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Twinning Lignosulfonate with a Conducting Polymer via Counter-Ion Exchange for Large-Scale Electrical Storage

Che, Canyan, 1988- (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
Vagin, Mikhail, 1976- (author)
Linköpings universitet,Tekniska fakulteten,Laboratoriet för organisk elektronik,Institutionen för fysik, kemi och biologi
Ail, Ujwala, 1980- (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
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Gueskine, Viktor (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
Phopase, Jaywant, 1977- (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten,Institutionen för fysik, kemi och biologi
Brooke, Robert, 1989- (author)
RISE,Acreo,RISE, Norrköping, Sweden
Gabrielsson, Roger (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
Jonsson, Magnus P., 1981- (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
Mak, Wing Cheung, 1977- (author)
Linköpings universitet,Sensor- och aktuatorsystem,Tekniska fakulteten
Berggren, Magnus, 1968- (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
Crispin, Xavier, Professor, 1972- (author)
Linköpings universitet,Laboratoriet för organisk elektronik,Tekniska fakulteten
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 (creator_code:org_t)
2019-06-24
2019
English.
In: Advanced Sustainable Systems. - : Wiley-VCH Verlag. - 2366-7486. ; 3:9
  • Journal article (peer-reviewed)
Abstract Subject headings
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  • Lignosulfonate (LS) is a large-scale surplus product of the forest and paper industries, and has primarily been utilized as a low-cost plasticizer in making concrete for the construction industry. LS is an anionic redox-active polyelectrolyte and is a promising candidate to boost the charge capacity of the positive electrode (positrode) in redox-supercapacitors. Here, the physical-chemical investigation of how this biopolymer incorporates into the conducting polymer PEDOT matrix, of the positrode, by means of counter-ion exchange is reported. Upon successful incorporation, an optimal access to redox moieties is achieved, which provides a 63% increase of the resulting stored electrical charge by reversible redox interconversion. The effects of pH, ionic strength, and concentrations, of included components, on the polymer–polymer interactions are optimized to exploit the biopolymer-associated redox currents. Further, the explored LS-conducting polymer incorporation strategy, via aqueous synthesis, is evaluated in an up-scaling effort toward large-scale electrical energy storage technology. By using an up-scaled production protocol, integration of the biopolymer within the conducting polymer matrix by counter-ion exchange is confirmed and the PEDOT-LS synthesized through optimized strategy reaches an improved charge capacity of 44.6 mAh g−1. 

Subject headings

TEKNIK OCH TEKNOLOGIER  -- Elektroteknik och elektronik (hsv//swe)
ENGINEERING AND TECHNOLOGY  -- Electrical Engineering, Electronic Engineering, Information Engineering (hsv//eng)

Keyword

charge storage
conducting polymers
ion-exchange
lignin

Publication and Content Type

ref (subject category)
art (subject category)

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