Sentence examples for use of metabolic engineering from inspiring English sources

Numerous genetic manipulation tools have also been developed, paving the way for the use of metabolic engineering and systems biology approaches.

Photocrosslinking methods rely on use of metabolic engineering or genetic code expansion to incorporate photocrosslinking analogs of amino acids or sugars into cellular biomolecules.

Further advances will probably require the use of metabolic engineering and more sophisticated process controls in order to achieve higher stoichiometries, approaches that might be applied to other, light dependent, hydrogen production process by these organisms.

The combined use of metabolic engineering and physiological modulation in transgenic and wild-type plants, although not fully exploited to date, is likely to provide the sustainable and rational supply of bioactive MIAs needed for human well being.

In this chapter, we have discussed different noncovalent approaches such as membrane fusion, electrostatic and hydrophobic interactions using cationic and polymeric amphiphiles, and use of metabolic engineering and bioorthogonal click chemistry for the modification of cell surface.

Identification of pathways responsible for the conversion of glycerol in these microorganisms is expected to allow the use of metabolic engineering strategies to reduce byproduct formation and lead to an industrial producer strain [ 24, 51].

The qualitative and quantitative improvement of biologically active compounds by plant cell, tissue and organ culture have been used as an alternative source for the production of important bioactive secondary metabolites using different strategies of metabolic engineering.

Finally, we illustrate the development of synthetic metabolic systems using the principles of metabolic engineering and discuss their possible advantages in the production of biofuels and bioproducts.

Using a combination of metabolic engineering and chemobiosynthetic approach, we achieved exclusive production of FK506, representing a significant step towards development of an advanced industrial bioprocess.

These antisense methods are being used as part of metabolic engineering strategies to downregulate enzymes controlling undesired pathways with regard to product formation.

Understanding the transport and metabolism mechanisms of the common and inexpensive sugars in E. coli is important for further improving the efficiency of sugar bioconversion and for reducing industrial fermentation costs using the methods of metabolic engineering, synthetic biology and systems biology.