Chiral amines are important building blocks for the synthesis of bioactive molecules, and efficient and environmentally benign methods are required for their preparation in high yield, productivity, product concentration and enantiomeric purity (Höhne and Bornscheuer 2009).
Oxygen supply is another important variable in the 2,3-BD fermentation which could affect product yield, productivity, and by-products formation [ 3, 4].
This could significantly increase the product yield, productivity, and concentration and hence reduce the production costs.
Integration of bioreactors with these energy-efficient separation methods could significantly increase the product yield, productivity and concentration and hence lower the production cost.
The principal obstacle to commercial production of these fuels is that microbial catalysts of robust yields, productivities, and titers have yet to be developed.
Current ethanol yields, productivities, and growth inhibitions are industrial deployment impediments for commodity fuel production by this bacterium.
Furthermore, due to the attractive yields, productivities and titres achieved in this study, the process has the potential to serve as a means for value-added chemical manufacturing in the integrated biorefinery.
In turn, this large environmental adaptability provides opportunities to modify the production of targeted natural compounds and to control their formation at high titres, yields, productivities and the required quality (purity).
Bioprocess modelling strategies have been proven effective for achieving high-production process* efficiency in yield, productivity or titer of desired product.
Such rigid and negative thinking cannot yield productivity and growth.
