Molecular engineering of mechanophore activity for stress-responsive polymeric materials

dc.contributor.author

Brown, Cameron L

dc.contributor.author

Craig, Stephen L

dc.date.accessioned

2015-07-10T17:27:12Z

dc.date.issued

2015-04-01

dc.description.abstract

© The Royal Society of Chemistry.Force reactive functional groups, or mechanophores, have emerged as the basis of a potential strategy for sensing and countering stress-induced material failure. The general utility of this strategy is limited, however, because the levels of mechanophore activation in the bulk are typically low and observed only under large, typically irreversible strains. Strategies that enhance activation are therefore quite useful. Molecular-level design principles by which to engineer enhanced mechanophore activity are reviewed, with an emphasis on quantitative structure-activity studies determined for a family of gem-dihalocyclopropane mechanophores. This journal is

dc.identifier.eissn

2041-6539

dc.identifier.issn

2041-6520

dc.identifier.uri

https://hdl.handle.net/10161/10254

dc.publisher

Royal Society of Chemistry (RSC)

dc.relation.ispartof

Chemical Science

dc.relation.isversionof

10.1039/c4sc01945h

dc.title

Molecular engineering of mechanophore activity for stress-responsive polymeric materials

dc.type

Journal article

duke.contributor.orcid

Craig, Stephen L|0000-0002-8810-0369

pubs.begin-page

2158

pubs.end-page

2165

pubs.issue

4

pubs.organisational-group

Chemistry

pubs.organisational-group

Duke

pubs.organisational-group

Trinity College of Arts & Sciences

pubs.publication-status

Published

pubs.volume

6

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