Team:UCL/experiments

From 2014.igem.org

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                 <h1>Experiments</h1>               
                 <h1>Experiments</h1>               
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<h4>Experiment 1: Extraction of <i>Bacillus subtilis</i> genomic DNA</h4>
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<h4>Extraction of <i>Bacillus subtilis</i> genomic DNA</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer, Tanel Ozdemir &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published">June 13, 2014</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer, Tanel Ozdemir &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published">June 13, 2014</abbr>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<a href="/Team:UCL/protocols"><span class="label label-warning">DNA extraction</span></a></div>
<a href="/Team:UCL/protocols"><span class="label label-warning">DNA extraction</span></a></div>
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<p>Our literature search identified a number of bacterial species that have been proven to degrade azo dye compounds including <i>B. subtilis</i> and <i>P. aeruginosa</i>.  We were able to obtain a <i>B. subtilis</i> strain for use in our project from ?.  We extracted the genomic DNA from this strain using a Promega Wizard Genomic DNA extraction kit so that we could subsequently amplify the azo-reducatase gene (AzoR1) and create our first azo-reductase BioBrick.  After completing the genomic DNA extracton we ran a gel to show that we had successfully extracted the <i>B. subtilis</i> genomic DNA.</p>
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<p>Our literature search identified a number of bacterial species that have been proven to degrade azo dye compounds including <i>B. subtilis</i> and <i>P. aeruginosa</i>.  We were able to obtain a <i>B. subtilis</i> strain for use in our project from ?.  We extracted the genomic DNA from this strain using a Promega Wizard Genomic DNA extraction kit so that we could subsequently amplify the azo-reducatase gene (AzoR1) and create our first azo-reductase BioBrick.  After completing the genomic DNA extracton we ran a gel to show that we had successfully extracted the <i>B. subtilis</i> genomic DNA.
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<h4>Experiment 2: Transforming <i>E. coli</i> with Azo-reductase plasmids</h4>
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<h4>Transforming <i>E. coli</i> with Azo-reductase plasmids</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
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<p>We were gratefully provided with a set of plasmids from a group of researchers working at the University of Lisbon, Portugal who are researching how azo-reductase enzymes function and were keen to collaborate with us.  These plasmids contained a number of azo-reductase genes from both <i>B. subtilis</i> and <i>P. aeruginosa</i>  including mutated forms found to exhibit enhanced reductase activity.  As the DNA concentration of the plasmids we were sent was insufficient to perform PCR amplification on we transformed each of these plasmids into our <i>E. coli</i> NEB5lpha competent cells.  After growing the cells overnight we then mini-prepped each of them to obtain plasmids at sufficient concentrations for future experimental work.</p>
<p>We were gratefully provided with a set of plasmids from a group of researchers working at the University of Lisbon, Portugal who are researching how azo-reductase enzymes function and were keen to collaborate with us.  These plasmids contained a number of azo-reductase genes from both <i>B. subtilis</i> and <i>P. aeruginosa</i>  including mutated forms found to exhibit enhanced reductase activity.  As the DNA concentration of the plasmids we were sent was insufficient to perform PCR amplification on we transformed each of these plasmids into our <i>E. coli</i> NEB5lpha competent cells.  After growing the cells overnight we then mini-prepped each of them to obtain plasmids at sufficient concentrations for future experimental work.</p>
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<h4>Experiment 3: Diagnostic digest of azo-reductase plasmids</h4>
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<h4>Diagnostic digest of azo-reductase plasmids</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
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<p>After successfully transforming the <i>B. subtilis</i> and <i>P. aeruginosa</i> azo-reductase plasmids into competent <i>E. coli</i> NEB5lpha cells we then performed a diagnostic digest and gel electrophoresis experiment o ascertain that these plasmids contained the gene we expected.  Each plasmid was digested using two restriction enzymes chosen to digest DNA as specific points on the plasmids and create fragments of known length which we could then confirm using gel electrophoresis.</p>
<p>After successfully transforming the <i>B. subtilis</i> and <i>P. aeruginosa</i> azo-reductase plasmids into competent <i>E. coli</i> NEB5lpha cells we then performed a diagnostic digest and gel electrophoresis experiment o ascertain that these plasmids contained the gene we expected.  Each plasmid was digested using two restriction enzymes chosen to digest DNA as specific points on the plasmids and create fragments of known length which we could then confirm using gel electrophoresis.</p>
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<h4>Experiment 4: Creation of azo-reductase BioBrick parts from plasmids</h4>
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<h4>Creation of azo-reductase BioBrick parts from plasmids</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
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<p>senectus et netus et malesuada</p>
<p>senectus et netus et malesuada</p>
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<h4>Experiment 5: Diagnostic digest of azo-reductase BioBrick parts</h4>
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<h4>Diagnostic digest of azo-reductase BioBrick parts</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
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<p>senectus et netus et malesuada</p>
<p>senectus et netus et malesuada</p>
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<h4>Experiment 1: Extraction of useful BioBrick plasmids from iGEM 2014 Distribution Kit</h4>
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<h4>Extraction of useful BioBrick plasmids from iGEM 2014 Distribution Kit</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
&nbsp;&nbsp;<strong>Protocols&nbsp;&nbsp;</strong>
&nbsp;&nbsp;<strong>Protocols&nbsp;&nbsp;</strong>
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<p>We began our project by identifying a range of BioBrick parts present in the iGEM 2014 distribution kit which we required as part of our cloning strategy.  These parts primarily consisted of both constituitive and inducible promoter systems with ribosome binding sites which we could then use in conjunction with our azo-reductase BioBricks to assemble a functional azo dye degrading gene.  We also decided that we would use the Red Florescent Protein expresing BioBrick as a control for any further transformation experiments.  As the level of DNA present within each plate of the distribution kit is insufficient to perform digest and ligation reactions on it was necessary to transform each of these plasmids into our NEB5alpha competent cells.  After growing our transformed cells overnight we then mini-prepped each of them to obtain BioBrick plasmids at suitable concentrations for future experiments.</p>
<p>We began our project by identifying a range of BioBrick parts present in the iGEM 2014 distribution kit which we required as part of our cloning strategy.  These parts primarily consisted of both constituitive and inducible promoter systems with ribosome binding sites which we could then use in conjunction with our azo-reductase BioBricks to assemble a functional azo dye degrading gene.  We also decided that we would use the Red Florescent Protein expresing BioBrick as a control for any further transformation experiments.  As the level of DNA present within each plate of the distribution kit is insufficient to perform digest and ligation reactions on it was necessary to transform each of these plasmids into our NEB5alpha competent cells.  After growing our transformed cells overnight we then mini-prepped each of them to obtain BioBrick plasmids at suitable concentrations for future experiments.</p>
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<h4>Experiment 6: Assembling azo-reductase BioBrick Device(s)</h4>
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<h4>Assembling azo-reductase BioBrick Device(s)</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
<strong>&nbsp;&nbsp;Protocols&nbsp;&nbsp;</strong>
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<p>senectus et netus et malesuada</p>
<p>senectus et netus et malesuada</p>
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<h4>Experiment 7: Characterisation of azo-reductase BioBrick devices</h4>
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<h4>Characterisation of azo-reductase BioBrick devices</h4>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<div class="byline"><i class="icon-user"></i> Adam Denyer &nbsp;&nbsp; <i class="icon-time"></i> <abbr class="published" title="Monday, October 15, 2013,  8:21 PM">October 15, 2013</abbr>
<strong>Protocols&nbsp;&nbsp;</strong>
<strong>Protocols&nbsp;&nbsp;</strong>
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Revision as of 16:41, 6 September 2014

Goodbye Azo Dye : iGEM 2014 - University College London

 

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