FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W1828496989> ?p ?o ?g. }

• W1828496989 endingPage "50" @default.
• W1828496989 startingPage "36" @default.
• W1828496989 abstract "The effects of dielectric and conducting nanofiller size, loading, and electric field on bipolar charge injection, transport, and recombination (or electroluminescence) through amorphous polymer are studied. Versions of 3D particle-in-cell model based on the classical electrical double layer representation are used to treat the conducting and dielectric nanoparticles. Metal–polymer charge injection assumes Schottky emission and Fowler–Nordheim tunneling, migration through field-dependent Poole–Frenkel mobility, and recombination with Monte Carlo selection based on collision probability. A boundary integral equation method is used for solution of the Poisson equation coupled with a second-order predictor–corrector scheme for robust time integration of the equations of motion. The stability criterion of the explicit algorithm conforms to the Courant–Friedrichs–Levy limit. Trajectories for charge that traverse the film are curvilinear paths that meander through the interspaces of the interaction zone. Compared to dielectric nanofillers, composite films with conducting nanofillers have: larger peaks and higher steady-state amplitudes for both injected currents and electrode E fields; <1/6 of the attached charge fraction; >2x of the conduction charge fraction; >2x of the recombined charge fraction; all charge fractions change very rapidly at sizes below 10 nm; much higher loading of 21 vol.% versus 2 vol.%; and higher leakage conductivities of 0.5 × 10−14 S/cm and 0.75 × 10−14 S/cm with bipolar and unipolar charge, respectively, where the value for the dielectric nanofiller is ∼0.2 × 10−14 S/cm. Effective permittivities computed using a new energy conservation method is shown to have excellent agreement compared with established Lichtenecker, Bruggeman, and Maxwell-Garnett mixing rules. Computed stored energies show monotonic increase with dielectric fillers and a peak at 25 vol.% for conducting fillers which may be attributed to the competing effects of higher energy with increasing field modification and lower energy with decreasing binder volume." @default.
• W1828496989 created "2016-06-24" @default.
• W1828496989 creator A5002990977 @default.
• W1828496989 creator A5045895834 @default.
• W1828496989 date "2015-12-01" @default.
• W1828496989 modified "2023-09-28" @default.
• W1828496989 title "Modeling effect of nanofillers on charge transport in composite polymer films for energy storage" @default.
• W1828496989 cites W1968551172 @default.
• W1828496989 cites W1969510981 @default.
• W1828496989 cites W1991541905 @default.
• W1828496989 cites W2006281115 @default.
• W1828496989 cites W2016493226 @default.
• W1828496989 cites W2027520722 @default.
• W1828496989 cites W2033521999 @default.
• W1828496989 cites W2045279944 @default.
• W1828496989 cites W2046020177 @default.
• W1828496989 cites W2050174108 @default.
• W1828496989 cites W2053187981 @default.
• W1828496989 cites W2075006676 @default.
• W1828496989 cites W2116047048 @default.
• W1828496989 cites W2116729868 @default.
• W1828496989 cites W2121845575 @default.
• W1828496989 cites W2128872022 @default.
• W1828496989 cites W2155161616 @default.
• W1828496989 cites W2163265688 @default.
• W1828496989 cites W2165215367 @default.
• W1828496989 cites W2242850705 @default.
• W1828496989 cites W2312644725 @default.
• W1828496989 cites W2171736778 @default.
• W1828496989 doi "https://doi.org/10.1016/j.est.2015.09.001" @default.
• W1828496989 hasPublicationYear "2015" @default.
• W1828496989 type Work @default.
• W1828496989 sameAs 1828496989 @default.
• W1828496989 citedByCount "3" @default.
• W1828496989 countsByYear W18284969892017 @default.
• W1828496989 countsByYear W18284969892019 @default.
• W1828496989 countsByYear W18284969892021 @default.
• W1828496989 crossrefType "journal-article" @default.
• W1828496989 hasAuthorship W1828496989A5002990977 @default.
• W1828496989 hasAuthorship W1828496989A5045895834 @default.
• W1828496989 hasConcept C121332964 @default.
• W1828496989 hasConcept C133386390 @default.
• W1828496989 hasConcept C159985019 @default.
• W1828496989 hasConcept C192562407 @default.
• W1828496989 hasConcept C26873012 @default.
• W1828496989 hasConcept C49040817 @default.
• W1828496989 hasConceptScore W1828496989C121332964 @default.
• W1828496989 hasConceptScore W1828496989C133386390 @default.
• W1828496989 hasConceptScore W1828496989C159985019 @default.
• W1828496989 hasConceptScore W1828496989C192562407 @default.
• W1828496989 hasConceptScore W1828496989C26873012 @default.
• W1828496989 hasConceptScore W1828496989C49040817 @default.
• W1828496989 hasLocation W18284969891 @default.
• W1828496989 hasOpenAccess W1828496989 @default.
• W1828496989 hasPrimaryLocation W18284969891 @default.
• W1828496989 hasRelatedWork W1994753809 @default.
• W1828496989 hasRelatedWork W2043673973 @default.
• W1828496989 hasRelatedWork W2082293200 @default.
• W1828496989 hasRelatedWork W2137307547 @default.
• W1828496989 hasRelatedWork W2380293314 @default.
• W1828496989 hasRelatedWork W2943188944 @default.
• W1828496989 hasRelatedWork W3008690834 @default.
• W1828496989 hasRelatedWork W3082440218 @default.
• W1828496989 hasRelatedWork W4242480814 @default.
• W1828496989 hasRelatedWork W4285802202 @default.
• W1828496989 hasVolume "4" @default.
• W1828496989 isParatext "false" @default.
• W1828496989 isRetracted "false" @default.
• W1828496989 magId "1828496989" @default.
• W1828496989 workType "article" @default.