FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2275364090> ?p ?o ?g. }

• W2275364090 endingPage "399" @default.
• W2275364090 startingPage "390" @default.
• W2275364090 abstract "Nanocarbons such as fullerene and carbon nanotubes (CNT) in late 20th century have blossomed nanoscience and nanotechnology in 21st century, which have been further proliferated by the new finding of graphene and have indeed opened a new carbon era. Several new branches of research, for example, zero-dimensional nanoparticles, one-dimensional nanowires, and two-dimensional insulating hexagonal boron nitride, and semiconducting and metallic transition metal dichalcogenides including the recently emerging black phosphorus, have been explored and numerous unprecedented quantum mechanical features have been revealed, that have been hardly accessible otherwise. Extensive research has been done on devices and applications related to such materials. Many experimental instruments have been developed with high sensitivity and improved spatial and temporal resolution to detect such tiny objects. The need for multidisciplinary research has been growing stronger than ever, which will be the tradition in the next few decades. In this Account, we will demonstrate an example of multidisciplinary effort of utilizing CNTs and graphene for electronics by modulating electronic structures. While there are several methods of modifying electronic structures of nanocarbons such as gate bias, contact metal, and conventional substitutional doping, we focus on chemical doping approaches here. We first introduce the concept of chemical doping on CNTs and graphene in terms of electronegativity of molecules and electrochemical potential of CNTs and graphene. To understand the relationship of electrochemical potential of CNTs and graphene to electronegativity of molecules, we propose a simple water bucket model: how to fill or drain water (electrons in CNTs or graphene) in the bucket (density of states) by the chemical dopants. The doping concept is then demonstrated experimentally by tracking the absorption spectroscopy, X-ray photoelectron spectroscopy, ultraviolet photoelectron spectroscopy, Raman spectroscopy, transmittance, and transport measurements and by relating them to the reduction potential of molecules relative to that of CNTs or graphene. Two effects of chemical doping in electronics, transparent conducting films, and field effect transistors are extensively discussed. One critical issue, the stability of chemical dopants under ambient conditions, is further discussed. We believe that the presented doping concept will be useful tools for other low dimensional materials such as recently emerging transition metal dichalcogenides and black phosphorus." @default.
• W2275364090 created "2016-06-24" @default.
• W2275364090 creator A5035306208 @default.
• W2275364090 creator A5035645375 @default.
• W2275364090 creator A5079628468 @default.
• W2275364090 date "2016-02-15" @default.
• W2275364090 modified "2023-09-24" @default.
• W2275364090 title "Chemically Conjugated Carbon Nanotubes and Graphene for Carrier Modulation" @default.
• W2275364090 cites W1503189131 @default.
• W2275364090 cites W1976063467 @default.
• W2275364090 cites W1979279751 @default.
• W2275364090 cites W1983208619 @default.
• W2275364090 cites W1989856919 @default.
• W2275364090 cites W1993224583 @default.
• W2275364090 cites W2006394528 @default.
• W2275364090 cites W2021601641 @default.
• W2275364090 cites W2034551913 @default.
• W2275364090 cites W2057330747 @default.
• W2275364090 cites W2058122340 @default.
• W2275364090 cites W2076301381 @default.
• W2275364090 cites W2087351225 @default.
• W2275364090 cites W2089401522 @default.
• W2275364090 cites W2089431229 @default.
• W2275364090 cites W2090180435 @default.
• W2275364090 cites W2094834535 @default.
• W2275364090 cites W2103437569 @default.
• W2275364090 cites W2104331363 @default.
• W2275364090 cites W2116268831 @default.
• W2275364090 cites W2117191088 @default.
• W2275364090 cites W2140668394 @default.
• W2275364090 cites W2324390857 @default.
• W2275364090 cites W2329126611 @default.
• W2275364090 cites W2334132098 @default.
• W2275364090 doi "https://doi.org/10.1021/acs.accounts.5b00441" @default.
• W2275364090 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/26878595" @default.
• W2275364090 hasPublicationYear "2016" @default.
• W2275364090 type Work @default.
• W2275364090 sameAs 2275364090 @default.
• W2275364090 citedByCount "30" @default.
• W2275364090 countsByYear W22753640902016 @default.
• W2275364090 countsByYear W22753640902017 @default.
• W2275364090 countsByYear W22753640902018 @default.
• W2275364090 countsByYear W22753640902019 @default.
• W2275364090 countsByYear W22753640902020 @default.
• W2275364090 countsByYear W22753640902021 @default.
• W2275364090 countsByYear W22753640902022 @default.
• W2275364090 countsByYear W22753640902023 @default.
• W2275364090 crossrefType "journal-article" @default.
• W2275364090 hasAuthorship W2275364090A5035306208 @default.
• W2275364090 hasAuthorship W2275364090A5035645375 @default.
• W2275364090 hasAuthorship W2275364090A5079628468 @default.
• W2275364090 hasConcept C171250308 @default.
• W2275364090 hasConcept C177293861 @default.
• W2275364090 hasConcept C178790620 @default.
• W2275364090 hasConcept C185592680 @default.
• W2275364090 hasConcept C192562407 @default.
• W2275364090 hasConcept C2780243435 @default.
• W2275364090 hasConcept C30080830 @default.
• W2275364090 hasConcept C49040817 @default.
• W2275364090 hasConcept C513720949 @default.
• W2275364090 hasConcept C57863236 @default.
• W2275364090 hasConceptScore W2275364090C171250308 @default.
• W2275364090 hasConceptScore W2275364090C177293861 @default.
• W2275364090 hasConceptScore W2275364090C178790620 @default.
• W2275364090 hasConceptScore W2275364090C185592680 @default.
• W2275364090 hasConceptScore W2275364090C192562407 @default.
• W2275364090 hasConceptScore W2275364090C2780243435 @default.
• W2275364090 hasConceptScore W2275364090C30080830 @default.
• W2275364090 hasConceptScore W2275364090C49040817 @default.
• W2275364090 hasConceptScore W2275364090C513720949 @default.
• W2275364090 hasConceptScore W2275364090C57863236 @default.
• W2275364090 hasFunder F4320322091 @default.
• W2275364090 hasFunder F4320322120 @default.
• W2275364090 hasFunder F4320326441 @default.
• W2275364090 hasIssue "3" @default.
• W2275364090 hasLocation W22753640901 @default.
• W2275364090 hasLocation W22753640902 @default.
• W2275364090 hasOpenAccess W2275364090 @default.
• W2275364090 hasPrimaryLocation W22753640901 @default.
• W2275364090 hasRelatedWork W2134948224 @default.
• W2275364090 hasRelatedWork W2137163290 @default.
• W2275364090 hasRelatedWork W2145386651 @default.
• W2275364090 hasRelatedWork W2414885887 @default.
• W2275364090 hasRelatedWork W2514757689 @default.
• W2275364090 hasRelatedWork W2570068767 @default.
• W2275364090 hasRelatedWork W2769077900 @default.
• W2275364090 hasRelatedWork W2896640114 @default.
• W2275364090 hasRelatedWork W3111609763 @default.
• W2275364090 hasRelatedWork W4255423254 @default.
• W2275364090 hasVolume "49" @default.
• W2275364090 isParatext "false" @default.
• W2275364090 isRetracted "false" @default.
• W2275364090 magId "2275364090" @default.
• W2275364090 workType "article" @default.