Team:ETH Zurich/Experiments
From 2013.igem.org
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<h1>Cloned constructs</h1> | <h1>Cloned constructs</h1> | ||
- | <p>For the final Colisweeper circuit we plan a four plasmid system. The mine cells constitutively express LuxI and NagZ. In the Non-Mine cells LuxR and PhoA are expressed constitutively whereas Aes and GusA are expressed from pLux promoters with different sensitivities. To get to this system we tested different versions of the circuit with GFP. In the following table we list all the biobricks we used, the plasmids we cloned and what experiments we used them for. In general we used standard biobrick cloning techniques | + | <p>For the final Colisweeper circuit we plan a four plasmid system. The mine cells constitutively express LuxI and NagZ. In the Non-Mine cells LuxR and PhoA are expressed constitutively whereas Aes and GusA are expressed from pLux promoters with different sensitivities. To get to this system we tested different versions of the circuit with GFP. In the following table we list all the biobricks we used, the plasmids we cloned and what experiments we used them for. In general we used standard biobrick cloning techniques as described in the methods section. Whenever we used PCR gene amplification for cloning, we list the primers used in the following table. To be able to co-transform different plasmids we used backbones with compatible origins of replication and resistance genes. In the table you can find which backbone versions we used for which constructs.</p> |
[[File:Plasmidmap.png|1050px|left|thumb|<b>Figure 1. Plasmids in mine and non-mine cells </b>]] | [[File:Plasmidmap.png|1050px|left|thumb|<b>Figure 1. Plasmids in mine and non-mine cells </b>]] | ||
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<td>8</td> | <td>8</td> | ||
- | <td> </td> | + | <td>constitutive LuxR generating biobrick</td> |
- | <td> </td> | + | <td>BBa_J09855</td> |
<td> </td> | <td> </td> | ||
</tr> | </tr> | ||
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<td>9</td> | <td>9</td> | ||
- | <td> </td> | + | <td>constitutive LuxR generating biobrick, with negative feedback-loop at high OHHL concentrations</td> |
- | <td> </td> | + | <td>BBa_F2621</td> |
<td> </td> | <td> </td> | ||
</tr> | </tr> | ||
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<tr> | <tr> | ||
<td>10</td> | <td>10</td> | ||
- | <td> </td> | + | <td>constitutive LuxR generating construct, repressible through LacI</td> |
- | <td> </td> | + | <td>BBa_R0010 backbone (SpeI, PstI) and BBa_I0462 insert (XbaI, PstI)</td> |
<td> </td> | <td> </td> | ||
</tr> | </tr> | ||
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<td>11</td> | <td>11</td> | ||
- | <td> </td> | + | <td>constitutive LuxR generating construct, with negative feedback-loop at high OHHL concentrations</td> |
- | <td> </td> | + | <td>BBa_R0063 backbone (SpeI,PstI) and BBa_I0462 insert (XbaI, PstI)</td> |
<td> </td> | <td> </td> | ||
</tr> | </tr> | ||
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<td>12</td> | <td>12</td> | ||
- | <td> </td> | + | <td>auto-inducible LuxR generating construct with positive feedback loop</td> |
- | <td> </td> | + | <td>BBa_R0062 backbone (SpeI, PstI) and BBa_I0462 insert (XbaI, PstI)</td> |
<td> </td> | <td> </td> | ||
</tr> | </tr> | ||
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<tr> | <tr> | ||
<td>13</td> | <td>13</td> | ||
- | <td> </td> | + | <td>negatively regulated pLuxL-LacI construct to improve leakiness of LuxR system</td> |
- | <td> </td> | + | <td>BBa_R0063 backbone (SpeI, PstI) and BBa_C0012 insert (SpeI,PstI)</td> |
<td> </td> | <td> </td> | ||
</tr> | </tr> |
Revision as of 20:00, 19 September 2013
Cloned constructs
For the final Colisweeper circuit we plan a four plasmid system. The mine cells constitutively express LuxI and NagZ. In the Non-Mine cells LuxR and PhoA are expressed constitutively whereas Aes and GusA are expressed from pLux promoters with different sensitivities. To get to this system we tested different versions of the circuit with GFP. In the following table we list all the biobricks we used, the plasmids we cloned and what experiments we used them for. In general we used standard biobrick cloning techniques as described in the methods section. Whenever we used PCR gene amplification for cloning, we list the primers used in the following table. To be able to co-transform different plasmids we used backbones with compatible origins of replication and resistance genes. In the table you can find which backbone versions we used for which constructs.
LuxR generating Constructs | |||
---|---|---|---|
Description | Cloning | Maps | |
8 | constitutive LuxR generating biobrick | BBa_J09855 | |
9 | constitutive LuxR generating biobrick, with negative feedback-loop at high OHHL concentrations | BBa_F2621 | |
10 | constitutive LuxR generating construct, repressible through LacI | BBa_R0010 backbone (SpeI, PstI) and BBa_I0462 insert (XbaI, PstI) | |
11 | constitutive LuxR generating construct, with negative feedback-loop at high OHHL concentrations | BBa_R0063 backbone (SpeI,PstI) and BBa_I0462 insert (XbaI, PstI) | |
12 | auto-inducible LuxR generating construct with positive feedback loop | BBa_R0062 backbone (SpeI, PstI) and BBa_I0462 insert (XbaI, PstI) | |
13 | negatively regulated pLuxL-LacI construct to improve leakiness of LuxR system | BBa_R0063 backbone (SpeI, PstI) and BBa_C0012 insert (SpeI,PstI) |