MedTRACE: Tool-Augmented Multimodal Clinical Reasoning Agents for Evidence-Grounded Decision-Making
本文提出MedTRACE,通过多模态编码、工具辅助决策和证据验证来提高临床决策的准确性、可解释性和可靠性。
本文提出MedTRACE,通过多模态编码、工具辅助决策和证据验证来提高临床决策的准确性、可解释性和可靠性。
论文提出碳意识AI采购框架,通过基准测试六个大型语言模型在520个供应链任务中的表现和碳排放,以实现更环保且高效的AI部署。
研究通过EcoTrust框架解决在环境AI中选择延期策略的问题,考虑了成本、校准偏差和数据偏移等因素,使用错误风险估计器等方法优化决策。
本文提出NanoSleep,一种紧凑的混合时域卷积网络,通过结合多种技术有效解决单通道睡眠阶段分类问题,并在保持高准确性的同时减小模型大小,适合资源受限设备。
This work addresses the challenge of interpreting anomaly detection results in digital twin systems, where the complexity and volume of sensor data often hinder operator comprehension. To this end, it proposes the first explainable anomaly analysis framework that integrates embodied agent architecture with digital twins, enabling natural language querying and generating interpretable diagnostics through structured agent collaboration, knowledge-anchored reasoning, and context-aware retrieval. The study innovatively introduces synthetic anomaly injection and query generation mechanisms to establish a rigorous benchmark for evaluation and demonstrates the feasibility of deploying lightweight, open-source large language models in real-world cyber-physical systems. Experimental results on a meteorological sensor dataset show that the proposed approach significantly outperforms baseline methods in diagnostic quality, retrieval accuracy, and the effectiveness of mitigation recommendations.
本文提出MedTRACE,通过多模态编码、工具辅助决策和证据验证来提高临床决策的准确性、可解释性和可靠性。
论文提出碳意识AI采购框架,通过基准测试六个大型语言模型在520个供应链任务中的表现和碳排放,以实现更环保且高效的AI部署。
研究通过EcoTrust框架解决在环境AI中选择延期策略的问题,考虑了成本、校准偏差和数据偏移等因素,使用错误风险估计器等方法优化决策。
本文提出NanoSleep,一种紧凑的混合时域卷积网络,通过结合多种技术有效解决单通道睡眠阶段分类问题,并在保持高准确性的同时减小模型大小,适合资源受限设备。
This work addresses the challenge of interpreting anomaly detection results in digital twin systems, where the complexity and volume of sensor data often hinder operator comprehension. To this end, it proposes the first explainable anomaly analysis framework that integrates embodied agent architecture with digital twins, enabling natural language querying and generating interpretable diagnostics through structured agent collaboration, knowledge-anchored reasoning, and context-aware retrieval. The study innovatively introduces synthetic anomaly injection and query generation mechanisms to establish a rigorous benchmark for evaluation and demonstrates the feasibility of deploying lightweight, open-source large language models in real-world cyber-physical systems. Experimental results on a meteorological sensor dataset show that the proposed approach significantly outperforms baseline methods in diagnostic quality, retrieval accuracy, and the effectiveness of mitigation recommendations.