. Please harmonize the panel labels and text references.
  4. [References] Reference [80] lists the title twice: 'Advances in ultrafast plasmonics Advances in ultrafast plasmonics'. The duplicate should be removed.
  5. [§4.2, paragraph 3] 'the high binding energy of 2D semiconductor indicates higher stability up to ambient conditions' — the article should be 'a 2D semiconductor' and there is an extra space before 'up'.

Circularity Check

0 steps flagged · score 0.0 of 10

No circularity: the perspective contains no derivation chain, fitted parameters, or self-referential predictions; cited prior work is independent experimental evidence.

full rationale

This is a perspective/review article, not a derivation or modeling paper: it contains no equations that relate a predicted quantity to fitted inputs, and it does not claim to derive new results from its own assumptions. The quantitative milestones it highlights (e.g., TR-ARPES imaging of moiré excitons, strongly coupled moiré exciton-polaritons, Schottky-barrier extraction from pump-push-probe measurements) are presented as independent experimental reports from the literature and are used as evidence rather than as premises that are assumed into existence. The authors do cite their own prior work (Refs. 28, 56, 58, 60, 61, 69, 96, 109, 129, 143), but those citations are published, externally falsifiable experimental or theoretical results with stated methods; they do not constitute a self-citation chain that forces the paper's conclusions. The manuscript's own caveats—such as the statement that far-field moiré optical measurements suffer from reproducibility issues and that there is currently no clear computational strategy for cavity-coupled moiré Hamiltonians—are assessments of roadmap readiness and external evidence, not circular reductions. Consequently, no step in the paper reduces by construction to its own inputs, and the appropriate finding is no significant circularity.

Assumptions & free parameters 0 free parameters · 0 assumptions · 0 invented entities

As a perspective/review, the paper introduces no free parameters, no axioms beyond the standard physics it surveys, and no invented entities. The quantitative results quoted (e.g., interlayer exciton diameter, coupling strength) are taken from cited experimental papers.

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Cite this review

Pith. "Pith review of Light-matter interactions in layered materials and heterostructures: from moir\'e physics and magneto-optical effects to ultrafast dynamics and hybrid meta-photonics." pith.science (2026). https://pith.science/paper/2JXPYYXZ

@misc{pith2026241201252,
  author       = {Pith},
  title        = {Pith review of: Light-matter interactions in layered materials and heterostructures: from moir\'e physics and magneto-optical effects to ultrafast dynamics and hybrid meta-photonics},
  year         = {2026},
  howpublished = {\url{https://pith.science/paper/2JXPYYXZ}},
  note         = {Machine review of arXiv:2412.01252}
}
read the original abstract

Layered two-dimensional (2D) materials have revolutionized how we approach light-matter interactions, offering unprecedented optical and electronic properties with the potential for vertical heterostructures and manipulation of spin-valley degrees of freedom. The discovery of moir\'e physics in twisted heterostructures has further unlocked new possibilities for controlling the band structure of tailored semiconductor heterostructures. In parallel, the integration of 2D materials with hybrid photonic structures and ultrafast studies on their optical and spin-valley properties has revealed a wealth of novel physical phenomena. This perspective highlights the recent advances in our understanding of light-matter interactions in moir\'e and 2D systems, with a particular emphasis on ultrafast processes and the integration of these materials into photonic platforms. We explore the implications for optoelectronics and emerging photonic technologies, positioning 2D materials as a transformative tool for next-generation devices.

Figures

Figures reproduced from arXiv: 2412.01252 by the authors.

Figure 1
Figure 1. (a) Cartoon of the moiré superlattice formed in a WSe2/MoSe2 heterostructure with a twist angle of 5 degrees (scale bar 2 nm). Red diamonds represent a moiré supercell. Adapted from Ref. [28]. (b) Schematic of the buckling process in a TMD heterobilayer. Adapted from Ref. [26]. (c) Localization of electronic wave functions of the top of the valence band on moiré bilayer MoS2. Adapted from Ref. [24] with permission o… view at source ↗
Figure 2
Figure 2. (a) Illustration of the interlayer (top) and hybridized (bottom) exciton species in TMDs heterobilayers. On the right, the respective band structure energy diagram. Adapted from Ref. [6]. (b) Illustration of the cavity coupling of moiré excitons. (c) Optical reflectance of a cavity coupled moiré TMD bilayer, exhibiting the anticrossing signature of the strong coupling regime. (d) Real-space distribution of the inter… view at source ↗
Figure 3
Figure 3. (a) TR-MOKE in a TMD monolayer. A circularly-polarized laser pulse (pump) generates a spin/valley accumulation. The valley excitation (K or K’) is selected by different light helicities (right). The spin/valley accumulation is then probed by the polarization rotation or ellipticity of the reflection of a linearly-polarized laser pulse (probe). (b) TR-MOKE measurements in a WSe2 monolayer showing gate-control over th… view at source ↗
Figures from the paper (2 more)
Figure 4
Figure 4. Figure 4: (a) Thermal Fermi-Dirac distribution (ρ) in gold and band alignment in WS2 for the WS2/Au heterojunction under illumination by pump pulse (red), followed by a modulated push pulse (green). The pump-induced thermionic injection of excess electrons (e–) from the gold and…
Figure 5
Figure 5. Figure 5: (a) 3D illustration of a plasmonic nanocavity, consisting of silver nanocubes of varying sizes on top of a gold film, and a MoS2 monolayer (left). Enhanced PL emission from the MoS2 monolayer observed in a nanocavity composed of a 75 nm nanocube (right). Adapted from R…

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Works this paper leans on

148 extracted references · 80 canonical work pages

  1. [1]

    Zeng M, Xiao Y , Liu J, Yang K and Fu L 2018 Exploring Two-Dimensional Materials toward the Next-Generation Circuits: From Monomer Design to Assembly Control Chem. Rev. 118 6236–96

    2018

  2. [2]

    Shanmugam V , Mensah R A, Babu K, Gawusu S, Chanda A, Tu Y , Neisiany R E, Försth M, Sas G and Das O 2022 A Review of the Synthesis, Properties, and Applications of 2D Materials Part & Part Syst Charact 39 2200031

    2022

  3. [3]

    Wang G, Chernikov A, Glazov M M, Heinz T F, Marie X, Amand T and Urbaszek B 2018 Colloquium : Excitons in atomically thin transition metal dichalcogenides Rev. Mod. Phys. 90 021001

    2018

  4. [4]

    Xiao J, Zhao M, Wang Y and Zhang X 2017 Excitons in atomically thin 2D semiconductors and their applications Nanophotonics 6 1309–28

    2017

  5. [5]

    Anantharaman S B, Jo K and Jariwala D 2021 Exciton –Photonics: From Fundamental Science to Applications ACS Nano 15 12628–54

    2021

  6. [6]

    Nanotechnol

    Huang D, Choi J, Shih C -K and Li X 2022 Excitons in semiconductor moiré superlattices Nat. Nanotechnol. 17 227–38

    2022

  7. [7]

    Dal Conte S, Trovatello C, Gadermaier C and Cerullo G 2020 Ultrafast Photophysics of 2D Semiconductors and Related Heterostructures Trends in Chemistry 2 28–42

    2020

  8. [8]

    Ciarrocchi A, Tagarelli F, Avsar A and Kis A 2022 Excitonic devices with van der Waals heterostructures: valleytronics meets twistronics Nat Rev Mater 7 449–64

    2022

Show all 148 references
  1. [9]

    Schaibley J R, Yu H, Clark G, Rivera P, Ross J S, Seyler K L, Yao W and Xu X 2016 Valleytronics in 2D materials Nat Rev Mater 1 16055

    2016

  2. [10]

    Jin C, Ma E Y , Karni O, Regan E C, Wang F and Heinz T F 2018 Ultrafast dynamics in van der Waals heterostructures Nature Nanotechnology 13 994–1003

    2018

  3. [11]

    Rana N and Dixit G 2023 All -Optical Ultrafast Valley Switching in Two -Dimensional Materials Phys. Rev. Applied 19 034056 14

    2023

  4. [12]

    Fanciulli M, Bresteau D, Gaudin J, Dong S, Géneaux R, Ruchon T, Tcherbakoff O, Minár J, Heckmann O, Richter M C, Hricovini K and Beaulieu S 2023 Ultrafast Hidden Spin Polarization Dynamics of Bright and Dark Excitons in 2 H − WSe 2 Phys. Rev. Lett. 131 066402

    2023

  5. [13]

    Arnoldi B, Zachritz S L, Hedwig S, Aeschlimann M, Monti O L A and Stadtmüller B 2024 Revealing hidden spin polarization in centrosymmetric van der Waals materials on ultrafast timescales Nat Commun 15 3573

    2024

  6. [14]

    Geim A K and Grigorieva I V 2013 Van der Waals heterostructures Nature 499 419–25

    2013

  7. [15]

    Nanotechnol

    Mak K F and Shan J 2022 Semiconductor moiré materials Nat. Nanotechnol. 17 686–95

    2022

  8. [16]

    Regan E C, Wang D, Paik E Y , Zeng Y , Zhang L, Zhu J, MacDonald A H, Deng H and Wang F 2022 Emerging exciton physics in transition metal dichalcogenide heterobilayers Nat Rev Mater 7 778– 95

    2022

  9. [17]

    Wilson N P, Yao W, Shan J and Xu X 2021 Excitons and emergent quantum phenomena in stacked 2D semiconductors Nature 599 383–92

    2021

  10. [18]

    Kennes D M, Claassen M, Xian L, Georges A, Millis A J, Hone J, Dean C R, Basov D N, Pasupathy A N and Rubio A 2021 Moiré heterostructures as a condensed-matter quantum simulator Nat. Phys. 17 155–63

    2021

  11. [19]

    Ma X, Youngblood N, Liu X, Cheng Y , Cunha P, Kudtarkar K, Wang X and Lan S 2021 Engineering photonic environments for two-dimensional materials Nanophotonics 10 1031–58

    2021

  12. [20]

    Luo Y , Zhao J, Fieramosca A, Guo Q, Kang H, Liu X, Liew T C H, Sanvitto D, An Z, Ghosh S, Wang Z, Xu H and Xiong Q 2024 Strong light-matter coupling in van der Waals materials Light Sci Appl 13 203

    2024

  13. [21]

    Huang L, Krasnok A, Alú A, Yu Y , Neshev D and Miroshnichenko A E 2022 Enhanced light–matter interaction in two-dimensional transition metal dichalcogenides Rep. Prog. Phys. 85 046401

    2022

  14. [22]

    Basov D N, Fogler M M and García De Abajo F J 2016 Polaritons in van der Waals materials Science 354 aag1992

    2016

  15. [23]

    Cao Y , Fatemi V , Fang S, Watanabe K, Taniguchi T, Kaxiras E and Jarillo -Herrero P 2018 Unconventional superconductivity in magic-angle graphene superlattices Nature 556 43–50

    2018

  16. [24]

    Naik M H and Jain M 2018 Ultraflatbands and Shear Solitons in Moiré Patterns of Twisted Bilayer Transition Metal Dichalcogenides Phys. Rev. Lett. 121 266401

    2018

  17. [25]

    Zhang Z, Wang Y , Watanabe K, Taniguchi T, Ueno K, Tutuc E and LeRoy B J 2020 Flat bands in twisted bilayer transition metal dichalcogenides Nat. Phys. 16 1093–6

    2020

  18. [26]

    Li H, Li S, Naik M H, Xie J, Li X, Wang J, Regan E, Wang D, Zhao W, Zhao S, Kahn S, Yumigeta K, Blei M, Taniguchi T, Watanabe K, Tongay S, Zettl A, Louie S G, Wang F and Crommie M F 2021 Imaging moiré flat bands in three -dimensional reconstructed WSe2/WS2 superlattices Nat. M...

    2021

  19. [27]

    Stansbury C H, Utama M I B, Fatuzzo C G, Regan E C, Wang D, Xiang Z, Ding M, Watanabe K, Taniguchi T, Blei M, Shen Y , Lorcy S, Bostwick A, Jozwiak C, Koch R, Tongay S, Avila J, Rotenberg E, Wang F and Lanzara A 2021 Visualizing electron localization of WS2 /WSe2 moiré superla...

    2021

  20. [28]

    Brotons-Gisbert M, Baek H, Molina -Sánchez A, Campbell A, Scerri E, White D, Watanabe K, Taniguchi T, Bonato C and Gerardot B D 2020 Spin–layer locking of interlayer excitons trapped in moiré potentials Nat. Mater. 19 630–6

    2020

  21. [29]

    Anderson E, Fan F -R, Cai J, Holtzmann W, Taniguchi T, Watanabe K, Xiao D, Yao W and Xu X 2023 Programming correlated magnetic states with gate -controlled moiré geometry Science 381 325–30

    2023

  22. [30]

    Huang X, Wang T, Miao S, Wang C, Li Z, Lian Z, Taniguchi T, Watanabe K, Okamoto S, Xiao D, Shi S-F and Cui Y-T 2021 Correlated insulating states at fractional fillings of the WS2/WSe2 moiré lattice Nat. Phys. 17 715–9

    2021

  23. [31]

    Ghiotto A, Shih E -M, Pereira G S S G, Rhodes D A, Kim B, Zang J, Millis A J, Watanabe K, Taniguchi T, Hone J C, Wang L, Dean C R and Pasupathy A N 2021 Quantum criticality in twisted transition metal dichalcogenides Nature 597 345–9

    2021

  24. [32]

    Karni O, Barré E, Pareek V , Georgaras J D, Man M K L, Sahoo C, Bacon D R, Zhu X, Ribeiro H B, O’Beirne A L, Hu J, Al-Mahboob A, Abdelrasoul M M M, Chan N S, Karmakar A, Winchester A J, Kim B, Watanabe K, Taniguchi T, Barmak K, Madéo J, Da Jornada F H, Heinz T F and Dani K M 2...

    2022

  25. [33]

    Boschini F, Zonno M and Damascelli A 2024 Time-resolved ARPES studies of quantum materials Rev. Mod. Phys. 96 015003

    2024

  26. [34]

    15 5883–7

    Grubišić Čabo A, Miwa J A, Grønborg S S, Riley J M, Johannsen J C, Cacho C, Alexander O, Chapman R T, Springate E, Grioni M, Lauritsen J V , King P D C, Hofmann P and Ulstrup S 2015 Observation of Ultrafast Free Carrier Dynamics in Single Layer MoS 2 Nano Lett. 15 5883–7

    2015

  27. [35]

    Christiansen D, Selig M, Malic E, Ernstorfer R and Knorr A 2019 Theory of exciton dynamics in time-resolved ARPES: Intra- and intervalley scattering in two -dimensional semiconductors Phys. Rev. B 100 205401

    2019

  28. [36]

    Stefanucci G and Perfetto E 2021 From carriers and virtual excitons to exciton populations: Insights into time-resolved ARPES spectra from an exactly solvable model Phys. Rev. B 103 245103

    2021

  29. [37]

    Sangalli D 2021 Excitons and carriers in transient absorption and time -resolved ARPES spectroscopy: An ab initio approach Phys. Rev. Materials 5 083803

    2021

  30. [38]

    Lin Y , Chan Y , Lee W, Lu L-S, Li Z, Chang W-H, Shih C-K, Kaindl R A, Louie S G and Lanzara A 2022 Exciton-driven renormalization of quasiparticle band structure in monolayer MoS 2 Phys. Rev. B 106 L081117

    2022

  31. [39]

    Schmitt D, Bange J P, Bennecke W, AlMutairi A, Meneghini G, Watanabe K, Taniguchi T, Steil D, Luke D R, Weitz R T, Steil S, Jansen G S M, Brem S, Malic E, Hofmann S, Reutzel M and Mathias S 2022 Formation of moiré interlayer excitons in space and time Nature 608 499–503 16

    2022

  32. [40]

    Du L, Molas M R, Huang Z, Zhang G, Wang F and Sun Z 2023 Moiré photonics and optoelectronics Science 379 eadg0014

    2023

  33. [41]

    Förg M, Colombier L, Patel R K, Lindlau J, Mohite A D, Yamaguchi H, Glazov M M, Hunger D and Högele A 2019 Cavity -control of interlayer excitons in van der Waals heterostructures Nat Commun 10 3697

    2019

  34. [42]

    Qian C, Troue M, Figueiredo J, Soubelet P, Villafañe V , Beierlein J, Klembt S, Stier A V , Höfling S, Holleitner A W and Finley J J 2024 Lasing of moiré trapped MoSe 2 /WSe2 interlayer excitons coupled to a nanocavity Sci. Adv. 10 eadk6359

    2024

  35. [43]

    Lin Q, Fang H, Kalaboukhov A, Liu Y , Zhang Y , Fischer M, Li J, Hagel J, Brem S, Malic E, Stenger N, Sun Z, Wubs M and Xiao S 2024 Moiré -engineered light-matter interactions in MoS2/WSe2 heterobilayers at room temperature Nat Commun 15 8762

    2024

  36. [44]

    Zhang L, Wu F, Hou S, Zhang Z, Chou Y H, Watanabe K, Taniguchi T, Forrest S R and Deng H 2021 Van der Waals heterostructure polaritons with moiré-induced nonlinearity Nature 591 61–5

    2021

  37. [45]

    Oudich M, Kong X, Zhang T, Qiu C and Jing Y 2024 Engineered moiré photonic and phononic superlattices Nat. Mater. 23 1169–78

    2024

  38. [46]

    Kimel A, Zvezdin A, Sharma S, Shallcross S, de Sousa N, García -Martín A, Salvan G, Hamrle J, Stejskal O, McCord J, Tacchi S, Carlotti G, Gambardella P, Salis G, Münzenberg M, Schultze M, Temnov V , Bychkov I V , Kotov L N, Maccaferri N, Ignatyeva D, Belotelov V , Donnelly C, ...

    2022

  39. [47]

    Mak K F, He K, Shan J and Heinz T F 2012 Control of valley polarization in monolayer MoS2 by optical helicity Nature Nanotechnology 7 494–8

    2012

  40. [48]

    Zeng H, Dai J, Yao W, Xiao D and Cui X 2012 Valley polarization in MoS2 monolayers by optical pumping Nature Nanotechnology 7 490–3

    2012

  41. [49]

    Zhu C R, Zhang K, Glazov M, Urbaszek B, Amand T, Ji Z W, Liu B L and Marie X 2014 Exciton valley dynamics probed by Kerr rotation in WSe2 monolayers Physical Review B 90 161302

    2014

  42. [50]

    Song X, Xie S, Kang K, Park J and Sih V 2016 Long -Lived Hole Spin/V alley Polarization Probed by Kerr Rotation in Monolayer WSe2 Nano Letters 16 5010–4

    2016

  43. [51]

    V olmer F, Pissinger S, Ersfeld M, Kuhlen S, Stampfer C and Beschoten B 2017 Intervalley dark trion states with spin lifetimes of 150 ns in WSe2 Physical Review B 95 235408

    2017

  44. [52]

    Lagarde D, Bouet L, Marie X, Zhu C R, Liu B L, Amand T, Tan P H and Urbaszek B 2014 Carrier and Polarization Dynamics in Monolayer MoS2 Physical Review Letters 112 047401

    2014

  45. [53]

    McCormick E J, Newburger M J, Luo Y K, McCreary K M, Singh S, Martin I B, Cichewicz E J, Jonker B T and Kawakami R K 2017 Imaging spin dynamics in monolayer WS 2 by time-resolved Kerr rotation microscopy 2D Materials 5 011010 17

    2017

  46. [54]

    Schwemmer M, Nagler P, Hanninger A, Schüller C and Korn T 2017 Long-lived spin polarization in n-doped MoSe 2 monolayers Applied Physics Letters 111 082404

    2017

  47. [55]

    Yang L, Sinitsyn N A, Chen W, Yuan J, Zhang J, Lou J and Crooker S A 2015 Long -lived nanosecond spin relaxation and spin coherence of electrons in monolayer MoS2 and WS2 Nature Physics 11 830–4

    2015

  48. [56]

    20 3147–54

    Ersfeld M, V olmer F, Rathmann L, Kotewitz L, Heithoff M, Lohmann M, Yang B, Watanabe K, Taniguchi T, Bartels L, Shi J, Stampfer C and Beschoten B 2020 Unveiling Valley Lifetimes of Free Charge Carriers in Monolayer WSe2 Nano Lett. 20 3147–54

    2020

  49. [57]

    19 4083–90

    Ersfeld M, V olmer F, de Melo P M M C, de Winter R, Heithoff M, Zanolli Z, Stampfer C, Verstraete M J and Beschoten B 2019 Spin States Protected from Intrinsic Electron –Phonon Coupling Reaching 100 ns Lifetime at Room Temperature in MoSe2 Nano Lett. 19 4083–90

    2019

  50. [58]

    Guimarães M H D and Koopmans B 2018 Spin Accumulation and Dynamics in Inversion - Symmetric van der Waals Crystals Physical Review Letters 120 266801

    2018

  51. [59]

    21 7123–30

    Kumar A, Yagodkin D, Stetzuhn N, Kovalchuk S, Melnikov A, Elliott P, Sharma S, Gahl C and Bolotin K I 2021 Spin/Valley Coupled Dynamics of Electrons and Holes at the MoS2 –MoSe2 Interface Nano Lett. 21 7123–30

    2021

  52. [60]

    10 035013

    Rojas-Lopez R R, Hendriks F, Wal C H van der, Guimarães P S S and Guimarães M H D 2023 Magnetic field control of light -induced spin accumulation in monolayer MoSe2 2D Mater. 10 035013

    2023

  53. [61]

    Gilardoni C M, Hendriks F, van der Wal C H and Guimarães M H D 2021 Symmetry and control of spin-scattering processes in two-dimensional transition metal dichalcogenides Phys. Rev. B 103 115410

    2021

  54. [62]

    Jones A M, Yu H, Ross J S, Klement P, Ghimire N J, Yan J, Mandrus D G, Yao W and Xu X 2014 Spin–layer locking effects in optical orientation of exciton spin in bilayer WSe2 Nature Physics 10 130–4

    2014

  55. [63]

    Gong Z, Liu G-B, Yu H, Xiao D, Cui X, Xu X and Yao W 2013 Magnetoelectric effects and valley- controlled spin quantum gates in transition metal dichalcogenide bilayers Nature Communications 4 1–6

    2013

  56. [64]

    Go D, Jo D, Lee H-W, Kläui M and Mokrousov Y 2021 Orbitronics: Orbital currents in solids EPL 135 37001

    2021

  57. [65]

    Lee J, Wang Z, Xie H, Mak K F and Shan J 2017 Valley magnetoelectricity in single -layer MoS2 Nature Materials 16 887–91

    2017

  58. [66]

    Jiang Y , Chen S, Zheng W, Zheng B and Pan A 2021 Interlayer exciton formation, relaxation, and transport in TMD van der Waals heterostructures Light Sci Appl 10 72

    2021

  59. [67]

    Jauregui L A, Joe A Y , Pistunova K, Wild D S, High A A, Zhou Y , Scuri G, De Greve K, Sushko A, Yu C-H, Taniguchi T, Watanabe K, Needleman D J, Lukin M D, Park H and Kim P 2019 Electrical control of interlayer exciton dynamics in atomically thin heterostructures Science 366 870–5 18

    2019

  60. [68]

    Park S, Kim D and Seo M -K 2021 Plasmonic Photonic Crystal Mirror for Long -Lived Interlayer Exciton Generation ACS Photonics 8 3619–26

    2021

  61. [69]

    Hendriks F and Guimarães M H D 2021 Enhancing magneto -optic effects in two -dimensional magnets by thin-film interference AIP Advances 11 035132

    2021

  62. [70]

    Lyons T P, Gillard D, Molina-Sánchez A, Misra A, Withers F, Keatley P S, Kozikov A, Taniguchi T, Watanabe K, Novoselov K S, Fernández-Rossier J and Tartakovskii A I 2020 Interplay between spin proximity effect and charge -dependent exciton dynamics in MoSe2/CrBr3 van der Waals...

    2020

  63. [71]

    Ciorciaro L, Kroner M, Watanabe K, Taniguchi T and Imamoglu A 2020 Observation of Magnetic Proximity Effect Using Resonant Optical Spectroscopy of an Electrically Tunable ${\mathrm{MoSe}}_{2}/{\mathrm{CrBr}}_{3}$ Heterostructure Phys. Rev. Lett. 124 197401

    2020

  64. [72]

    Schmidt H, Giustiniano F and Eda G 2015 Electronic transport properties of transition metal dichalcogenide field-effect devices: surface and interface effects Chem. Soc. Rev. 44 7715–36

    2015

  65. [73]

    Massicotte M, Schmidt P, Vialla F, Watanabe K, Taniguchi T, Tielrooij K J and Koppens F H L 2016 Photo-thermionic effect in vertical graphene heterostructures Nat Commun 7 12174

    2016

  66. [74]

    Mele E J and Joannopoulos J D 1978 Theory of metal -semiconductor interfaces Phys. Rev. B 17 1528–39

    1978

  67. [75]

    19 7549–52

    Celano U and Maccaferri N 2019 Chasing Plasmons in Flatland Nano Lett. 19 7549–52

    2019

  68. [76]

    Zhang H, Abhiraman B, Zhang Q, Miao J, Jo K, Roccasecca S, Knight M W, Davoyan A R and Jariwala D 2020 Hybrid exciton -plasmon-polaritons in van der Waals semiconductor gratings Nat Commun 11 3552

    2020

  69. [77]

    Nano Mater

    Davoodi F and Talebi N 2021 Plasmon –Exciton Interactions in Nanometer -Thick Gold -WSe 2 Multilayer Structures: Implications for Photodetectors, Sensors, and Light -Emitting Devices ACS Appl. Nano Mater. 4 6067–74

    2021

  70. [78]

    V ogelsang J, Wittenbecher L, Pan D, Sun J, Mikaelsson S, Arnold C L, L’Huillier A, Xu H and Mikkelsen A 2021 Coherent Excitation and Control of Plasmons on Gold Using Two-Dimensional Transition Metal Dichalcogenides ACS Photonics 8 1607–15

    2021

  71. [79]

    Nano Mater

    Luhar B, Dhankhar R, Nair R V , Soni A, Kamath N S, Pal S K and Balakrishnan V 2024 Charge Transfer Mediated Photoluminescence Engineering in WS 2 Monolayers for Optoelectronic Application ACS Appl. Nano Mater. 7 22350–9

    2024

  72. [80]

    Koya A N, Romanelli M, Kuttruff J, Henriksson N, Stefancu A, Grinblat G, De Andres A, Schnur F, Vanzan M, Marsili M, Rahaman M, Viejo Rodríguez A, Tapani T, Lin H, Dana B D, Lin J, Barbillon G, Zaccaria R P, Brida D, Jariwala D, Veisz L, Cortes E, Corni S, Garoli D and Maccafe...

    2022

  73. [81]

    Maccaferri N, Meuret S, Kornienko N and Jariwala D 2020 Speeding up Nanoscience and Nanotechnology with Ultrafast Plasmonics Nano Letters 20 5593–6 19

    2020

  74. [82]

    6 984–94

    Govorov A O, Bryant G W, Zhang W, Skeini T, Lee J, Kotov N A, Slocik J M and Naik R R 2006 Exciton−Plasmon Interaction and Hybrid Excitons in Semiconductor−Metal Nanoparticle Assemblies Nano Lett. 6 984–94

    2006

  75. [83]

    Kang Y , Najmaei S, Liu Z, Bao Y , Wang Y , Zhu X, Halas N J, Nordlander P, Ajayan P M, Lou J and Fang Z 2014 Plasmonic Hot Electron Induced Structural Phase Transition in a MoS$\textbackslashless$sub$\textbackslashgreater$2$\textbackslashless$/sub$\textbackslashgreat er$Monol...

    2014

  76. [84]

    15 3977–82

    Li Z, Ezhilarasu G, Chatzakis I, Dhall R, Chen C -C and Cronin S B 2015 Indirect Band Gap Emission by Hot Electron Injection in Metal/MoS 2 and Metal/WSe 2 Heterojunctions Nano Lett. 15 3977–82

    2015

  77. [85]

    Lee H S, Luong D H, Kim M S, Jin Y , Kim H, Yun S and Lee Y H 2016 Reconfigurable exciton- plasmon interconversion for nanophotonic circuits Nat Commun 7 13663

    2016

  78. [86]

    Wang L, Wang Z, Wang H-Y , Grinblat G, Huang Y-L, Wang D, Ye X-H, Li X-B, Bao Q, Wee A-S, Maier S A, Chen Q -D, Zhong M -L, Qiu C -W and Sun H -B 2017 Slow cooling and efficient extraction of C-exciton hot carriers in MoS2 monolayer Nat Commun 8 13906

    2017

  79. [87]

    Zhang Z, Liu L, Fang W -H, Long R, Tokina M V and Prezhdo O V 2018 Plasmon -Mediated Electron Injection from Au Nanorods into MoS2: Traditional versus Photoexcitation Mechanism Chem 4 1112–27

    2018

  80. [88]

    9 18371–6

    Lee C, Park Y and Park J Y 2019 Hot electrons generated by intraband and interband transition detected using a plasmonic Cu/TiO 2 nanodiode RSC Adv. 9 18371–6

    2019

  81. [89]

    Chen Y-H, Tamming R, Chen K, Zhang Z, Liu F, Zhang Y , Hodgkiss J, Blaikie R, Ding B and Qiu M 2020 Bandgap Control in Two-Dimensional Semiconductors via Coherent Doping of Plasmonic Hot Electrons Nature Communications 12 4332

    2020

  82. [90]

    Tagliabue G, DuChene J S, Abdellah M, Habib A, Gosztola D J, Hattori Y , Cheng W-H, Zheng K, Canton S E, Sundararaman R, Sá J and Atwater H A 2020 Ultrafast hot-hole injection modifies hot- electron dynamics in Au/p-GaN heterostructures Nat. Mater. 19 1312–8

    2020

  83. [91]

    Camargo F V A, Ben -Shahar Y , Nagahara T, Panfil Y E, Russo M, Banin U and Cerullo G 2021 Visualizing Ultrafast Electron Transfer Processes in Semiconductor –Metal Hybrid Nanoparticles: Toward Excitonic–Plasmonic Light Harvesting Nano Letters 21 1461–8

    2021

  84. [92]

    acs.nanolett.3c03790

    Jo K, Stevens C E, Choi B, El-Khoury P Z, Hendrickson J R and Jariwala D 2024 Core/Shell-Like Localized Emission at Atomically Thin Semiconductor –Au Interface Nano Lett. acs.nanolett.3c03790

    2024

  85. [93]

    Liu B, Ma Y , Zhang A, Chen L, Abbas A N, Liu Y , Shen C, Wan H and Zhou C 2016 High - Performance WSe 2 Field-Effect Transistors via Controlled Formation of In-Plane Heterojunctions ACS Nano 10 5153–60

    2016

  86. [94]

    Wong J, Jariwala D, Tagliabue G, Tat K, Davoyan A R, Sherrott M C and Atwater H A 2017 High Photovoltaic Quantum Efficiency in Ultrathin van der Waals Heterostructures ACS Nano 11 7230– 40 20

    2017

  87. [95]

    Lince J R, Carré D J and Fleischauer P D 1987 Schottky -barrier formation on a covalent semiconductor without Fermi -level pinning: The metal - MoS 2 (0001) interface Phys. Rev. B 36 1647–56

    1987

  88. [96]

    Keller K R, Rojas-Aedo R, Zhang H, Schweizer P, Allerbeck J, Brida D, Jariwala D and Maccaferri N 2022 Ultrafast Thermionic Electron Injection Effects on Exciton Formation Dynamics at a van der Waals Semiconductor/Metal Interface ACS Photonics 9 2683–90

    2022

  89. [97]

    Chen D, Anantharaman S B, Wu J, Qiu D Y , Jariwala D and Guo P 2024 Optical spectroscopic detection of Schottky barrier height at a two -dimensional transition -metal dichalcogenide/metal interface Nanoscale 16 5169–76

    2024

  90. [98]

    Pogna E A A, Jia X, Principi A, Block A, Banszerus L, Zhang J, Liu X, Sohier T, Forti S, Soundarapandian K, Terrés B, Mehew J D, Trovatello C, Coletti C, Koppens F H L, Bonn M, Wang H I, van Hulst N, Verstraete M J, Peng H, Liu Z, Stampfer C, Cerullo G and Tielrooij K-J 2021 H...

    2021

  91. [99]

    Trovatello C, Piccinini G, Forti S, Fabbri F, Rossi A, De Silvestri S, Coletti C, Cerullo G and Dal Conte S 2022 Ultrafast hot carrier transfer in WS2/graphene large area heterostructures npj 2D Mater Appl 6 24

    2022

  92. [100]

    Kudlis A and Iorsh I 2021 Modeling excitonic Mott transitions in two-dimensional semiconductors Phys. Rev. B 103 115307

    2021

  93. [101]

    Makino T, Tamura K, Chia C H, Segawa Y , Kawasaki M, Ohtomo A and Koinuma H 2002 Optical properties of ZnO:Al epilayers: Observation of room -temperature many -body absorption -edge singularity Phys. Rev. B 65 121201

    2002

  94. [102]

    Yuan L, Chung T -F, Kuc A, Wan Y , Xu Y , Chen Y P, Heine T and Huang L 2018 Photocarrier generation from interlayer charge-transfer transitions in WS 2 -graphene heterostructures Sci. Adv. 4 e1700324

    2018

  95. [103]

    Fu S, Du Fossé I, Jia X, Xu J, Yu X, Zhang H, Zheng W, Krasel S, Chen Z, Wang Z M, Tielrooij K- J, Bonn M, Houtepen A J and Wang H I 2021 Long -lived charge separation following pump - wavelength–dependent ultrafast charge transfer in graphene/WS 2 heterostructures Sci. Adv. 7...

    2021

  96. [104]

    Chen W T, Zhu A Y and Capasso F 2020 Flat optics with dispersion-engineered metasurfaces Nature Reviews Materials 5 604–20

    2020

  97. [105]

    Neshev D and Aharonovich I 2018 Optical metasurfaces: new generation building blocks for multi- functional optics Light: Science and Applications 7 1–5

    2018

  98. [106]

    Li G, Zhang S and Zentgraf T 2017 Nonlinear photonic metasurfaces Nature Reviews Materials 2 1–14

    2017

  99. [107]

    Turunen M, Brotons-Gisbert M, Dai Y , Wang Y , Scerri E, Bonato C, Jöns K D, Sun Z and Gerardot B D 2022 Quantum photonics with layered 2D materials Nature Reviews Physics 4 219–36 21

    2022

  100. [108]

    Cotrufo M, Sun L, Choi J, Alù A and Li X 2019 Enhancing functionalities of atomically thin semiconductors with plasmonic nanostructures Nanophotonics 8 577–98

    2019

  101. [109]

    Sortino L, Zotev P G, Mignuzzi S, Cambiasso J, Schmidt D, Genco A, Aßmann M, Bayer M, Maier S A, Sapienza R and Tartakovskii A I 2019 Enhanced light-matter interaction in an atomically thin semiconductor coupled with dielectric nano-antennas Nat Commun 10 5119

    2019

  102. [110]

    Sigle D O, Mertens J, Herrmann L O, Bowman R W, Ithurria S, Dubertret B, Shi Y , Yang H Y , Tserkezis C, Aizpurua J and Baumberg J J 2015 Monitoring Morphological Changes in 2D Monolayer Semiconductors Using Atom-Thick Plasmonic Nanocavities ACS Nano 9 825–30

    2015

  103. [111]

    Zhang L, Gogna R, Burg W, Tutuc E and Deng H 2018 Photonic -crystal exciton -polaritons in monolayer semiconductors Nat Commun 9 713

    2018

  104. [112]

    Bucher T, Vaskin A, Mupparapu R, Löchner F J F, George A, Chong K E, Fasold S, Neumann C, Choi D -Y , Eilenberger F, Setzpfandt F, Kivshar Y S, Pertsch T, Turchanin A and Staude I 2019 Tailoring Photoluminescence from MoS 2 Monolayers by Mie -Resonant Metasurfaces ACS Photonic...

    2019

  105. [113]

    20 5309–14

    Bernhardt N, Koshelev K, White S J U, Meng K W C, Fröch J E, Kim S, Tran T T, Choi D -Y , Kivshar Y and Solntsev A S 2020 Quasi -BIC Resonant Enhancement of Second -Harmonic Generation in WS2 Monolayers Nano Lett. 20 5309–14

    2020

  106. [114]

    Shi J, Lin M H, Chen I T, Estakhri N M, Zhang X Q, Wang Y , Chen H Y , Chen C A, Shih C K, Alu A, Li X, Lee Y H and Gwo S 2017 Cascaded exciton energy transfer in a monolayer semiconductor lateral heterostructure assisted by surface plasmon polariton Nature Communications 8 1–6

    2017

  107. [115]

    Zhou Y , Scuri G, Wild D S, High A A, Dibos A, Jauregui L A, Shu C, De Greve K, Pistunova K, Joe A Y , Taniguchi T, Watanabe K, Kim P, Lukin M D and Park H 2017 Probing dark excitons in atomically thin semiconductors via near -field coupling to surface plasmon polaritons Natur...

    2017

  108. [116]

    Latini S, Ronca E, De Giovannini U, Hübener H and Rubio A 2019 Cavity Control of Excitons in Two-Dimensional Materials Nano Letters 19 3473–9

    2019

  109. [117]

    Frisk Kockum A, Miranowicz A, De Liberato S, Savasta S and Nori F 2019 Ultrastrong coupling between light and matter Nature Reviews Physics 1 19–40

    2019

  110. [118]

    Huang J, Akselrod G M, Ming T, Kong J and Mikkelsen M H 2018 Tailored emission spectrum of 2D semiconductors using plasmonic nanocavities ACS Photonics 5 552–8

    2018

  111. [119]

    Tran T N, Kim S, White S J U, Nguyen M A P, Xiao L, Strauf S, Yang T, Aharonovich I and Xu Z Q 2021 Enhanced Emission from Interlayer Excitons Coupled to Plasmonic Gap Cavities Small 17 1–7

    2021

  112. [120]

    Paik E Y , Zhang L, Burg G W, Gogna R, Tutuc E and Deng H 2019 Interlayer exciton laser of extended spatial coherence in atomically thin heterostructures Nature 576 80–4

    2019

  113. [121]

    Zhao J, Fieramosca A, Dini K, Bao R, Du W, Su R, Luo Y , Zhao W, Sanvitto D, Liew T C H and Xiong Q 2023 Exciton polariton interactions in Van der Waals superlattices at room temperature Nature Communications 14 1512 22

    2023

  114. [122]

    Dibos A M, Zhou Y , Jauregui L A, Scuri G, Wild D S, High A A, Taniguchi T, Watanabe K, Lukin M D, Kim P and Park H 2019 Electrically tunable exciton-plasmon coupling in a WSe2 monolayer embedded in a plasmonic crystal cavity Nano Letters 19 3543–7

    2019

  115. [123]

    Dai S, FEI Z, MA Q, RODIN A S, WAGNER M, MCLEOD A S, LIU M K, GANNETT W, REGAN W, WATANABE K, TANIGUCHI T, THIEMENS M, DOMINGUEZ G, NETO A H C, ZETTL A, KEILMANN F, JARILLO-HERRERO P, FOGLER M M and BASOV D N 2014 Tunable Phonon Polaritons in Atomically Thin van der Waals Crys...

    2014

  116. [124]

    Ni G X, McLeod A S, Sun Z, Wang L, Xiong L, Post K W, Sunku S S, Jiang B Y , Hone J, Dean C R, Fogler M M and Basov D N 2018 Fundamental limits to graphene plasmonics Nature 557 530– 3

    2018

  117. [125]

    Basov D N, Fogler M M and García De Abajo F J 2016 Polaritons in van der Waals materials Science 354

    2016

  118. [126]

    Schneider C, Glazov M M, Korn T, Höfling S and Urbaszek B 2018 Two -dimensional semiconductors in the regime of strong light-matter coupling Nat Commun 9 2695

    2018

  119. [127]

    Liu W, Lee B, Naylor C H, Ee H S, Park J, Johnson A T C and Agarwal R 2016 Strong Exciton - Plasmon Coupling in MoS2 Coupled with Plasmonic Lattice Nano Letters 16 1262–9

    2016

  120. [128]

    Yu Y , Yu Y , Huang L, Peng H, Xiong L and Cao L 2017 Giant Gating Tunability of Optical Refractive Index in Transition Metal Dichalcogenide Monolayers Nano Letters 17 3613–8

    2017

  121. [129]

    Kühner L, Sortino L, Tilmann B, Weber T, Watanabe K, Taniguchi T, Maier S A and Tittl A 2023 High‐ Q Nanophotonics over the Full Visible Spectrum Enabled by Hexagonal Boron Nitride Metasurfaces Advanced Materials 35 2209688

    2023

  122. [130]

    van de Groep J, Song J H, Celano U, Li Q, Kik P G and Brongersma M L 2020 Exciton resonance tuning of an atomically thin lens Nature Photonics 14 426–30

    2020

  123. [131]

    Li Z, Liu C, Rong X, Luo Y , Cheng H, Zheng L, Lin F, Shen B, Gong Y , Zhang S and Fang Z 2018 Tailoring MoS2 valley -polarized photoluminescence with super chiral near -field Advanced Materials 30

    2018

  124. [132]

    Green T D, Baranov D G, Munkhbat B, Verre R, Shegai T and Käll M 2020 Optical material anisotropy in high-index transition metal dichalcogenide Mie nanoresonators Optica 7 680

    2020

  125. [133]

    Verre R, Baranov D G, Munkhbat B, Cuadra J, Käll M and Shegai T 2019 Transition metal dichalcogenide nanodisks as high -index dielectric Mie nanoresonators Nature Nanotechnology 14 679–83

    2019

  126. [134]

    Hsu C, Frisenda R, Schmidt R, Arora A, de Vasconcellos S M, Bratschitsch R, van der Zant H S J and Castellanos-Gomez A 2019 Thickness-Dependent Refractive Index of 1L, 2L, and 3L MoS2, MoSe2, WS2, and WSe2 Advanced Optical Materials 7

    2019

  127. [135]

    Yang J, Wang Z, Wang F, Xu R, Tao J, Zhang S, Qin Q, Luther-Davies B, Jagadish C, Yu Z and Lu Y 2016 Atomically thin optical lenses and gratings Light Sci Appl 5 e16046–e16046 23

    2016

  128. [136]

    Kim S, Fröch J E, Christian J, Straw M, Bishop J, Totonjian D, Watanabe K, Taniguchi T, Toth M and Aharonovich I 2018 Photonic crystal cavities from hexagonal boron nitride Nat Commun 9 2623

    2018

  129. [137]

    Ling H, Li R and Davoyan A R 2021 All van der Waals Integrated Nanophotonics with Bulk Transition Metal Dichalcogenides ACS Photonics 8 721–30

    2021

  130. [138]

    Ermolaev G A, Grudinin D V , Stebunov Y V , V oronin K V , Kravets V G, Duan J, Mazitov A B, Tselikov G I, Bylinkin A, Yakubovsky D I, Novikov S M, Baranov D G, Nikitin A Y , Kruglov I A, Shegai T, Alonso-González P, Grigorenko A N, Arsenin A V , Novoselov K S and V olkov V S ...

    2021

  131. [139]

    Slavich A S, Ermolaev G A, Tatmyshevskiy M K, Toksumakov A N, Matveeva O G, Grudinin D V , V oronin K V , Mazitov A, Kravtsov K V , Syuy A V , Tsymbarenko D M, Mironov M S, Novikov S M, Kruglov I, Ghazaryan D A, Vyshnevyy A A, Arsenin A V , V olkov V S and Novoselov K S 2024 E...

    2024

  132. [140]

    Zotev P G, Wang Y , Sortino L, Severs Millard T, Mullin N, Conteduca D, Shagar M, Genco A, Hobbs J K, Krauss T F and Tartakovskii A I 2022 Transition Metal Dichalcogenide Dimer Nanoantennas for Tailored Light–Matter Interactions ACS Nano 16 6493–505

    2022

  133. [141]

    Koshelev K, Lepeshov S, Liu M, Bogdanov A and Kivshar Y 2018 Asymmetric Metasurfaces with High- Q Resonances Governed by Bound States in the Continuum Phys. Rev. Lett. 121 193903

    2018

  134. [142]

    Liu Z, Xu Y , Lin Y , Xiang J, Feng T, Cao Q, Li J, Lan S and Liu J 2019 High- Q Quasibound States in the Continuum for Nonlinear Metasurfaces Phys. Rev. Lett. 123 253901

    2019

  135. [143]

    Weber T, Kühner L, Sortino L, Ben Mhenni A, Wilson N P, Kühne J, Finley J J, Maier S A and Tittl A 2023 Intrinsic strong light-matter coupling with self-hybridized bound states in the continuum in van der Waals metasurfaces Nat. Mater. 22 970–6

    2023

  136. [144]

    Duan X, Wang B, Rong K, Liu C L, Gorovoy V , Mukherjee S, Kleiner V , Koren E and Hasman E 2023 Valley-addressable monolayer lasing through spin -controlled Berry phase photonic cavities Science 381 1429–32

    2023

  137. [145]

    Chen Y , Qian S, Wang K, Xing X, Wee A, Loh K P, Wang B, Wu D, Chu J, Alu A, Lu P and Qiu C W 2022 Chirality-dependent unidirectional routing of WS2 valley photons in a nanocircuit Nature Nanotechnology 17 1178–82

    2022

  138. [146]

    Shreiner R, Hao K, Butcher A and High A A 2022 Electrically controllable chirality in a nanophotonic interface with a two-dimensional semiconductor Nature Photonics 16 330–6

    2022

  139. [147]

    Sun L, Wang C Y , Krasnok A, Choi J, Shi J, Gomez-Diaz J S, Zepeda A, Gwo S, Shih C K, Alù A and Li X 2019 Separation of valley excitons in a MoS2 monolayer using a subwavelength asymmetric groove array Nature Photonics 13 180–4

    2019

  140. [148]

    Osborne I S 2018 Nanoscale chiral valley-photon interface Science 359 409B

    2018

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