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1
Intro
2
Tensor networks and quantum circuits
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Tensor network contraction encodes many problems
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Exact tensor network contraction
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Approximate tensor network contraction
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Approximate contraction often works well
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Multivariable function integration
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From quadrature to tensor networks
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Arithmetic circuit representations
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Arithmetic tensor network circuits
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Examples
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Polynomial integration
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Exact contraction
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Approximate contraction and integration
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Simple case
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Discovering identities
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General case
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Away from exact compressibility
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dependence on number of variables N
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Dependence on integrand
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Integrand dependence cont'd
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Gaussian integration in a hypercube
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Summary
Description:
Explore a 32-minute lecture on arithmetic tensor networks and integration presented by Garnet Chan from the California Institute of Technology at IPAM's Quantum Numerical Linear Algebra Workshop. Delve into the intricacies of performing arithmetic with tensor networks and its implications for function integration. Examine topics such as tensor network contraction, approximate contraction techniques, and their applications in multivariable function integration. Discover how arithmetic circuit representations and tensor network circuits can be utilized for polynomial integration, and investigate the relationship between exact and approximate contractions. Gain insights into the dependence of integration on various factors, including the number of variables and the nature of the integrand. Conclude with a discussion on Gaussian integration in a hypercube, providing a comprehensive overview of this advanced mathematical concept.

Arithmetic Tensor Networks and Integration - IPAM at UCLA

Institute for Pure & Applied Mathematics (IPAM)
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