doc: improving the docs
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What is QiboTN?
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===============
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QiboTN is the dedicated `Qibo <https://github.com/qiboteam/qibo>`_ backend to support large-scale simulation of quantum circuits and acceleration.
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Qibotn is an high-level library which integrates tensor network simulation within
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the `Qibo <https://github.com/qiboteam/qibo>`_ ecosystem.
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Supported Computation:
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If you are familiar with Qibo, you will be well aware of the modularity we provide
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through the use of our backends: after building a specific algorithm or quantum
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circuit, any of our backends can be selected to perform operations on the
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desired hardware (classical or quantum).
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- Tensornet (TN)
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- Matrix Product States (MPS)
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Here, we extend this modularity to one of the most famous quantum inspired simulation
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technique.
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Tensor Network contractions to:
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We do this by relying on well-known and maintained packages, and integrating their
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operation into our own dedicated backends.
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- dense vectors
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- expecation values of given Pauli string
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.. image:: QiboTN.png
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As shown in the figure above, we currently support three different backends, which
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correspond to the three mentioned packages:
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- `cuQuantum <https://github.com/NVIDIA/cuQuantum>`_: an NVIDIA SDK of optimized libraries and tools for accelerating quantum computing workflows (we refer to the specific `Cutensornet <https://docs.nvidia.com/cuda/cuquantum/latest/cutensornet/index.html>`_ library);
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- `quimb <https://quimb.readthedocs.io/en/latest/>`_: an easy but fast python library for ‘quantum information many-body’ calculations, focusing primarily on tensor networks;
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- `Quantum Matcha Tea <https://www.quantumtea.it/>`_: a logical quantum computer emulator powered by matrix product states.
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.. warning::
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There are currently two ways to use the three backends (`qmatchatea` is
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slightly different from the others), but we are working to standardize the interface.
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Thanks to the mentioned packages, we currently support some tensor network ansatze:
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Matrix Product States (MPS) on any mentioned backend, Tree Tensor Networks (TTN)
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through the Quantum Matcha Tea backend and a more general Tensor Network (TN) ansatz through
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Cutensornet and Quimb.
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Supported simulation features
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^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
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We support Tensor Network contractions to:
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- dense vectors (all the backends)
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- expecation values of given Pauli string (Cutensornet and Qmatchatea)
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The supported HPC configurations are:
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- single-node CPU
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- single-node GPU or GPUs
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- multi-node multi-GPU with Message Passing Interface (MPI)
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- multi-node multi-GPU with NVIDIA Collective Communications Library (NCCL)
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- single-node CPU through Quimb and Qmatchatea
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- single-node GPU or GPUs through Cutensornet and Qmatchatea
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- multi-node multi-GPU with Message Passing Interface (MPI) through Cutensornet
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- multi-node multi-GPU with NVIDIA Collective Communications Library (NCCL) through Cutensornet
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Currently, the supported tensor network libraries are:
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- `cuQuantum <https://github.com/NVIDIA/cuQuantum>`_, an NVIDIA SDK of optimized libraries and tools for accelerating quantum computing workflows.
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- `quimb <https://quimb.readthedocs.io/en/latest/>`_, an easy but fast python library for ‘quantum information many-body’ calculations, focusing primarily on tensor networks.
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How to Use the Documentation
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============================
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