Difference between revisions of "Digital Genetic Circuits (Microbes as Machines)"

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(Created page with "Example of a logic gate from <cite>Bonnet2013</cite>. ==== Media:Spring2015_Digital_Genetic_Circuits_Pre-Discussion...")
 
 
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[[File:Bonnet_recombinase_logic.png|600px|thumb|right|Example of a logic gate from <cite>Bonnet2013</cite>.]]  
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[[File:Bonnet_recombinase_logic.png|600px|thumb|none|Example of a logic gate from <cite>Bonnet2013</cite>.]]  
  
 
==== [[Media:Spring2015_Digital_Genetic_Circuits_Pre-Discussion_Questions.pdf|Download Pre-Discussion Questions (PDF)]] ====
 
==== [[Media:Spring2015_Digital_Genetic_Circuits_Pre-Discussion_Questions.pdf|Download Pre-Discussion Questions (PDF)]] ====
  
 
<blockquote>
 
<blockquote>
<font size="4">These gates are perhaps the farthest away from any natural counterpart and are thus likely to occupy synthetic and systems biologists in the years to come.<cite> Benenson2013 </cite>.</font>
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<font size="4">These gates are perhaps the farthest away from any natural counterpart and are thus likely to occupy synthetic and systems biologists in the years to come <cite>Benenson2013</cite>.</font>
 
</blockquote>
 
</blockquote>
  
 
= Required Reading/Viewing =
 
= Required Reading/Viewing =
 
 
<biblio>
 
<biblio>
#Bonnet2013 pmid= 23539178
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#Bonnet2013 pmid=23539178
 
// Describes using recombinases to implement digital logic in bacteria.
 
// Describes using recombinases to implement digital logic in bacteria.
#Benenson2013 pmid= 23641100
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#Benenson2013 pmid=23641100
 
// Accompanying perspective article.
 
// Accompanying perspective article.
 +
#Endy2013 Transcriptors & Boolean Integrase Logic (BIL) gates, explained ([https://www.youtube.com/watch?v=ahYZBeP_r5U YouTube])
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// Movie in which Drew Endy explains these "transcriptors".
 
</biblio>
 
</biblio>
  
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<biblio>
 
<biblio>
</biblio>
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#Farzadfard2015 pmid=25395541
 
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// Scalable system for recording "cellular memories" in a genome.
= Additional Resources =
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#Green2014 pmid=25417166
 
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// Scalable construction of complex genetic circuits with wide dynamic ranges.
<biblio>
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#Endy2013 Transcriptors & Boolean Integrase Logic (BIL) gates, explained ([https://www.youtube.com/watch?v=ahYZBeP_r5U YouTube])
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// Movie describing the results of the Bonnet2013 paper
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</biblio>
 
</biblio>

Latest revision as of 19:35, 1 March 2015

Example of a logic gate from [1].

Download Pre-Discussion Questions (PDF)

These gates are perhaps the farthest away from any natural counterpart and are thus likely to occupy synthetic and systems biologists in the years to come [2].

Required Reading/Viewing

Error fetching PMID 23539178:
Error fetching PMID 23641100:
  1. Error fetching PMID 23539178: [Bonnet2013]
    Describes using recombinases to implement digital logic in bacteria.
  2. Error fetching PMID 23641100: [Benenson2013]
    Accompanying perspective article.
  3. Transcriptors & Boolean Integrase Logic (BIL) gates, explained (YouTube) [Endy2013]
    Movie in which Drew Endy explains these "transcriptors".
All Medline abstracts: PubMed | HubMed

Assigned Papers

Error fetching PMID 25395541:
Error fetching PMID 25417166:
  1. Error fetching PMID 25395541: [Farzadfard2015]
    Scalable system for recording "cellular memories" in a genome.
  2. Error fetching PMID 25417166: [Green2014]
    Scalable construction of complex genetic circuits with wide dynamic ranges.
All Medline abstracts: PubMed | HubMed