arXiv:2605.04103cs.LGcs.AR2026-05被引 1

提出HERCULES框架,统一高效、鲁棒、持续学习的神经网络架构搜索。

HERCULES: Hardware-Efficient, Robust, Continual Learning Neural Architecture Search

论文配图:HERCULES: Hardware-Efficient, Robust, Continual Learning Neural Architecture Search
图 1 · 摘自论文原文
  • 从效率、鲁棒性、持续学习三方面构建NAS方法分类体系。
  • 揭示三者相互促进,突破传统单一目标优化局限。
  • 为可部署的终身学习AI系统提供算法与软硬件协同设计路线图。

神经架构搜索(NAS)已成为自动发现兼顾精度与效率的神经网络架构的强大框架。然而,随着人工智能从静态基准转向真实场景部署,仅关注硬件感知效率已不再足够。我们观察到,现代NAS方法,尤其是面向边缘AI的,正演变为同时追求效率、鲁棒性和持续学习的三重目标。效率确保在资源受限环境中的可行性,鲁棒性保障在环境变化下的可靠性,持续学习则实现对顺序任务的适应而避免灾难性遗忘。本文通过这一三重视角提出NAS方法的分类体系,区分针对资源优化、环境韧性及架构可塑性的方法。这一统一视角表明,这些维度虽常被孤立研究,但彼此增强。基于此分类,我们构建了新型框架——硬件高效、鲁棒且持续学习的神经架构搜索(HERCULES)。定义了理想特性与十二项关键挑战,解决多目标NAS中探索空间充足性与巨大计算成本之间的矛盾,综合考虑当前人工智能系统的核心需求。通过识别现有研究的关键空白,本综述勾勒出集成算法、架构与软硬件协同设计的路线图,迈向真正可部署的终身学习智能系统。

原文摘要 · Abstract (English)

Neural Architecture Search (NAS) has emerged as a powerful framework for automatically discovering neural architectures that balance accuracy and efficiency. However, as AI transitions from static benchmarks to real-world deployment, the traditional focus on hardware-aware efficiency is no longer sufficient. We observe that modern NAS methods, especially those that target edge AI, are evolving to address a triple objective: Efficiency, Robustness, and Continual Learning. While efficiency ensures feasibility in resource-constrained environments, robustness guarantees reliability under environmental variabilities, and continual learning enables adaptation to sequential tasks without catastrophic forgetting. We propose a taxonomy of NAS approaches through this triple lens, distinguishing between methods targeting resource optimization, environmental resilience, and architectural plasticity. This unified perspective reveals that these axes, though often studied in isolation, are mutually reinforcing. Building on this taxonomy, we map the current landscape of these NAS methods into a new framework called Hardware-Efficient, Robust, and ContinUal LEarning Search (HERCULES). We define the desiderata, the twelve labours of HERCULES, addressing the non-trivial challenge of balancing an adequate search-space exploration with the immense computational costs of a multi-objective NAS, accounting for these crucial objectives of current AI systems. By identifying critical gaps in existing research, this survey outlines a roadmap toward integrated algorithmic, architectural, and hardware-software co-design for truly deployable, lifelong-learning AI systems.

神经架构搜索持续学习边缘计算系统协同设计

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