Part:BBa_K590025:Experience
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2012 UIUC iGEM |
As a side project, we decided to characterize the University of Washington's existing biobrick, the Petrobrick. After analyzing the results from their experiment, we decided to reproduce the results specifically for the detection of C15 alkanes, as they were the most abundant. Transformed cells were grown in TB media and then subsequently in M9 min-glucose media to produce the alkanes. Using Gas Chromotography-Mass Spectometry, a standard curve was created using the known concentrations of four control samples of C15 alkanes and their corresponding peak areas. Then, GCMS analysis of four samples was used to find the concentration yields based on the standard curve. The average retention time for C15 alkanes was determined to be at 11.47 s, according to the chromatogram analysis. Our data was in sync with the University of Washington results, as their average yield of C15 alkanes was 160.3 mg/L and our range was from 130 to 190 mg/L. Based on our results, we were able to confirm the function of the Petrobrick. |
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2012 UCalgary iGEM |
The 2011 Washington iGEM team developed the PetroBrick, a BioBrick consisting of two primary genes. These include acyl-ACP reductase (AAR), which reduces fatty acids bound to ACP to fatty aldehydes, and a second gene called aldehyde decarbonylase (ADC), which subsequently cleaves the entire aldehyde group and results in a hydrocarbon chain. Essentially this allows for hydrocarbons to be produced from glucose. What we realized though, is that the fatty acids that the PetroBrick targets, have a very similar structure to NAs. This lead us to believe that the PetroBrick may have the potential to turn NAs in to hydrocarbons and be a perfect solution to remediating NAs! First though, we needed to show that the PetroBrick did in fact work as expected. We had some difficulty with the DNA from the registry and had to request the constructs directly from the Washington team. Once we had the Petrobrick, we needed to verify that the Petrobrick would work in our hands as it did for the 2011 Washington team. Figures 2 and 3 demonstrate the function of the Petrobrick.
The above graphs indicate that hydrocarbons were successfully produced from E.coli that contained the PetroBrick plasmid, as analysed with GC-MS. In Figure 2, E.coli containing the PetroBrick had significantly higher hydrocarbon peaks than in a control of E.coli that did not contain the PetroBrick plasmid. Not only was the PetroBrick able to degrade NAs into alkanes, but it was also able to produce alkenes as shown by Figure 3, indicating that the PetroBrick worked how we had expected it to! Special thanks to the Washington 2011 iGEM team for sending us their PetroBrick plasmid stock as the one from the registry was non-functional. |
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