Discrimination of Modes of Action of Antifungal Substances by Use of Metabolic Footprinting
Created by W.Langdon from
gp-bibliography.bib Revision:1.8051
- @Article{Allen:2004:AEM,
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author = "Jess Allen and Hazel M. Davey and David Broadhurst and
Jem J. Rowland and Stephen G. Oliver and
Douglas B. Kell",
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title = "Discrimination of Modes of Action of Antifungal
Substances by Use of Metabolic Footprinting",
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journal = "Applied and Environmental Microbiology",
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year = "2004",
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volume = "70",
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number = "10",
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pages = "6157--6165",
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month = oct,
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keywords = "genetic algorithms, genetic programming",
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DOI = "doi:10.1128/AEM.70.10.6157-6165.2004",
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abstract = "Diploid cells of Saccharomyces cerevisiae were grown
under controlled conditions with a Bioscreen
instrument, which permitted the essentially continuous
registration of their growth via optical density
measurements. Some cultures were exposed to
concentrations of a number of antifungal substances
with different targets or modes of action (sterol
biosynthesis, respiratory chain, amino acid synthesis,
and the uncoupler). Culture supernatants were taken and
analyzed for their metabolic footprints by using
direct-injection mass spectrometry. Discriminant
function analysis and hierarchical cluster analysis
allowed these antifungal compounds to be distinguished
and classified according to their modes of action.
Genetic programming, a rule-evolving machine learning
strategy, allowed respiratory inhibitors to be
discriminated from others by using just two masses.
Metabolic footprinting thus represents a rapid,
convenient, and information-rich method for classifying
the modes of action of antifungal substances.",
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notes = "PMID:",
- }
Genetic Programming entries for
Jess Allen
Hazel M Davey
David I Broadhurst
Jem J Rowland
Stephen G Oliver
Douglas B Kell
Citations