陈学文,王以波,柯昌燕,何恩,邢楷.液冷系统多模态健康监测与动态评估方法[J].装备环境工程,2025,22(5):147-153. CHEN Xuewen,WANG Yibo,KE Changyan,HE En,XING Kai.Multi-modal Health Monitoring and Dynamic Evaluation Method for Liquid Cooling Systems[J].Equipment Environmental Engineering,2025,22(5):147-153.
液冷系统多模态健康监测与动态评估方法
Multi-modal Health Monitoring and Dynamic Evaluation Method for Liquid Cooling Systems
投稿时间:2025-03-04  修订日期:2025-03-26
DOI:10.7643/issn.1672-9242.2025.05.019
中文关键词:  液冷系统  健康管理  多模态传感  凝露检测  熵权法  动态评估中图分类号:TP277 文献标志码:A 文章编号:1672-9242(2025)05-0147-07
英文关键词:liquid cooling system  health management  multi-modal sensing  condensation detection  entropy weight method  dynamic evaluation
基金项目:
作者单位
陈学文 中国电子科技集团公司第二十九研究所,成都 610036 
王以波 中国电子科技集团公司第二十九研究所,成都 610036 
柯昌燕 中国电子科技集团公司第二十九研究所,成都 610036 
何恩 中国电子科技集团公司第二十九研究所,成都 610036 
邢楷 中国电子科技集团公司第二十九研究所,成都 610036 
AuthorInstitution
CHEN Xuewen 29th Research Institute of CETC, Chengdu 610036, China 
WANG Yibo 29th Research Institute of CETC, Chengdu 610036, China 
KE Changyan 29th Research Institute of CETC, Chengdu 610036, China 
HE En 29th Research Institute of CETC, Chengdu 610036, China 
XING Kai 29th Research Institute of CETC, Chengdu 610036, China 
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中文摘要:
      目的 针对液冷电子设备长期运行中因凝露隐蔽性强、检测灵敏度低、安全风险高等问题,现有方法存在动态监测能力不足、多参数协同分析缺失等局限,提出一种液冷系统多模态健康监测与动态评估方法。方法 通过集成离子溅射镀膜液体传感器、压力传感器、压差传感器及PT1000铂电阻温度探头,构建分布式多物理场监测网络,实时追踪凝露蓄积量、流道压力变化、流道堵塞率及热交换效能。创新性建立模糊综合评价模型(HIS-LC),采用熵权法动态分配特征权重ω1~ω4,实现系统0~100标度的健康状态量化评分。结果 凝露检测限达0.05 mL(置信度95%),1 mL凝露检测灵敏度达98%,压力突变响应时间为2 s,流道压差大于1.5 MPa时,报警率为100%。经48 h连续运行验证,散热系统健康评分稳定维持≥98(标准差σ=0.8),散热效率衰减率<0.8%/24 h。结论 本研究为高可靠性液冷系统从“故障后维修”向“预测性维护”转型提供了技术支撑。
英文摘要:
      The work aims to propose a multi-modal health monitoring and dynamic evaluation method for liquid cooling systems to address the challenges of concealed condensation, low detection sensitivity, and high safety risks in liquid-cooled electronic equipment during long-term operation, where existing methods suffer from insufficient dynamic monitoring and lack of multi-parameter collaborative analysis. A distributed multi-physics monitoring network was constructed by integrating ion-sputtered liquid sensors, pressure sensors, differential pressure sensors, and PT1000 platinum resistance temperature probes, enabling real-time tracking of condensation accumulation, flow channel pressure changes, flow channel blockage rate, and heat exchange efficiency. A fuzzy comprehensive evaluation model (HIS-LC) was innovatively established, utilizing the entropy weight method to dynamically allocate feature weights (ω1–ω4) and quantify system health status on a 0-100 scale. Experimental results demonstrated that the threshold of condensation detection was 0.05 mL (95% confidence), the detection sensitivity of 1 mL condensation was 98%, the pressure transient response time was 2 s, and the alarm rate was 100% when the flow channel pressure difference was greater than 1.5 MPa. Continuous 48-hour operation tests confirmed the cooling system stable health scores≥98 (standard deviation σ=0.8) and a heat dissipation efficiency decay rate <0.8%/24 h. This research provides technical support for transitioning high-reliability liquid cooling systems from “post-failure maintenance” to “predictive maintenance”.
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