Team:Oxford/biosensor deterministic equations

From 2014.igem.org

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<h1>Modelling the activations and repressions in our genetic circuit</h1>
<h1>Modelling the activations and repressions in our genetic circuit</h1>
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To deterministically model each activation and repression of promoters by proteins, we used first order ordinary differential equations (ODEs). We hope that the graphic below explains very clearly where all of the terms come from and what effect they have on the system.
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To deterministically model each activation and repression of promoters by proteins, we used first order ordinary differential equations (ODEs). The graphic below explains where all of the terms come from and what effect they have on the system.
<br><br>
<br><br>
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This explanation should enable people of any academic discipline to gain a certain understanding of how to begin simulating gene circuits and predicting the reponse of their systems.
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This explanation should enable people of any academic discipline to gain an understanding of how to begin simulating gene circuits and predicting the reponse of their systems.
</div>
</div>

Revision as of 15:06, 7 October 2014


Activator/Repressor equations


Modelling the activations and repressions in our genetic circuit

To deterministically model each activation and repression of promoters by proteins, we used first order ordinary differential equations (ODEs). The graphic below explains where all of the terms come from and what effect they have on the system.

This explanation should enable people of any academic discipline to gain an understanding of how to begin simulating gene circuits and predicting the reponse of their systems.