A Platform for Functional Conductive Polymers

Publication: Research - peer-reviewConference abstract for conference – Annual report year: 2012

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A Platform for Functional Conductive Polymers. / Daugaard, Anders Egede; Hoffmann, Christian ; Lind, Johan Ulrik; Hansen, Thomas Steen; Larsen, Niels Bent; Hvilsted, Søren.

2012. Abstract from Polymer Chemistry , Warwick, United Kingdom.

Publication: Research - peer-reviewConference abstract for conference – Annual report year: 2012

Harvard

Daugaard, AE, Hoffmann, C, Lind, JU, Hansen, TS, Larsen, NB & Hvilsted, S 2012, 'A Platform for Functional Conductive Polymers' Polymer Chemistry , Warwick, United Kingdom, 09/07/12 - 12/07/12,

APA

Daugaard, A. E., Hoffmann, C., Lind, J. U., Hansen, T. S., Larsen, N. B., & Hvilsted, S. (2012). A Platform for Functional Conductive Polymers. Abstract from Polymer Chemistry , Warwick, United Kingdom.

CBE

Daugaard AE, Hoffmann C, Lind JU, Hansen TS, Larsen NB, Hvilsted S. 2012. A Platform for Functional Conductive Polymers. Abstract from Polymer Chemistry , Warwick, United Kingdom.

MLA

Vancouver

Daugaard AE, Hoffmann C, Lind JU, Hansen TS, Larsen NB, Hvilsted S. A Platform for Functional Conductive Polymers. 2012. Abstract from Polymer Chemistry , Warwick, United Kingdom.

Author

Daugaard, Anders Egede; Hoffmann, Christian ; Lind, Johan Ulrik; Hansen, Thomas Steen; Larsen, Niels Bent; Hvilsted, Søren / A Platform for Functional Conductive Polymers.

2012. Abstract from Polymer Chemistry , Warwick, United Kingdom.

Publication: Research - peer-reviewConference abstract for conference – Annual report year: 2012

Bibtex

@misc{0e95a6a2625648119a1a71cc41488f65,
title = "A Platform for Functional Conductive Polymers",
author = "Daugaard, {Anders Egede} and Christian Hoffmann and Lind, {Johan Ulrik} and Hansen, {Thomas Steen} and Larsen, {Niels Bent} and Søren Hvilsted",
year = "2012",
type = "ConferencePaper <importModel: ConferenceImportModel>",

}

RIS

TY - ABST

T1 - A Platform for Functional Conductive Polymers

A1 - Daugaard,Anders Egede

A1 - Hoffmann,Christian

A1 - Lind,Johan Ulrik

A1 - Hansen,Thomas Steen

A1 - Larsen,Niels Bent

A1 - Hvilsted,Søren

AU - Daugaard,Anders Egede

AU - Hoffmann,Christian

AU - Lind,Johan Ulrik

AU - Hansen,Thomas Steen

AU - Larsen,Niels Bent

AU - Hvilsted,Søren

PY - 2012

Y1 - 2012

N2 - Conductive polymers have been studied extensively during recent years. In order to broaden the application field of conductive polymers different methods have been tested and recently an azide functional poly(3,4-ethylenedioxythiophene) (PEDOT-N3) was developed(1, 2). The azide functional conductive polymer can be postpolymerization functionalized to introduce a large number of functionalities through click chemistry(3).<br/>Through selection of reaction conditions it is possible control the depth of the reaction into the polymer film to the upper surface or the entire film(4). Thus a conductive polymer can be prepared with a subsurface layer of highly conductive polymer where only the upper surface has been grafted with functional groups to ensure selectivity of the surface layer for e.g. interaction with specific biospecies. The conductive polymer can be patterned using selective etching, which enables preparation of e.g. interdigitated electrodes or other surface structures. The electrodes have been applied in controlled localized click reactions through ”electroclick” reactions(5). This enables preparation of both highly functional electrodes as well as gradient surfaces(6). The system is very versatile in all dimensions and structures and allows for preparation of conductive polymers with very specific properties. Recent results on a grafting from method to modify the surface properties will be presented.<br/>

AB - Conductive polymers have been studied extensively during recent years. In order to broaden the application field of conductive polymers different methods have been tested and recently an azide functional poly(3,4-ethylenedioxythiophene) (PEDOT-N3) was developed(1, 2). The azide functional conductive polymer can be postpolymerization functionalized to introduce a large number of functionalities through click chemistry(3).<br/>Through selection of reaction conditions it is possible control the depth of the reaction into the polymer film to the upper surface or the entire film(4). Thus a conductive polymer can be prepared with a subsurface layer of highly conductive polymer where only the upper surface has been grafted with functional groups to ensure selectivity of the surface layer for e.g. interaction with specific biospecies. The conductive polymer can be patterned using selective etching, which enables preparation of e.g. interdigitated electrodes or other surface structures. The electrodes have been applied in controlled localized click reactions through ”electroclick” reactions(5). This enables preparation of both highly functional electrodes as well as gradient surfaces(6). The system is very versatile in all dimensions and structures and allows for preparation of conductive polymers with very specific properties. Recent results on a grafting from method to modify the surface properties will be presented.<br/>

ER -