FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2078576913> ?p ?o ?g. }

• W2078576913 endingPage "602" @default.
• W2078576913 startingPage "593" @default.
• W2078576913 abstract "The discovery of graphene and its remarkable and exotic properties have aroused interest in other elements and molecules that form 2D atomic layers, such as metal chalcogenides, transition metal oxides, boron nitride, silicon, and germanium. Silicene and germanene, the Si and Ge counterparts of graphene, have interesting fundamental physical properties with potential applications in technology. For example, researchers expect that silicene will be relatively easy to incorporate within existing silicon-based electronics.In this Account, we summarize the challenges and progress in the field of silicene research. Theoretical calculations have predicted that silicene possesses graphene-like properties such as massless Dirac fermions that carry charge and the quantum spin Hall effect. Researchers are actively exploring the physical and chemical properties of silicene and tailoring it for wide variety of applications.The symmetric buckling in each of the six-membered rings of silicene differentiates it from graphene and imparts a variety of interesting properties with potential technological applications. The pseudo-Jahn–Teller (PJT) distortion breaks the symmetry and leads to the buckling in silicenes. In graphene, the two sublattice structures are equivalent, which does not allow for the opening of the band gap by an external electric field. However, in silicene where the neighboring Si atoms are displaced alternatively perpendicular to the plane, the intrinsic buckling permits a band gap opening in silicene in the presence of external electric field. Silicene’s stronger spin orbit coupling than graphene has far reaching applications in spintronic devices. Because silicon prefers sp3 hybridization over sp2, hydrogenation is much easier in silicene. The hydrogenation of silicene to form silicane opens the band gap and increases the puckering angle. Lithiation can suppress the pseudo-Jahn–Teller distortion in silicene and hence can flatten silicene’s structure while opening the band gap.So far, chemists have not successfully synthesized and characterized a free-standing silicene. But recently chemists have successfully produced silicene sheets and nanoribbons over various substrates such as silver, diboride thin films, and iridium. The supporting substrate critically controls the electronic properties of silicene, and the match of the appropriate support and its use is critical in applications of silicene." @default.
• W2078576913 created "2016-06-24" @default.
• W2078576913 creator A5024632120 @default.
• W2078576913 creator A5068360992 @default.
• W2078576913 date "2013-11-12" @default.
• W2078576913 modified "2023-10-16" @default.
• W2078576913 title "Structures and Chemical Properties of Silicene: Unlike Graphene" @default.
• W2078576913 cites W1504531927 @default.
• W2078576913 cites W1964239418 @default.
• W2078576913 cites W1980587018 @default.
• W2078576913 cites W1984535384 @default.
• W2078576913 cites W1984748172 @default.
• W2078576913 cites W1986418606 @default.
• W2078576913 cites W1993366366 @default.
• W2078576913 cites W1994985253 @default.
• W2078576913 cites W1995853282 @default.
• W2078576913 cites W1996930412 @default.
• W2078576913 cites W1998307734 @default.
• W2078576913 cites W1998545162 @default.
• W2078576913 cites W2005184314 @default.
• W2078576913 cites W2012587360 @default.
• W2078576913 cites W2016100304 @default.
• W2078576913 cites W2017813412 @default.
• W2078576913 cites W2025402098 @default.
• W2078576913 cites W2033639962 @default.
• W2078576913 cites W2035136789 @default.
• W2078576913 cites W2057423897 @default.
• W2078576913 cites W2057878842 @default.
• W2078576913 cites W2058122340 @default.
• W2078576913 cites W2058432457 @default.
• W2078576913 cites W2064158892 @default.
• W2078576913 cites W2072737909 @default.
• W2078576913 cites W2072935319 @default.
• W2078576913 cites W2075262773 @default.
• W2078576913 cites W2079580321 @default.
• W2078576913 cites W2080226261 @default.
• W2078576913 cites W2084004370 @default.
• W2078576913 cites W2108374664 @default.
• W2078576913 cites W2113683141 @default.
• W2078576913 cites W2114561795 @default.
• W2078576913 cites W2125337668 @default.
• W2078576913 cites W2134233006 @default.
• W2078576913 cites W2136220530 @default.
• W2078576913 cites W2157054182 @default.
• W2078576913 cites W2318604445 @default.
• W2078576913 cites W2323005953 @default.
• W2078576913 cites W2327614682 @default.
• W2078576913 cites W2329915386 @default.
• W2078576913 cites W2331633610 @default.
• W2078576913 cites W2334411941 @default.
• W2078576913 cites W2599292846 @default.
• W2078576913 cites W3099489795 @default.
• W2078576913 cites W3102038886 @default.
• W2078576913 cites W3104713802 @default.
• W2078576913 cites W4236017535 @default.
• W2078576913 doi "https://doi.org/10.1021/ar400180e" @default.
• W2078576913 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/24215179" @default.
• W2078576913 hasPublicationYear "2013" @default.
• W2078576913 type Work @default.
• W2078576913 sameAs 2078576913 @default.
• W2078576913 citedByCount "279" @default.
• W2078576913 countsByYear W20785769132014 @default.
• W2078576913 countsByYear W20785769132015 @default.
• W2078576913 countsByYear W20785769132016 @default.
• W2078576913 countsByYear W20785769132017 @default.
• W2078576913 countsByYear W20785769132018 @default.
• W2078576913 countsByYear W20785769132019 @default.
• W2078576913 countsByYear W20785769132020 @default.
• W2078576913 countsByYear W20785769132021 @default.
• W2078576913 countsByYear W20785769132022 @default.
• W2078576913 countsByYear W20785769132023 @default.
• W2078576913 crossrefType "journal-article" @default.
• W2078576913 hasAuthorship W2078576913A5024632120 @default.
• W2078576913 hasAuthorship W2078576913A5068360992 @default.
• W2078576913 hasConcept C121332964 @default.
• W2078576913 hasConcept C159467904 @default.
• W2078576913 hasConcept C171250308 @default.
• W2078576913 hasConcept C192562407 @default.
• W2078576913 hasConcept C207999682 @default.
• W2078576913 hasConcept C26873012 @default.
• W2078576913 hasConcept C2778602974 @default.
• W2078576913 hasConcept C2779205973 @default.
• W2078576913 hasConcept C30080830 @default.
• W2078576913 hasConcept C49040817 @default.
• W2078576913 hasConcept C544956773 @default.
• W2078576913 hasConcept C60799052 @default.
• W2078576913 hasConcept C62520636 @default.
• W2078576913 hasConcept C82217956 @default.
• W2078576913 hasConceptScore W2078576913C121332964 @default.
• W2078576913 hasConceptScore W2078576913C159467904 @default.
• W2078576913 hasConceptScore W2078576913C171250308 @default.
• W2078576913 hasConceptScore W2078576913C192562407 @default.
• W2078576913 hasConceptScore W2078576913C207999682 @default.
• W2078576913 hasConceptScore W2078576913C26873012 @default.
• W2078576913 hasConceptScore W2078576913C2778602974 @default.
• W2078576913 hasConceptScore W2078576913C2779205973 @default.
• W2078576913 hasConceptScore W2078576913C30080830 @default.
• W2078576913 hasConceptScore W2078576913C49040817 @default.

• next