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Zoom, Don't Wander: Why Regional Search Outperforms Paret...
Kishan Kumar Ganguly, Tim Menzies · 2026-05-11 · via cs.SE updates on arXiv.org

Traditional Search-Based Software Engineering (SBSE) assumes global search and full Pareto exploration are essential. We offer the following negative result based on a study of over 100 Software Engineering (SE) optimization tasks: "zooming" into promising regions is far more effective than Pareto and global exploration under constrained evaluation budgets. Our minimal greedy zoom method, EZR, runs three orders of magnitude faster than Pareto and global Bayesian methods, achieving higher statistical ranks and winning or tying in 84-89\% of datasets on equal budget. Even at one-fifth the evaluation budget, EZR wins or ties in 79-81\% of datasets. Surprisingly, despite never explicitly seeking a frontier, EZR matches or outperforms Pareto methods on their own coverage metrics (IGD, HV) at equal budgets. The explanation for this widespread failure is structural: across the datasets studied, Pareto-optimal solutions form a tiny, tight island concentrated in a compact region of decision space. Methods that wander waste their budgets outside this island. Beyond efficiency, zooming yields small, interpretable models, thus addressing concerns about black-box AI. By replacing global wandering with greedy zooming, we make SBSE much faster, more explicable, and hence accessible to a wider audience. SBSE practitioners and researchers should zoom, not wander.