Team:Hong Kong-CUHK/BIOBRICKS CONSTRUCTION
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BBa_K786001<br /> | BBa_K786001<br /> | ||
<strong><center><img width="430" height="90" src="https://static.igem.org/mediawiki/2012/3/3a/Con2.png" /></center></strong><strong> </strong></p> | <strong><center><img width="430" height="90" src="https://static.igem.org/mediawiki/2012/3/3a/Con2.png" /></center></strong><strong> </strong></p> | ||
- | <p>Primers 1 and 2 were used to amplify sensory rhodopsin II coding sequence from the genome of <em>Natronomonas Pharaonis </em>DSM 2160. Restriction sites of HindIII and BamHI were added. | + | <p>Primers 1 and 2 were used to amplify sensory rhodopsin II coding sequence from the genome of <em>Natronomonas Pharaonis </em>DSM 2160. Restriction sites of HindIII and BamHI were added.<br><br> |
- | Restriction sites of HindIII and BamHI were added before and after the SRII gene respectively in order to:</p> | + | <font color=#828282>Restriction sites of HindIII and BamHI were added before and after the SRII gene respectively in order to:</p> |
<ol> | <ol> | ||
<li>Enable further integration of other peptides such as His-tag, or construct a larger fusion protein (HindIII for N-terminus ligation while BamHI for C-terminus).</li> | <li>Enable further integration of other peptides such as His-tag, or construct a larger fusion protein (HindIII for N-terminus ligation while BamHI for C-terminus).</li> | ||
<li>Enable us to switch the sensory rhodopsin portion of the fusion protein. A series of mutant sensory rhodopsins were identified which cover a large variation of absorption spectrum [2]. These two restriction sites allow further switching of the sensing unit, so the light sensing system can be tuned for sensing different kinds of light source.</li> | <li>Enable us to switch the sensory rhodopsin portion of the fusion protein. A series of mutant sensory rhodopsins were identified which cover a large variation of absorption spectrum [2]. These two restriction sites allow further switching of the sensing unit, so the light sensing system can be tuned for sensing different kinds of light source.</li> | ||
- | </ol> | + | </ol></font> |
<p>Primers 3, 8 were used to amplify the coding sequence of HtrII from the genome of <em>Natronomonas Pharaonis</em> DSM 2160. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRII and HtrII.</p> | <p>Primers 3, 8 were used to amplify the coding sequence of HtrII from the genome of <em>Natronomonas Pharaonis</em> DSM 2160. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRII and HtrII.</p> | ||
<p>Primers 4, 5 were used to amplify the coding sequence of Tsr from <em>E. coli</em> K-12genome.</p> | <p>Primers 4, 5 were used to amplify the coding sequence of Tsr from <em>E. coli</em> K-12genome.</p> | ||
<p>Primers 6, 7 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100.</p> | <p>Primers 6, 7 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100.</p> | ||
<p>All of the parts amplified were added in PCR mix with equal molar to perform overlapping PCR and the PCR product was used for direct transformation.<br /> | <p>All of the parts amplified were added in PCR mix with equal molar to perform overlapping PCR and the PCR product was used for direct transformation.<br /> | ||
- | The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase. | + | The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase.<br /><br /> |
- | The SpeI site after the promoter was kept so that the constitutive promoter can be switched to strictly controlled promoters such as Ptet (tetracycline-inducible promoter) and PBAD (arabinose-inducible promoter). </p> | + | <font color=#828282>The SpeI site after the promoter was kept so that the constitutive promoter can be switched to strictly controlled promoters such as Ptet (tetracycline-inducible promoter) and PBAD (arabinose-inducible promoter).</font> </p> |
<p><strong> </strong></p> | <p><strong> </strong></p> | ||
<p><strong> </strong></p> | <p><strong> </strong></p> | ||
Line 66: | Line 66: | ||
BBa_K786002<br /> | BBa_K786002<br /> | ||
<center><img width="430" height="95" src="https://static.igem.org/mediawiki/2012/7/70/Con3.png" /></center></p> | <center><img width="430" height="95" src="https://static.igem.org/mediawiki/2012/7/70/Con3.png" /></center></p> | ||
- | <p>Primers 1 and 2 were used to amplify sensory rhodopsin II (SRII) coding sequence from the genomic DNA of <em>Natronomonas Pharaonis</em> DSM 2160. Restriction sites of HindIII and BamHI were added. | + | <p>Primers 1 and 2 were used to amplify sensory rhodopsin II (SRII) coding sequence from the genomic DNA of <em>Natronomonas Pharaonis</em> DSM 2160. Restriction sites of HindIII and BamHI were added. <br /><br /> |
- | Restriction sites of HindIII and BamHI were added before and after the SRII gene respectively in order to:</p> | + | <font color=#828282>Restriction sites of HindIII and BamHI were added before and after the SRII gene respectively in order to:</p> |
<ol> | <ol> | ||
<li>Enable further integration of other peptides such as His-tag, or construct a larger fusion protein (HindIII for N-terminus ligation while BamHI for C-terminus).</li> | <li>Enable further integration of other peptides such as His-tag, or construct a larger fusion protein (HindIII for N-terminus ligation while BamHI for C-terminus).</li> | ||
<li>Enable us to switch the sensory rhodopsin portion of the fusion protein. A series of mutant sensory rhodopsins were identified which cover a large variation of absorption spectrum [2]. These two restriction sites allow further switching of the sensing unit, so the light sensing system can be tuned for sensing different kinds of light source.</li> | <li>Enable us to switch the sensory rhodopsin portion of the fusion protein. A series of mutant sensory rhodopsins were identified which cover a large variation of absorption spectrum [2]. These two restriction sites allow further switching of the sensing unit, so the light sensing system can be tuned for sensing different kinds of light source.</li> | ||
- | </ol> | + | </ol></font> |
<p>Primers 3, 8 were used to amplify the coding sequence of HtrII from the genome of <em>Natronomonas Pharaonis</em> DSM 2160. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRII and HtrII.</p> | <p>Primers 3, 8 were used to amplify the coding sequence of HtrII from the genome of <em>Natronomonas Pharaonis</em> DSM 2160. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRII and HtrII.</p> | ||
<p>Primers 9, 10 were used to amplify the coding sequence of Tar from <em>E. coli </em>K-12 genomic DNA.</p> | <p>Primers 9, 10 were used to amplify the coding sequence of Tar from <em>E. coli </em>K-12 genomic DNA.</p> | ||
<p>Primers 7, 11 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100.</p> | <p>Primers 7, 11 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100.</p> | ||
<p>All of the parts amplified were added into a single PCR mix with equal molar to perform overlapping PCR. The PCR product was used for direct transformation.</p> | <p>All of the parts amplified were added into a single PCR mix with equal molar to perform overlapping PCR. The PCR product was used for direct transformation.</p> | ||
- | <p>The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase. | + | <p>The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase. <br /><br /> |
- | + | <font color=#828282>The SpeI site after the promoter was kept so that the constitutive promoter can be switched to strictly controlled promoters such as Ptet (tetracycline-inducible promoter) and PBAD (arabinose-inducible promoter). </font></p> | |
<p> </p> | <p> </p> | ||
<p><strong> </strong></p> | <p><strong> </strong></p> | ||
Line 83: | Line 83: | ||
BBa_K786003 <br /> | BBa_K786003 <br /> | ||
<center><img width="430" height="88" src="https://static.igem.org/mediawiki/2012/1/15/Con4.png" /></center> <br /> | <center><img width="430" height="88" src="https://static.igem.org/mediawiki/2012/1/15/Con4.png" /></center> <br /> | ||
- | Primers 11, 12 were used to amplify sensory rhodopsin I (SRI) coding sequence from the genome of <em>Halobacterium salinarum</em>. Restriction sites of HindIII and BamHI were added. | + | Primers 11, 12 were used to amplify sensory rhodopsin I (SRI) coding sequence from the genome of <em>Halobacterium salinarum</em>. Restriction sites of HindIII and BamHI were added. <br /><br /> |
- | Restriction sites of HindIII and BamHI were added before and after the SRI gene respectively in order to:</p> | + | <font color=#828282>Restriction sites of HindIII and BamHI were added before and after the SRI gene respectively in order to:</p> |
<ol> | <ol> | ||
<li>Enable further integration of other peptides such as His-tag, or construct a larger fusion protein (HindIII for N-terminus ligation while BamHI for C-terminus).</li> | <li>Enable further integration of other peptides such as His-tag, or construct a larger fusion protein (HindIII for N-terminus ligation while BamHI for C-terminus).</li> | ||
<li>Enable us to switch the sensory rhodopsin portion of the fusion protein. A series of mutant sensory rhodopsins were identified which cover a large variation of absorption spectrum [2]. These two restriction sites allow further switching of the sensing unit, so the light sensing system can be tuned for sensing different kinds of light source.</li> | <li>Enable us to switch the sensory rhodopsin portion of the fusion protein. A series of mutant sensory rhodopsins were identified which cover a large variation of absorption spectrum [2]. These two restriction sites allow further switching of the sensing unit, so the light sensing system can be tuned for sensing different kinds of light source.</li> | ||
- | </ol> | + | </ol></font> |
<p>Primers 3 and 8 were used to amplify the coding sequence of HtrI from the genome of <em>Halobacterium salinarum</em>. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRI and HtrI.<br /> | <p>Primers 3 and 8 were used to amplify the coding sequence of HtrI from the genome of <em>Halobacterium salinarum</em>. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRI and HtrI.<br /> | ||
Primers 13, 10 were used to amplify the coding sequence of Tar from <em>E. coli</em> K-12genome.</p> | Primers 13, 10 were used to amplify the coding sequence of Tar from <em>E. coli</em> K-12genome.</p> | ||
<p>Primers 11, 7 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100.</p> | <p>Primers 11, 7 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100.</p> | ||
<p>All of the parts amplified were added in PCR mix with equal molar to perform overlapping PCR and the PCR product was used for direct transformation.</p> | <p>All of the parts amplified were added in PCR mix with equal molar to perform overlapping PCR and the PCR product was used for direct transformation.</p> | ||
- | <p>The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase. | + | <p>The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase. </p> |
- | <p>The SpeI site after the promoter was kept so that the constitutive promoter can be switched to strictly controlled promoters such as Ptet (tetracycline-inducible promoter) and PBAD (arabinose-inducible promoter). </p> | + | <p><font color=#828282>The SpeI site after the promoter was kept so that the constitutive promoter can be switched to strictly controlled promoters such as Ptet (tetracycline-inducible promoter) and PBAD (arabinose-inducible promoter). </font></p> |
<p><strong> </strong></p> | <p><strong> </strong></p> | ||
<p><strong> </strong></p> | <p><strong> </strong></p> |
Latest revision as of 03:04, 27 September 2012
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CONSTRUCTION OF PARTS AND DEVICE Method of construction Prolonged Overlap Extension PCR (POE-PCR) Amplification of genes Prolonged overlap extension PCR Direct Transformation Constructs List of primers Primer# primer sequence
Negative Phototactic Construct for Blue Light Detection Primers 1 and 2 were used to amplify sensory rhodopsin II coding sequence from the genome of Natronomonas Pharaonis DSM 2160. Restriction sites of HindIII and BamHI were added.
Primers 3, 8 were used to amplify the coding sequence of HtrII from the genome of Natronomonas Pharaonis DSM 2160. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRII and HtrII. Primers 4, 5 were used to amplify the coding sequence of Tsr from E. coli K-12genome. Primers 6, 7 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100. All of the parts amplified were added in PCR mix with equal molar to perform overlapping PCR and the PCR product was used for direct transformation.
Positive Phototactic Construct for Blue Light Detection Primers 1 and 2 were used to amplify sensory rhodopsin II (SRII) coding sequence from the genomic DNA of Natronomonas Pharaonis DSM 2160. Restriction sites of HindIII and BamHI were added.
Primers 3, 8 were used to amplify the coding sequence of HtrII from the genome of Natronomonas Pharaonis DSM 2160. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRII and HtrII. Primers 9, 10 were used to amplify the coding sequence of Tar from E. coli K-12 genomic DNA. Primers 7, 11 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100. All of the parts amplified were added into a single PCR mix with equal molar to perform overlapping PCR. The PCR product was used for direct transformation. The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase.
Phototactic Construct for Orange Light Detection Primers 11, 12 were used to amplify sensory rhodopsin I (SRI) coding sequence from the genome of Halobacterium salinarum. Restriction sites of HindIII and BamHI were added. Restriction sites of HindIII and BamHI were added before and after the SRI gene respectively in order to:
Primers 3 and 8 were used to amplify the coding sequence of HtrI from the genome of Halobacterium salinarum. A linker (GSASNGASA) that was proven not affecting the SR system [3] was added to joint SRI and HtrI. Primers 11, 7 were used to amplify the promoter J23100 and J61002 backbone from biobrick BBa_J23100. All of the parts amplified were added in PCR mix with equal molar to perform overlapping PCR and the PCR product was used for direct transformation. The insert was later on switched to pSB1C3 backbone by using EcoRI and PstI restriction enzymes and T4 ligase. The SpeI site after the promoter was kept so that the constitutive promoter can be switched to strictly controlled promoters such as Ptet (tetracycline-inducible promoter) and PBAD (arabinose-inducible promoter).
The Gene Expression System
Red Light Sensing Construct
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