Tight Sum-of-squares Lower Bounds for Binary Polynomial Optimization Problems
Version
Published
Identifiers
10.1145/3626106
Date Issued
2024
Author(s)
Type
Article
Language
English
Abstract
For binary polynomial optimization problems of degree 2d with n variables Sakaue, Takeda, Kim, and Ito [33] proved that the
th semidefinite (SDP) relaxation in the SoS/Lasserre hierarchy of SDP relaxations provides the exact optimal value. When n is an odd number, we show that their analysis is tight, i.e., we prove that
levels of the SoS/Lasserre hierarchy are also necessary.
Laurent [24] showed that the Sherali-Adams hierarchy requires n levels to detect the empty integer hull of a linear representation of a set with no integral points. She conjectured that the SoS/Lasserre rank for the same problem is n-1. In this article, we disprove this conjecture and derive lower and upper bounds for the rank.
th semidefinite (SDP) relaxation in the SoS/Lasserre hierarchy of SDP relaxations provides the exact optimal value. When n is an odd number, we show that their analysis is tight, i.e., we prove that
levels of the SoS/Lasserre hierarchy are also necessary.
Laurent [24] showed that the Sherali-Adams hierarchy requires n levels to detect the empty integer hull of a linear representation of a set with no integral points. She conjectured that the SoS/Lasserre rank for the same problem is n-1. In this article, we disprove this conjecture and derive lower and upper bounds for the rank.
Publisher DOI
Journal
ACM Transactions on Computation Theory
ISSN
1942-3454
Publisher URL
Organization
Volume
16
Issue
1
Publisher
Association for Computing Machinery (ACM)
Submitter
Kurpisz, Adam Andrzej
Citation apa
Kurpisz, A. A., Leppänen, S., & Mastrolilli, M. (2024). Tight Sum-of-squares Lower Bounds for Binary Polynomial Optimization Problems. In ACM Transactions on Computation Theory (Vol. 16, Issue 1). Association for Computing Machinery (ACM). https://doi.org/10.24451/dspace/11500
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