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Exponential Conic Relaxations for Signomial Geometric Programming

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arxiv 2406.05638 v1 pith:LJEYBCIT submitted 2024-06-09 math.OC

classification math.OC
keywords relaxationsprogrammingrelaxationadvancesapproachboundedconicconvex
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Signomial geometric programming (SGP) is a computationally challenging, NP-Hard class of nonconvex nonlinear optimization problems. SGP can be solved iteratively using a sequence of convex relaxations; consequently, the strength of such relaxations is an important factor to this iterative approach. Motivated by recent advances in solving exponential conic programming (ECP) problems, this paper develops a novel convex relaxation for SGP. Unlike existing work on relaxations, the base model in this paper does not assume bounded variables. However, bounded variables or monomial terms can be used to strengthen the relaxation by means of additional valid linear inequalities. We show how to embed the ECP relaxation in an iterative algorithm for SGP; leveraging recent advances in interior point method solvers, our computational experiments demonstrate the practical effectiveness of this approach.

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    A signed-sum (polarization) identity converts SAGIN offloading products into SOCP-friendly DC form, yielding an 8.9x speedup over sequential geometric programming on 200 random instances.

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