Jul 2026· Journal of Artificial Intelligence for Automation· Vol 1· 0 citations· 125 references
TL;DR
This survey focuses on how cloud-side large models and edge-side small models share, update, and coordinate knowledge and identifies open challenges for trustworthy, sustainable, and self-evolving cloud–edge collaborative intelligence.
Abstract
Foundation models have improved the reasoning and generation ability of artificial intelligence systems. However, they are difficult to deploy in edge environments with limited computation, memory, and data access. Small models are easier to run on edge devices. They support fast and low-latency inference, but they often lack global semantic reasoning and cross-domain generalization. This gap between model ability and deployment cost motivates large–small model collaboration in cloud–edge systems. This survey provides a systematic review and a knowledge-floworiented taxonomy of such collaboration. It focuses on how cloud-side large models and edge-side small models share, update, and coordinate knowledge. We review knowledge distillation, split inference, federated and continual adaptation, and elastic offloading. We also cover lightweight deployment, modular expert design, privacyaware coordination, and agent-driven orchestration. Unlike surveys on edge intelligence, federated learning, model compression, TinyML, or cloud–edge resource scheduling, this survey centers on model collaboration. We treat large–small collaboration as a knowledge-centered problem linked to real deployment constraints. We further discuss trade-offs in accuracy, latency, bandwidth, privacy, energy efficiency, adaptability, and lifecycle management. Finally, we identify open challenges for trustworthy, sustainable, and self-evolving cloud–edge collaborative intelligence.
The proposed approach separates the research-infrastructure layer, which exposes and manages distributed resources, from the application layer, where Cyber-Physical workflows are organized according to an Edge-Fog-Cloud pattern in which placement, timing, and data provenance are treated as first-class experimental conc...
Fabio Orazio Mirto, Giuseppe Tricomi, L. D’Agati et al.· arXiv.org· 0 citations
This work builds on Wang et al.'s taxonomy of Continuum Orchestration Systems employing DRL techniques and extends it with two further dimensions, measuring how LLMs are exploited and bridging the incommensurable per-tier signals and the LLM Orchestrator.
Antonino Vaccarella, Lan-Pei Li, Vincenzo Lomonaco et al.· 0 citations
Results show that DEFRAG narrows the SLM-LLM accuracy gap, while reducing cost by up to 98.4% and increasing peak throughput by up to 97.8% over centralized services, demonstrating the potential of DEFRAG for democratized LLM services at the edge.
Jiaxing Li, Heng-Zhi Wang, Feng Wang et al.· IEEE Transactions on Mobile...· 0 citations
FinDS-Agent is presented, a cloud–edge framework that keeps raw records and program execution at the trusted edge while providing a policy-screened, sanitized context to support cloud planning and support selective cloud planning while delimiting statistical, privacy, and transfer claims.
Xiao-Zheng Du, Rui-Jun Deng, Cheng Wang et al.· Future Internet· 0 citations
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This paper proposes a spatiotemporal hypergraph-driven framework integrating high-order topological feature extraction with dynamic resource modeling, and introduces dynamic hypergraph sequences to naturally encompass local conflict domains, mitigating the topological blind spots and “over-smoothing” issues inherent in...
Kun Ding, Xi-Wen Qiu, Nian-Feng Weng et al.· Journal of Cloud Computing· 0 citations
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