Team:ETH Zurich/Achievements

From 2011.igem.org

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=Modeling=
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* We made a [[Team:ETH_Zurich/Modeling/Microfluidics|reaction-diffusion model]] for the toxic molecule gradient formation in a channel and got a feeling about the feasibility of our ideas and channel dimensions.
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* We made a [[Team:ETH_Zurich/Modeling/Microfluidics|'''reaction-diffusion model''']] for the toxic molecule gradient formation in a channel and got a feeling about the feasibility of our ideas and channel dimensions.
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* We approximated the gradient analytically and checked that it almost coincides with the numerically obtained one.
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* We approximated the '''gradient analytically''' and checked that it almost coincides with the '''numerically''' obtained one.
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* We made a [[Team:ETH_Zurich/Modeling/SingleCell|single cell model]] describing our circuit and verified its operation.
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* We made a [[Team:ETH_Zurich/Modeling/SingleCell|'''single cell model''']] describing our circuit and verified its operation.
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* We performed a [[Team:ETH_Zurich/Modeling/Analysis|robustness analysis]] of our system to see how the band behaves upon parameter variations and concluded that it is robust and monostable.
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* We performed a [[Team:ETH_Zurich/Modeling/Analysis|'''robustness analysis''']] of our system to see how the band behaves upon parameter variations and concluded that it is robust and monostable.
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* We performed [[Team:ETH_Zurich/Modeling/Stochastic|stochastic analysis]] to see how the GFP band reacts upon noise and confirmed one more time its robustness
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* We performed [[Team:ETH_Zurich/Modeling/Stochastic|'''stochastic analysis''']] to see how the GFP band reacts upon noise and confirmed one more time its robustness
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* We integrated the single cell model and the reaction-diffusion model in a [[Team:ETH_Zurich/Modeling/Combined|combined 3D spatiotemporal reaction-diffusion model]], simulated for various channel dimensions to get a feeling how the GFP band will move and how the alarm is activated
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* We integrated the single cell model and the reaction-diffusion model in a [[Team:ETH_Zurich/Modeling/Combined|'''combined 3D spatiotemporal reaction-diffusion model''']], simulated for various channel dimensions to get a feeling how the GFP band will move and how the alarm is activated
* We extracted some information about the channel dimensions from the model and [[Team:ETH Zurich/Process/Microfluidics|used this information in the actual channel design]].
* We extracted some information about the channel dimensions from the model and [[Team:ETH Zurich/Process/Microfluidics|used this information in the actual channel design]].
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Revision as of 15:15, 28 October 2011

Can you feel the smoke tonight?
 

Contents

SmoColi - Achievements


Modeling

  • We made a reaction-diffusion model for the toxic molecule gradient formation in a channel and got a feeling about the feasibility of our ideas and channel dimensions.
  • We approximated the gradient analytically and checked that it almost coincides with the numerically obtained one.
  • We made a single cell model describing our circuit and verified its operation.
  • We performed a robustness analysis of our system to see how the band behaves upon parameter variations and concluded that it is robust and monostable.
  • We performed stochastic analysis to see how the GFP band reacts upon noise and confirmed one more time its robustness
  • We integrated the single cell model and the reaction-diffusion model in a combined 3D spatiotemporal reaction-diffusion model, simulated for various channel dimensions to get a feeling how the GFP band will move and how the alarm is activated
  • We extracted some information about the channel dimensions from the model and used this information in the actual channel design.


Biology

  • We improved the pSB6A1 Plasmid to standard 5: [http://partsregistry.org/Part:BBa_K625005 pSB6A5]
  • We created the [http://partsregistry.org/Part:BBa_K625000 BioBrick LacIM1] which is a codon modified LacI for multiplasmid operations
  • We created two improved version of the PU BioBrick
  • We successfully tested the channel in terms of cell viability and GFP synthesis
  • We could established a gradient of a small molecule (IPTG and arabinose) in a tube and also in the microfluidic channel


Microfluidics


Human Practices

  • We presented Synthetic Biology and iGEM to our fellow students in the CBB get together afternoon.
  • We presented iGEM and our project to the general public on the BSSE Open House Day through a poster and a slide show.
  • We also made a survey with critical questions related to Synthetic Biology and iGEM, asked people to fill it out and analyzed the results.
  • ETH GLOBE and NZZ (Neue Zeitung Zürich) will write about our participation at iGEM World Championship Jamboree
  • We helped the Edinburgh 2011 iGEM team with debugging their MATLAB cellulase model.


Personal achievements

  • xx managed to move the Dropbox folder to another location, thus making it look empty for the others.
  • xx accidentally modified an other teams wiki for 1 min
  • xx and xy slept the whole boat trip in Amsterdam
  • xy found a mistake in the PowerPoint in the morning before the presentation ("And the channel turns read")
  • xy managed to sleep at two chairs in the lab
  • We had fun!


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