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Team:ETH Zurich/modeling/diffmodel
From 2014.igem.org
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{{:Team:ETH Zurich/tpl/head|Diffusion model}} | {{:Team:ETH Zurich/tpl/head|Diffusion model}} | ||
| + | <article> | ||
| + | == Model == | ||
| + | The main experiment for investigating diffusion is a propagation of the whole pattern through the chip via the quorum sensing module only. We have used beads containing cells which are able to sense luxAHL, produce GFP when they sense it, and amplify the signal for the next row. The combination of the quorum sensing module with diffusion enables to check that cells will amplify the signal enough from one row to the next one, and to check what would be the time scale of the pattern formation. | ||
| + | We used a reaction-diffusion model to combine quorum sensing reactions and diffusion. Here are the different compartments considered : | ||
| + | |||
| + | |||
| + | == Reactions == | ||
| + | |||
| + | == Equations== | ||
| + | == Results == | ||
| + | </article> | ||
{{:Team:ETH Zurich/tpl/foot}} | {{:Team:ETH Zurich/tpl/foot}} | ||
Revision as of 07:55, 15 October 2014
Diffusion model
<article>
Model
The main experiment for investigating diffusion is a propagation of the whole pattern through the chip via the quorum sensing module only. We have used beads containing cells which are able to sense luxAHL, produce GFP when they sense it, and amplify the signal for the next row. The combination of the quorum sensing module with diffusion enables to check that cells will amplify the signal enough from one row to the next one, and to check what would be the time scale of the pattern formation.
We used a reaction-diffusion model to combine quorum sensing reactions and diffusion. Here are the different compartments considered :
Reactions
Equations
Results
</article>
