FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3138146002> ?p ?o ?g. }

• W3138146002 endingPage "046401" @default.
• W3138146002 startingPage "046401" @default.
• W3138146002 abstract "Two-dimensional (2D) transition metal dichalcogenide (TMDC) materials, such as MoS2, WS2, MoSe2, and WSe2, have received extensive attention in the past decade due to their extraordinary electronic, optical and thermal properties. They evolve from indirect bandgap semiconductors to direct bandgap semiconductors while their layer number is reduced from a few layers to a monolayer limit. Consequently, there is strong photoluminescence in a monolayer (1L) TMDC due to the large quantum yield. Moreover, such monolayer semiconductors have two other exciting properties: large binding energy of excitons and valley polarization. These properties make them become ideal materials for various electronic, photonic and optoelectronic devices. However, their performance is limited by the relatively weak light-matter interactions due to their atomically thin form factor. Resonant nanophotonic structures provide a viable way to address this issue and enhance light-matter interactions in 2D TMDCs. Here, we provide an overview of this research area, showcasing relevant applications, including exotic light emission, absorption and scattering features. We start by overviewing the concept of excitons in 1L-TMDC and the fundamental theory of cavity-enhanced emission, followed by a discussion on the recent progress of enhanced light emission, strong coupling and valleytronics. The atomically thin nature of 1L-TMDC enables a broad range of ways to tune its electric and optical properties. Thus, we continue by reviewing advances in TMDC-based tunable photonic devices. Next, we survey the recent progress in enhanced light absorption over narrow and broad bandwidths using 1L or few-layer TMDCs, and their applications for photovoltaics and photodetectors. We also review recent efforts of engineering light scattering, e.g., inducing Fano resonances, wavefront engineering in 1L or few-layer TMDCs by either integrating resonant structures, such as plasmonic/Mie resonant metasurfaces, or directly patterning monolayer/few layers TMDCs. We then overview the intriguing physical properties of different van der Waals heterostructures, and their applications in optoelectronic and photonic devices. Finally, we draw our opinion on potential opportunities and challenges in this rapidly developing field of research." @default.
• W3138146002 created "2021-03-29" @default.
• W3138146002 creator A5003402828 @default.
• W3138146002 creator A5005375790 @default.
• W3138146002 creator A5012670891 @default.
• W3138146002 creator A5057053045 @default.
• W3138146002 creator A5063139595 @default.
• W3138146002 creator A5074616594 @default.
• W3138146002 date "2022-03-08" @default.
• W3138146002 modified "2023-10-17" @default.
• W3138146002 title "Enhanced light–matter interaction in two-dimensional transition metal dichalcogenides" @default.
• W3138146002 cites W1188636983 @default.
• W3138146002 cites W1489642512 @default.
• W3138146002 cites W1496528267 @default.
• W3138146002 cites W1506408666 @default.
• W3138146002 cites W1522434420 @default.
• W3138146002 cites W1546011717 @default.
• W3138146002 cites W1553988388 @default.
• W3138146002 cites W1561425337 @default.
• W3138146002 cites W1561553867 @default.
• W3138146002 cites W1567848197 @default.
• W3138146002 cites W1596330784 @default.
• W3138146002 cites W1597159486 @default.
• W3138146002 cites W1609032201 @default.
• W3138146002 cites W1641250615 @default.
• W3138146002 cites W1661147526 @default.
• W3138146002 cites W1680381673 @default.
• W3138146002 cites W1743957952 @default.
• W3138146002 cites W1747314849 @default.
• W3138146002 cites W1747676264 @default.
• W3138146002 cites W1772243429 @default.
• W3138146002 cites W1792026894 @default.
• W3138146002 cites W1821997019 @default.
• W3138146002 cites W1832666745 @default.
• W3138146002 cites W1850053210 @default.
• W3138146002 cites W1869913168 @default.
• W3138146002 cites W1917753371 @default.
• W3138146002 cites W1930389974 @default.
• W3138146002 cites W1930702843 @default.
• W3138146002 cites W1931667099 @default.
• W3138146002 cites W1942878545 @default.
• W3138146002 cites W1956948097 @default.
• W3138146002 cites W1963833091 @default.
• W3138146002 cites W1966168902 @default.
• W3138146002 cites W1966932982 @default.
• W3138146002 cites W1967596824 @default.
• W3138146002 cites W1968398776 @default.
• W3138146002 cites W1969260872 @default.
• W3138146002 cites W1969314684 @default.
• W3138146002 cites W1971534155 @default.
• W3138146002 cites W1972463110 @default.
• W3138146002 cites W1972626369 @default.
• W3138146002 cites W1974326957 @default.
• W3138146002 cites W1975074493 @default.
• W3138146002 cites W1975190860 @default.
• W3138146002 cites W1975628705 @default.
• W3138146002 cites W1975993229 @default.
• W3138146002 cites W1978566690 @default.
• W3138146002 cites W1978638905 @default.
• W3138146002 cites W1979914837 @default.
• W3138146002 cites W1980451122 @default.
• W3138146002 cites W1981746506 @default.
• W3138146002 cites W1983190782 @default.
• W3138146002 cites W1983229868 @default.
• W3138146002 cites W1984080703 @default.
• W3138146002 cites W1984921682 @default.
• W3138146002 cites W1985284024 @default.
• W3138146002 cites W1987128855 @default.
• W3138146002 cites W1989535189 @default.
• W3138146002 cites W1990770183 @default.
• W3138146002 cites W1992983484 @default.
• W3138146002 cites W1993343079 @default.
• W3138146002 cites W1994297786 @default.
• W3138146002 cites W1994847986 @default.
• W3138146002 cites W1997772602 @default.
• W3138146002 cites W2005215009 @default.
• W3138146002 cites W2006105172 @default.
• W3138146002 cites W2006148754 @default.
• W3138146002 cites W2007209834 @default.
• W3138146002 cites W2008968350 @default.
• W3138146002 cites W2011274504 @default.
• W3138146002 cites W2011615548 @default.
• W3138146002 cites W2013144732 @default.
• W3138146002 cites W2017328567 @default.
• W3138146002 cites W2017562930 @default.
• W3138146002 cites W2017871657 @default.
• W3138146002 cites W2018958741 @default.
• W3138146002 cites W2019219721 @default.
• W3138146002 cites W2020413895 @default.
• W3138146002 cites W2021994802 @default.
• W3138146002 cites W2023147957 @default.
• W3138146002 cites W2023333002 @default.
• W3138146002 cites W2023998982 @default.
• W3138146002 cites W2024966938 @default.
• W3138146002 cites W2026035276 @default.
• W3138146002 cites W2027016971 @default.
• W3138146002 cites W2027340654 @default.
• W3138146002 cites W2027815102 @default.

• next