π€ AI Summary
Enterprise-scale multi-agent systems often face challenges including domain adaptation difficulties, high inference latency, and substantial deployment costs. This work proposes a unified framework that enables efficient customization and deployment through a two-stage optimization strategy. First, domain adaptation is achieved by integrating continual pre-training, supervised fine-tuning, and preference optimization. Subsequently, low-overhead, high-efficiency inference is realized via speculative decoding, FP8 quantization, and targeted calibration. Notably, this approach co-designs domain-specific customization of compact models with inference optimization for multi-agent workflowsβa first in the field. The method maintains task performance while significantly improving throughput by up to 4.48Γ and enhancing robustness in long-tail scenarios.
π Abstract
Large language model (LLM)-based multi-agent systems demonstrate strong performance on complex reasoning and task execution, enabling broad enterprise applications. However, production deployment remains challenging due to domain-specific customization requirements and high latency and inference costs in agentic workflows. We propose a unified framework for customization and efficient deployment of multi-agent systems in real-world settings. The first stage, Agentic Model Customization, combines continual pretraining, supervised fine-tuning, and preference optimization to adapt a compact model to specialized domains while retaining strong agentic capabilities. The second stage, Inference Optimization, integrates speculative decoding and FP8 quantization with targeted calibration to enable cost-efficient serving with minimal quality loss. Across enterprise workloads, our framework enables rapid domain adaptation and achieves a 4.48x speedup in throughput while maintaining performance and improving robustness on long-tail scenarios.