Process development and intensification for enhanced production of Bacillus lipopeptides

The growing interest in Bacillus lipopeptides for high-value applications has driven process design, development and optimization for enhanced lipopeptide production. Traditional optimization approaches have been directed towards improving the overall titres by modification of media components and e...

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Veröffentlicht in:Biotechnology & genetic engineering reviews 2015-07, Vol.31 (1-2), p.46-68
Hauptverfasser: Rangarajan, Vivek, Clarke, Kim G.
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Clarke, Kim G.
description The growing interest in Bacillus lipopeptides for high-value applications has driven process design, development and optimization for enhanced lipopeptide production. Traditional optimization approaches have been directed towards improving the overall titres by modification of media components and environmental parameters, almost exclusively in submerged cultures. Carbon and nitrogen sources, trace elements and oxygen availability have all been demonstrated to exhibit significant influences on lipopeptide yield, productivity and selectivity. This insight into process-linked kinetics, especially selectivity, has led to the introduction of novel process intensification and integration strategies which further promote process efficiency, and which include foam fractionation, inverse fluidization, rotating disc contacting and microfiltration with recycle. These strategies have not only transformed the production capabilities, but have also successfully integrated upstream production with downstream purification through cell retention and in situ product removal. This review analyses and critically discusses the impact of process conditions and process optimization strategies for improving lipopeptide production kinetics, specifically highlighting the emerging trend of process intensification and integration strategies and further, proposes a heuristic route to enhance lipopeptide production.
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subjects Bacillus
Bacillus - growth & development
Bacillus - metabolism
Batch Cell Culture Techniques - methods
Carbon
Carbon - metabolism
Fermentation
Foams
Geophysics
Kinetics
lipopeptide production
lipopeptide selectivity
Lipopeptides - metabolism
Nitrogen - metabolism
Optimization
Oxygen - metabolism
process integration
Process intensification
process optimization
Selectivity
Strategy
Trace Elements - metabolism
title Process development and intensification for enhanced production of Bacillus lipopeptides
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