AgenticRS-EnsNAS: Ensemble-Decoupled Self-Evolving Architecture Search
- URL: http://arxiv.org/abs/2603.20014v1
- Date: Fri, 20 Mar 2026 14:57:15 GMT
- Title: AgenticRS-EnsNAS: Ensemble-Decoupled Self-Evolving Architecture Search
- Abstract summary: This work introduces Ensemble-Decoupled Architecture Search.<n>It predicts system-level performance from single-learner evaluation.<n>It reduces per-candidate search cost from O(M) to O(1) while maintaining O(M) deployment cost only for validated winners.
- Score: 10.111487060179252
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Neural Architecture Search (NAS) deployment in industrial production systems faces a fundamental validation bottleneck: verifying a single candidate architecture pi requires evaluating the deployed ensemble of M models, incurring prohibitive O(M) computational cost per candidate. This cost barrier severely limits architecture iteration frequency in real-world applications where ensembles (M=50-200) are standard for robustness. This work introduces Ensemble-Decoupled Architecture Search, a framework that leverages ensemble theory to predict system-level performance from single-learner evaluation. We establish the Ensemble-Decoupled Theory with a sufficient condition for monotonic ensemble improvement under homogeneity assumptions: a candidate architecture pi yields lower ensemble error than the current baseline if rho(pi) < rho(pi_old) - (M / (M - 1)) * (Delta E(pi) / sigma^2(pi)), where Delta E, rho, and sigma^2 are estimable from lightweight dual-learner training. This decouples architecture search from full ensemble training, reducing per-candidate search cost from O(M) to O(1) while maintaining O(M) deployment cost only for validated winners. We unify solution strategies across pipeline continuity: (1) closed-form optimization for tractable continuous pi (exemplified by feature bagging in CTR prediction), (2) constrained differentiable optimization for intractable continuous pi, and (3) LLM-driven search with iterative monotonic acceptance for discrete pi. The framework reveals two orthogonal improvement mechanisms -- base diversity gain and accuracy gain -- providing actionable design principles for industrial-scale NAS. All theoretical derivations are rigorous with detailed proofs deferred to the appendix. Comprehensive empirical validation will be included in the journal extension of this work.
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