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第 50 卷 第 6 期                     武 汉 大 学 学 报( 信 息 科 学 版 )                         Vol.50  No.6
                2025 年 6 月                Geomatics and Information Science of Wuhan University      Jun. 2025


                       引文格式:王坚,于亦龙,柳根,等 . 超高层建筑变形 GNSS 多源融合监测方法及进展[J]. 武汉大学学报(信息科学版),2025,50
                       (6):1065-1076.DOI:10.13203/j.whugis20240317
                       Citation:WANG Jian,YU Yilong,LIU Gen,et al.Method and Progress for GNSS Multi-source Fusion Deformation Monitoring
                       in  Super-Tall  Buildings[J]. Geomatics  and  Information  Science  of  Wuhan  University, 2025, 50(6): 1065-1076. DOI: 10.13203/j.
                       whugis20240317

                    超高层建筑变形 GNSS多源融合监测方法及进展



                           王    坚   于亦龙   柳              根   柳       絮   姜玉龙   韩厚增               1
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                                          1  北京建筑大学测绘与城市空间信息学院,北京,102616
                                                2  中建宏达建筑有限公司,北京,100125
                摘  要:超高层建筑变形监测是确保建筑长期安全运行的重要保障。针对全球导航卫星系统(global navigation satellite
                system,GNSS)多源融合超高层建筑变形监测面临的难题,首先构建了一套感-传-融-用一体化的 GNSS 多源融合变形
                监测解决方案,重点分析了超高层变形监测关键参数,梳理了 GNSS 变形监测单差、双差、三差模型的发展历程,总结了
                惯性测量单元振动监测、平移-沉降监测及扭转变形监测模型。然后在此基础上,阐述了经典数理统计算法、卡尔曼滤波
                及其衍生算法、智能学习算法的多源数据融合监测技术框架,并采用大型多功能振动台阵模拟超高层建筑的监测数据及
                超高层变形监测案例进行相关技术验证。结果表明,所提监测体系具有较好的可行性和实用性。最后对未来 GNSS 多
                源融合监测技术进行了展望。
                关键词:超高层建筑;GNSS;IMU 变形监测;多源融合监测
                中图分类号:P237,TP208          文献标识码:A                      收稿日期:2024‑12‑17
                DOI:10.13203/j.whugis20240317                          文章编号:1671‑8860(2025)06‑1065‑12
                      Method and Progress for GNSS Multi-source Fusion Deformation

                                         Monitoring in Super-Tall Buildings


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                     WANG  Jian    YU  Yilong    LIU  Gen    LIU  Xu    JIANG  Yulong    HAN  Houzeng  1
                 1  School of Geomatics and Urban Spatial Informatics, Beijing University of Civil Engineering and Architecture, Beijing 102616, China
                                   2  China State Construction Hongda Engineering Co. Ltd, Beijing 100125, China
                Abstract: Objectives: Deformation monitoring of super-tall buildings is critical for ensuring the long-term
                safety  and  stability.  Multi-source  fusion  deformation  monitoring  technology  based  on  global  navigation
                satellite system (GNSS) plays a vital role, but the application of GNSS multi-source sensors for such moni‑
                toring lacks a systematic approach. Current challenges include the narrow range of deformation parameters,
                incomplete  GNSS/multi-source  fusion  models,  weak  data  coupling  capabilities,  and  low  intelligence  in
                monitoring  and  early  warning  systems.  Methods:  To  address  these  issues,  this  paper  proposes  a  GNSS
                multi-source fusion deformation monitoring method based on a perception-transmission-fusion-application
                framework. Key deformation parameters for super-tall buildings, including translation, settlement, vibra‑
                tion,  torsion,  deflection,  and  tilt,  are  identified.  The  development  of  GNSS  deformation  monitoring
                models  is  also  reviewed.  Furthermore,  it  improves  inertial  measurement  unit  (IMU)  -based  vibration,
                translation-settlement, and torsional deformation, and enables comprehensive monitoring of multiple defor‑
                mation  parameters.  Results:  The  proposed  method  is  validated  using  data  from  a  large-scale  shaking
                table  simulation  and  a  case  study  of  super-tall  buildings.  The  results  confirm  the  effectiveness  of
                IMU-based  accelerometer  integration  model,  Mahony  complementary  filter-based  torsion  monitoring
                model, and the applications of IMU for vibration monitoring in super-tall buildings. Conclusions: This pa‑


                基金项目:国家自然科学基金(42274029);北京市教育委员会科学研究计划(KM202410016007)。
                第一作者:王坚,教授,主要从事 GNSS 位置服务及建筑变形监测研究。wangjian@bucea.edu.cn
                通信作者:柳根,副教授。liugen@bucea.edu.cn
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