quantum Variational Distance-Based Centroid Classifier (qVDCC)
Perform the training procedure of qVDCC, searching for the best hyperparameters setting using Optuna in each dataset.
python3 train_pennylane.py
the output directories(of each dataset) contains the saved parameters, the cofusion matrix and csv(named results.csv
) with accuracy results of each hyperparameters setting.
To perform the training procedure of KNN and Random Forest, searching for the best setting of hyperparameters using Optuna in each dataset.
python3 train_classic_classifiers.py
the output is a csv(named classic_results.csv
) with accuracy results of each hyperparameters setting.
After perform a data analysis to choose the best hyperparameters setting and perform a cross validation on the best models of each classification algorithm. results_analysis.ipynb
can help with this analysis and generate the file:
complete_results.csv
: table with all hyperparameters setting with their respective accuracies. This file will be used in cross validation to choose the best model in cross validation procedure. To perform the cross validation of the best models runpython3 cross_validation.py
.cross_validation.csv
: table with the results fo the cross validation of each algorithms models. This file if the output ofcross_validation.py
.
Run the best trained model using Wine dataset on a provider in IBMQ Experience to validate the qVDCC algorithm on real devices. This command run the inference and fine tuning the model in a real quantum device.
python3 run_qiskit.py [provider_name]
To run this script, the configuration file config.toml
of Pennylane framework has to be present on the ~/.config/pennylane
with your IBMQ and Qiskit settings. Useful links Install Pennylane and Qiskit Pulugin for Pennylane, Pennylane Plugins, Docs for Qiskit Plugin for Pennylane, Pennylane ibmq Device, Pennylane Configuration File.
python3 -m pip install -r requirements.txt