Team:Bologna/Modeling
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[[Image:Differentialequations3.jpg|940px||thumb| Figure 3. Differential Equations]] | [[Image:Differentialequations3.jpg|940px||thumb| Figure 3. Differential Equations]] | ||
[[Image:Transequations2.jpg|center||540px||thumb| Figure 4. Differential Equations]] | [[Image:Transequations2.jpg|center||540px||thumb| Figure 4. Differential Equations]] | ||
- | [[Image:constantsvalue.jpg|center| | + | [[Image:constantsvalue.jpg|center|800px|thumb|Table 2. ]] |
[[Image:Constants3.jpg|center|500px||thumb|Figure 5: Equilibrium Constants]] | [[Image:Constants3.jpg|center|500px||thumb|Figure 5: Equilibrium Constants]] | ||
[[Image:Algebricalconstrain2.jpg|center|650px||thumb|Figure 6: Algebraic Constrains]] | [[Image:Algebricalconstrain2.jpg|center|650px||thumb|Figure 6: Algebraic Constrains]] |
Revision as of 01:09, 22 October 2009
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A. Einstein
Contents |
Introduction
In order to test and characterize our T-REX device, we developed the following genetic circuit (Fig. 1):
Mathematical Model
The mathematical model is based on the law of mass action, and the processes involved in gene expression, that is transcription and translation, are considered similar to enzymathic reactions.
In this context, RNA polymerase and ribosome perform enzymes' role, while gene promoter and RBS sequence act as substrates.
The interaction between enzyme and substrate leads to the formation of a complex, yielding to the final product: mRNA for the RNA polymerase - promoter complex and ribosome - RBS sequence complex.
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Reactions
Here below are shown all the reactions occurring the circuit (Fig. 1 and Fig. 2).
Symbol definitions are listed in Table 1
Differential Equations
Differential equations, that describes the project, are obtained appling the law of mass action at the reactions above.