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SeeMPS introduces a Python library implementing Matrix Product States (MPS) and Quantized Tensor Train formalisms, offering tools essential for compressing exponentially large vector spaces in quantum many-body physics. The software supports both low-level linear algebra operations and high-level algorithms like eigenvalue computations and efficient Fourier transforms applicable to PDE solving and multidimensional function analysis. This development directly advances the practical toolkit available for researchers working with tensor network methods in computational quantum science.
SeeMPS: A Python-based Matrix Product State and Tensor Train Library
arXiv:2601.16734v2 Announce Type: replace Abstract: We introduce SeeMPS, a Python library dedicated to implementing tensor network algorithms based on the well-known Matrix Product States (MPS) and Quantized Tensor Train (QTT) formalisms. SeeMPS is implemented as a complete finite precision linear algebra package where exponentially large vector spaces are compressed using the MPS/TT formalism. It enables both low-level operations, such as vector addition, linear transformations, and Hadamard products, as well as high-level algorithms, including the approximation of linear equations, eigenvalue computations, and exponentially efficient Fourier transforms. This library can be used for traditional quantum many-body physics applications and also for quantum-inspired numerical analysis problems, such as solving PDEs, interpolating and integrating multidimensional functions, sampling multivariate probability distributions, etc.
Abstract:We introduce SeeMPS, a Python library dedicated to implementing tensor network algorithms based on the well-known Matrix Product States (MPS) and Quantized Tensor Train (QTT) formalisms. SeeMPS is implemented as a complete finite precision linear algebra package where exponentially large vector spaces are compressed using the MPS/TT formalism. It enables both low-level operations, such as vector addition, linear transformations, and Hadamard products, as well as high-level algorithms, including the approximation of linear equations, eigenvalue computations, and exponentially efficient Fourier transforms. This library can be used for traditional quantum many-body physics applications and also for quantum-inspired numerical analysis problems, such as solving PDEs, interpolating and integrating multidimensional functions, sampling multivariate probability distributions, etc.
26 pages, 9 figures, 2 tables. Submitted to Computer Physics Communications
Quantum Physics (quant-ph); Numerical Analysis (math.NA)
arXiv:2601.16734 [quant-ph]
(or arXiv:2601.16734v2 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2601.16734 Focus to learn more arXiv-issued DOI via DataCite
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