Difference between revisions of "Team:Glasgow/ANDGate"

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AND Gate
 
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==Overview==
 
==Overview==
  
 
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In the design of our <i>Campylobacter</i> biosensor we decided to employ a genetic logic circuit. This would require the presence of two transcriptional input signals from <i>Campylobacter</i>-associated molecules before an output signal in the form of GFP fluorescence could be produced. We aimed to build and characterise two genetic AND-gates; one based on a split-GFP fluorescence system; and the other based on a splitting the <i>Enterobacteria</i> phage T7 RNA polymerase. We wished to quantify the responsiveness of both AND-gates with well-characterised small-molecule regulated promoters from the iGEM registry, and then proceed to utilising our own <i>Campylobacter</i> sensing transcriptional systems to drive the AND-gate biosensor. Both split-GFP and split-T7 RNAP gates were constructed from BioBrick parts and tested, however DNA sequence errors appear to have prevented the proper function of either system.
<ref>Kiliç, A. O., Pavlova, S. I., Ma, W. G. & Tao, L. 1996. Analysis of <i>Lactobacillus</i> phages and bacteriocins in American dairy products and characterization of a phage isolated from yogurt. Appl Environ Microbiol, 62, 2111-6.</ref>
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==Aims==
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*Aim 1
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**Sub-aim 1
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**Sub-aim 2
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*Aim 2
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**Sub-aim 1
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**Sub-aim 2
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==Materials and Methods==
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===Condition set up===
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===Sample preparation===
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{{GlasgowWikiImage|image=Glasgow2017_caption_image1.JPG|caption=<b>Table 1:</b> Optical density analysis of <i>S. thermophilus</i> growth}}
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==Results and Discussion==
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==Outlook==
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==References==
 
==References==

Revision as of 21:17, 1 November 2017

Glasgow iGEM 2017
AND Gate


Overview

In the design of our Campylobacter biosensor we decided to employ a genetic logic circuit. This would require the presence of two transcriptional input signals from Campylobacter-associated molecules before an output signal in the form of GFP fluorescence could be produced. We aimed to build and characterise two genetic AND-gates; one based on a split-GFP fluorescence system; and the other based on a splitting the Enterobacteria phage T7 RNA polymerase. We wished to quantify the responsiveness of both AND-gates with well-characterised small-molecule regulated promoters from the iGEM registry, and then proceed to utilising our own Campylobacter sensing transcriptional systems to drive the AND-gate biosensor. Both split-GFP and split-T7 RNAP gates were constructed from BioBrick parts and tested, however DNA sequence errors appear to have prevented the proper function of either system.

References

Using synthetic biology to create a biosensor for detection of Campylobacter jejuni, a bacteria linked to food poisoning.