From 3e401146016c561cfa0df1c522a9346241d1574d Mon Sep 17 00:00:00 2001
From: adw62 Here we detail all the options in the API and what should be passed. The options that were previously on the command line
-can be passed into the TIES class. A minimal evocation would looks like:TIES MD API
API
from TIES_MD import TIES
import os
md = TIES(cwd=os.path.abspath('./my_ties_sims'))
diff --git a/docs/_sources/API.rst.txt b/docs/_sources/API.rst.txt
index 8b2c913..bffed28 100644
--- a/docs/_sources/API.rst.txt
+++ b/docs/_sources/API.rst.txt
@@ -8,7 +8,7 @@ API
---
Here we detail all the options in the API and what should be passed. The options that were previously on the command line
-can be passed into the TIES class. A minimal evocation would looks like::
+can be passed into the TIES class. A minimal evocation would look like::
from TIES_MD import TIES
import os
diff --git a/docs/_sources/binding_free_energies.rst.txt b/docs/_sources/binding_free_energies.rst.txt
index 406a619..1586fe4 100644
--- a/docs/_sources/binding_free_energies.rst.txt
+++ b/docs/_sources/binding_free_energies.rst.txt
@@ -73,7 +73,7 @@ for how to do this. With ``TIES20`` installed you can use the API as follows to
hybrid.prepare_inputs(protein=protein)
-This will build all the input needed to run these a BFE for the :math:`{ΔΔ G}` between ligandA and
+This will build all the input needed to run a BFE calculation for the :math:`{ΔΔ G}` between ligandA and
ligandB. However, in order to run at this point the user must execute their own HPC submission scripts or run via the
command line on a cluster. We can however build own submission scripts and or change any of the simulation setting
as detailed in the next section.
@@ -145,10 +145,11 @@ the ``ties/ties-ligandA-ligandB/(lig/com)`` directory run::
Then modify the analysis.cfg file such the legs option is now to ``legs = lig, com`` (the two legs of our cycle). Note,
configured like this the :math:`{ΔΔ G}` is computed as the :math:`{Δ G}` of the ligand simulation minus the :math:`{Δ G}`
of the complex simulation, take care this gives you the same :math:`{ΔΔ G}` as you want to compare to in experiment
-and it depends on which ligand is ligandA/B in the cycle. running::
+and it depends on which ligand is ligandA/B in the cycle. Running the following command will once again give
+a ``results.dat`` file as output::
ties_ana
-will once again give a ``results.dat`` file as out put this is the same as in the :ref:`Tutorial` section but it now
-contains the :math:`{ΔΔ G}` of each transformation and the associated SEM. The print out on the terminal will detail
-the individual :math:`{Δ G}` results for each thermodynamic leg.
+``results.dat`` file file will have the same format as in the :ref:`Tutorial` section but it now
+contains the :math:`{ΔΔ G}` of each transformation and the associated standard error of the mean (SEM). The print out on
+the terminal will detail the individual :math:`{Δ G}` results for each thermodynamic leg.
diff --git a/docs/_static/pygments.css b/docs/_static/pygments.css
index 08bec68..582d5c3 100644
--- a/docs/_static/pygments.css
+++ b/docs/_static/pygments.css
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diff --git a/docs/binding_free_energies.html b/docs/binding_free_energies.html
index 02404fc..7791fc9 100644
--- a/docs/binding_free_energies.html
+++ b/docs/binding_free_energies.html
@@ -149,7 +149,7 @@ Setup
hybrid.prepare_inputs(protein=protein)
This will build all the input needed to run these a BFE for the \({ΔΔ G}\) between ligandA and +
This will build all the input needed to run a BFE calculation for the \({ΔΔ G}\) between ligandA and ligandB. However, in order to run at this point the user must execute their own HPC submission scripts or run via the command line on a cluster. We can however build own submission scripts and or change any of the simulation setting as detailed in the next section.
@@ -219,13 +219,14 @@results.dat
file as output:
ties_ana
will once again give a results.dat
file as out put this is the same as in the Tutorial section but it now
-contains the \({ΔΔ G}\) of each transformation and the associated SEM. The print out on the terminal will detail
-the individual \({Δ G}\) results for each thermodynamic leg.
results.dat
file file will have the same format as in the Tutorial section but it now
+contains the \({ΔΔ G}\) of each transformation and the associated standard error of the mean (SEM). The print out on
+the terminal will detail the individual \({Δ G}\) results for each thermodynamic leg.