Team:Imperial College London/Summary

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Contents

Summary

The E.ncapsulator



Many thanks for taking part in the tour of our project. Feel free to browse through the sections of our project in more depth, using the sidetabs on the left or the images below.




Achievements

Here is a summary of the achievements of the Imperial College 2009 team:

  • Submitted 20 documented parts to the Registry.
  • Improved the characterisation of the [http://partsregistry.org/wiki/index.php?title=Part:BBa_K200022 BBa_K098995 thermosensitive promoter] by successfully testing with GFP.
  • Submitted new coding regions for 2 enzymes, [http://partsregistry.org/wiki/index.php?title=Part:BBa_K200008 PAH] and [http://partsregistry.org/wiki/index.php?title=Part:BBa_K200007 cellulase], as well as a pentapeptide, [http://partsregistry.org/wiki/index.php?title=Part:BBa_K200013 opiorphin].
  • Designed new BioBricks using those genes coding for encapsulation of the cell.
  • Functional BioBrick [http://partsregistry.org/wiki/index.php?title=Part:BBa_K200022 BBa_K200022] characterised, and results uploaded onto registry page.
  • Explored the current Ethical Issues in Synthetic Biology, as well as those specific to our project.
  • Helped the iGEM newcomers UCL by sending them a plate of Registry DNA kit plate from 2007.
  • Took part in the Valencia ethics survey, and became the first team to win the Valencia Ethics gold medal.
  • Explored the Manufacturing Considerations that we thought important to manufacture The E.ncapsulator as a viable product.
  • Investigated the Safety Implications of the project as a whole.


Major Results

This page contains highlights of our major results and simulations. It is by no means complete. However, more results will be presented at the jamboree.

Simulations: Chemoinduction for Module 1

Our [| simulation results] indicate that increasing input amounts of IPTG result in a greater yield of polypeptide drug of interest

We did an experiment to study how different input concentrations of IPTG affect cell growth, and concluded that IPTG has no significant effect on cell growth within the ranges we are using(IPTG growth curves). Therefore, we can conclude that increasing IPTG concentration initially will have a positive contribution to our dosage.
II09 SIm main prot.jpg
<b>Note 1: Results from these simulations were to be tied up with data from our LacI-RFP testing construct (See our part K200019. Unluckily, this part of the construct was not sent correcty from the registry, so testing again was not possible before the wiki-freeze deadline.

Note 2: Parameters used in the system are arbitrary. For a justification see the system stability analysis.

Experimental: Module 2 - Encapsulation growth curves

Dependent on lab results today

Experimental: Autoinduction - Diauxic growth curve and CRP GFP

Here we can pick a diauxic growth curve and compare directly to a simulation

Simulations: Module 1 - Enzyme kinetics and dosage control

II09 enzymekinetics.png

Many polypeptides of interest are enzymes. This means that detecting how much drug has been produced requires knowledge about their interaction with their respective substrates in the enzymatic assays. Here we assumed that enzymatic activity follows Michaelis-Menten kinetics [1-3]. This means that we can directly relate enzymatic activity to the required dosage for successful administration of the polypeptide of interest.
Dosage Calculations:
//upload summary and complete pdf file.

Experimental: Module 3 - Thermoinducible promoter

Need Matthieu's latest processed data

Conclusion

Need some inspiration here guys!







These links may be useful to browse further through our results and achievements:

Major Results
Submitted Parts
Human Practices
Pill Manufacture
Genealogy
 


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