Team:DTU Denmark/project
From 2009.igem.org
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- | The redoxilator | + | The redoxilator<br> |
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<a href="https://2009.igem.org/Team:DTU_Denmark/genetic_design" CLASS=leftbar>- Genetic design</a><br> | <a href="https://2009.igem.org/Team:DTU_Denmark/genetic_design" CLASS=leftbar>- Genetic design</a><br> | ||
<a href="https://2009.igem.org/Team:DTU_Denmark/applications" CLASS=leftbar>- Applications and perspectives</a><br> | <a href="https://2009.igem.org/Team:DTU_Denmark/applications" CLASS=leftbar>- Applications and perspectives</a><br> | ||
- | + | <a href="https://2009.igem.org/Team:DTU_Denmark/safety" CLASS=leftbar>- Safety considerations</a><br> | |
- | <a href="https://2009.igem.org/Team:DTU_Denmark/safety" CLASS=leftbar>- Safety considerations</a | + | |
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- | <br>The USER assembly standard | + | <br>The USER assembly standard<br> |
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- | <a href="https://2009.igem.org/Team:DTU_Denmark/USERprinciple" CLASS=leftbar>- USER fusion of biobricks</a | + | <a href="https://2009.igem.org/Team:DTU_Denmark/USERprinciple" CLASS=leftbar>- USER fusion of biobricks</a><br> |
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- | <br>USER fusion primer design software | + | <br>USER fusion primer design software<br> |
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+ | </p> | ||
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<a href="https://2009.igem.org/Team:DTU_Denmark/USERprogram" CLASS=leftbar>- Abstract</a><br> | <a href="https://2009.igem.org/Team:DTU_Denmark/USERprogram" CLASS=leftbar>- Abstract</a><br> | ||
<a href="https://2009.igem.org/Team:DTU_Denmark/USERprograminstructions" CLASS=leftbar>- Instructions</a><br> | <a href="https://2009.igem.org/Team:DTU_Denmark/USERprograminstructions" CLASS=leftbar>- Instructions</a><br> | ||
<a href="https://2009.igem.org/Team:DTU_Denmark/USERprogramoutputformat" CLASS=leftbar>- Output format</a><br> | <a href="https://2009.igem.org/Team:DTU_Denmark/USERprogramoutputformat" CLASS=leftbar>- Output format</a><br> | ||
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+ | <br>Experimental results<br> | ||
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+ | </p> | ||
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+ | <a href="https://2009.igem.org/Team:DTU_Denmark/results" CLASS=leftbar>- Results and discussion</a><br> | ||
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<p align="justify">By in silico design and computer modelling followed by gene synthesis, we have constructed a molecular NAD<sup>+</sup>/NADH ratio sensing system in <i>Saccharomyces cerevisiae</i>. The sensor works as an inducible transcription factor being active only at certain levels of the NAD<sup>+</sup>/NADH ratios. By the coupling of a yeast optimized fast degradable GFP, the system can be used for in vivo monitoring of NAD<sup>+</sup>/NADH redox poise. Expected future applications of the system is heterologous redox coupled protein production in yeast, and a possible application in cancer research</p><br> | <p align="justify">By in silico design and computer modelling followed by gene synthesis, we have constructed a molecular NAD<sup>+</sup>/NADH ratio sensing system in <i>Saccharomyces cerevisiae</i>. The sensor works as an inducible transcription factor being active only at certain levels of the NAD<sup>+</sup>/NADH ratios. By the coupling of a yeast optimized fast degradable GFP, the system can be used for in vivo monitoring of NAD<sup>+</sup>/NADH redox poise. Expected future applications of the system is heterologous redox coupled protein production in yeast, and a possible application in cancer research</p><br> | ||
- | <font size="3"><b>The USER | + | <font size="3"><b>The USER assembly standard</b></font><br> |
<p align="justify">In this part of the project we propose a new parts-assembly standard for Biobricks based on USER cloning. The USER fusion assembly standard allows rapid construction of multi-part devices, without some of the drawbacks of the restriction-enzyme based standard biobrick assembly method.</p> <br> | <p align="justify">In this part of the project we propose a new parts-assembly standard for Biobricks based on USER cloning. The USER fusion assembly standard allows rapid construction of multi-part devices, without some of the drawbacks of the restriction-enzyme based standard biobrick assembly method.</p> <br> | ||
- | <font size="3"><b>USER fusion primer design software</b></font><br> | + | |
+ | <p align="justify"><font size="3"><b>USER fusion primer design software</b></font><br> | ||
When designing constructs with more than two biobricks using USER fusion, several parameters have to be taken into account when designing primers needed for the fusion. For this project we have programmed an online tool, that can automatically find the optimal primers for the fusion of up to 9 biobricks at once while taking several parameters into account including melting temperature, primer length and placement as well as avoidance of nearly identical primers.<br><br> | When designing constructs with more than two biobricks using USER fusion, several parameters have to be taken into account when designing primers needed for the fusion. For this project we have programmed an online tool, that can automatically find the optimal primers for the fusion of up to 9 biobricks at once while taking several parameters into account including melting temperature, primer length and placement as well as avoidance of nearly identical primers.<br><br> | ||
<font size="3"><b>Experimental results</b></font><br> | <font size="3"><b>Experimental results</b></font><br> | ||
- | + | In this section the results of our experimental work is described including:<br> | |
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*Construction and characterization of the biobricks<br> | *Construction and characterization of the biobricks<br> | ||
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<font size="3"><b>Biobricks designed and submitted</b></font><br> | <font size="3"><b>Biobricks designed and submitted</b></font><br> | ||
- | <p align="justify"> Besides the main project, | + | <p align="justify"> Besides the main project, four novel biobricks were made as a complement of our project and as a useful tool for the construction of future devices (see <href="https://2009.igem.org/Team:DTU_Denmark/parts">"parts submitted" </a>):<br> |
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- | + | *A GFP variant optimized for expression in yeast. <br> | |
- | + | *A protein destabilization sequence, which allows rapid protein turnover when appended to any protein. <br> | |
- | + | *A device made from 1+2 as a proof of concept and very useful biobrick in itself: A fast degradable GFP that has a halflife of 30 min. compared to 7 hours without destabilization. <br> | |
- | + | *A USER cassette that will allow insertion of PCR fragments using the novel USER biobrick assembly standard. | |
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Latest revision as of 03:00, 22 October 2009
Home | The Team | The Project | Parts submitted | Modelling | Notebook |
- Applications and perspectives - Safety considerations
- Instructions - Output format
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The project The project is divided into four main sections that can be accessed to the left. Each section is briefly introduced below. The Redoxilator By in silico design and computer modelling followed by gene synthesis, we have constructed a molecular NAD+/NADH ratio sensing system in Saccharomyces cerevisiae. The sensor works as an inducible transcription factor being active only at certain levels of the NAD+/NADH ratios. By the coupling of a yeast optimized fast degradable GFP, the system can be used for in vivo monitoring of NAD+/NADH redox poise. Expected future applications of the system is heterologous redox coupled protein production in yeast, and a possible application in cancer research The USER assembly standard In this part of the project we propose a new parts-assembly standard for Biobricks based on USER cloning. The USER fusion assembly standard allows rapid construction of multi-part devices, without some of the drawbacks of the restriction-enzyme based standard biobrick assembly method. USER fusion primer design software
Besides the main project, four novel biobricks were made as a complement of our project and as a useful tool for the construction of future devices (see
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