Difference between revisions of "Team:KU Leuven/Research/Methods"
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<p><b>Theory</b><br/> | <p><b>Theory</b><br/> | ||
− | The Gibson assembly, as described by Gibson et al., is a rapid DNA assembly method which assures directionional cloning of fragments in one single reaction. For the Gibson assembly to happen, three essential enzymes are needed : a mesophylic nuclease, a thermophylic ligase and a high fidelity polymerase. For this reaction, we used NEBbuilder. In the first step of this reaction, the exonuclease rappidly cleave off the 5’ DNA ends. These enzymes are then heat inactivated at 50 degrees. In the second step, the complementary overhangs, which have to be put in there upon desiging of the fragments, start to anneal.The polymerase then fills in the gaps. In the final step, the ligases covalently joins both ends. After this, the plasmid should be ready to be transformed. (this text was based on https://www.idtdna.com/pages/docs/default-source/user-guides-and-protocols/gibson-assembly.pdf?sfvrsn=16 | + | The Gibson assembly, as described by Gibson et al., is a rapid DNA assembly method which assures directionional cloning of fragments in one single reaction. For the Gibson assembly to happen, three essential enzymes are needed : a mesophylic nuclease, a thermophylic ligase and a high fidelity polymerase. For this reaction, we used NEBbuilder. In the first step of this reaction, the exonuclease rappidly cleave off the 5’ DNA ends. These enzymes are then heat inactivated at 50 degrees. In the second step, the complementary overhangs, which have to be put in there upon desiging of the fragments, start to anneal.The polymerase then fills in the gaps. In the final step, the ligases covalently joins both ends. After this, the plasmid should be ready to be transformed. (this text was based on <a href="https://www.idtdna.com/pages/docs/default-source/user-guides-and-protocols/gibson-assembly.pdf?sfvrsn=16">as on the IDT website, seen on 13/09/2015</a></p> |
<p>Add 1 µl DNA to 50 µl electrocompetent cells in an ice-cold cuvette (1 mm)</br> | <p>Add 1 µl DNA to 50 µl electrocompetent cells in an ice-cold cuvette (1 mm)</br> |
Revision as of 13:13, 14 September 2015
Methods
On this page you can find all of the methods and protocols used in the lab to obtain our results. For some techniques, we included some basic theory, since it is a prerequisite to get acquainted with the theory behind these techniques before using them. To learn more about them, click the titles below!