We can directly download by clicking the link.
Note: The package will download in zip format (.zip)
named iPro70-master.zip
.
or,
Cloning a repository syncs it to our local machine. After clone, we can add and edit files and then push and pull updates.
- Clone over HTTPS:
user@machine:~$ git clone https://github.com/mrzResearchArena/iPro70.git
- Clone over SSH:
user@machine:~$ git clone [email protected]:mrzResearchArena/iPro70.git
Note: If the clone was successful, a new sub-directory appears on our local drive. This directory has the same name (iPro70) as the GitHub
repository that we cloned.
Major (Generate Features):
- Install: python (version >= 3.5)
- Install: numpy (version >= 1.13.0)
Minor (Performance Measures):
- Install: sklearn (version >= 0.19.0)
- Install: pandas (version >= 0.21.0)
- Install: matplotlib (version >= 2.1.0)
Using PIP:
pip install <package name>
user@machine:~$ pip install scikit-learn
or,
Using anaconda environment:
conda install <package name>
user@machine:~$ conda install scikit-learn
Run command on your console or terminal.
user@machine:~$ python main.py --fullDataset=1 --optimumDataset=1 --fasta=/home/user/iPro70/DNADatasets/FASTA.txt --label=/home/user/iPro70/DNADatasets/Label.txt --kTuple=3 --kGap=5 --pseudoKNC=1 --monoMono=1 --monoDi=1 --monoTri=1 --diMono=1 --diDi=1 --diTri=1 --triMono=1 --triDi=1
or,
user@machine:~$ python main.py -full=1 -optimum=1 -fa=/home/user/iPro70/DNADatasets/FASTA.txt -la=/home/user/iPro70/DNADatasets/Label.txt -ktuple=3 -kgap=5 -pseudo=1 -f11=1 -f12=1 -f13=1 -f21=1 -f22=1 -f23=1 -f31=1 -f32=1
user@machine:~$ python main.py --testDataset=1 --fasta=/home/user/iPro70/DNADatasets/demoFASTA.txt --label=/home/user/iPro70/DNADatasets/demoLabel.txt --kTuple=3 --kGap=5 --pseudoKNC=1 --monoMono=1 --monoDi=1 --monoTri=1 --diMono=1 --diDi=1 --diTri=1 --triMono=1 --triDi=1
or,
user@machine:~$ python main.py -test=1 -fa=/home/user/iPro70/DNADatasets/demoFASTA.txt -la=/home/user/DNADatasets/demoLabel.txt -ktuple=3 -kgap=5 -pseudo=1 -atgc=1 -f11=1 -f12=1 -f13=1 -f21=1 -f22=1 -f23=1 -f31=1 -f32=1
[ Comment: The = sign
is optional. ]
Note #1: It will generate a full dataset named fullDataset.csv (if -full=1 or,
--fullDataset==1)
Note #2: It will generate a selected features dataset named optimumDataset.csv (if -optimum=1 or,
--optimumDataset==1), and It will also track the selected features index.
Note #3: It will generate a full dataset named testDataset.csv (if -test=1 or,
--testDataset==1) [ Especially for the independent (testing) dataset purpose. ] [ 3.1.2. ]
Note #4: The process will run smoothly for valid FASTA sequences and row-wise class label.
Argument | Corresponding Optional Argument | Type | Default | Help |
---|---|---|---|---|
--fasta | -fa | string | Enter a UNIX-like path; Example: /home/user/FASTA.txt | |
--label | -la | string | Enter a UNIX-like path; Example: /home/user/Label.txt | |
--kGap | -kgap | integer | --kGap=5 | Maximum number of gapped; Example: -kGap=5 |
--kTuple | -ktuple | integer | --kTuple=3 | Maximum number of nucleotides; Example: -kTuple=3 |
--fullDataset | -full | integer | --fullDataset=0 | Set --fullDataset=1, if we don't want to save full dataset. |
--testDataset | -test | integer | --testDataset=0 | Set --testDataset=1, if we don't want to save test dataset. |
--optimumDataset | -optimum | integer | --optimumDataset=0 | Set --optimumDataset=1, if we don't want to save optimum dataset. |
--pseudoKNC | -pseudo | integer | --pseudoKNC=0 | Set --pseudoKNC=1, if we want to generate features. |
--monoMono | -f11 | integer | --monoMono=0 | Set --monoMono=1, if we want to generate features. |
--monoDi | -f12 | integer | --monoDi=0 | Set --monoDi=1, if we want to generate features. |
--monoTri | -f13 | integer | --monoTri=0 | Set --monoTri=1, if we want to generate features. |
--diMono | -f21 | integer | --diMono=0 | Set --diMono=1, if we want to generate features. |
--diDi | -f22 | integer | --diDi=0 | Set --diDi=1, if we want to generate features. |
--diTri | -f23 | integer | --diTri=0 | Set --diTri=1, if we want to generate features. |
--triMono | -f31 | integer | --triMono=0 | Set --triMono=1, if we want to generate features. |
--triDi | -f32 | integer | --triDi=0 | Set --triDi=1, if we want to generate features. |
Feature Name | Feature Structure / Formula | Number of Features |
---|---|---|
pseudoKNC | X, XX, XXX | when --kTuple=3, then 84 features are extracted for the DNA sequence |
monoMonoKGap | X_X | when --kGap=1, then 16 features are extracted for the DNA sequence |
monoDiKGap | X_XX | when --kGap=1, then 64 features are extracted for the DNA sequence |
monoTriKGap | X_XXX | when --kGap=1, then 256 features are extracted for the DNA sequence |
diMonoKGap | XX_X | when --kGap=1, then 64 features are extracted for the DNA sequence |
diDiKGap | XX_XX | when --kGap=1, then 256 features are extracted for the DNA sequence |
diTriKGap | XX_XXX | when --kGap=1, then 1,024 features are extracted for the DNA sequence |
triMonoKGap | XXX_X | when --kGap=1, then 256 features are extracted for the DNA sequence |
triDiKGap | XXX_XX | when --kGap=1, then 1,024 features are extracted for the DNA sequence |
Note: When sequence becomes DNA then X = { A, C, G, T }.
user@machine:~$ python runClassifiers.py --nFCV=10 --dataset=optimumDataset.csv --auROC=1 --boxPlot=1
Note #1: It will provide classification results (evaluationResults.txt) from the user provides binary class dataset (.csv format).
Note #2: Generate a ROC Curve (auROC.png).
Note #3: Generate an accuracy comparison via boxPlot (AccuracyBoxPlot.png).
Argument | Corresponding Optional Argument | Type | Default | Help |
---|---|---|---|---|
--nFCV | -cv | integer | --nFCV=10 | How many numbers of cross-validation? |
--dataset | -data | string | --dataset=optimumDataset.csv | Enter a UNIX-like path for a .csv file; Example: /home/User/dataset.csv |
--auROC | -roc | integer | --auROC=1 | Set --auROC=0, if we didn't want to generate the ROC Curve. |
--boxPlot | -box | integer | --boxPlot=1 | Set --boxPlot=0, if we didn't want to generate the accuracy box-plot. |
user@machine:~$ python trainModel.py --dataset=optimumDataset.csv --model=LR
Note #1: It will provide a dumpModel.pkl from the user provides binary class dataset (.csv format).
Argument | Corresponding Optional Argument | Type | Default | Help |
---|---|---|---|---|
--dataset | -data | string | --dataset=optimumDataset.csv | Enter a UNIX-like path for a .csv file; Example: /home/User/dataset.csv |
--model | -m | string | --model=LR | We can use LR, SVM, KNN, DT, SVM, NB, Bagging, RF, AB, GB, and LDA as an option; All options are case sensitive. |
--K | -k | integer | --K=5 | Only for the KNN classifier; Number of neighbor |
Note: LR, SVM, KNN, DT, NB, Bagging, RF, AB, GB, and LDA represents Logistics Regression, Support Vector Machine, k-Nearest Neighbor, Decision Tree, Naive Bayes, Bagging, Random Forest, AdaBoost, Gradient Boosting, Linear Discriminant Analysis classifier respectively.
user@machine:~$ python evaluateModel.py --optimumDatasetPath=optimumDataset.csv --testDatasetPath=testDataset.csv
Note #1: Here, optimumDataset.csv, and testDataset.csv using as a traing dataset and test dataset respectively.
Argument | Corresponding Optional Argument | Type | Default | Help |
---|---|---|---|---|
--optimumDatasetPath | -optimumPath | string | --optimumDatasetPath=optimumDataset.csv | Enter a UNIX-like path for a .csv file; Example: /home/User/dataset.csv |
--testDatasetPath | -testPath | string | --testDatasetPath=testDataset.csv | Enter a UNIX-like path for a .csv file; Example: /home/User/dataset.csv |
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