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Complete Biosynthesis of anthocyanins using E. Coli polycultures
J. Andrew Jones
, Victoria R. Vernacchio
, Shannon M. Collins
, Abhijit N. Shirke
, Yu Xiu
, Jacob A. Englaender
, Brady F. Cress
, Catherine C. McCutcheon
, Robert J. Linhardt
, Richard A. Gross
, Mattheos A.G. Koffasa
Research output
:
Contribution to journal
›
Article
›
peer-review
194
Scopus citations
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Keyphrases
Escherichia Coli
100%
Anthocyanins
100%
Polyculture
100%
Total Biosynthesis
100%
Metabolic Engineering
75%
Metabolic Burden
50%
Chemical Production
50%
Synthetic Consortia
50%
Transcription Factor
25%
Overexpression
25%
Recombinant
25%
Reconstitution
25%
Functional Connection
25%
Microbes
25%
Titer
25%
Functional Expression
25%
Most Complex
25%
Rapid Production
25%
Sustainable Production
25%
Reducing Equivalents
25%
High Heat Flux
25%
Engineering Application
25%
Acyl-coenzyme A
25%
Production Methods
25%
Fermentation
25%
Design Process
25%
Metabolic Reserve
25%
Traditional Extraction
25%
Plant Natural Products
25%
Chemical Products
25%
Safe Production
25%
Production Host
25%
Feasible Route
25%
Production Strategy
25%
Microbial Biosynthesis
25%
Strain Design
25%
Strain Optimization
25%
Biochemical Production
25%
Non-native Host
25%
Industrial Utilization
25%
Metabolic Pathways
25%
Specific Metabolites
25%
Engineering Target
25%
Microbial Hosts
25%
Biochemistry, Genetics and Molecular Biology
Anabolism
100%
Escherichia coli
100%
Metabolic Engineering
100%
Anthocyanin
100%
Enzyme
66%
Metabolite
33%
Precursor
33%
Transcription Factors
33%
Titer
33%
Adenosine Triphosphate
33%
Reducing Equivalent
33%
Malonyl-CoA
33%
Process Design
33%
Immunology and Microbiology
Escherichia coli
100%
Metabolic Engineering
100%
Biosynthesis
100%
Metabolite
33%
Titer
33%
Transcription Factors
33%
Precursor
33%
Process Design
33%
Coenzyme
33%
Chemical Engineering
Adenosine Triphosphate
100%