21438578

Source:http://linkedlifedata.com/resource/pubmed/id/21438578

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Predicate	Object
rdf:type	pubmed:Citation
lifeskim:mentions	umls-concept:C0057717, umls-concept:C0205250, umls-concept:C0205360, umls-concept:C0934502, umls-concept:C1511539, umls-concept:C1521991, umls-concept:C1527362
pubmed:issue	15
pubmed:dateCreated	2011-4-13
pubmed:abstractText	We demonstrate a modular "click"-based functionalization scheme that allows inexpensive conductive diamond samples to serve as an ultrastable platform for surface-tethered electrochemically active molecules stable out to ?1.3 V vs Ag/AgCl. We have cycled surface-tethered Ru(tpy)(2) to this potential more than 1 million times with little or no degradation in propylene carbonate and only slightly reduced stability in water and acetonitrile.
pubmed:language	eng
pubmed:journal	http://linkedlifedata.com/resource/pubmed/journal/7503056
pubmed:status	PubMed-not-MEDLINE
pubmed:month	Apr
pubmed:issn	1520-5126
pubmed:author	pubmed-author:GerkenJames BJB, pubmed-author:HamersRobert JRJ, pubmed-author:HogendoornStephanie RSR, pubmed-author:LandisElizabeth CEC, pubmed-author:RigsbyMatthew LML, pubmed-author:RutherRose ERE, pubmed-author:StahlShannon SSS
pubmed:issnType	Electronic
pubmed:day	20
pubmed:volume	133
pubmed:owner	NLM
pubmed:authorsComplete	Y
pubmed:pagination	5692-4
pubmed:year	2011
pubmed:articleTitle	Highly stable redox-active molecular layers by covalent grafting to conductive diamond.
pubmed:affiliation	Department of Chemistry, University of Wisconsin-Madison, 1101 University Avenue, Madison, Wisconsin 53706, United States.
pubmed:publicationType	Journal Article