Team:KULeuven/Modeling

From 2011.igem.org

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<h3>Modeling Overview</h3>
<h3>Modeling Overview</h3>
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<br><h2>Introduction
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<br><h2>1. Describing the whole system</h2>
To make predictions for are plasmid transformed E.coli, a structured segregated model is designed in Simbiology. A graphical representation of the model was build in the block diagram editor . Afterwards reaction equations and parameters were added.  
To make predictions for are plasmid transformed E.coli, a structured segregated model is designed in Simbiology. A graphical representation of the model was build in the block diagram editor . Afterwards reaction equations and parameters were added.  
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Description
 
We designed one model for the whole system and 3 models for 3 subsystems. The 3 subsystems are antifreeze, freeze and cell death. For more information about these 3 subsystems, we refer to the extended project description and the 3 modelling pages.
We designed one model for the whole system and 3 models for 3 subsystems. The 3 subsystems are antifreeze, freeze and cell death. For more information about these 3 subsystems, we refer to the extended project description and the 3 modelling pages.
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Refer to detailed project description: https://2011.igem.org/Team:KULeuven/Details
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Refer to detailed project description: https://2011.igem.org/Team:KULeuven/Details<br><br>
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Ordinary differential equations
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.pdf
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<br><p>PARAMETER TABLE
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(use simbiology2latex toolbox of igem kuleuven 2008 to become formula and ask Sarah to convert the latex-file to pdf)
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There are in total 5 different kinetic equations we used in the model:
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<br><h2>2. Full Model </h2>
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Transcription equation:
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There are in total 5 different kinetic equations we used in the model
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Transcription equation
For most promoters, hill kinetics is used, it is a way of quantitatively describing cooperative binding processes, it was developed for hemoglobin in 1913. A Hill coefficient (n) is a measure for the cooperativity.
For most promoters, hill kinetics is used, it is a way of quantitatively describing cooperative binding processes, it was developed for hemoglobin in 1913. A Hill coefficient (n) is a measure for the cooperativity.
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Translation equation:
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Translation equation
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RNA degradation:
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RNA degradation
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Protein degration:
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Protein degration
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Assimiliation:
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Assimiliation
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Full model
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.Jpg full model
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<br><h2>3. Simulations </h2>
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Parameter table
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When no accurate parameters where found in literature we used these estimated values:
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Transcription parameter
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Translation parameter
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RNA degradation parameter
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Protein degradation parameter
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Simulations
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<br><br>
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Sensitivity analysis
 
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<br><h2>4. Sensitivity analysis</h2>
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<br><br>

Revision as of 08:36, 12 September 2011

KULeuven iGEM 2011

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overview     Freeze     Antifreeze     Cell Death

Modeling Overview


1. Describing the whole system

To make predictions for are plasmid transformed E.coli, a structured segregated model is designed in Simbiology. A graphical representation of the model was build in the block diagram editor . Afterwards reaction equations and parameters were added. We designed one model for the whole system and 3 models for 3 subsystems. The 3 subsystems are antifreeze, freeze and cell death. For more information about these 3 subsystems, we refer to the extended project description and the 3 modelling pages. Refer to detailed project description: https://2011.igem.org/Team:KULeuven/Details


PARAMETER TABLE

2. Full Model

There are in total 5 different kinetic equations we used in the model Transcription equation For most promoters, hill kinetics is used, it is a way of quantitatively describing cooperative binding processes, it was developed for hemoglobin in 1913. A Hill coefficient (n) is a measure for the cooperativity. Translation equation RNA degradation Protein degration Assimiliation

3. Simulations




4. Sensitivity analysis