Difference between revisions of "Team:NYU Shanghai/Protocols"

 
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  <div id="chromoText" style="display:none">
 
  <div id="chromoText" style="display:none">
 
     <p>
 
     <p>
     <h6><font color="#d66">Building our Construct</font></h6>
+
     <h6><font color="#d66">Building our Construct: from biobrick parts in the kit</font></h6>
     <p>Note: If using construct with araC/pBAD promoter, DO NOT USE SOC MEDIA. Glucose inhibits the uptake of arabinose, and will inhibit promoter induction.</p>
+
     <p>Note: If using construct with pBAD promoter, DO NOT USE SOC MEDIA. Glucose inhibits the uptake of arabinose, and will inhibit promoter induction.
 +
    <br>Note: We should have used PCR to amplify linearized backbone.
 +
    <br>Note: Always use gel electrophoresis to check digest results.</p>
 
     <br><img src="https://static.igem.org/mediawiki/2015/d/df/NYU_Shanghai_Chromo_Procedure.png" width="800">
 
     <br><img src="https://static.igem.org/mediawiki/2015/d/df/NYU_Shanghai_Chromo_Procedure.png" width="800">
 +
    <br><br><br>
 +
    <h6><font color="#d66">Building our Construct: from IDT gBlocks</font></h6>
 +
    <p>Note: We recommend adding a reporter gene to the construct.</p>
 +
    <br><img src="https://static.igem.org/mediawiki/2015/7/71/NYU_Shanghai_IDTprocedure.png" width="550">
 
     <br><br><br>
 
     <br><br><br>
 
     <h6><font color="#d66">Expressing XJTLU's Construct</font></h6>
 
     <h6><font color="#d66">Expressing XJTLU's Construct</font></h6>
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           <td>Nuclease-free water</td>
 
           <td>Nuclease-free water</td>
 
           <td>10μl or none</td>
 
           <td>10μl or none</td>
 +
          <td></td>
 +
      </tr>
 +
    </table>
 +
    <br>
 +
    <table>
 +
    <tr>
 +
          <td><font color="#d66">Initial Denaturation</font></td>
 +
          <td>98C</td>
 +
          <td>30s</td>
 +
      </tr>
 +
      <tr>
 +
          <td><font color="#d66">25 cycles</font></td>
 +
          <td>98C</td>
 +
          <td>15s</td>
 +
      </tr>
 +
      <tr>
 +
          <td>Annealing temp 1</td>
 +
          <td>59.5C</td>
 +
          <td>30s</td>
 +
      </tr>
 +
      <tr>
 +
          <td>Annealing temp 2</td>
 +
          <td>56.3C</td>
 +
          <td>30s</td>
 +
      </tr>
 +
      <tr>
 +
          <td>Annealing temp 3</td>
 +
          <td>53.7C</td>
 +
          <td>30s</td>
 +
      </tr>
 +
      <tr>
 +
          <td>Extension</td>
 +
          <td>72C</td>
 +
          <td>60s</td>
 +
      </tr>
 +
      <tr>
 +
          <td><font color="#d66">Final Extension</font></td>
 +
          <td>72C</td>
 +
          <td>2m</td>
 +
      </tr>
 +
      <tr>
 +
          <td><font color="#d66">Hold</font></td>
 +
          <td>4C</td>
 
           <td></td>
 
           <td></td>
 
       </tr>
 
       </tr>

Latest revision as of 16:56, 18 September 2015

Protocols

We built our constructs from pre-made biobrick parts. Our overall conclusion is that 3A assembly is generally inefficient, and an insufficient method for adding small parts (such as a terminator) to a larger construction within pSB1C3. We learned that ratios were extremely important in the process of 3A Assembly, and we made a summary sheet of the equations we used in pre-digest and pre-ligation that accounts for digest dilution and amount needed to ensure results are seen on a gel, not just ligation ratios. We wished we used gibson assembly.


Making Color

Recipes

3A Assembly

Calculations (pdf)