Several computational drug resistance prediction methods compared with AIMMS
Year . | Method . | Target(s)/inhibitor(s) . | Prediction accuracy,a% . | Sample set, mutants . | Ref . | ||
---|---|---|---|---|---|---|---|
Criterion 1 . | Criterion 2 . | Criterion 3 . | |||||
De novo prediction approaches (structure-based prediction approaches) | |||||||
2008 | MD with free energy/variability value | HIV protease/5 inhibitors | 75–100 | 33 | [43] | ||
2016 | Alpha shape model with MD simulation | Epidermal growth factor receptor/1 inhibitor | 90 | 30 | [44] | ||
2016 | Homology modeling, docking, MD simulation and MM/GBSA calculation | Topoisomerase I/7 inhibitors | 91.6b | 72 | [45] | ||
2017 | Docking with Molecular Mechanics Generalized Born Surface Area (MM/GBSA) calculation | ABL kinase/5 inhibitor | 70 | 55 | [46] | ||
2018 | AIMMS | HIV protease/5 inhibitors HIV reverse transcriptase/4 inhibitors Influenza virus neuraminidase/1 inhibitor bc1 complex/1 inhibitor, DHFR-TS/2 inhibitors Aldose reductase/1 inhibitor, kinase/3 inhibitors | 79–100 | 83–97 | 311 | ||
Data-driven and comprehensive prediction approaches | |||||||
2005 | Linear regression, docking with dynamics, sequence consensus | HIV protease/6 inhibitors | 73–86 | 1792 | [47] | ||
2008 | Docking and multivariate statistical procedures | HIV reverse transcriptase/55 inhibitors from NIAID HIV protease/51 inhibitors from NIAID | 65–80 | 530 | [47] | ||
2013 | Logistic regression/random forests | HIV reverse transcriptase/5 inhibitors | 67.2–84.0 | 3133 | [48] | ||
2016 | Biophysics-based fitness | Dihydrofolate reductase/1 inhibitor | 85 | 21 | [49] |
Year . | Method . | Target(s)/inhibitor(s) . | Prediction accuracy,a% . | Sample set, mutants . | Ref . | ||
---|---|---|---|---|---|---|---|
Criterion 1 . | Criterion 2 . | Criterion 3 . | |||||
De novo prediction approaches (structure-based prediction approaches) | |||||||
2008 | MD with free energy/variability value | HIV protease/5 inhibitors | 75–100 | 33 | [43] | ||
2016 | Alpha shape model with MD simulation | Epidermal growth factor receptor/1 inhibitor | 90 | 30 | [44] | ||
2016 | Homology modeling, docking, MD simulation and MM/GBSA calculation | Topoisomerase I/7 inhibitors | 91.6b | 72 | [45] | ||
2017 | Docking with Molecular Mechanics Generalized Born Surface Area (MM/GBSA) calculation | ABL kinase/5 inhibitor | 70 | 55 | [46] | ||
2018 | AIMMS | HIV protease/5 inhibitors HIV reverse transcriptase/4 inhibitors Influenza virus neuraminidase/1 inhibitor bc1 complex/1 inhibitor, DHFR-TS/2 inhibitors Aldose reductase/1 inhibitor, kinase/3 inhibitors | 79–100 | 83–97 | 311 | ||
Data-driven and comprehensive prediction approaches | |||||||
2005 | Linear regression, docking with dynamics, sequence consensus | HIV protease/6 inhibitors | 73–86 | 1792 | [47] | ||
2008 | Docking and multivariate statistical procedures | HIV reverse transcriptase/55 inhibitors from NIAID HIV protease/51 inhibitors from NIAID | 65–80 | 530 | [47] | ||
2013 | Logistic regression/random forests | HIV reverse transcriptase/5 inhibitors | 67.2–84.0 | 3133 | [48] | ||
2016 | Biophysics-based fitness | Dihydrofolate reductase/1 inhibitor | 85 | 21 | [49] |
aVarious criteria used to represent the prediction accuracy in the references cited. Criterion 1: percentage of the correctly predicted resistance into two categories. Criterion 2: percentage of the correctly predicted drug resistance into multiple levels. Criterion 3: correlation coefficient (R2) for the linear correction between the computational predictive result and the corresponding experimentally derived result. bOnly six mutant samples with experimental activity value were used here to calculate the accuracy.
cNIAID, National Institute of Allergy and Infectious Diseases.
Several computational drug resistance prediction methods compared with AIMMS
Year . | Method . | Target(s)/inhibitor(s) . | Prediction accuracy,a% . | Sample set, mutants . | Ref . | ||
---|---|---|---|---|---|---|---|
Criterion 1 . | Criterion 2 . | Criterion 3 . | |||||
De novo prediction approaches (structure-based prediction approaches) | |||||||
2008 | MD with free energy/variability value | HIV protease/5 inhibitors | 75–100 | 33 | [43] | ||
2016 | Alpha shape model with MD simulation | Epidermal growth factor receptor/1 inhibitor | 90 | 30 | [44] | ||
2016 | Homology modeling, docking, MD simulation and MM/GBSA calculation | Topoisomerase I/7 inhibitors | 91.6b | 72 | [45] | ||
2017 | Docking with Molecular Mechanics Generalized Born Surface Area (MM/GBSA) calculation | ABL kinase/5 inhibitor | 70 | 55 | [46] | ||
2018 | AIMMS | HIV protease/5 inhibitors HIV reverse transcriptase/4 inhibitors Influenza virus neuraminidase/1 inhibitor bc1 complex/1 inhibitor, DHFR-TS/2 inhibitors Aldose reductase/1 inhibitor, kinase/3 inhibitors | 79–100 | 83–97 | 311 | ||
Data-driven and comprehensive prediction approaches | |||||||
2005 | Linear regression, docking with dynamics, sequence consensus | HIV protease/6 inhibitors | 73–86 | 1792 | [47] | ||
2008 | Docking and multivariate statistical procedures | HIV reverse transcriptase/55 inhibitors from NIAID HIV protease/51 inhibitors from NIAID | 65–80 | 530 | [47] | ||
2013 | Logistic regression/random forests | HIV reverse transcriptase/5 inhibitors | 67.2–84.0 | 3133 | [48] | ||
2016 | Biophysics-based fitness | Dihydrofolate reductase/1 inhibitor | 85 | 21 | [49] |
Year . | Method . | Target(s)/inhibitor(s) . | Prediction accuracy,a% . | Sample set, mutants . | Ref . | ||
---|---|---|---|---|---|---|---|
Criterion 1 . | Criterion 2 . | Criterion 3 . | |||||
De novo prediction approaches (structure-based prediction approaches) | |||||||
2008 | MD with free energy/variability value | HIV protease/5 inhibitors | 75–100 | 33 | [43] | ||
2016 | Alpha shape model with MD simulation | Epidermal growth factor receptor/1 inhibitor | 90 | 30 | [44] | ||
2016 | Homology modeling, docking, MD simulation and MM/GBSA calculation | Topoisomerase I/7 inhibitors | 91.6b | 72 | [45] | ||
2017 | Docking with Molecular Mechanics Generalized Born Surface Area (MM/GBSA) calculation | ABL kinase/5 inhibitor | 70 | 55 | [46] | ||
2018 | AIMMS | HIV protease/5 inhibitors HIV reverse transcriptase/4 inhibitors Influenza virus neuraminidase/1 inhibitor bc1 complex/1 inhibitor, DHFR-TS/2 inhibitors Aldose reductase/1 inhibitor, kinase/3 inhibitors | 79–100 | 83–97 | 311 | ||
Data-driven and comprehensive prediction approaches | |||||||
2005 | Linear regression, docking with dynamics, sequence consensus | HIV protease/6 inhibitors | 73–86 | 1792 | [47] | ||
2008 | Docking and multivariate statistical procedures | HIV reverse transcriptase/55 inhibitors from NIAID HIV protease/51 inhibitors from NIAID | 65–80 | 530 | [47] | ||
2013 | Logistic regression/random forests | HIV reverse transcriptase/5 inhibitors | 67.2–84.0 | 3133 | [48] | ||
2016 | Biophysics-based fitness | Dihydrofolate reductase/1 inhibitor | 85 | 21 | [49] |
aVarious criteria used to represent the prediction accuracy in the references cited. Criterion 1: percentage of the correctly predicted resistance into two categories. Criterion 2: percentage of the correctly predicted drug resistance into multiple levels. Criterion 3: correlation coefficient (R2) for the linear correction between the computational predictive result and the corresponding experimentally derived result. bOnly six mutant samples with experimental activity value were used here to calculate the accuracy.
cNIAID, National Institute of Allergy and Infectious Diseases.
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