An enhanced multi-stage evolution strategy for large size magic square generation and extension to magic rectangles

This paper proposes a multi-stage evolutionary approach for generating large-scale magic squares. We introduce three main contributions: (1) a deterministic initialization reducing Stage-1 time to tens of milliseconds across all tested matrix sizes; (2) an improved search algorithm that reduces the computational complexity of each fitness evaluation to O(1) through differential updates and dynamic mutation strategies, achieving approximately 40% fewer generations and speedups exceeding 100-fold for large instances; and (3) an extension to arbitrary magic rectangles, broadening the applicability of the proposed framework to practical domains such as image encryption. Experiments on magic squares up to $$400 \times 400$$ and magic rectangles up to $$100 \times 300$$ demonstrate practical scalability and efficiency.

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Publication Details

Journal
Evolutionary Intelligence
Published
2026-04-01
DOI
https://doi.org/10.1007/s12065-026-01171-w
Primary Topic
Graph Labeling and Dimension Problems
Type
article
Field-Weighted Citation Impact
0.00

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article

An enhanced multi-stage evolution strategy for large size magic square generation and extension to magic rectangles

Shōhei Kato, Kazuki Takemi, Takuto Sakuma
Evolutionary Intelligence
Graph Labeling and Dimension Problems
article

An enhanced multi-stage evolution strategy for large size magic square generation and extension to magic rectangles

Shōhei Kato, Kazuki Takemi, Takuto Sakuma
article en

Abstract

This paper proposes a multi-stage evolutionary approach for generating large-scale magic squares. We introduce three main contributions: (1) a deterministic initialization reducing Stage-1 time to tens of milliseconds across all tested matrix sizes; (2) an improved search algorithm that reduces the computational complexity of each fitness evaluation to O(1) through differential updates and dynamic mutation strategies, achieving approximately 40% fewer generations and speedups exceeding 100-fold for large instances; and (3) an extension to arbitrary magic rectangles, broadening the applicability of the proposed framework to practical domains such as image encryption. Experiments on magic squares up to $$400 \times 400$$ and magic rectangles up to $$100 \times 300$$ demonstrate practical scalability and efficiency.

Evolutionary IntelligenceVol. 19(2)
Nagoya Institute of Technology (JP)
Nagoya Institute of Technology
Openalex Percentile: Top 12%
Graph Labeling and Dimension Problems
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An enhanced multi-stage evolution strategy for large size magic square generation and extension to magic rectangles — Shōhei Kato, Kazuki Takemi, et al. · Evolutionary Intelligence (2026) | TGRS Research Map | TGRS