This page presents a list of sensitivity equations for a selection of network motifs.
Linear Chains
Two step pathway:
![]()
![Rendered by QuickLaTeX.com \begin{align*} C^{S_1}_{E_1} &= \frac{1}{\varepsilon^2_1 - \varepsilon^1_1} \\[5pt] C^{S_1}_{E_2} &= -\frac{1}{\varepsilon^2_1 - \varepsilon^1_1} \\[5pt] C^J_{E_1} &= \frac{\varepsilon^2_1}{\varepsilon^2_1 - \varepsilon^1_1} \\[5pt] C^J_{E_2} &= -\frac{\varepsilon^1_1}{\varepsilon^2_1 - \varepsilon^1_1} \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-6f21cb2e5b01ccadec52ea71dcda279f_l3.png)
Three step pathway:
![]()
![Rendered by QuickLaTeX.com \begin{align*} C^J_{E_1} &= \varepsilon^{2}_1 \varepsilon^{3}_2 / D \\[5pt] C^J_{E_2} &= -\varepsilon^{1}_1 \varepsilon^{3}_2 / D \\[5pt] C^J_{E_3} &= \varepsilon^{1}_1 \varepsilon^{2}_2 / D \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-9340878b9076a1f662acd3f0d7254183_l3.png)
where
the denominator is given by:
![]()
![Rendered by QuickLaTeX.com \begin{align*} C^{S_1}_{E_1} &= (\varepsilon^{3}_2 - \varepsilon^{2}_2) / D \\[5pt] C^{S_1}_{E_2} &= - \varepsilon^{3}_2 / D \\[5pt] C^{S_1}_{E_3} &= \varepsilon^{2}_2 / D \\ \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-a8f6ba418c7646f87bf90fab26bf0115_l3.png)
And for ![]()
![Rendered by QuickLaTeX.com \begin{align*} C^{S_2}_{E_1} &= \varepsilon^{2}_1 / D \\[5pt] C^{S_2}_{E_2} &= -\varepsilon^{1}_1 / D \\[5pt] C^{S_2}_{E_3} &= (\varepsilon^{1}_1 - \varepsilon^{2}_1) / D \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-87cb2f4f114ab3a416aacd2d45e8b883_l3.png)
This page presents a list of sensitivity equations for a selection of network motifs.
![]()
![Rendered by QuickLaTeX.com \begin{align*} C^{S_1}_{E_1} &= \frac{1}{\varepsilon^2_1 - \varepsilon^1_1} \\[5pt] C^{S_1}_{E_2} &= -\frac{1}{\varepsilon^2_1 - \varepsilon^1_1} \\[5pt] C^J_{E_1} &= \frac{\varepsilon^2_1}{\varepsilon^2_1 - \varepsilon^1_1} \\[5pt] C^J_{E_2} &= -\frac{\varepsilon^1_1}{\varepsilon^2_1 - \varepsilon^1_1} \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-6f21cb2e5b01ccadec52ea71dcda279f_l3.png)
![]()
![Rendered by QuickLaTeX.com \begin{align*} C^J_{E_1} &= \varepsilon^{2}_1 \varepsilon^{3}_2 / D \\[5pt] C^J_{E_2} &= -\varepsilon^{1}_1 \varepsilon^{3}_2 / D \\[5pt] C^J_{E_3} &= \varepsilon^{1}_1 \varepsilon^{2}_2 / D \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-9340878b9076a1f662acd3f0d7254183_l3.png)
where
the denominator is given by:
![]()
![Rendered by QuickLaTeX.com \begin{align*} C^{S_1}_{E_1} &= (\varepsilon^{3}_2 - \varepsilon^{2}_2) / D \\[5pt] C^{S_1}_{E_2} &= - \varepsilon^{3}_2 / D \\[5pt] C^{S_1}_{E_3} &= \varepsilon^{2}_2 / D \\ \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-a8f6ba418c7646f87bf90fab26bf0115_l3.png)
And for ![]()
![Rendered by QuickLaTeX.com \begin{align*} C^{S_2}_{E_1} &= \varepsilon^{2}_1 / D \\[5pt] C^{S_2}_{E_2} &= -\varepsilon^{1}_1 / D \\[5pt] C^{S_2}_{E_3} &= (\varepsilon^{1}_1 - \varepsilon^{2}_1) / D \end{align*}](http://blog.analogmachine.org/wp-content/ql-cache/quicklatex.com-87cb2f4f114ab3a416aacd2d45e8b883_l3.png)