FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2948653096> ?p ?o ?g. }

• W2948653096 endingPage "711" @default.
• W2948653096 startingPage "711" @default.
• W2948653096 abstract "Monolayer transition metal dichalcogenides (TMDs) are ideal materials for atomically thin, flexible optoelectronic and catalytic devices. However, their optoelectrical performance such as quantum yield and carrier mobility often shows below theoretical expectations due to the existence of defects. For monolayer TMD-based devices, finding a low-cost, time-efficient, and nondestructive technique to visualize the change of defect distribution in the space domain and the defect-induced change of the carrier’s lifetime is vital for optimizing their optoelectronic properties. Here, we propose a microscopic pump-probe technique to map the defect distribution of monolayer TMDs. It is found that there is a linear relationship between transient differential reflection intensity and defect density, suggesting that this technique not only realizes the visualization of the defect distribution but also achieves the quantitative estimation of defect density. Moreover, the carrier lifetime at each point can also be obtained by the technique. The technique used here provides a new route to characterize the defect of monolayer TMDs on the micro-zone, which will hopefully guide the fabrication of high-quality two-dimensional (2D) materials and the promotion of optoelectrical performance." @default.
• W2948653096 created "2019-06-14" @default.
• W2948653096 creator A5010776860 @default.
• W2948653096 creator A5039362856 @default.
• W2948653096 creator A5041596569 @default.
• W2948653096 creator A5042680411 @default.
• W2948653096 creator A5043301845 @default.
• W2948653096 creator A5077909232 @default.
• W2948653096 creator A5082358939 @default.
• W2948653096 creator A5087872323 @default.
• W2948653096 creator A5088888083 @default.
• W2948653096 date "2019-06-04" @default.
• W2948653096 modified "2023-10-16" @default.
• W2948653096 title "Microscopic pump-probe optical technique to characterize the defect of monolayer transition metal dichalcogenides" @default.
• W2948653096 cites W1478337505 @default.
• W2948653096 cites W1764528596 @default.
• W2948653096 cites W1833276053 @default.
• W2948653096 cites W1943833960 @default.
• W2948653096 cites W1970684724 @default.
• W2948653096 cites W1974326957 @default.
• W2948653096 cites W1974896731 @default.
• W2948653096 cites W1975190860 @default.
• W2948653096 cites W1975608115 @default.
• W2948653096 cites W1977812258 @default.
• W2948653096 cites W1978566690 @default.
• W2948653096 cites W1981539053 @default.
• W2948653096 cites W1993173612 @default.
• W2948653096 cites W2001642272 @default.
• W2948653096 cites W2006105172 @default.
• W2948653096 cites W2017871657 @default.
• W2948653096 cites W2021994802 @default.
• W2948653096 cites W2030596327 @default.
• W2948653096 cites W2037811931 @default.
• W2948653096 cites W2039418304 @default.
• W2948653096 cites W2040235977 @default.
• W2948653096 cites W2045759975 @default.
• W2948653096 cites W2049258976 @default.
• W2948653096 cites W2059116268 @default.
• W2948653096 cites W2060841828 @default.
• W2948653096 cites W2069635547 @default.
• W2948653096 cites W2074880343 @default.
• W2948653096 cites W2079657036 @default.
• W2948653096 cites W2082506946 @default.
• W2948653096 cites W2093272978 @default.
• W2948653096 cites W2094948497 @default.
• W2948653096 cites W2101606767 @default.
• W2948653096 cites W2115786064 @default.
• W2948653096 cites W2136334331 @default.
• W2948653096 cites W2151633676 @default.
• W2948653096 cites W2161263580 @default.
• W2948653096 cites W2169218660 @default.
• W2948653096 cites W2194938977 @default.
• W2948653096 cites W2218224583 @default.
• W2948653096 cites W2220596051 @default.
• W2948653096 cites W2272766418 @default.
• W2948653096 cites W2280314308 @default.
• W2948653096 cites W2284566726 @default.
• W2948653096 cites W2292770293 @default.
• W2948653096 cites W2299048498 @default.
• W2948653096 cites W2322923573 @default.
• W2948653096 cites W2324777531 @default.
• W2948653096 cites W2345726370 @default.
• W2948653096 cites W2496370513 @default.
• W2948653096 cites W2648588734 @default.
• W2948653096 cites W2758958565 @default.
• W2948653096 cites W2765383391 @default.
• W2948653096 cites W2800293578 @default.
• W2948653096 cites W2883032794 @default.
• W2948653096 cites W2913351060 @default.
• W2948653096 cites W2913833112 @default.
• W2948653096 doi "https://doi.org/10.1364/prj.7.000711" @default.
• W2948653096 hasPublicationYear "2019" @default.
• W2948653096 type Work @default.
• W2948653096 sameAs 2948653096 @default.
• W2948653096 citedByCount "9" @default.
• W2948653096 countsByYear W29486530962021 @default.
• W2948653096 countsByYear W29486530962022 @default.
• W2948653096 countsByYear W29486530962023 @default.
• W2948653096 crossrefType "journal-article" @default.
• W2948653096 hasAuthorship W2948653096A5010776860 @default.
• W2948653096 hasAuthorship W2948653096A5039362856 @default.
• W2948653096 hasAuthorship W2948653096A5041596569 @default.
• W2948653096 hasAuthorship W2948653096A5042680411 @default.
• W2948653096 hasAuthorship W2948653096A5043301845 @default.
• W2948653096 hasAuthorship W2948653096A5077909232 @default.
• W2948653096 hasAuthorship W2948653096A5082358939 @default.
• W2948653096 hasAuthorship W2948653096A5087872323 @default.
• W2948653096 hasAuthorship W2948653096A5088888083 @default.
• W2948653096 hasConcept C106773901 @default.
• W2948653096 hasConcept C120665830 @default.
• W2948653096 hasConcept C121332964 @default.
• W2948653096 hasConcept C161790260 @default.
• W2948653096 hasConcept C171250308 @default.
• W2948653096 hasConcept C185592680 @default.
• W2948653096 hasConcept C192562407 @default.
• W2948653096 hasConcept C49040817 @default.
• W2948653096 hasConcept C55493867 @default.
• W2948653096 hasConcept C7070889 @default.

• next