Team:Braunschweig

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<strong>Our project &#8211; outline</strong></p>
<strong>Our project &#8211; outline</strong></p>
In nature microorganisms commonly live in symbiosis, be it in form of a protective biofilm or as composite organism[s] such as lichen (a symbiosis of algae/cyanobacteria and fungi). Members of this symbiotic community secrete chemicals that offer protection and nutrition or neutralize toxins.
In nature microorganisms commonly live in symbiosis, be it in form of a protective biofilm or as composite organism[s] such as lichen (a symbiosis of algae/cyanobacteria and fungi). Members of this symbiotic community secrete chemicals that offer protection and nutrition or neutralize toxins.
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<a href="http://de.igem-braunschweig.de/wp-content/uploads/2013/04/Modell-vereinfacht.png"><img class="alignright" alt="Modell vereinfacht" src="http://de.igem-braunschweig.de/wp-content/uploads/2013/04/Modell-vereinfacht-279x300.png" width="279" height="300"/></a>The goal of the iGEM Team Braunschweig is to create a synergetic system similar to a natural symbiosis. During the course of our project we want to clone three individual mutant strains of the bacterium <em>Escherichia coli</em> which can only survive as a community – if one dies, they all die.<br />
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</a>The goal of the iGEM Team Braunschweig is to create a synergetic system similar to a natural symbiosis. During the course of our project we want to clone three individual mutant strains of the bacterium <em>Escherichia coli</em> which can only survive as a community – if one dies, they all die.<br />
To achieve this, each strain bears a plasmid that confers antibiotic resistance upon activation of a two-component transcription activator.<br />
To achieve this, each strain bears a plasmid that confers antibiotic resistance upon activation of a two-component transcription activator.<br />
The key feature of our system: only one component can be synthesized by each strain alone. The other half of a transcription activator is produced by another strain and secreted into the medium.</p>
The key feature of our system: only one component can be synthesized by each strain alone. The other half of a transcription activator is produced by another strain and secreted into the medium.</p>
<p style="text-align: justify;">Curious? <a href="http://en.igem-braunschweig.de/project-2/our-project/">Here</a> you can find more details.</p>
<p style="text-align: justify;">Curious? <a href="http://en.igem-braunschweig.de/project-2/our-project/">Here</a> you can find more details.</p>
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<p style="text-align: justify;"><img alt="linie rot 8pix hoch" src="http://en.igem-braunschweig.de/wp-content/uploads/2013/04/linie-rot-8pix-hoch.jpg" width="700" height="1" /></p>
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Revision as of 20:09, 30 June 2013

Our project – outline

In nature microorganisms commonly live in symbiosis, be it in form of a protective biofilm or as composite organism[s] such as lichen (a symbiosis of algae/cyanobacteria and fungi). Members of this symbiotic community secrete chemicals that offer protection and nutrition or neutralize toxins. The goal of the iGEM Team Braunschweig is to create a synergetic system similar to a natural symbiosis. During the course of our project we want to clone three individual mutant strains of the bacterium Escherichia coli which can only survive as a community – if one dies, they all die.
To achieve this, each strain bears a plasmid that confers antibiotic resistance upon activation of a two-component transcription activator.
The key feature of our system: only one component can be synthesized by each strain alone. The other half of a transcription activator is produced by another strain and secreted into the medium.

Curious? Here you can find more details.