Difference between revisions of "Team:Cadets2Vets/Demonstrate"

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<p class="MsoNormal" style="color: white"><span style="font-size:24px;"><span style="line-height: 115%; font-family: Verdana, sans-serif;"><span style="font-family:montserrat;" >Our circuit was designed to utilize specific parts so that when the E. coli cells containing this gene circuit are exposed to arsenic, the Green Florescent Protein (GFP) is produced making the ticket glow under a blue light.</span></span></span><o:p></o:p></p>
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<p class="MsoNormal" style="color: white"><span style="font-size:24px;"><span style="line-height: 115%; font-family: Verdana, sans-serif;"><span style="font-family:montserrat;" >Our circuit was designed to utilize specific parts so that when the E. coli cells containing this gene circuit are exposed to arsenic, the Green Fluorescent Protein (GFP) is produced making the ticket glow under a blue light.</span></span></span><o:p></o:p></p>
 
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<p dir="ltr"><br>Cadets2Vets has built a biological arsenic circuit that uses a combination of native DH5-alpha E. coli genes to detect arsenic ions in solution and genetic elements capable of producing GFP (Green Fluorescent Protein). After reading through academic literature, our team found a negative repressor that could be used as an arsenic regulator known as ArsR. Sensitive to arsenic ions, this protein will bind to an operon or promoter sequence and inhibit the transcription of the downstream gene in the presence of a transcription factor (in our case arsenic). Expressing a conformation change, this strategy allows us to control GFP expression using a protein sensitive to and capable of bonding with arsenic ions in solution.
 
<p dir="ltr"><br>Cadets2Vets has built a biological arsenic circuit that uses a combination of native DH5-alpha E. coli genes to detect arsenic ions in solution and genetic elements capable of producing GFP (Green Fluorescent Protein). After reading through academic literature, our team found a negative repressor that could be used as an arsenic regulator known as ArsR. Sensitive to arsenic ions, this protein will bind to an operon or promoter sequence and inhibit the transcription of the downstream gene in the presence of a transcription factor (in our case arsenic). Expressing a conformation change, this strategy allows us to control GFP expression using a protein sensitive to and capable of bonding with arsenic ions in solution.
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Integrated DNA Technologies, an iGEM sponsor, provided us with free synthetic DNA to build our circuit. This sponsorship allowed us to select promoters and genes that fit our project. The molecular cloning strategy was to request two GBlocks that would contain a promoter-ribosome binding site-CDS-terminator sequence for constitutively expressing ArsR and regulating the expression of GFP via ArsR. We also added in a restriction enzyme site to both GBlocks that enabled us to combine the two GBlocks together.
 
 
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Before running the actual circuit, we ran control experiments to determine whether or not the GFP would indeed function as a reporter, meaning it is expressed by the plasmid.
 
Before running the actual circuit, we ran control experiments to determine whether or not the GFP would indeed function as a reporter, meaning it is expressed by the plasmid.

Revision as of 23:11, 1 November 2017

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