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Simplify into a page template thanks to aleksrutins/cheetah#1

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Aleks Rutins 2024-06-04 21:26:12 +00:00
parent 27390b6e77
commit e063e315ed
9 changed files with 28 additions and 42 deletions
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8
pages/activators-vs-repressors.md
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@ -1,6 +1,4 @@
<extends template="layouts/base.html" title="Choosing Between Activators & Repressors"></extends>
<nav-links back="/hill-functions.html"></nav-links>
<extends template="layouts/page.html" back="/hill-functions.html" title="Choosing Between Activators & Repressors"></extends>
# Choosing Between Activators & Repressors
@ -33,6 +31,4 @@ You've reached the end, for now. I hope to expand this site in the future. If yo
[^3] Gerland, U., & Hwa, T. (2009). Evolutionary selection between alternative modes of gene regulation. Proceedings of the National Academy of Sciences, 106(22), 8841–8846. <https://doi.org/10.1073/pnas.0808500106>
</section>
<nav-links back="/hill-functions.html"></nav-links>
</section>

6
pages/activators.md
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@ -1,6 +1,4 @@
<extends template="layouts/base.html" title="Activators"></extends>
<nav-links back="/repressors.html" next="/hill-functions.html"></nav-links>
<extends template="layouts/page.html" back="/repressors.html" next="/hill-functions.html" title="Activators"></extends>
# Activators
@ -31,8 +29,6 @@ As you can see, an activator has exactly the opposite effect as a repressor.
That was a short section. Onward!
<nav-links back="/repressors.html" next="/hill-functions.html"></nav-links>
<script>
plot('#binding-curve', (kd, beta0) => [`${beta0}/(1 + x/(${kd}))`, `${beta0} * ((x/${kd})/(1 + (x/${kd})))`], ['#kd', '#beta0'], [[0, 10], [0, 10]])

8
pages/concepts.md
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@ -1,6 +1,4 @@
<extends template="layouts/base.html" title="Concepts of Biocircuits"></extends>
<nav-links next="/simplest-circuit.html"></nav-links>
<extends template="layouts/page.html" next="/simplest-circuit.html" title="Concepts of Biocircuits"></extends>
# Concepts of Biocircuits
@ -25,6 +23,4 @@ Again, though, even though we know a lot about biocircuit design, there are stil
In theory, natural and synthetic circuits _should_ share a common set of design principles. These principles are generally expressed as a statement: _Circuit feature X enables function Y_. We know a few already, but new ones are still being discovered.
That's the introduction. Onward - let's design a circuit!
<nav-links next="/simplest-circuit.html"></nav-links>
That's the introduction. Onward - let's design a circuit!

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pages/hill-functions.md
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@ -1,6 +1,4 @@
<extends template="layouts/base.html" title="Ultrasensitivity & the Hill Function"></extends>
<nav-links back="/activators.html" next="/activators-vs-repressors.html"></nav-links>
<extends template="layouts/page.html" back="/activators.html" next="/activators-vs-repressors.html" title="Ultrasensitivity & the Hill Function"></extends>
# Ultrasensitivity & the Hill Function
@ -54,8 +52,6 @@ To find production rates with the Hill function, just multiply by $\beta_0$:
Onwards!
<nav-links back="/activators.html" next="/activators-vs-repressors.html"></nav-links>
<script>
plot('#hill-graph', (k, n) => [`((x/${k})^(${n}))/(1 + ((x/${k})^(${n})))`, `1/(1 + ((x/${k})^(${n})))`], ['#k', '#n'], [[0, 10], [0, 1]])
plot('#hill-graph-prod', (k, n, b0) => [`(${b0}) * ((x/${k})^(${n}))/(1 + ((x/${k})^(${n})))`, `(${b0})/(1 + ((x/${k})^(${n})))`], ['#k-prod', '#n-prod', '#b0'], [[0, 10], [0, 10]])

6
pages/repressors.md
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@ -1,6 +1,4 @@
<extends template="layouts/base.html" title="Repressors & Leaks"></extends>
<nav-links back="/simplest-circuit.html" next="/activators.html"></nav-links>
<extends template="layouts/page.html" back="/simplest-circuit.html" next="/activators.html" title="Repressors & Leaks"></extends>
# Repressors & Leaks
@ -82,8 +80,6 @@ Because leaks are so common, it's important to make sure that important parts of
Onwards!
<nav-links back="/simplest-circuit.html" next="/activators.html"></nav-links>
<script>
plot('#binding-curve', (kd, beta0) => [`${beta0}/(1 + x/(${kd}))`, `-(${beta0})x/(${kd}) + ${beta0}`], ['#kd', '#beta0'], [[0, 10], [0, 10]])

6
pages/simplest-circuit.md
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@ -1,6 +1,4 @@
<extends template="layouts/base.html" title="The Simplest Circuit"></extends>
<nav-links back="/concepts.html" next="/repressors.html"></nav-links>
<extends template="layouts/page.html" back="/concepts.html" next="/repressors.html" title="The Simplest Circuit"></extends>
# The Simplest Circuit
@ -96,8 +94,6 @@ Here's a graph to play with:
It's still a line. Onwards!
<nav-links back="/concepts.html" next="/repressors.html"></nav-links>
<script>
plot('#concentration-graph', (beta, gamma) => [`(${beta}x)/${gamma}`], ['#beta', '#gamma'])
plot('#concentration-graph-2step', (betap, gammap, betam, gammam) => [`((${betap})(${betam})x)/((${gammap})(${gammam}))`], ['#betap', '#gammap', '#betam', '#gammam'])