FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3096430369> ?p ?o ?g. }

• W3096430369 endingPage "4710" @default.
• W3096430369 startingPage "4703" @default.
• W3096430369 abstract "Abstract Mid-infrared (MIR) photonics has attracted tremendous interest because of its broad applications at atmospheric windows. In this work, we report high-performance MIR photonics based on large-scale and good-quality monolayer molybdenum disulfide (MoS 2 ). The open-aperture Z-scan measurement on the nonlinear saturable absorption features shows that the as-grown monolayer MoS 2 possesses a modulation depth of 26% and a low saturable intensity of 271 kW/cm 2 , enabling its application as an excellent saturable absorber for the MIR pulse generation. This is further evident by the measured high effective nonlinear absorption coefficient β eff (−16 cm/MW). In addition, the two-photon absorption coefficient and the nonlinear refractive index of monolayer MoS 2 are also determined by the closed-aperture Z-scan technology. As an application, we demonstrate a passively Q-switched Tm,Ho:CaLu 0.1 Gd 0.9 AlO 4 (Tm,Ho:CLGA) disordered crystal laser at 2.1 μm by using the monolayer MoS 2 as the saturable absorber for the first time, producing a minimum pulse width of 765 ns and a pulse repetition rate of 36 kHz. Our results demonstrate that large-scale monolayer MoS 2 is a promising candidate for the MIR photonic applications." @default.
• W3096430369 created "2020-11-09" @default.
• W3096430369 creator A5012323132 @default.
• W3096430369 creator A5026508921 @default.
• W3096430369 creator A5040120655 @default.
• W3096430369 creator A5040704367 @default.
• W3096430369 creator A5053660345 @default.
• W3096430369 creator A5075549313 @default.
• W3096430369 creator A5075939812 @default.
• W3096430369 creator A5091365102 @default.
• W3096430369 date "2020-10-29" @default.
• W3096430369 modified "2023-10-16" @default.
• W3096430369 title "Large-scale monolayer molybdenum disulfide (MoS₂) for mid-infrared photonics" @default.
• W3096430369 cites W1661902625 @default.
• W3096430369 cites W1974326957 @default.
• W3096430369 cites W1992164304 @default.
• W3096430369 cites W1993304274 @default.
• W3096430369 cites W2007554258 @default.
• W3096430369 cites W2021676204 @default.
• W3096430369 cites W2033318235 @default.
• W3096430369 cites W2066083252 @default.
• W3096430369 cites W2069308377 @default.
• W3096430369 cites W2072312985 @default.
• W3096430369 cites W2078249002 @default.
• W3096430369 cites W2091922761 @default.
• W3096430369 cites W2104001920 @default.
• W3096430369 cites W2107372560 @default.
• W3096430369 cites W2115786064 @default.
• W3096430369 cites W2127453425 @default.
• W3096430369 cites W2137246288 @default.
• W3096430369 cites W2138244722 @default.
• W3096430369 cites W2202640577 @default.
• W3096430369 cites W2211101307 @default.
• W3096430369 cites W2246688153 @default.
• W3096430369 cites W2321770094 @default.
• W3096430369 cites W2328514812 @default.
• W3096430369 cites W2403937785 @default.
• W3096430369 cites W2560666550 @default.
• W3096430369 cites W2585487050 @default.
• W3096430369 cites W2761073270 @default.
• W3096430369 cites W2767331065 @default.
• W3096430369 cites W2777372388 @default.
• W3096430369 cites W2792956196 @default.
• W3096430369 cites W2910313396 @default.
• W3096430369 cites W2911003598 @default.
• W3096430369 cites W2921724415 @default.
• W3096430369 cites W2937612579 @default.
• W3096430369 cites W2938012103 @default.
• W3096430369 cites W2951596351 @default.
• W3096430369 cites W2968358560 @default.
• W3096430369 cites W2984300952 @default.
• W3096430369 cites W2991761032 @default.
• W3096430369 cites W2994682544 @default.
• W3096430369 cites W3005196403 @default.
• W3096430369 cites W3012087658 @default.
• W3096430369 cites W3015180740 @default.
• W3096430369 cites W3021508916 @default.
• W3096430369 cites W3025856966 @default.
• W3096430369 cites W3037184027 @default.
• W3096430369 cites W3046844480 @default.
• W3096430369 cites W3098006072 @default.
• W3096430369 doi "https://doi.org/10.1515/nanoph-2020-0331" @default.
• W3096430369 hasPublicationYear "2020" @default.
• W3096430369 type Work @default.
• W3096430369 sameAs 3096430369 @default.
• W3096430369 citedByCount "14" @default.
• W3096430369 countsByYear W30964303692021 @default.
• W3096430369 countsByYear W30964303692022 @default.
• W3096430369 countsByYear W30964303692023 @default.
• W3096430369 crossrefType "journal-article" @default.
• W3096430369 hasAuthorship W3096430369A5012323132 @default.
• W3096430369 hasAuthorship W3096430369A5026508921 @default.
• W3096430369 hasAuthorship W3096430369A5040120655 @default.
• W3096430369 hasAuthorship W3096430369A5040704367 @default.
• W3096430369 hasAuthorship W3096430369A5053660345 @default.
• W3096430369 hasAuthorship W3096430369A5075549313 @default.
• W3096430369 hasAuthorship W3096430369A5075939812 @default.
• W3096430369 hasAuthorship W3096430369A5091365102 @default.
• W3096430369 hasBestOaLocation W30964303691 @default.
• W3096430369 hasConcept C120665830 @default.
• W3096430369 hasConcept C121332964 @default.
• W3096430369 hasConcept C125287762 @default.
• W3096430369 hasConcept C159985019 @default.
• W3096430369 hasConcept C171250308 @default.
• W3096430369 hasConcept C17163034 @default.
• W3096430369 hasConcept C191897082 @default.
• W3096430369 hasConcept C192562407 @default.
• W3096430369 hasConcept C20788544 @default.
• W3096430369 hasConcept C22116519 @default.
• W3096430369 hasConcept C2780423959 @default.
• W3096430369 hasConcept C49040817 @default.
• W3096430369 hasConcept C520434653 @default.
• W3096430369 hasConcept C6260449 @default.
• W3096430369 hasConcept C7070889 @default.
• W3096430369 hasConcept C75302062 @default.
• W3096430369 hasConceptScore W3096430369C120665830 @default.
• W3096430369 hasConceptScore W3096430369C121332964 @default.
• W3096430369 hasConceptScore W3096430369C125287762 @default.

• next