Technologies are available which will allow the conversion of lignocellulose into fuel ethanol using genetically engineered bacteria. Assembling these into a cost-effective process remains a challenge. Our work has focused primarily on the genetic engineering of enteric bacteria using a portable eth
β¦ LIBER β¦
ChemInform Abstract: Metabolic Engineering of Microorganisms for Isoprenoid Production
β Scribed by James Kirby; Jay D. Keasling
- Publisher
- John Wiley and Sons
- Year
- 2008
- Weight
- 15 KB
- Volume
- 39
- Category
- Article
- ISSN
- 0931-7597
No coin nor oath required. For personal study only.
π SIMILAR VOLUMES
Metabolic engineering of bacteria for et
β
L. O. Ingram; P. F. Gomez; X. Lai; M. Moniruzzaman; B. E. Wood; L. P. Yomano; S.
π
Article
π
1998
π
John Wiley and Sons
π
English
β 221 KB
π 2 views
Metabolic engineering of isoprenoid bios
β
Γscar Besumbes; Susanna Sauret-GΓΌeto; Michael A. Phillips; Santiago Imperial; Ma
π
Article
π
2004
π
John Wiley and Sons
π
English
β 438 KB
π 2 views
ChemInform Abstract: Utilization of Gene
β
Carlos Garbisu; Itziar Alkorta
π
Article
π
2010
π
John Wiley and Sons
β 25 KB
Metabolic engineering and control analys
β
Jia-ling Lu; James C. Liao
π
Article
π
1997
π
John Wiley and Sons
π
English
β 154 KB
π 2 views
Aromatic metabolites in Escherichia coli and other microorganisms are derived from two common precursors: phosphoenolpyruvate (PEP) and erythrose 4-phosphate (E4P). During growth on glucose, the levels of both E4P and PEP are insufficient for high throughput of aromatics because of the low carbon fl
ChemInform Abstract: Systems Biology of
β
J. Stefan Rokem; Anna Eliasson Lantz; Jens Nielsen
π
Article
π
2008
π
John Wiley and Sons
β 15 KB
π 1 views
ChemInform Abstract: Production of Ξ²-Lac
β
J. NOSEK; R. RADZIO; U. KUECK
π
Article
π
2010
π
John Wiley and Sons
β 25 KB
π 1 views