Hegab Hanaa M, Elmekawy Ahmed, Stakenborg Tim
KACST-Intel Consortium Center of Excellence in Nano-Manufacturing Applications (CENA), Riyadh, Saudi Arabia ; IMEC, Kapeldreef 75, Leuven, Belgium ; Institute of Advanced Technology and New Materials, City of Scientific Research and Technological Applications, Borg Elarab, Alexandria, Egypt.
Genetic Engineering and Biotechnology Research Institute, Minufiya University, Sadat City, Egypt.
Biomicrofluidics. 2013 Apr 5;7(2):21502. doi: 10.1063/1.4799966.
Microbial fermentation process development is pursuing a high production yield. This requires a high throughput screening and optimization of the microbial strains, which is nowadays commonly achieved by applying slow and labor-intensive submerged cultivation in shake flasks or microtiter plates. These methods are also limited towards end-point measurements, low analytical data output, and control over the fermentation process. These drawbacks could be overcome by means of scaled-down microfluidic microbioreactors (μBR) that allow for online control over cultivation data and automation, hence reducing cost and time. This review goes beyond previous work not only by providing a detailed update on the current μBR fabrication techniques but also the operation and control of μBRs is compared to large scale fermentation reactors.
微生物发酵工艺的发展追求高产量。这需要对微生物菌株进行高通量筛选和优化,目前通常通过在摇瓶或微孔板中进行缓慢且耗费人力的深层培养来实现。这些方法在终点测量、低分析数据输出以及发酵过程控制方面也存在局限性。通过小型化的微流控微生物反应器(μBR)可以克服这些缺点,它能够对培养数据进行在线控制和自动化操作,从而降低成本和时间。这篇综述不仅通过提供当前μBR制造技术的详细更新超越了以往的工作,还将μBR的操作和控制与大规模发酵反应器进行了比较。