Team:UCSF/Project

A common goal of synthetic biologists is to produce complex compounds in lab friendly chassis, such as E. coli or yeast. This is usually done by taking a large enzymatic pathway and placing it in the chassis to produce the final product. In certain cases, such as the production of artemisinin, this has been very successful. However, there are usually fitness costs related to this effort - in particular, metabolic burden and negative feedback - that prevent efficient production.

Can we engineer organisms to more efficiently produce a compound by harnessing symbiosis?

We are taking three different synthetic approaches to study tunable symbiosis. In the first, we use a model pathway (violacein production) to see if cells can work together to more efficiently produce a product. In the second two approaches we look at ways in which cells can be tuned to achieve ideal population ratios.

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-<center><h3red>Overview and Inspiration for Project</h3red></center> <br><p>
+<center><h3red><u>Overview and Inspiration for Project</u></h3red></center> <br><p>
   <regulartext> A common goal of synthetic biologists is to produce complex compounds in lab friendly chassis, such as <i>E. coli</i> or yeast. This is usually done by taking a large enzymatic pathway and placing it in the chassis to produce the final product. In certain cases, such as the production of artemisinin, this has been very successful. However, there are usually fitness costs related to this effort - in particular, metabolic burden and negative feedback - that prevent efficient production.<br>
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 <br> <p>
-<regulartext>We are taking three different synthetic approaches to study tunable symbiosis. In the first, we use a model pathway (violacein production) to see if cells can work together to more efficiently produce a product. In the second two approaches we look at ways in which cells can be tuned to achieve ideal population ratios.</regulartext>
+<center><h3red>Can we engineer organisms to more efficiently produce a compound by harnessing symbiosis? </h3red></center> <br><p>
-<img align="center" style="margin-bottom:20px; width: 500px; margin-top:20px; padding:2; margin-left:55px;" src="https://dl.dropbox.com/u/24404809/iGEM%202012/igem%202012%20website%20photos/Background/All%20Projects%20Slide.jpg">
+<img align="center" style="margin-bottom:20px; width: 300px; margin-top:20px; padding:2; margin-left:155px;" src="https://dl.dropbox.com/u/24404809/iGEM%202012/igem%202012%20website%20photos/Background/SplitPathway2.jpg">
+<br> <p>
+<regulartext>We are taking three different synthetic approaches to study tunable symbiosis. In the first, we use a model pathway (violacein production) to see if cells can work together to more efficiently produce a product. In the second two approaches we look at ways in which cells can be tuned to achieve ideal population ratios.</regulartext> <p>
+<img align="center" style="margin-bottom:20px; width: 500px; margin-top:20px; padding:2; margin-left:205px;" src="https://dl.dropbox.com/u/24404809/iGEM%202012/igem%202012%20website%20photos/Background/All%20Projects%20Slide.jpg">