worked_example3
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- | * In this example we simulate the effect of treating cells with Erlotinib (FDA approved EGFR inhibitor for treatment of NSCLC EGFR mutant). We modify the target actions fixing: Agonist = 0.8 and Antagonist = 0.1 (mechanisms of action of Erlotinib on its targets).// Figure 1// shows how modify the expression of those genes. | + | * In this example we simulate the effect of treating cells with Erlotinib (FDA approved EGFR inhibitor for treatment of NSCLC EGFR mutant). We modify the target actions fixing: Agonist = 0.8 and Antagonist = 0.1 (mechanisms of action of Erlotinib on its targets).// Figure 1// shows how modify the expression of those genes using the setting panel. |
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+ | * To open the settings panel click on the // | ||
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**Figure 1:** Gene signal modification. **A:** Screenshot of gene selection panel. Note how the drug list appears when we select any gene. **B:** We modify the effect of drug action on its targets (in our case, agonist and antagonist, mark with red arrow and stars).** C:** Screenshot of gene selection panel after In Silico treatment with erlotinib. We have had to manually modify the expression of “EGFR - EGFR node” and “GRB2 EGFR node” because the drug annotations doesn' | **Figure 1:** Gene signal modification. **A:** Screenshot of gene selection panel. Note how the drug list appears when we select any gene. **B:** We modify the effect of drug action on its targets (in our case, agonist and antagonist, mark with red arrow and stars).** C:** Screenshot of gene selection panel after In Silico treatment with erlotinib. We have had to manually modify the expression of “EGFR - EGFR node” and “GRB2 EGFR node” because the drug annotations doesn' | ||
- | CellMaps | + | The visualizer highlights modified genes to help locate them (//figure 2//). |
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- | **Figure 2: A:** ErbB signaling pathway. **B:** Detail of EGFR modification on the pathway. Note how CellMaps | + | **Figure 2: A:** ErbB signaling pathway. **B:** Detail of EGFR modification on the pathway. Note how the visualizer |
* Perform the inhibition by pressing //update// button. Those pathways and circuits that have been modified are marked in bold. Red or blue arrows indicate if those changes are or not significant (overactivated path or repressed). | * Perform the inhibition by pressing //update// button. Those pathways and circuits that have been modified are marked in bold. Red or blue arrows indicate if those changes are or not significant (overactivated path or repressed). | ||
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**Figure 9:** PathAct report. **A:** list of perturbed genes and final value of activation. **B:** ranked circuits by log fold change (base 10). Note how PTEN logFC are -Infinite (PTEN loss represents a complete depletion of PTEN - complete node inactivation). **C:** Fold change is used by calculate significance using 2 as threshold (log< | **Figure 9:** PathAct report. **A:** list of perturbed genes and final value of activation. **B:** ranked circuits by log fold change (base 10). Note how PTEN logFC are -Infinite (PTEN loss represents a complete depletion of PTEN - complete node inactivation). **C:** Fold change is used by calculate significance using 2 as threshold (log< | ||
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worked_example3.1455028846.txt.gz · Last modified: 2017/05/24 15:27 (external edit)