Team:DTU Denmark/safety

From 2009.igem.org

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<p> 
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   The redoxilator<br><br>
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   The redoxilator<br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/theory" CLASS=leftbar>- Introduction</a><br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/genetic_design" CLASS=leftbar>- Genetic design</a><br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/yeast" CLASS=leftbar>- Results</a><br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/applications" CLASS=leftbar>- Applications and perspectives</a><br>
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    <a href="https://2009.igem.org/Team:DTU_Denmark/practicalapproach" CLASS=leftbar>- Applications and perspectives</a><br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/safety" CLASS=leftbar>- Safety considerations</a><br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/safety" CLASS=leftbar>- Safety considerations</a><br><br>
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     <br>The USER<sup>TM</sup> assembly standard<br><br>
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     <br>The USER assembly standard<br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/USERprinciple" CLASS=leftbar>- Principle</a><br>
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     <a href="https://2009.igem.org/Team:DTU_Denmark/USERprinciple" CLASS=leftbar>- USER fusion of biobricks</a><br>
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    <a href="https://2009.igem.org/Team:DTU_Denmark/USERconcept" CLASS=leftbar>- Proof of concept</a><br>
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    <a href="https://2009.igem.org/Team:DTU_Denmark/USERmanual" CLASS=leftbar>- Manual</a><br><br>
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<p> 
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     <br>USER<sup>TM</sup> fusion primer design software<br><br>
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     <br>USER fusion primer design software<br>
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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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    <a href="https://2009.igem.org/Team:DTU_Denmark/results" CLASS=leftbar>- Results and discussion</a><br>
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   <b>The project</b><br><br><br>
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   <b>The project</b><br><br>
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<font size="4"><b>Safety considerations</b></font><br><br>
<font size="4"><b>Safety considerations</b></font><br><br>
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<p align="justify">The Redoxilator construct applies only to <i>S. cerevisiae</i> which is generally regarded as safe (GRAS), and moreover one of the best characterized industrial organisms. This fact alone eliminates most safety issues. It is of course possible to produce mildly toxic compounds if one so desires, and applying the Redoxilator, this can be done a higher rates. However, it is more likely than not that the production strain will be damaged in the process, making it very hard to produce toxic compouds, and thus jeopardizing researcher safety. Therefore, if standard safety protocols for genetic engineering of production organisms are followed, the Redoxilator cannot be considered to elevate researcher safety issues.<br><br>
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<p align="justify">The Redoxilator construct applies only to <i>S. cerevisiae</i> which is generally regarded as safe (GRAS), and moreover one of the best characterized industrial organisms. This fact alone eliminates most safety issues. It is of course possible to produce mildly toxic compounds if one so desires, and applying the Redoxilator, this can be done at higher rates. However, it is more likely than not that the production strain will be damaged in the process, making it very hard to produce toxic compouds, and thus jeopardizing researcher safety. Therefore, if standard safety protocols for genetic engineering of production organisms are followed, the Redoxilator cannot be considered to elevate researcher safety issues.<br><br>
Likewise, public safety will only be affected if standard safety protocols are not followed. Certain products of <i>S. cerevisiae</i> are deemed safe for human consumption and other applications. If the Redoxilator is utilized in production of such, screening for secretion of unwanted metabolites should be performed post genetic engineering of production strain. As with regard to researcher safety, if standard safety protocols for genetic engineering of production organisms are followed, the Redoxilator cannot be considered to elevate public safety issues.<br><br>
Likewise, public safety will only be affected if standard safety protocols are not followed. Certain products of <i>S. cerevisiae</i> are deemed safe for human consumption and other applications. If the Redoxilator is utilized in production of such, screening for secretion of unwanted metabolites should be performed post genetic engineering of production strain. As with regard to researcher safety, if standard safety protocols for genetic engineering of production organisms are followed, the Redoxilator cannot be considered to elevate public safety issues.<br><br>
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Lastly, the Redoxilator does not pose an immediate threat to environmental safety. Genetically engineered production strains are to be kept isolated, and disposed of following the rules and regulations relating to GMOs. If these are followed, the Redoxilator construct will pose no threat to environmental safety.
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Lastly, the Redoxilator does not pose an immediate threat to environmental safety. Genetically engineered production strains are to be kept isolated, and disposed of following the rules and regulations relating to GMOs. If these are followed, the Redoxilator construct will pose no threat to environmental safety.<br><br>
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<b>Local biosafety group</b><br>
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There is a <a href="http://www.fbd.dtu.dk/intranet/images/stories/safety/safetyorganisation.jpg"> local biosafetygroup at our institution</a>, and they have advised us to follow standard safety protocols for genetic engineering and molecular biology that is the standard practise at our institution. Non of the biobricks submitted in this study comprise any elevated elevated danger of researcher safety, public safety, or environmental safety, if the standard practise are followed.
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<p align="right"><i>-Paras Chopra & Akhil Kamma</i><br><br></p>
<p align="right"><i>-Paras Chopra & Akhil Kamma</i><br><br></p>
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<p>In nature, biological molecules work together in complex systems to serve purposes of the cell. In synthetic biology these molecules are used as individual functional units that are combined to form tailored systems exhibiting complex dynamical behaviour. From ‘design specifications’ generated from computational modelling, engineering-based approaches enables the construction of such new specified gene-regulatory networks. The ultimate goal of synthetic biology is to construct systems that gain new functions, and the perspectives of the technology are enormous. It has already been used in several medical projects2 and is predicted to play a major role in biotech-production and environmental aspects.</p>
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<p>In nature, biological molecules work together in complex systems to serve purposes of the cell. In synthetic biology these molecules are used as individual functional units that are combined to form tailored systems exhibiting complex dynamical behaviour. From ‘design specifications’ generated from computational modelling, engineering-based approaches enables the construction of such new specified gene-regulatory networks. The ultimate goal of synthetic biology is to construct systems that gain new functions, and the perspectives of the technology are enormous. It has already been used in several medical projects and is predicted to play a major role in biotech-production and environmental aspects.</p>
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Latest revision as of 03:46, 22 October 2009

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The project


The redoxilator

- Genetic design
- Applications and perspectives
- Safety considerations


The USER assembly standard

- USER fusion of biobricks


USER fusion primer design software

- Abstract
- Instructions
- Output format


Experimental results

- Results and discussion

The project

Safety considerations

The Redoxilator construct applies only to S. cerevisiae which is generally regarded as safe (GRAS), and moreover one of the best characterized industrial organisms. This fact alone eliminates most safety issues. It is of course possible to produce mildly toxic compounds if one so desires, and applying the Redoxilator, this can be done at higher rates. However, it is more likely than not that the production strain will be damaged in the process, making it very hard to produce toxic compouds, and thus jeopardizing researcher safety. Therefore, if standard safety protocols for genetic engineering of production organisms are followed, the Redoxilator cannot be considered to elevate researcher safety issues.

Likewise, public safety will only be affected if standard safety protocols are not followed. Certain products of S. cerevisiae are deemed safe for human consumption and other applications. If the Redoxilator is utilized in production of such, screening for secretion of unwanted metabolites should be performed post genetic engineering of production strain. As with regard to researcher safety, if standard safety protocols for genetic engineering of production organisms are followed, the Redoxilator cannot be considered to elevate public safety issues.

Lastly, the Redoxilator does not pose an immediate threat to environmental safety. Genetically engineered production strains are to be kept isolated, and disposed of following the rules and regulations relating to GMOs. If these are followed, the Redoxilator construct will pose no threat to environmental safety.

Local biosafety group
There is a local biosafetygroup at our institution, and they have advised us to follow standard safety protocols for genetic engineering and molecular biology that is the standard practise at our institution. Non of the biobricks submitted in this study comprise any elevated elevated danger of researcher safety, public safety, or environmental safety, if the standard practise are followed.

Synthetic Biology

“Synthetic Biology is an art of engineering new biological systems that don’t exist in nature.”

-Paras Chopra & Akhil Kamma

In nature, biological molecules work together in complex systems to serve purposes of the cell. In synthetic biology these molecules are used as individual functional units that are combined to form tailored systems exhibiting complex dynamical behaviour. From ‘design specifications’ generated from computational modelling, engineering-based approaches enables the construction of such new specified gene-regulatory networks. The ultimate goal of synthetic biology is to construct systems that gain new functions, and the perspectives of the technology are enormous. It has already been used in several medical projects and is predicted to play a major role in biotech-production and environmental aspects.

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