Difference between revisions of "Team:Hong Kong HKU/ex"

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<h2 id = "sub_title">OUR PROJECT TITLE</h2>
 
<h2 id = "sub_title">OUR PROJECT TITLE</h2>
 
<h3>Project Description</h3>
 
<h3>Project Description</h3>
<p><blockquote>The</blockquote> development of synthetic biology aroused the concerns of biosafety problems due to the great editing and recreation of genome, resulting in the difficulty predicting the behavior of synthetic organism. Accidental spreading of synthetic organism may pose a threat to our environment. In the past few years, several iGEM teams has discussed and reported the need for a standard safety cassette for synthetic biology. Our teammates viewed this as an important issue. Some past teams also focused on this topic, such as xx using DNase e.t.c. We would like to design a better circuit, which is highly regulated and cheaper control to suit the goal.
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<p >The development of synthetic biology aroused the concerns of biosafety problems due to the great editing and recreation of genome, resulting in the difficulty predicting the behavior of synthetic organism. Accidental spreading of synthetic organism may pose a threat to our environment. In the past few years, several iGEM teams has discussed and reported the need for a standard safety cassette for synthetic biology. Our teammates viewed this as an important issue. Some past teams also focused on this topic, such as xx using DNase e.t.c. We would like to design a better circuit, which is highly regulated and cheaper control to suit the goal.
 
</p>
 
</p>
 
 
<blockquote>This summer we investigated the innate function of CRISPR Cas systems in prokaryotes and tried to apply its cleavage for the purpose of biosafety. In our project we design and engineer a biological circuit called killing switch, which can perform destruction of DNA when the genetic modified organisms leave the required conditions, and then transfer the system into ''E. coli''.</blockquote>
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<p>This summer we investigated the innate function of CRISPR Cas systems in prokaryotes and tried to apply its cleavage for the purpose of biosafety. In our project we design and engineer a biological circuit called killing switch, which can perform destruction of DNA when the genetic modified organisms leave the required conditions, and then transfer the system into ''E. coli''.</p>
  
 
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Revision as of 16:13, 12 September 2015

Http://2014hs.igem.org/Team:UCL Academy - 2014.igem.org

OUR PROJECT TITLE

Project Description

The development of synthetic biology aroused the concerns of biosafety problems due to the great editing and recreation of genome, resulting in the difficulty predicting the behavior of synthetic organism. Accidental spreading of synthetic organism may pose a threat to our environment. In the past few years, several iGEM teams has discussed and reported the need for a standard safety cassette for synthetic biology. Our teammates viewed this as an important issue. Some past teams also focused on this topic, such as xx using DNase e.t.c. We would like to design a better circuit, which is highly regulated and cheaper control to suit the goal.

This summer we investigated the innate function of CRISPR Cas systems in prokaryotes and tried to apply its cleavage for the purpose of biosafety. In our project we design and engineer a biological circuit called killing switch, which can perform destruction of DNA when the genetic modified organisms leave the required conditions, and then transfer the system into ''E. coli''.

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