Thomas Bechtold

Prof. Dr. Thomas Bechtold

Universität Innsbruck, Research Institute for Textile Chemistry and Textile Physics, Dornbirn, Austria
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Research Focus & Metrics

Academic Career Length

45Years (1982-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 November 2009 in Cellulose
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Journal Article
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JŠJán Široký
Ján Široký
Richard BlackburnRichard Blackburn
Richard Blackburn
TBThomas Bechtold
Thomas Bechtold
JTJim Taylor
Jim Taylor
PWPatrick White
Patrick White

1 August 2003 in Journal of Cleaner Production
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Journal Article
Closed access
TBThomas Bechtold
Thomas Bechtold
ATA Turcanu
A Turcanu
EGE Ganglberger
E Ganglberger
SGS Geissler
S Geissler

25 November 2004 in Carbohydrate Polymers
Verified
Journal Article
Closed access
SOS Okubayashi
S Okubayashi
UGUlrich Griesser
Ulrich Griesser
TBThomas Bechtold
Thomas Bechtold

1 March 2019 in Journal of Electroanalytical Chemistry
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Journal Article
Closed access
SSSabrina Schindler
Sabrina Schindler
TBThomas Bechtold
Thomas Bechtold

14 November 2005 in Journal of the Science of Food and Agriculture
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Journal Article
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TBThomas Bechtold
Thomas Bechtold
RMRita Mussak
Rita Mussak
AMAmalid Mahmud‐Ali
Amalid Mahmud‐Ali
EGErika Ganglberger
Erika Ganglberger
SGSusanne Geissler
Susanne Geissler

16 April 2020 in Molecules
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Journal Article
Open access
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FWFlorian Wurm
Florian Wurm
BRBarbara Rietzler
Barbara Rietzler
TPTung Pham
Tung Pham
TBThomas Bechtold
Thomas Bechtold
Many biopolymers exhibit a strong complexing ability for multivalent ions. Often such ions form ionic bridges between the polymer chains. This leads to the formation of ionic cross linked networks and supermolecular structures, thus promoting the modification of the behavior of solid and gel polymer networks. Sorption of biopolymers on fiber surfaces and interfaces increases substantially in the case of multivalent ions, e.g., calcium being available for ionic crosslinking. Through controlled adsorption and ionic crosslinking surface modification of textile fibers with biopolymers can be achieved, thus altering the characteristics at the interface between fiber and surrounding matrices. A brief introduction on the differences deriving from the biopolymers, as their interaction with other compounds, is given. Functional models are presented and specified by several examples from previous and recent studies. The relevance of ionic crosslinks in biopolymers is discussed by means of selected examples of wider use.