Steady self-scrolling of graphene sheets upon the solvation status of adsorbed polyhexylthiophene

Upon the tuning of solvent composition, the unfavorable solvation of adsorbed polyhexylthiophene is found able to drive graphene sheets to scroll steadily in solutions, resulting in nanoscrolls with a central void and regular stacking of internal layers. For theses steadily evolved graphene nanoscro...

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Published inPolymer (Guilford) Vol. 224; p. 123758
Main Authors Huang, Zheng-Kai, Lan, Yi-Kang, Lin, Kun-Ta, Pan, Chia-Hung, Wu, Ching-Feng, Cheng, Horng-Long, Chou, Wei-Yang, Ruan, Jrjeng
Format Journal Article
LanguageEnglish
Published Kidlington Elsevier Ltd 14.05.2021
Elsevier BV
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ISSN0032-3861
1873-2291
DOI10.1016/j.polymer.2021.123758

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Abstract Upon the tuning of solvent composition, the unfavorable solvation of adsorbed polyhexylthiophene is found able to drive graphene sheets to scroll steadily in solutions, resulting in nanoscrolls with a central void and regular stacking of internal layers. For theses steadily evolved graphene nanoscrolls, the interlayer distance is subject to the average radius of adsorbed molecular coils and the bending rigidity of graphene hexagonal structural units restricts the reachable curvature of central voids. When the unfavorable solvation is progressively lessened upon slow crystallization of adsorbed polyhexylthiophene molecules, the reverse unwrapping ensues accordingly. On the other hand, the solvent evaporation initiates the dense growth of crystalline whiskers outward from graphene nanoscrolls and thus results in comb-like superstructures. With mutual impingement effects associated with present superstructures, oriented assembly and growth behaviors of crystalline whiskers are able to occur, creating nematic fields of crystalline whiskers. [Display omitted] •The step-by-step advancement of steady graphene self-scrolling in solutions.•The adjustable solvation status of adsorbed molecules identified as the driving force of graphene self-scrolling.•Two identified thermodynamic regulating factors of graphene self-scrolling.•The dense outward growth of P3HTcrystalline whiskers on graphene nanoscrolls and evolved comb-like superstructures.•The self-organization of P3HT crystalline whiskers into nematic fields around comb-like superstructures.
AbstractList Upon the tuning of solvent composition, the unfavorable solvation of adsorbed polyhexylthiophene is found able to drive graphene sheets to scroll steadily in solutions, resulting in nanoscrolls with a central void and regular stacking of internal layers. For theses steadily evolved graphene nanoscrolls, the interlayer distance is subject to the average radius of adsorbed molecular coils and the bending rigidity of graphene hexagonal structural units restricts the reachable curvature of central voids. When the unfavorable solvation is progressively lessened upon slow crystallization of adsorbed polyhexylthiophene molecules, the reverse unwrapping ensues accordingly. On the other hand, the solvent evaporation initiates the dense growth of crystalline whiskers outward from graphene nanoscrolls and thus results in comb-like superstructures. With mutual impingement effects associated with present superstructures, oriented assembly and growth behaviors of crystalline whiskers are able to occur, creating nematic fields of crystalline whiskers. [Display omitted] •The step-by-step advancement of steady graphene self-scrolling in solutions.•The adjustable solvation status of adsorbed molecules identified as the driving force of graphene self-scrolling.•Two identified thermodynamic regulating factors of graphene self-scrolling.•The dense outward growth of P3HTcrystalline whiskers on graphene nanoscrolls and evolved comb-like superstructures.•The self-organization of P3HT crystalline whiskers into nematic fields around comb-like superstructures.
Upon the tuning of solvent composition, the unfavorable solvation of adsorbed polyhexylthiophene is found able to drive graphene sheets to scroll steadily in solutions, resulting in nanoscrolls with a central void and regular stacking of internal layers. For theses steadily evolved graphene nanoscrolls, the interlayer distance is subject to the average radius of adsorbed molecular coils and the bending rigidity of graphene hexagonal structural units restricts the reachable curvature of central voids. When the unfavorable solvation is progressively lessened upon slow crystallization of adsorbed polyhexylthiophene molecules, the reverse unwrapping ensues accordingly. On the other hand, the solvent evaporation initiates the dense growth of crystalline whiskers outward from graphene nanoscrolls and thus results in comb-like superstructures. With mutual impingement effects associated with present superstructures, oriented assembly and growth behaviors of crystalline whiskers are able to occur, creating nematic fields of crystalline whiskers.
ArticleNumber 123758
Author Ruan, Jrjeng
Cheng, Horng-Long
Wu, Ching-Feng
Huang, Zheng-Kai
Lin, Kun-Ta
Lan, Yi-Kang
Chou, Wei-Yang
Pan, Chia-Hung
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Snippet Upon the tuning of solvent composition, the unfavorable solvation of adsorbed polyhexylthiophene is found able to drive graphene sheets to scroll steadily in...
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StartPage 123758
SubjectTerms 2D materials
Coils
Crystal structure
Crystallinity
Crystallization
Evaporation
Graphene
Graphene nanoscroll
Interlayers
Nematic crystals
Polyalkylthiophene
Rigidity
Scrolling
Sheets
Solvation
Solvents
Superstructures
Title Steady self-scrolling of graphene sheets upon the solvation status of adsorbed polyhexylthiophene
URI https://dx.doi.org/10.1016/j.polymer.2021.123758
https://www.proquest.com/docview/2539312527
Volume 224
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