Team:UNAM-Genomics Mexico/Modeling

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=Modeling=
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<div class="top-slider-main">
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<img class="sub_project" alt="Bio-SintetizArte Image" src="https://static.igem.org/mediawiki/2011/a/ae/Aguila.png" title="Biosintetizarte">
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<p>Inside the <a class="model" href=""><i>Phaseolus vulgaris</i></a> root nodules, <a class="model" href=""><i>Rhizobium etli</i></a>  
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enjoys a protected niche. However the protection provided by the plant is given solely in exchange for the nitrous compounds
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produced by the bacteria. For this it is very important to understand how <a class="model" href="">hydrogen production</a>  
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        <div class="content"><img src="https://static.igem.org/mediawiki/2011/3/3e/Unamgenomics6.jpg"></div>
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will affect <a class="model" href="">nitrogen fixation</a> in the bacteria. That is the question we aim to answer with our
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modeling efforts.</p>
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<h1 class="model_header">Flux Balance Analysis</h1>
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<p><i>R. elti</i>'s metabolism inside the nodule is fairly constant. This homeostatic state is one of the assumptions done when
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modeling metabolism with <a class="model" href="">Flux Balance Analysis</a>. We have deffined three main metabolic
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compartments: <a class="model" href="">cytosol</a>, <a class="model" href="">periplasm</a> and
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<a class="model" href="">extracellular compartment</a>.</p>
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<h1 class="model_header">Cellular Automaton</h1>
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<p>To asses how individual bacterium interact with each other we'll use <a class="model" href="">cellular automaton</a> based models.</p>
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<h1 class="model_header">Game Theory</h1>
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<p>The niche adecuation is our final goal. To model it we'll use the prize and penalization perspective of the
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<a class="model" href="">game theory</a> branch of math.</p>
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Inside the Phaseolus vulgaris root nodules, Rhizobium etli enjoys a protected niche. However the protection provided by the plant is given solely in exchange for the nitrous compounds produced by the bacteria. For this it is very important to understand how hydrogen production will affect nitrogen fixation in the bacteria. That is the question we aim to answer with our modeling efforts.
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Flux Balance Analysis
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R. elti's metabolism inside the nodule is fairly constant. This homeostatic state is one of the assumptions done when modeling metabolism with Flux Balance Analysis. We have deffined three main metabolic compartments: cytosol, periplasm and extracellular compartment.
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==Cellular Automaton==
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To asses how individual bacterium interact with each other we'll use cellular automaton based models.
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==Game Theory==
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The niche adecuation is our final goal. To model it we'll use the prize and penalization perspective of the game theory branch of math.
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Revision as of 10:25, 26 September 2011

UNAM-Genomics_Mexico



Modeling








Inside the Phaseolus vulgaris root nodules, Rhizobium etli enjoys a protected niche. However the protection provided by the plant is given solely in exchange for the nitrous compounds produced by the bacteria. For this it is very important to understand how hydrogen production will affect nitrogen fixation in the bacteria. That is the question we aim to answer with our modeling efforts. Flux Balance Analysis

R. elti's metabolism inside the nodule is fairly constant. This homeostatic state is one of the assumptions done when modeling metabolism with Flux Balance Analysis. We have deffined three main metabolic compartments: cytosol, periplasm and extracellular compartment.

Cellular Automaton

To asses how individual bacterium interact with each other we'll use cellular automaton based models.

Game Theory

The niche adecuation is our final goal. To model it we'll use the prize and penalization perspective of the game theory branch of math.

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