Difference between revisions of "Part:BBa J102005:Experience"
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This experience page is provided so that any user may enter their experience using this part.<BR>Please enter | This experience page is provided so that any user may enter their experience using this part.<BR>Please enter | ||
how you used this part and how it worked out. | how you used this part and how it worked out. | ||
| − | === | + | ===Modelling of BBa_J102005=== |
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| + | '''All modelling was done by Professor Eldon Emberly of Simon Fraser University''' | ||
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| + | The bio-capacitor was modelled using chemical kinetic equations. These are shown in the table below. | ||
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| + | [[image:Capacitorcircuitequations.png]] | ||
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| + | '''Linear Input''' | ||
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| + | '''Constant Response''' | ||
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| + | The graph on the left demonstrates linearly-increasing TetR in the cell. The graph on the right is the output of the circuit associated with each of these. This is relatively constant in both cases. For example, the red input on the left corresponds to the red output on the right. | ||
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| + | [[image:Capacitorgraphs.JPG]] | ||
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| + | '''Quadratic Input''' | ||
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| + | '''Linear Response''' | ||
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| + | When TetR, the input signal, is quadratic, GFP exhibits a linear response. GFP is inversely proportional to the square of the concentration of TetR. | ||
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| + | [[image:Capacitorgraphs2.JPG]] | ||
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| + | '''GFP Adaptation and Edge-Detection''' | ||
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| + | This graph shows how GFP returns to basal levels once TetR reaches a new steady-state level in the cell. The circuit acts as an edge-detection system, responding to changing input levels. | ||
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| + | [[image:Capacitorgraphs3.JPG]] | ||
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Revision as of 01:54, 24 August 2010
This experience page is provided so that any user may enter their experience using this part.
Please enter
how you used this part and how it worked out.
Modelling of BBa_J102005
All modelling was done by Professor Eldon Emberly of Simon Fraser University
The bio-capacitor was modelled using chemical kinetic equations. These are shown in the table below.
Linear Input
Constant Response
The graph on the left demonstrates linearly-increasing TetR in the cell. The graph on the right is the output of the circuit associated with each of these. This is relatively constant in both cases. For example, the red input on the left corresponds to the red output on the right.
Quadratic Input
Linear Response
When TetR, the input signal, is quadratic, GFP exhibits a linear response. GFP is inversely proportional to the square of the concentration of TetR.
GFP Adaptation and Edge-Detection
This graph shows how GFP returns to basal levels once TetR reaches a new steady-state level in the cell. The circuit acts as an edge-detection system, responding to changing input levels.
UNIQdc77fc5bfacdfcf9-partinfo-00000000-QINU
UNIQdc77fc5bfacdfcf9-partinfo-00000001-QINU