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Autori principali: Shong, Jimmy, Ding, Yuhan, Jiang, Yihan, Jing, Liheng, Chen, Haonan, Zhang, Gaokai, Akella, Aditya, Lai, Fan
Natura: Preprint
Pubblicazione: 2026
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Accesso online:https://arxiv.org/abs/2603.11603
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author Shong, Jimmy
Ding, Yuhan
Jiang, Yihan
Jing, Liheng
Chen, Haonan
Zhang, Gaokai
Akella, Aditya
Lai, Fan
author_facet Shong, Jimmy
Ding, Yuhan
Jiang, Yihan
Jing, Liheng
Chen, Haonan
Zhang, Gaokai
Akella, Aditya
Lai, Fan
contents Machine learning (ML) systems expose a rapidly expanding configuration space spanning model-parallelism strategies, communication optimizations, and low-level runtime parameters. End-to-end system efficiency is highly sensitive to these choices, yet identifying high-performance configurations is challenging due to heterogeneous feature types (e.g., sparse and dense parameters), conditional dependencies (e.g., valid execution parameters only under specific upstream decisions), and the high search (profiling) cost. Existing approaches either optimize a narrow subset of configuration dimensions or rely on ad-hoc heuristics that fail to generalize as configuration spaces continue to grow. We present AutoScout, a general-purpose systems configurator for ML training, fine-tuning, and inference. It formulates the system configuration as a mixed-discrete/continuous optimization problem with hierarchical dependencies and introduces a hybrid optimization framework that jointly refines sparse structural decisions and dense execution parameters. To reduce profiling cost, AutoScout adaptively prioritizes high-impact configuration features and ensembles simulators with varying fidelity. Across diverse models, hardware platforms, and deployment objectives, AutoScout consistently identifies high-performance configurations, achieving 2.7-3.0$\times$ training speedup over expert-tuned settings.
format Preprint
id arxiv_https___arxiv_org_abs_2603_11603
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle AutoScout: Structured Optimization for Automating ML System Configuration
Shong, Jimmy
Ding, Yuhan
Jiang, Yihan
Jing, Liheng
Chen, Haonan
Zhang, Gaokai
Akella, Aditya
Lai, Fan
Machine Learning
Machine learning (ML) systems expose a rapidly expanding configuration space spanning model-parallelism strategies, communication optimizations, and low-level runtime parameters. End-to-end system efficiency is highly sensitive to these choices, yet identifying high-performance configurations is challenging due to heterogeneous feature types (e.g., sparse and dense parameters), conditional dependencies (e.g., valid execution parameters only under specific upstream decisions), and the high search (profiling) cost. Existing approaches either optimize a narrow subset of configuration dimensions or rely on ad-hoc heuristics that fail to generalize as configuration spaces continue to grow. We present AutoScout, a general-purpose systems configurator for ML training, fine-tuning, and inference. It formulates the system configuration as a mixed-discrete/continuous optimization problem with hierarchical dependencies and introduces a hybrid optimization framework that jointly refines sparse structural decisions and dense execution parameters. To reduce profiling cost, AutoScout adaptively prioritizes high-impact configuration features and ensembles simulators with varying fidelity. Across diverse models, hardware platforms, and deployment objectives, AutoScout consistently identifies high-performance configurations, achieving 2.7-3.0$\times$ training speedup over expert-tuned settings.
title AutoScout: Structured Optimization for Automating ML System Configuration
topic Machine Learning
url https://arxiv.org/abs/2603.11603