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Team:WLC-Milwaukee/Modeling
From 2014.igem.org
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Using the law of mass action the enzyme substrate complex, and product formation chemical equations, are separated into a set of differential equations. The MATLAB ode45 function is used to solve the set of differential equations over the given time span. | Using the law of mass action the enzyme substrate complex, and product formation chemical equations, are separated into a set of differential equations. The MATLAB ode45 function is used to solve the set of differential equations over the given time span. | ||
| + | <h1>xynA at pH 7.3</h1> | ||
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<h2>Enzyme at 2-fold the Concentration of Substrate</h2> | <h2>Enzyme at 2-fold the Concentration of Substrate</h2> | ||
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</table> | </table> | ||
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| + | <p>DISCUSSION</p> | ||
</html> | </html> | ||
Revision as of 05:46, 17 October 2014
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This code models Michaelis-Menten enzyme kinetics over a user inputted time duration. Product formation and enzyme-substrate complex formation are assumed irreversible. Initial concentrations of the E-S complex and product are assumed to be zero. And it does not account for the presence of inhibitors or activators. Using the law of mass action the enzyme substrate complex, and product formation chemical equations, are separated into a set of differential equations. The MATLAB ode45 function is used to solve the set of differential equations over the given time span.
xynA at pH 7.3
Enzyme at 2-fold the Concentration of Substrate
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| COMMENTS HERE | COMMENTS HERE | COMMENTS HERE |
Enzyme at 10-fold the Concentration of Substrate
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| COMMENTS HERE | COMMENTS HERE | COMMENTS HERE |
Enzyme at 100-fold the Concentration of Substrate
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| COMMENTS HERE | COMMENTS HERE | COMMENTS HERE |
Increased Enzyme Concentration at 15 Seconds
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| COMMENTS HERE | COMMENTS HERE | COMMENTS HERE |
DISCUSSION
