Team:Jilin China/RESULT
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- | <h3 >2、Mixing of primers</h3> | + | <h3 id="coop">2、Mixing of primers</h3> |
- | <p >Oligonucleotides synthesized in powder form need to be centrifuged for 1 min at 10000rpm to assemble powders to the bottom of the EP tube.And be careful to open the cap. </p> | + | <p id="coop">Oligonucleotides synthesized in powder form need to be centrifuged for 1 min at 10000rpm to assemble powders to the bottom of the EP tube.And be careful to open the cap. </p> |
- | <p >Make sure that the synthesis report is consistent to the OD number on the primer label,and check the number of the dispensing tube before the dissolution of oligonucleotides.The volume of water added to make 10umol/L oligonucleotides’ solution is calculated according to the synthetic single report of each primer. Add sterile deionized water and keep it at room temperature for 2min.And reverse the tube to accelerate the progress of solubilization. Finally, collect substances at the bottom of the tube after centrifugation.</p> | + | <p id="coop">Make sure that the synthesis report is consistent to the OD number on the primer label,and check the number of the dispensing tube before the dissolution of oligonucleotides.The volume of water added to make 10umol/L oligonucleotides’ solution is calculated according to the synthetic single report of each primer. Add sterile deionized water and keep it at room temperature for 2min.And reverse the tube to accelerate the progress of solubilization. Finally, collect substances at the bottom of the tube after centrifugation.</p> |
- | <p >Every six primers are combined to one group.Add 4ulbeginning fiprimer, 1ulintermediate primer and 4ul end primerto a new EP tube, then add sterile deionized water to 20ul, mix them up as spare.</p> | + | <p id="coop">Every six primers are combined to one group.Add 4ulbeginning fiprimer, 1ulintermediate primer and 4ul end primerto a new EP tube, then add sterile deionized water to 20ul, mix them up as spare.</p> |
- | <table border="1" cellspacing="0" cellpadding="0" width="612"> | + | <table align="center" border="1" cellspacing="0" cellpadding="0" width="612"> |
<tr> | <tr> | ||
<td width="67"><p align="center"><strong>Group</strong></p></td> | <td width="67"><p align="center"><strong>Group</strong></p></td> | ||
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- | <h3 >3、DA-PCR </h3> | + | <h3 id="coop">3、DA-PCR </h3> |
- | <p >Every six primers which are single-stranded oligonucleotidesare chemically synthesized were combined to one group. Then they were going to be made as longer double-stranded fragments of intermediate (Block) by DA-PCR </p> | + | <p id="coop">Every six primers which are single-stranded oligonucleotidesare chemically synthesized were combined to one group. Then they were going to be made as longer double-stranded fragments of intermediate (Block) by DA-PCR </p> |
- | <p>Procedure of DA-PCR: <br> | + | <p id="coop">Procedure of DA-PCR: <br> |
Mixed primer solutions 5μl<br> | Mixed primer solutions 5μl<br> | ||
Pfu DNA Polymerase 2.5U 0.5μl <br> | Pfu DNA Polymerase 2.5U 0.5μl <br> | ||
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72℃ 1min<br> | 72℃ 1min<br> | ||
72℃ 10min<br> | 72℃ 10min<br> | ||
- | + | 4℃ preservation<br> | |
End<br> | End<br> | ||
DA-PCR splicing reaction product was detected in 2% agarose gel electrophoresis,<br> | DA-PCR splicing reaction product was detected in 2% agarose gel electrophoresis,<br> | ||
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75V electrophoress for 1h。 </p> | 75V electrophoress for 1h。 </p> | ||
- | <p ><img src="https://static.igem.org/mediawiki/2014/8/84/Simonsong-result-1.png" ></p> | + | <div style="text-align:center"><p id="coop"><img src="https://static.igem.org/mediawiki/2014/8/84/Simonsong-result-1.png" ></p></div> |
- | <p>Figure1 DA-PCR splicing results <br> | + | <p id="coop" align="center">Figure1 DA-PCR splicing results <br></P> |
- | + | <p id="coop"> Illustration of the outcome:<br> | |
- | 1、A1, A2, A3, A4 could getintermediates (Block1-4) which were made by six single-stranded oligonucleotides splicedtogether, but the A3 and A4 groups could also see by-products which were made by four single-stranded oligonucleotides splicedtogether , and to be made a whole one after recycling of Agarose gel.< | + | 1、A1, A2, A3, A4 could getintermediates (Block1-4) which were made by six single-stranded oligonucleotides splicedtogether, but the A3 and A4 groups could also see by-products which were made by four single-stranded oligonucleotides splicedtogether , and to be made a whole one after recycling of Agarose gel.<br> |
- | 2、A5 could obtainintermediates(Block5) which were made by four single-stranded oligonucleotides splicedtogether. | + | 2、A5 could obtainintermediates(Block5) which were made by four single-stranded oligonucleotides splicedtogether.</p> |
- | <h3 >4、OE-PCR </h3> | + | <h3 id="coop">4、OE-PCR </h3> |
- | <p >Take the 5 double strand intermediate fragment (Block) spliced by DA-PCR as templates, blocks were further connected by OR-PCR, OE-PCR in a reaction system consisting of: </p> | + | <p id="coop">Take the 5 double strand intermediate fragment (Block) spliced by DA-PCR as templates, blocks were further connected by OR-PCR, OE-PCR in a reaction system consisting of: </p> |
- | <p>Block1 1μl<br> | + | <p id="coop">Block1 1μl<br> |
Block2 1μl<br> | Block2 1μl<br> | ||
Block3 1μl<br> | Block3 1μl<br> | ||
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dNTP 4μl<br> | dNTP 4μl<br> | ||
10×<em>Pfu</em> buffer(Mg2+) 5μl<br> | 10×<em>Pfu</em> buffer(Mg2+) 5μl<br> | ||
- | + | ||
+ | |||
+ | |||
+ | |||
+ | Sterilized ultrapure water to 50ul<br> | ||
Procedure of OE-PCR: <br> | Procedure of OE-PCR: <br> | ||
- | 94℃ 2min<br | + | 94℃ 2min<br> |
- | + | 94℃ 30S<br> | |
47℃ 30S 20 cycles<br> | 47℃ 30S 20 cycles<br> | ||
72℃ 2min<br> | 72℃ 2min<br> | ||
72℃ 10min<br> | 72℃ 10min<br> | ||
- | + | 4℃ preservation<br> | |
End<br> | End<br> | ||
The full-length gene spliced by OE-PCR was detected by a 1% agarose gel electrophoresis, specific programs are as follows<br> | The full-length gene spliced by OE-PCR was detected by a 1% agarose gel electrophoresis, specific programs are as follows<br> | ||
- | + | OE-PCR product 5μl <br> | |
10×Loading Buffer 0.6μl spotted after mixing well<br> | 10×Loading Buffer 0.6μl spotted after mixing well<br> | ||
- | + | 100bp Marker 5μl spotted directly<br> | |
80V electrophoresis for 1h.</p> | 80V electrophoresis for 1h.</p> | ||
- | <p ><img src="https://static.igem.org/mediawiki/2014/2/24/Simonsong-result-2.png" ></p> | + | <div style="text-align:center"><p id="coop"><img src="https://static.igem.org/mediawiki/2014/2/24/Simonsong-result-2.png" ></p> |
- | + | ||
+ | </div> | ||
- | + | <p id="coop">Illustration of the outcome:</p> | |
- | <ol> | + | <ol id="coop"> |
<li>L1, L2, L3 could get mlrA genome which were made by five single-stranded oligonucleotides splicedtogether.</li> | <li>L1, L2, L3 could get mlrA genome which were made by five single-stranded oligonucleotides splicedtogether.</li> | ||
<li>Wide strip of the tape at 100bp was caused by excessive amount of amplification primers A1 and A4.</li> | <li>Wide strip of the tape at 100bp was caused by excessive amount of amplification primers A1 and A4.</li> | ||
</ol> | </ol> | ||
- | + | <h3 id="coop">5、Constructing and sequencing of subcoloning vector</h3> | |
- | + | <p id="coop">After double enzyme digestion reaction at 37℃ for 3h by<em> Eco</em>RⅠand <em>Pst</em>Ⅰ, MlrA gene and pSB1C3 vector linked together at 16℃ overnight. And then transformed to<em> E.coli</em> JM109 competent cell, and select the desirable colony by using “blue-white selection” method. <br> | |
- | + | ||
- | + | ||
- | <h3 >5、Constructing and sequencing of subcoloning vector</h3> | + | |
- | <p>After double enzyme digestion reaction at 37℃ for 3h by<em> Eco</em>RⅠand <em>Pst</em>Ⅰ, MlrA gene and pSB1C3 vector linked together at 16℃ overnight. And then transformed to<em> E.coli</em> JM109 competent cell, and select the desirable colony by using “blue-white selection” method. <br> | + | |
Constitute of <strong><em>Eco</em>R</strong><strong>Ⅰ</strong><strong>and <em>Pst</em></strong><strong>Ⅰdouble enzyme digestion reaction system</strong><strong>:</strong><strong> </strong><br> | Constitute of <strong><em>Eco</em>R</strong><strong>Ⅰ</strong><strong>and <em>Pst</em></strong><strong>Ⅰdouble enzyme digestion reaction system</strong><strong>:</strong><strong> </strong><br> | ||
Gene or plasmid 10μl<br> | Gene or plasmid 10μl<br> | ||
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- | <p ><img src="https://static.igem.org/mediawiki/2014/0/0d/Simonsong-result-3.png" > </p> | + | <div style="text-align:center"><p id="coop"><img src="https://static.igem.org/mediawiki/2014/0/0d/Simonsong-result-3.png" > </p></div> |
- | <p >Fig3.Reconstructed vector pSB1C3-A </p> | + | <p id="coop" align="center">Fig3.Reconstructed vector pSB1C3-A </p> |
- | <p >Select the white colony on culture and culture it. Then we extract the plasmid and use it as template in PCR to identify the colony. In theory, the reconstructed vector with mlrA fragment is 1293bp and the empty vector without mlrA fragment is 314bp. So, the result shows that the white colony we select has reconstructed vector with mlrA fragment in it.</p> | + | <p id="coop">Select the white colony on culture and culture it. Then we extract the plasmid and use it as template in PCR to identify the colony. In theory, the reconstructed vector with mlrA fragment is 1293bp and the empty vector without mlrA fragment is 314bp. So, the result shows that the white colony we select has reconstructed vector with mlrA fragment in it.</p> |
- | <p ><img src="https://static.igem.org/mediawiki/2014/6/63/Simonsong-result-4.png" ></p> | + | <div style="text-align:center"><p id="coop"><img src="https://static.igem.org/mediawiki/2014/6/63/Simonsong-result-4.png" ></p></div> |
- | <p > Fig 4. The identification of reconstructed vector pSB1C3-A </p> | + | <p id="coop" align="center"> Fig 4. The identification of reconstructed vector pSB1C3-A </p> |
- | <p >Results: </p> | + | <p id="coop">Results: </p> |
- | <p >1.L1 and L2 is 1300bp and it confirms that the reconstructed vector has mlrA on it. </p> | + | <p id="coop">1.L1 and L2 is 1300bp and it confirms that the reconstructed vector has mlrA on it. </p> |
- | <p >2.M is the 100bp Ladde Marker. </p> | + | <p id="coop">2.M is the 100bp Ladde Marker. </p> |
- | <p >Sequencing result shows that the sequence of synthetic mlrA gene is exactly same as sequence of designed sequence. </p> | + | <p id="coop">Sequencing result shows that the sequence of synthetic mlrA gene is exactly same as sequence of designed sequence. </p> |
- | <p ><img src="https://static.igem.org/mediawiki/2014/5/5a/Simonsong-result-5.png" ><img src="https://static.igem.org/mediawiki/2014/0/0b/Simonsong-result-6.png" > </p> | + | <div style="text-align:center"><p id="coop"><img src="https://static.igem.org/mediawiki/2014/5/5a/Simonsong-result-5.png" ><img src="https://static.igem.org/mediawiki/2014/0/0b/Simonsong-result-6.png" > </p></div> |
- | <p > Fig5.Comparison of result of sequencing and designed sequence </p> | + | <p id="coop"align="center" > Fig5.Comparison of result of sequencing and designed sequence </p> |
- | <p > </p> | + | <p id="coop"> </p> |
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+ | <div style="background:#FEE5AD;"> | ||
+ | <a height="30px" width="5%" align="center" onMouseOver="this.bgColor='#FFFFFF'" onMouseOut="this.bgColor='#A1DBB2'" href="#menu" style="text-decoration:none;color:#1C140D;float:right;background:#A1DBB2;"> Top </a> | ||
+ | </div> | ||
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Latest revision as of 03:59, 18 October 2014
Welcome!
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2、Mixing of primersOligonucleotides synthesized in powder form need to be centrifuged for 1 min at 10000rpm to assemble powders to the bottom of the EP tube.And be careful to open the cap. Make sure that the synthesis report is consistent to the OD number on the primer label,and check the number of the dispensing tube before the dissolution of oligonucleotides.The volume of water added to make 10umol/L oligonucleotides’ solution is calculated according to the synthetic single report of each primer. Add sterile deionized water and keep it at room temperature for 2min.And reverse the tube to accelerate the progress of solubilization. Finally, collect substances at the bottom of the tube after centrifugation. Every six primers are combined to one group.Add 4ulbeginning fiprimer, 1ulintermediate primer and 4ul end primerto a new EP tube, then add sterile deionized water to 20ul, mix them up as spare.
3、DA-PCREvery six primers which are single-stranded oligonucleotidesare chemically synthesized were combined to one group. Then they were going to be made as longer double-stranded fragments of intermediate (Block) by DA-PCR Procedure of DA-PCR: Figure1 DA-PCR splicing results Illustration of the outcome: 4、OE-PCRTake the 5 double strand intermediate fragment (Block) spliced by DA-PCR as templates, blocks were further connected by OR-PCR, OE-PCR in a reaction system consisting of: Block1 1μl Illustration of the outcome:
5、Constructing and sequencing of subcoloning vectorAfter double enzyme digestion reaction at 37℃ for 3h by EcoRⅠand PstⅠ, MlrA gene and pSB1C3 vector linked together at 16℃ overnight. And then transformed to E.coli JM109 competent cell, and select the desirable colony by using “blue-white selection” method.
Fig3.Reconstructed vector pSB1C3-A Select the white colony on culture and culture it. Then we extract the plasmid and use it as template in PCR to identify the colony. In theory, the reconstructed vector with mlrA fragment is 1293bp and the empty vector without mlrA fragment is 314bp. So, the result shows that the white colony we select has reconstructed vector with mlrA fragment in it. Fig 4. The identification of reconstructed vector pSB1C3-A Results: 1.L1 and L2 is 1300bp and it confirms that the reconstructed vector has mlrA on it. 2.M is the 100bp Ladde Marker. Sequencing result shows that the sequence of synthetic mlrA gene is exactly same as sequence of designed sequence.
Fig5.Comparison of result of sequencing and designed sequence
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