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A Quantum Computing library that reconstructs quantum states using 3 stacked GRU Cells.

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Introduction

This repository uses a Recurrent Neural Network (with 3-stacked GRU cells) for reconstructs quantum states/

This implementation is based on the findings of the following paper .

Installation Requirements

Before running the code, please ensure you have the following:

Getting Started

For a quick start, please ensure the following.

  • Clone the repository:

    In an appropriate directory run the following command on your Terminal:

    git clone https://github.com/akshat998/3-GRU-Phases-of-Matter.git

  • Make sure you cd into the right directory.

    cd 3-GRU-Phases-of-Matter/

  • Create your data

    By following the above instructions, the data will be saved in a folder of directory:

    /data_creator/DATA

    Please ensure you remember the name of your data directory.

  • Train your model:

    The Recurrent Neural Network has been created using PyTorch. To start training, please run the following command on your Terminal:

    python3 RNN_Torch.py

    You will be asked to enter some parameters prior to training.

    After each batch, an error is printed & the model is saved in the directory (with format EnteredName_batchNumber):

    ./saved_models

  • Evaluate your model:

    After training your model, you can test the quality of your model (i.e. calculate Classical & Quantum Fidelity). To do so, please run:

    python3 sampling.py

    Upon running, the user will be asked to provide:

    • Name of the saved model
    • Number of samples to be generated from the saved model
    • Name of the original data file that was used to train the saved mode

    Please note: For smaller systems, Quantum Fidelity is calculated using the overlap matrix. And for larger systems, Quantum Fidelity is calculated using a Monte-Carlo Approximation

Questions, problems?

Make a github issue 😄. Please be as clear and descriptive as possible. Please feel free to reach out in person: (akshat[DOT]nigam[AT]mail[DOT]utoronto[DOT]ca)

Acknowledgment

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