Difference between revisions of "Team:SCUT-FSE-CHINA"

 
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     <h3>Abstract</h3>
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     <h2>Abstract</h2>
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    <h3>Robust <i>E. coli</i> for Open Culture in Industrial Fermentation Processes</h3>
        In the process of industrial fermentation, the problem of microbial contamination is always a tough challenge to face, which occasionally occurs due to the negligence of staff and equipment failure, resulting in very serious industrial accidents. Bacteria and phage infection control are the keys to the success of fermentation. The project aims to construct an <i>E.coli</i> dominant engineering bacterium by means of synthetic biology, which can prevent the contamination of bacteria and phage infection during the fermentation process, so that the fermentation can be carried out smoothly according to the production plan. <br /><br />
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        <a href="/Team:SCUT-FSE-CHINA/Description">Click here for more information.</a>
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     <p>Microbial fermentation is an important component of industrial biotechnology and is increasingly popular, with products ranging from bulk chemicals to bioactive molecules. However, despite advance in biotechnology and improvement in fermentation control, microbial contamination and phages infection during fermentation process still remain major concerns worldwide. This is due to the widespread distribution of microorganism as well as phages and the consequent negative economic impact caused by frequent sterilization. In an effort to avoid fermentation failure and even to make these processes more economical, we try to introduce a “robust strain” for developing the fermentation process in the open (unsterile) culture. Here, we introduce the metabolic pathways of formamide and phosphite into the host to fit our special designed medium so that the unexpected microorganism could not exist. Additionally, applying CRISPR/Cas9 system makes the host attain phage resistance ability. Eventually, an open fermentative process can be achieved.</p>
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    <a class="bd" href="/Team:SCUT-FSE-CHINA/Description"><span class="glyphicon glyphicon-link"></span>Click here for more information.</a>
 
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Latest revision as of 17:50, 1 November 2017



Abstract

Robust E. coli for Open Culture in Industrial Fermentation Processes

Microbial fermentation is an important component of industrial biotechnology and is increasingly popular, with products ranging from bulk chemicals to bioactive molecules. However, despite advance in biotechnology and improvement in fermentation control, microbial contamination and phages infection during fermentation process still remain major concerns worldwide. This is due to the widespread distribution of microorganism as well as phages and the consequent negative economic impact caused by frequent sterilization. In an effort to avoid fermentation failure and even to make these processes more economical, we try to introduce a “robust strain” for developing the fermentation process in the open (unsterile) culture. Here, we introduce the metabolic pathways of formamide and phosphite into the host to fit our special designed medium so that the unexpected microorganism could not exist. Additionally, applying CRISPR/Cas9 system makes the host attain phage resistance ability. Eventually, an open fermentative process can be achieved.

Click here for more information.