Team:Imperial College/Motility Control

From 2008.igem.org

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{{Imperial/Box2|Conclusion|
{{Imperial/Box2|Conclusion|
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[[Image:Mechanical_Model.jpg|200px|right]] <br>
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We fitted the data according to the simple mechanical model we have developed. From our model fitting process, we can see that flagellum force is exponentially distributed. Our mechanical model though simple, fits the cell trajectory data extremely well as shown in the figure above. Further work which can be done would be to utilise a movable stage to track the movement of ''B. subtilis'' over its entire run so as to obtain a distribution of other motility parameters associated running and tumbling events. |[[Image:Mechanical_Model.jpg|200px|right]]}}
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We fitted the data according to the simple mechanical model we have developed. From our model fitting process, we can see that flagellum force is exponentially distributed. Our mechanical model though simple, fits the cell trajectory data extremely well as shown in the figure above. Further work which can be done would be to utilise a movable stage to track the movement of ''B. subtilis'' over its entire run so as to obtain a distribution of other motility parameters associated running and tumbling events. |}}
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{{Imperial/EndPage|Major_Results|Major_Results}}
{{Imperial/EndPage|Major_Results|Major_Results}}

Revision as of 17:38, 29 October 2008

Results of Motility Analysis

Results

The following figure shows the results of our model fitting. We have introduced a change in flagellar force at certain points of the cell trajectory so as to achieve a better fit. A maximum of two runs were allowed for each cell trajectory.

Fitted Models.jpg

The MATLAB Distribution Fitting Tool was used to model the distribution of parameter A. Parameter A was found to be exponentially distributed. The following figures describe the probability density function and cumulative density function.

Exponential Distribution for Parameter A PDF.jpg

Exponential Distribution for Parameter A CDF.jpg


Conclusion

We fitted the data according to the simple mechanical model we have developed. From our model fitting process, we can see that flagellum force is exponentially distributed. Our mechanical model though simple, fits the cell trajectory data extremely well as shown in the figure above. Further work which can be done would be to utilise a movable stage to track the movement of B. subtilis over its entire run so as to obtain a distribution of other motility parameters associated running and tumbling events.

Mechanical Model.jpg