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docs/source/pyMODE-TASK_usage.rst

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.. figure:: ../img/conf_page.png
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:align: center
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Fig: Set pyMODE-TASK directory
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Fig 1: Set pyMODE-TASK directory
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3. It should look something like this
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.. figure:: ../img/conf_page1.png
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:align: center
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Fig: Set pyMODE-TASK directory
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Fig 2: Set pyMODE-TASK directory
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4. Next go to the PCA tab. Read the trajectory, topology and reference PDB by clicking on the respective
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buttons. Next select the appropriate options and click on Run PCA. The results file will be saved in a folder
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.. figure:: ../img/pca_page.png
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:align: center
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Fig: PCA
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Fig 3: PCA
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5. If the run is successful you will see something like following
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.. figure:: ../img/pca_result.png
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:align: center
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Fig: PCA successful
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Fig 4: PCA successful
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MDS and t-SNE
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-------------------------------
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.. figure:: ../img/mds_page.png
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:align: center
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Fig: MDS and t-SNE
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Fig 5: MDS and t-SNE
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Normal mode analysis (NMA)
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.. figure:: ../img/nma1.png
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:align: center
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Fig: NMA set configuration
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Fig 6: NMA set configuration
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2. Perform the coarse graining for large protein molecules.
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.. figure:: ../img/nma2.png
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:align: center
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Fig: Coarse graining
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Fig 7: Coarse graining
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.. figure:: ../img/nma3.png
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:align: center
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Fig: Coarse graining results
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Fig 8: Coarse graining results
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3. Perform the coarse graining for second conformation of the protein.
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This is useful in case if you want to perform "Conformation/ Combination tool analysis" and
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.. figure:: ../img/nma4.png
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:align: center
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Fig: Coarse graining 2
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Fig 9: Coarse graining 2
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4. Run NMA on each coarse grained PDB using a suitable cutoff.
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.. figure:: ../img/nma5.png
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:align: center
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Fig: NMA for first PDB
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Fig 10: NMA for first PDB
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.. figure:: ../img/nma6.png
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:align: center
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Fig: NMA for second PDB
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Fig 11: NMA for second PDB
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5. Run conformation / combination mode analysis. This require two PDB of different conformation.
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.. figure:: ../img/nma7.png
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:align: center
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Fig: conformation/combination mode analysis
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Fig 12: conformation/combination mode analysis
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6. Run MSF. This requires decomposed ANM matrices for comparing the mean square fluctuation between 2 proteins.
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.. figure:: ../img/nma8.png
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:align: center
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Fig: MSF
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Fig 13: MSF
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8. Get an assembly covariance for a specified chain of an asymmetric unit
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.. figure:: ../img/nma9.png
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:align: center
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Fig: Get Eigenvectors
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Fig 14: Get Eigenvectors
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9. Generate mode animation for visualization. Afterward use the following command in VMD for visualization
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.. figure:: ../img/nma10.png
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:align: center
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Fig: Mode animation
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Fig 15: Mode animation
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