Difference between revisions of "Template:Team:TU Eindhoven/Timeline HTML"
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<br /> | <br /> | ||
− | <h4>Week | + | <h4>Week 33</h4>t |
− | <h3> - | + | <h3> - Oh when it all, it all falls down </h3> |
− | <img src="https://static.igem.org/mediawiki/2015/8/87/TU_Eindhoven_Ingeklapt.png" id=" | + | <img src="https://static.igem.org/mediawiki/2015/8/87/TU_Eindhoven_Ingeklapt.png" id="spoilerbutton7" class="spoilerbutton"><div class="spoiler" id="spoiler7"> |
+ | <span class="activiteit">Gibson:</span> | ||
+ | <ul class="activiteitlijst"> | ||
+ | <li><span class="activiteit">Linearization of the pETDuet-1 vector containing the NeonGreen insert</span></li> | ||
+ | <li><span class="activiteit">Gibson Assembly of the linearized vector with the NanoLuc insert</li> | ||
+ | <li><span class="activiteit">Linearization of pETDuet-1 at MCS1</li> | ||
+ | <li><span class="activiteit">Gibson Assembly of the linearized pETDuet-1 vector with NanoLuc</li> | ||
+ | <li><span class="activiteit">Miniprepping and double transformation of the NL-vectors</li> | ||
+ | </ul> | ||
+ | <br /> | ||
<span class="activiteit">FACS:</span> | <span class="activiteit">FACS:</span> | ||
<ul class="activiteitlijst"> | <ul class="activiteitlijst"> | ||
− | <li><span class="activiteit">Protein expression of | + | <li><span class="activiteit">Protein expression of constructs with mNeongreen and Nanoluc</span></li> |
+ | <li><span class="activiteit">Luminescence and fluorescence assays of expressed proteins: neongreen is present</span></li> | ||
+ | <li><span class="activiteit">Verification of protein expression using a 10% SDS-PAGE gel</span></li> | ||
+ | <li><span class="activiteit">Setting up a crime scene</span> | ||
+ | </ul> | ||
+ | <br /> | ||
+ | <span class="activiteit"></span> | ||
+ | <ul class="activiteitlijst"> | ||
+ | <li><span class="activiteit">Succesful double transformation of pEvol plasmid & plasmid containing Neongreen in MCS1.</span></li> | ||
+ | <li><span class="activiteit">Sequencing of the constructs</span></li> | ||
</ul> | </ul> | ||
</div> | </div> | ||
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<br /> | <br /> | ||
− | + | <h4>Week 34</h4> | |
− | + | <h3> - Sherlocking our way to salvation</h3> | |
− | + | <img src="https://static.igem.org/mediawiki/2015/8/87/TU_Eindhoven_Ingeklapt.png" id="spoilerbutton8" class="spoilerbutton"><div class="spoiler" id="spoiler8"> | |
− | + | <span class="activiteit">FACS:</span> | |
+ | <ul class="activiteitlijst"> | ||
+ | <li><span class="activiteit">Protein expression of all NG+NL containing vectors</span></li> | ||
+ | <li><span class="activiteit">Redoing some transformations</li> | ||
+ | <li><span class="activiteit">Measuring bioluminescence & fluorescence</li> | ||
+ | <li><span class="activiteit">FACS'ing all expressed constructs</li> | ||
+ | <li><span class="activiteit">Salvation: a faulty transformation had caused trouble</li> | ||
+ | <span class="activiteitlijst">Gibson:</span> | ||
+ | <li><span class="activiteit">Miniprepping and analyzing some constructs through PCR</li> | ||
+ | <li><span class="activiteit">Replacing NanoLuc with mTurquoise to obtain a FRET-sensor as a back up plan</li> | ||
+ | </ul> | ||
+ | </div> | ||
+ | <br /> | ||
+ | <br /> | ||
Revision as of 18:12, 24 August 2015
Timeline
Week 26
- Preparing for take-off
- Inventory of the lab supplies
- Pouring LB Agar plates
- Amplification of the pET-Duet-1 vector
- Assessment of the safety requirements
- Preparing stocks for antibiotics, glycerol, LB & MilliQ
Week 27
- The Clone Wars
Gibson Assembly:
Traditional cloning:
- Linearizing pET-Duet-1 for Gibson Assembly
- Our first Gibson Assembly!
Traditional cloning:
- Amplification of the pET-Duet-1 vector
- Nde1 & Kpn1 digestion of the pET-Duet-1 vector (MCS-2) for traditional cloning
Week 28
- Et tu, pET-Duet?
Gibson Assembly:
Traditional cloning:
- Linearizing pET-Duet-1 for Gibson Assembly and debugging
- Digestion of the template using DpnI
- Running a gel to check whether the linearization was successful
- Gibson Assembly for MCS1
- Transformation and amplification of the plasmid
Traditional cloning:
- Amplification of the inserts
- Xbal & Pstl digestion of the pET-Duet-1 vector (MCS-1)
- Xba1 & Pst1 digestion of the inserts (MCS-1)
- Nde1 & Kpn1 digestion of the inserts (MCS-2)
- Ligation
- Transformation in NB
- Colony PCR & gel electrophorese: The inserts are succesfully ligated
- Culturing of the colonies with the correct plasmid
- Making a glycerol stock & sending the DNA for sequencing
Week 29
- Hopeful results
Gibson Assembly:
Protein expression:
Traditional cloning:
The sequencing results are positive, everything is built in correctly.
- Plasmid isolation, followed by sequencing of the insert on MCS1
- Linearization of the vector on MCS2
- Gibson Assembly of the second MCS
- Colony PCR of MCS2, showing promising results!
- Culturing and preparing for protein expression
Protein expression:
- Double transformation of pET-Duet-1 (MCS1) and pEVOL in BL21.
- Culturing & making a glycerol stock
Traditional cloning:
The sequencing results are positive, everything is built in correctly.
Week 30
- The moment of truth
Gibson Assembly:
Protein expression of the plasmids containing MCS-1:
Double transformation & protein expression of the plasmids containing MCS-1 & MCS-2:
Traditional cloning
- Plasmid Isolation, followed by sequencing of the insert on MCS2
Protein expression of the plasmids containing MCS-1:
- Culturing and protein expression of pET-Duet-1 (MCS-1)
- Labelling the bacteria with DBCO-PEG4-Tamra
- FACS results don't show the click reaction...
Double transformation & protein expression of the plasmids containing MCS-1 & MCS-2:
- Double transformation, culturing and protein expression of pET-Duet-1 (MCS-1 & MCS-2)
- The click reaction occured according to FACS results
Traditional cloning
- The vector which already contained MCS-1 is digested at MCS-2
- Ligation of vector & insert. This results in a plasmid containing MCS-1 (OmpX-NanoLuc) and MCS-2 (OmpX-neongreen)
Week 31
- busy times
FACS:
Traditional Cloning:
Gibson Assembly:
- Protein expression of bacteria containing MCS-1 and bacteria containing MCS-1 & MCS-2
- FACS (labelling bacteria with DBCO-PEG4-tamra) shows a click reaction with bacteria containing MCS-1 & MCS-2. No click reaction occurs with bacteria containing only MCS-1
Traditional Cloning:
- Transform of the newly created plasmid MCS-1 (OmpX-NanoLuc) and MCS-2 (OmpX-neongreen)
- Colony PCR
Gibson Assembly:
- Succesfull double transformation of 12.2 at 20 ng/uL (rather than 4)
- Gibson Assembly, Colony PCR and transformation of NeonGreen into MCS1
Week 32
- shine some light
FACS:
Traditional Cloning:
Gibson Assembly:
- Protein expression of bacteria containing a split luciferase in MCS-1 and bacteria containing mNeongreen in MCS1
Traditional Cloning:
- Protein expression of constructs with mNeongreen and Nanoluc
- Luminescence and fluorescence assays of expressed proteins: neongreen is present
- Verification of protein expression using a 10% SDS-PAGE gel
Gibson Assembly:
- Succesfull double transformation of pEvol plasmid & plasmid containing Neongreen in MCS1.
- Sequencing of the constructs
Week 33
t- Oh when it all, it all falls down
Gibson:
FACS:
- Linearization of the pETDuet-1 vector containing the NeonGreen insert
- Gibson Assembly of the linearized vector with the NanoLuc insert
- Linearization of pETDuet-1 at MCS1
- Gibson Assembly of the linearized pETDuet-1 vector with NanoLuc
- Miniprepping and double transformation of the NL-vectors
FACS:
- Protein expression of constructs with mNeongreen and Nanoluc
- Luminescence and fluorescence assays of expressed proteins: neongreen is present
- Verification of protein expression using a 10% SDS-PAGE gel
- Setting up a crime scene
- Succesful double transformation of pEvol plasmid & plasmid containing Neongreen in MCS1.
- Sequencing of the constructs
Week 34
- Sherlocking our way to salvation
FACS:
- Protein expression of all NG+NL containing vectors
- Redoing some transformations
- Measuring bioluminescence & fluorescence
- FACS'ing all expressed constructs
- Salvation: a faulty transformation had caused trouble Gibson:
- Miniprepping and analyzing some constructs through PCR
- Replacing NanoLuc with mTurquoise to obtain a FRET-sensor as a back up plan