学术论文
近5年第1/通讯作者,统计截止2026.1
[1]Xu, K.K., Gan, W.J., Wu, J.C. & Hou, Z., 2022. A robust method for 3-D surface displacement fields combining GNSS and single-orbit InSAR measurements with directional constraint from elasticity model, GPS Solutions, 26.
[2]Xu, K.K., Hu, S.B., 2024. Reconstruction of Geodetic Time Series with Missing Data and Time-varying Seasonal Signals Using Gaussian Process for Machine Leaning, GPS Solutions, 27.
[3]Xu, K.K., Liu, J. & Liu, X.F.2020. Multiscale crustal deformation around the southeastern margin of the Tibetan Plateau from GNSS observations, Geophysical Journal International, 223, 1188-1209.
[4]Xu, K.K., et al. 2026. Multi-scale spatiotemporal inversion filter of GNSS observations network: Application to pre-seismic deformation anomalies detection of the 2021 Yangbi earthquake of Ms 6.4, Geophysical Journal International, 226.
[5]Xu, K.K., Sun, W.W. & Wu, J.C. .2020. A New Method for Constructing 3-D Crustal Deformation Field From SingleInSAR-LOS Data, IEEE Geoscience and Remote Sensing Letters, 19, 1-5.
[6]Xu, K.K., Gan, W.J. & Wu, J.C., 2020. Pre-seismic deformation detected from regional GNSS observation network: A case study of the 2013 Lushan, eastern Tibetan Plateau (China), Ms 7.0 earthquake, Journal of Asian Earth Sciences, 180, 103859.
[7]Xu, K.K and Wang, S.P., 2023. Source Parameter Inversion and Century-scale Stress Trigger-ing Analysis of the 2021 Maduo Mw7.4 Earthquake using GNSS and InSAR Displacement Fields. Remote sensing.
[8]Xu, K.K., He, R., Li, K.Z., Ren, A.K. & Shao, Z.H., 2022. Secular Crustal Deformation Characteristics Prior to the 2011 Tohoku-Oki Earthquake Detected from GNSS Array, 2003-2011, Advances in Space Research, 69, 1116-1129.
[9]Ren, A.K., Xu, K.K*., Shao, Z.H., Liu, X.Q. & Wang, X.Y. 2023. Effect of the 2011 Tohoku-Oki earthquake on continuous GNSS station motions, GPS Solutions, 27, 50.
[10]Li, H.X , Xu, K.K*., Liu X.L .,2026.Global Edge Information Guidance With Polarity-Aware Attention for Satellite Object Detection.IEEE Transactions on Geoscience and Remote Sensing, 63.DOI:10.1109/TGRS.2025.3603167.
[11]Li, H.X , Xu, K.K*., Liu X.L .,2026.MAC-DETR: Re-parameterized Mambaout for Robust Object Detection in High-Resolution Remote Sensing. International Journal of Applied Earth Observation and Geoinformation.(07),1:15
[12]Zhu, W.H., Xu, K.K*. 2026. Integrating dislocation and strain model for 3D coseismic deformation field reconstruction from GNSS and InSAR, Geophysical Journal International, 07,1:12.
[13]Wang, X.Y., Xu, K.K*.. 2023.Coseismic Deformation and Stress Triggering of the 2021 MS6.4 Yangbi Earthquake Inverted from Integrating GNSS and InSAR Displacement Fields, Advances in Space Research, 07.
[14]Wan T.T., Xu, K.K*.,et al. 2025. Inversion of co-seismic deformation and source parameters for the 2023 Jishishan Ms6.2 earthquake with high-frequency GNSS and InSAR constraints. ADVANCES IN SPACE RESEARCH, 2025, 75(10): 7168-7183.
[15]Wang, S.P., Xu, K.K*., et al.2025. Past century stress evolution and seismic hazards in the Haiyuan Fault in northeastern Tibetan Plateau: A case of the 2022 Menyuan MS6.9 earthquake. ADVANCES IN SPACE RESEARCH, 75(12): 8411-8424.
[16]Liu X.Q., Xu, K.K*.,et al. 2025. Crustal stability monitoring and evaluation in the Sichuan-Yunnan region from GNSS. EARTH PLANETS AND SPACE, 77(1).
[17]Wang, S.P., Xu, K.K*., et al. 2025. The relationship between the Coulomb stress evolution of the East Anatolian Fault Zone in the past 200 years and the 2023 Türkiye double earthquakes, Advances in Space Research.
[18]Wang, S.P., Xu, K.K*., et al. 2024. Source parameter inversion of the 2021 Mw 7.4 Maduo earthquake and stress transfer in the eastern Bayan Har block. Advances in Space Research, 73(9): 4669-4685.
[19]Li H.X., Xu, K.K*., et al. 2025. Innovative adaptive edge detection for noisy images using wavelet and Gaussian method. SCIENTIFIC REPORTS, 15(1).
[20]Liu Y.F, Xu, K.K*., et al.2024. Monitoring terrestrial water storage changes using GNSS vertical coordinate time series in Amazon River basin[J].Scientific Reports, 14(1):1-17.
[21]Mei X.Y., Xu, K.K*., et al. 2025. Monitoring water vapor variations during Super Typhoon Saola's impact on Hong Kong using GNSS observations. MEASUREMENT SCIENCE AND TECHNOLOGY, 36(8).
[22]任安康, 徐克科*. 2023. 顾及有色噪声的GNSS时间序列时域信号提取. 地球物理学报, 66(2):518-529.
[23]朱绪林,徐克科*,等.2021.红河断裂带闭锁程度与滑动亏损分布的GNSS反演.大地测量与地球动力学,41(03):296-300.
[24]刘杰,徐克科*,等.2021.基于现代大地测量手段的青藏高原南缘地壳形变分析.大地测量与地球动力学, 41(11):1183-1188.
[25]姚未正,徐克科*.2021.位错模型矿区地表沉降监测.测绘科学,46(03):32-39.
[26]姚未正,徐克科*.2021.基于GNSS观测研究2015年尼泊尔Mw7.8地震震后地壳形变特征及其机制,大地测量与地球动力学,(8):88-93.
[27]姚笛,徐克科*.2022.基于GNSS 基线变化的区域构造运动与应变特征提取,导航定位学报.10(1):125-131.
[28]姚笛,石林峰,徐克科*.2025.三维基准转换模型参数相关性分析与优化.测绘科学, 50(05):1-10.
[29]任安康,徐克科*,等.2022. GEONET网络GPS连续站坐标时间序列噪声模型的建立与分析.导航定位学报,10(2):141-151.
[30]赵付领,徐克科*,等.2021.基于GPS观测的红河断裂带现今变形特征.测绘与空间地理信息, 44(11):60-65.
[31]邵振华,徐克科*,等.2022.日本本州岛区域共模误差对测站速度的影响.导航定位学报,10(4) :155-160.
[32]姜思源,徐克科*,等.2022.圣安德烈斯断裂Parkfield段断裂应变积累特征分析.测绘科学.47(4) :10-18.
[33]姚笛,徐克科*,李森,等.2023.全球区域BDS、GPS、BDS+GPS静动态PPP定位精度评估分析[J].测绘工程,32(06):1-9.
[34]王小怡,徐克科*,刘新奇,等.2023.InSAR观测与小震分布联合分析2021年云南漾濞M_S6.4地震应力卸载对周围区域的影响[J].地震学报,45(05):849-862.
[35]王帅鹏,徐克科*,王小怡.2023.2021年玛多M_W7.4地震强震加载及其对周围地区应力扰动的影响[J].地震学报,45(05):875-891.
[36]薛晨,徐克科*,刘新奇,等.2023.GNSS约束的红河断裂带现今三维闭锁耦合程度及时空演变特征研究[J].大地测量与地球动力学,44(01):63-68.
[37]刘新奇,徐克科*,王小怡,等.2023.红河断裂带沿线地壳稳定性GNSS监测及评价研究[J].测绘科学,48(04):68-78.
[38]任安康,徐克科*.2023.顾及有色噪声的GNSS时间序列时域信号提取[J].地球物理学报,66(02):518-529.
[39]张子豪,徐克科*.2024.联合ICEEMDAN和LSTM在GNSS非线性坐标时序中的应用[J].测绘科学,49(02):17-28.
[40]刘逸夫,徐克科*,郭增长,等.2024.联合VMD和Bi-LSTM的GNSS坐标时序降噪[J].测绘科学,49(01):23-32.
专利著作权
1、发明专利
[1]徐克科,姚笛.一种基于单轨InSAR观测的三维地壳形变转换方法[P].CN112233232A,2021-01-15.
[2]徐克科,何荣,臧妻斌.一种参考站稳定性的自动检验方法[P].CN108303713A,2018-07-20.
[3]徐克科,等.一种基于GNSS网形变化的形变异常检测方法[P].CN105806208B,2018-03-09.
[4]徐克科,等.一种地壳稳定性多维度定量化评价方法[P].CN119721821A,2025-03-28.
[5]徐克科,等.一种融合三维频域和空间域信息的自适应边缘检测方法[P].CN119722717A, 2025-03-28.
[6]徐克科,等.一种稳健的13参数三维基准转换方法[P].CN117348046A,2024-01-05.
[7]徐克科,等.一种基于单轨InSAR观测的三维地壳形变转换方法[P].CN112233232B,2023-11-07.
[8]任安康,徐克科.一种有色噪声中精确估计震后松弛时间的方法[P].CN114169171B,2024-10-01.
[9]郑伟,徐克科,等.基于重力场特征参数优选水下重力匹配导航适配区方法[P].CN118376243A,2024-07-23.
[10]郑伟,徐克科,等.一种基于随机森林干旱指数提高干旱监测分辨率方法[P].CN118152929A,2024-06-07.
2、软件著作权
[1]徐克科; 刘吉鹏. Pylith有限元数据后处理平台V1.0, 2020SR0500991, 原始取得, 全部权利, 2020-4-14.
[2]徐克科;姜思源. 基于GNSS基线变化的应变张量解算软件V1.0. 2022SR1005930,原始取得, 全部权利, 2022-8-04.
[3]徐克科.煤矿井架变形监测云平台V1.0.2024R11L1082820,原始取得, 全部权利, 2024-6-20.