• 2003-04至2006-03， 日本东北大学， 环境科学 ， 博士研究生
• 1999-09至2002-07， 吉林大学， 固体地球物理， 硕士研究生
• 1994-09至1998-07， 长春科技大学， 应用地球物理， 大学本科

赵建国，教授，博导。

 

教育与工作经历

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  1994年9月—1998年7月在长春地质学院（现吉林大学）学习，获应用地球物理系学士学位，1998年7月—1999年8月在松辽委东北勘测设计研究院工作，1999年9月—2002年7月在吉 林大学（原长春地质学院）学习，获固体地球物理学理学硕士学位，2002年9月—2006年4月在日本东北大学（Tohoku University）留学，获得地球工学博士学位。2006年6月入职于中国石油大学（北京），2008年6月晋升副教授，2015年6月晋升教授。2008年9月至2009年5月在斯坦福大学地球物理系及科罗拉多矿业学院地球物理系访问交流；2017 年6月至2017年9月在加拿大埃尔伯塔大学地球物理系做访问教授；2024年5月至2024年8月在宾夕法尼亚州立大学地球物理系做访问教授。

研究与行业影响

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  研究领域包括油气勘探地球物理，环境与工程地球物理：①复杂介质中地震波与电磁波传播理论；②跨频段地震岩石物理理论、实验及仪器开发；③基于数字岩心的计算岩石物理；④全极化井孔雷达与全极化探地雷达。为解决我国地震波勘探频段岩石物理测量装备匮乏的“卡脖子”技术问题，赵建国在跨频段地震岩石物理测量技术体系的发展，特别在低频（地震波频段）岩石物理设备的研制、实验技术发展、以及跨频段岩石物理分析与应用软件的开发等方面取得重要突破，具有突出的行业贡献与影响力。在工程地球物理领域，也开发了世界首套全极化井孔雷达，在工程物探领域获得了广泛的应用。近年来，承担国家级课题10余项（其中国家自然科学基金联合重点2项目，面上3项，青年1项），企业应用课题40余项，低频岩石物理测量技术已经在国内外30多个油气区块成功应用，覆盖了东部老区，西部深层、海域深水、海外油气、非常规等多类型复杂油气藏。

 

荣誉与奖励

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  2008年入选“北京市科技新星”，2010年入选“北京市优秀人才资助计划”，2015年获“刘光鼎地球物理青年科学技术奖”，2022年获石油和化学工业联合会科技进步二等奖（5/10），2022年与2023年分别获石油和化工自动化行业科学技术奖技术发明一等奖（3/12）与技术发明二等奖（1/12），2024年度获得绿色矿山科学技术发明一等奖（1/15），2025年度获得北京市科学技术奖技术发明二等奖（1/10）；制定行业标准3项；获授权发明专利20项；发表论文百余篇，其中SCI文章50篇，含地球物理领域顶级期刊10余篇（其中3篇JCR1区期刊，9篇JCR2区期刊）。代表性成果以第一作者或通讯作者发表在地球物理国际期刊GRL，JGR，GJI，TGARS，GRSL，IEEE ANTENN WIREL PR, Geophysics上，以及国内地球物理期刊“《中国科学 地球科学》”，地球物理学报，Petroleum Science上，2024年度入选“中国知网高被引学者TOP5%”。入选中国石油大学（北京）第一批“石大学者”。

 

代表性科研项目

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  2021-2024 深层碳酸盐储层的多尺度多频岩石物理特性与地球物理响应机制研究，资助单位：国家自然科学基金（NSFC重点项目），负责人

  2021-2024 莺琼盆地超高温压跨频段地震岩石物理响应机理研究，国家自然基金联合基金重点，项目编号：U20B2015，负责人

  2020-2023 跨频段岩石物理实验与理论驱动的地震速度频散成像研究，国家自然科学基金面上项目，项目编号：41974120，负责人

  2020-2023 复杂储层井震联合地球物理参数关联性研究，中石化科技项目（省部级），负责人

  2016-2019 针对碳酸盐岩储层的跨频段(从地震频率—超声频率)岩石物理实验与建模研究，国家自然科学基金面上项目，项目编号：41574103，负责人

  2016-2020 下古生界-前寒武系地球物理勘探关键技术研究-跨频段岩石物理测试、建模和地震响应特征研究，国家科技重大专项，负责人 

  2012-2016 全极化孔中雷达多极化联合的频率域全波形反演与极化属性分析，国家自然科学基金面上项目，项目编号：41274138，负责人

  2012-2015 差分式声共振技术的低频岩石物理理论与实验研究，中国石油大学（北京）基础研究项目，KYJJ2012-05-02，负责人   

  2013-2018 深层温压条件下非均质岩石中多颜段弹性波传播, 国家重点基础研究发展计划，973 计划, 2013CB228600, 共同负责人 (排名3)

  2013-2017 深层油气藏地球物理探测的基础研究，国家重点基础研究发展计划（973计划），负责人

  2018-2019 盐间页岩层岩样宽频测试,项目来源： 中国石化江汉油田分公司,项目负责人

  2017-2018 岩芯全频带岩石物理测试技术，项目来源: 中海石油深海开发有限公司，负责人

  2012-2013 小尺度碳酸盐岩储层多频段岩石物理研究，项目来源：中国石油集团西北地质研究所，负责人

  2011-2013 物探新方法新技术：非均质储层低频地震响应特征研究及应用，中石油集团公司十二五计划项目，副课题长（排名2）

  2007-2010 重、磁和地震联合反演解释技术，863 计划子课题，副首席研究员，排名2

  2007-2010 基于全极化孔中雷达的正反演以及雷达极化技术的方法研究，国家自然科学青年基金，项目编号：40704024，负责人

  2007-2010 全极化孔中雷达的极化分解技术研究，教育部“高等学校博士学科点专项科研基金”，20070425029，负责人

  2008-2010 全极化孔中雷达的正反演研究，教育部留学回国基金项目，负责人

  2009-2011 “北京市科技新星计划”项目，北京市科委，负责人

  2011-2012 多频极化型电磁仪在城市工程勘察中的应用基础研究，项目来源：北京市优秀人才培养资助计划，负责人

  2009-2011 Advanced DARSIII system development，与斯坦福大学国际合作项目：重点实验室平台建设部分，副首席研究员，排名2

 

授权中国国家发明专利

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[1] 一种各向异性岩石物理建模方法及装置(发明专利号:ZL202211618016.X)，2022，赵建国，闫博鸿，肖增佳，叶麦克

[2] 一种各向异性参数计算方法、装置及存储介质(发明专利号:ZL202211534264.6)，2022，赵建国，闫博鸿，肖增佳，叶麦克

[3] 基于SCA模型的地震波速度参数确定方法、装置及设备(专利号:ZL202110313468.6)，2021，赵建国，闫秀懿，欧阳芳，赵皓，李智，肖增佳

[4] 基于MT模型的地震波速度参数确定方法、装置及设备(专利号:ZL202110313457.8)，2021，赵建国，闫秀懿，欧阳芳，赵皓，李智，肖增佳

[5] 基于DEM模型的地震波速度参数确定方法、装置及设备(专利号:ZL202110313216.3)，2021，赵建国，闫秀懿，欧阳芳，赵皓，李智，肖增佳

[6] 基于KT模型的地震波速度参数确定方法、装置及设备(专利号:ZL202110313218.2)，2021，赵建国，闫秀懿，欧阳芳，赵皓，李智，肖增佳 

[7] 地震波速度频散及衰减的预测方法、装置、设备及系统(专利号:ZL202110296036.9),2021,贺艳晓，高大为，王尚旭，赵建国

[8] 频率域粘弹性波正演模拟方法、装置、设备及存储介质 (专利号:ZL202110177528.6), 2021,赵建国，欧阳芳，戴世坤，陈龙伟

[9] 频率域2.5维地震波正演模拟方法、装置及设备 (专利号:ZL202110169204.8),2021,赵建国，欧阳芳，戴世坤，陈龙伟

[10] 一种矿物含量分析方法、装置、设备及存储介质 (专利号:ZL202011426848.2),2020,赵建国，孙朗秋，刘欣泽，李智，欧阳芳，肖增佳

[11] 分相位地震数据的处理方法、装置和服务器 (专利号:ZL202011051918.0),2020,贺艳晓，何港，赵建国，李琪，何文涛，李鑫龙，王尚旭

[12] 基于KT模型的孔缝参数反演方法、装置及存储介质(专利号:ZL202010141973.2),2020,赵建国，欧阳芳，李智，肖增佳，刘欣泽

[13]基于SCA模型的孔缝参数反演方法、装置及存储介质(专利号:ZL202010141979.X),2020,赵建国,欧阳芳,李智,肖增佳,刘欣泽,胡洋铭

[14]碳酸盐岩储层孔隙结构预测方法、装置、设备及存储介质(专利号:ZL202010104055.2),2020,赵建国,潘建国,李闯,孙朗秋,刘欣泽,欧阳芳,李智,肖增佳

[15] 一种去除FIB-SEM图像幕帘噪声的方法及装置 (专利号:ZL201811013158.7), 2018,孙朗秋，赵建国

[16] 测量岩石衰减系数的方法与系统 (专利号:ZL201710691134.6),2017,赵建国，熊彬

[17] 一种含油污泥的处理方法 (专利号:ZL201710168221.3),2017,闫秀懿，赵雅楠，杨帅，王宝峰，邓若男，周菁辉，赵建国

[18] 一种频率域2.5维粘弹性波数值模拟方法及装置 (专利号:ZL201610838492.0), 2016,赵建国，黄兴兴，闫秀懿.

[19] 一种油气田压裂废液的处理方法 (专利号:ZL201510002362.9),2015,闫秀懿，王伟，赵建国，张永旺，周庆祥

[20]反应釜加热装置及水热反应方法 (专利号:ZL201410256415.5),2014,闫秀懿，赵建国，王伟，向才富，董月霞，周庆祥

[21]一种岩石样品物理模量光学测量装置及方法 (专利号:ZL201310739367.0), 2013,赵建国，赵嵩卿

[22]一种储层岩心样品制备系统及储层岩心样品的制备方法(专利号:ZL201310739369.X),2013,赵建国，赵嵩卿

[23] 一种测量孔隙岩石渗透率的方法和装置 (专利号:ZL201310210222.1),2013,赵建国

[24] 一种储层岩石低频岩石物理模量测量系统 (专利号:ZL201310148024.7),2013,赵建国

[25] 一种同时获取储层岩石低频弹性性质与密度的方法及系统 (专利:ZL201310120473.0), 2013,赵建国

 

授权实用新型发明专利

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[1] 反应釜加热装置(专利号:ZL201420306543.1),2014,闫秀懿，赵建国，王伟，向才富，董月霞，周庆祥

[2] 一种岩石样品物理模量光学测量装置(专利号:ZL201320878838.1),2013,赵建国，赵嵩卿

[3] 一种储层岩心样品制备系统(专利号:ZL201320878727.0),2013,赵建国，赵嵩卿

[4] 一种储层岩石低频岩石物理模量测量系统 (专利号:ZL201320216600.2),2013,赵建国

[5] 一种高压气体采样装置 (专利号:ZL201220560450.2),2012,朱雷，赵建国，向才富，闫秀懿，庞雄奇，董月霞

 

期刊论文（*为通讯作者）

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l  实验与理论岩石物理方向

[1] Jianguo Zhao, Genyang Tang, Jixin Deng, Xiaolong Tong, Shangxu Wang, “Determination of rock acoustic properties at low frequency: A differential acoustical resonance spectroscopy device and its estimation technique”, GEOPHYSICAL RESEARCH LETTERS, VOL. 40, 1–8, doi:10.1002/grl.50346, 2013.

[2] Jing-Ba, Jian-guo Zhao*, Jose M. Carcione, Xing-xing Huang, “Compressional wave dispersion due to rock matrix stiffening by clay squirt flow”, Geophysical Research Letter, DOI: 10.1002/2016GL069312, 2016.

[3] Shangxu Wang, Jianguo Zhao*, Zhenhua Li, Jerry M. Harris, Youli Quan, “Differential Acoustic Response Spectroscopy for Acoustic Measurement of Small and Irregular Samples,” Journal of Geophysical Research: Solid Earth, Vol. 117(B06203), June, 2012.

[4] Jian-guo Zhao, Shang-xu Wang, Han-jun Yin etc, “Differential Acoustic Resonance Spectroscopy: Improved theory and application in the low frequency range”, Geophysical Journal International, vol. 202, pp. 1775-1791, 2015.

[5] Xin-yuan Luan, Bang-rang Di, Jian-xin Wei, Jian-guo Zhao*, and Xiang-yang Li, “Creation of synthetic samples for physical modelling of natural shale”, Geophysical Prospecting, vol. 64, pp. 898-914, 2016.

[6] Han-jun Yin, Jian-guo Zhao, Geng-yang Tang, Li-ming Zhao, Xiao-yi Ma, and Shang-xu Wang*, “Pressure and Fluid Effect on Frequency-Dependent Elastic Moduli in Fully Saturated Tight Sandstone”, Journal of Geophysical Research: Solid Earth, DOI: 10.1002、2017JB014244，2017.

[7] Chao Sun, Geng-yang Tang, Jian-guo Zhao, Li-ming Zhao, and Shang-xu Wang, “Three-dimensional numerical modelling of the drained/undrained transition for frequency-dependent elastic moduli and attenuation, Geophysical Journal International, 2019, 219(1): 27-38.

[8] Han-jun Yin, Jian-guo Zhao, Geng-yang Tang, Xiao-yi Ma, and Shang-xu Wang*, “Numerical and experimental investigation of a low-frequency measurement technique: differential acoustic resonance spectroscopy”, Journal of Geophysics and Engineering, vol. 13, pp. 342-353, 2016.

[9] Chao Sun, Geng-yang Tang, Jian-guo Zhao, Li-ming Zhao, and Shang-xu Wang, “An enhanced broad-frequency-band apparatus for dynamic measurement of elastic moduli and Poisson’s ratio of rock samples”, Review of Scientific Instruments, 89064503 (2018); https://doi.org/10.1063/1.5018152.

[10] ZHAO Liming, TANG Genyang, WANG Shangxu, DONG Chunhui, HE Yanxiao, ZHAO Jianguo, SUN Chao, HAN Xu. Low-frequency seismic rock physics measurement system improvement and experiments on tight sandstone. Petroleum Science Bulletin, 2019, 02: 111-122.

[11] Jian-xin Wei, Jian-guo Zhao, Shuai Da, Ping-bo Ding, Bang-rang Di, and Shu-yuan Qin, “Estimations of P- and S-wave velocities and anisotropy from measurements on artificial fractured samples”, Geophysics, 2018.

[12] Bohong Yan, Langqiu Sun, Jianguo Zhao*, Zixiong Cao, Mingxuan Li, K. C. Shiba, Xinze Liu and Chuang Li. 2024. Quantitative characterization of organic and inorganic pores in shale based on deep learning, Geophysics, Vol. 89(2), pp. 1-14

[13] Zhaoyang Zhao and Jianguo Zhao*, 2025, Seismic horizon tracking based on the TransUnet model, Vol. 90(2), pp. 1-13, Doi: 10.1190/GEO2023-0626.1

[14] Guo Junxin, Chen Xiaofei, Zhao Jianguo, Xiao Zengjia, 2024, Effects of background elastic and permeability anisotropy on dynamic seismic signatures of a fluid-saturated porous rock with aligned fractures, Geophysics, Vol. 89(6), MR335-MR354k, DOI: 10.1190/GEO2024-0377.1

[15] Ma Ming, Zhao Jianguo*, Wang Chunyu, Wei Liubin, Ren Junfeng, Mao Yurong, Yan Bohong, Zhang Yu, Xiao Zengjia, Li Zhi, Ouyang Fang, Sun Yangyang, 2024, On the interrelationship of electrical and hydraulic conductivities in carbonate rocks, Geoenergy Science and Engineering, https://doi.org/10.1016/j.geoen.2024.213576. Available online 30 November 2024

[16] 闫博鸿, 赵建国*, 肖增佳, 钟庆良, 欧阳芳, 王斌, 李智, 马铭. 潜江组页岩弹性性质分析及各向异性岩石物理建模. 地球物理学报, 2024, 67 (07): 2802-2819, DOI: 10.6038/cjg2022Q0724

[17] John Oluwadamilola Olutoki, Jianguo Zhao, Numair Ahmed Siddiqui, Mohamed Elsaadany, AKM Eahsanul Haque, Oluwaseun Daniel Akinyemi, Amany H. Said, and Zhaoyang Zhao, 2024, Shear wave velocity prediction: A review of recent progress and future opportunities, Energy Geoscience 5 (2024) 100338, https://doi.org/10.1016/j.engeos.2024.100338

[18] Xiao Z, Zhao J, Zhong Q, Ouyang F, Liu X, Yan B, Li Z, Ma M, Wang B, Wang X. 2023. Anisotropic dispersion mechanism of inter-salt shale oil reservoir in terrestrial saline lake sediments using cross-band experiments. Science China Earth Sciences, 66, https://doi.org/10.1007/s11430-022-1063-3

[19] 赵建国, 潘建国, 胡洋铭, 李劲松, 闫博鸿, 李闯, 孙朗秋, 刘欣泽. 基于数字岩心的碳酸盐岩孔隙结构对弹性性质的影响研究(上篇):图像处理与弹性模拟. 地球物理学报, 2021, 64 (02): 656-669, DOI: 10.6038/cjg2021O0228

[20] 赵建国, 潘建国, 胡洋铭, 李劲松, 刘欣泽, 李闯, 闫博鸿. 基于数字岩心的碳酸盐岩孔隙结构对弹性性质的影响研究(下篇):储层孔隙结构因子表征与反演. 地球物理学报, 2021, 64 (02): 670-683, DOI: 10.6038/cjg2021O0227

[21] 龙腾, 赵建国*, 刘欣泽, 肖增佳, 王子振, 欧阳芳. 碳酸盐岩跨频段岩石物理测量与理论建模——不同孔隙结构对碳酸盐岩频散与衰减的影响研究. 地球物理学报, 2020, 63 (12): 4502-4516, DOI: 10.6038/cjg2020O0234

[22] 欧阳芳, 赵建国*, 李智, 肖增佳, 贺艳晓, 邓继新, 赵皓, 任静. 基于微观孔隙结构特征的速度频散和衰减模拟. 地球物理学报, 2021, 64 (03): 1034-1047, DOI: 10.6038/cjg2021O0355

[23] 欧阳芳, 赵建国*, 李智, 肖增佳, 贺艳晓, 赵皓, 任静. 基于等效介质理论的孔隙纵横比分布反演. 地球物理学报, 2021, 64 (03): 1016-1033, DOI: 10.6038/cjg2021O0348

[24] 钟庆良,赵建国,肖增佳,石秀平,贺新蔚,潜江凹陷潜江组盐间页岩油储层地震岩石物理特征分析，石油物探, 2021, 60(2)：323-333.

[25] 李闯, 赵建国*, 王宏斌, 潘建国, 龙腾, 邓继新, 李智. 致密碳酸盐岩跨频段岩石物理实验及频散分析. 地球物理学报, 2020, 63 (02): 627-637, DOI: 10.6038/cjg2019M0294

[26] 谭开俊, 赵建国*, 滕团余, 刘欣泽, 闫博鸿. 基于数字岩心孔喉特征的等效孔隙纵横比有效性研究. 地球物理学报, 2022, 65 (11): 4433-4447., DOI:10.6038/cjg2022P0393.

[27] 李智, 欧阳芳, 肖增佳, 刘欣泽, 贺艳晓, 赵建国*. 流体黏度对砂岩弹性模量频散与衰减影响规律的实验及理论验证. 地球物理学报, 2022, 65 (06): 2179-2197, DOI:10.6038/cjg2022P0473.

[28] 李智, 欧阳芳, 肖增佳, 龙腾, 贺艳晓, 赵建国*. 地震频段弹性模量测试系统改进与升级. 地球物理学报, 2022, 65 (05): 1769-1784, DOI:10.6038/cjg2022P0447.

[29] Bin Wang, Jianguo Pan, Yu Huang, Guodong Wang, Yongqiang Qu, Jianguo Zhao*, 2023. Study on the Elastic Parameters of Sandy Conglomerate under Different Burial History and Petrophysical Modeling, Geofluids, Article ID 3996378, 12 pages. https://doi.org/10.1155/2023/3996378

[30] 王斌, 赵建国*, 李伟, 黄玉, 尹路, 许多年. 异常高压对砂砾岩弹性性质影响的实验机理研究与压力预测新模型——以准噶尔盆地玛湖凹陷北斜坡三叠系为例. 地球物理学报, 2022, 65 (08): 3157-3171, DOI:10.6038/cjg2022Q0005.

[31] Jian-guo Pan, Hong-bin Wang, Chuang Li, and Jian-guo Zhao*, “Effect of pore structure on seismic rock-physics characteristics of dense carbonates”, Applied Geophysics, Vol. 12(1), DOI: 10. 1007/s11770-014-0477-1, 2015.

[32] Zhao, Liming, Tang, Genyang, Wang, Shangxu, Zhao, Jianguo, Wang, Xingmou, Liu, Haojie, Wei, Guohua, Sun, Chao, Li, Minlong, Li, Min, Laboratory study of oil saturation and oil/water substitution effects on a sandstone's : modulus dispersion and attenuation, Exploration Geophysics, 2019, 50(3): 324-335.

[33] 马霄一, 王尚旭, 赵建国, 赵立明, 龙腾. 岩石跨频段实验研究. 地球物理学进展, 2018, 33 (05): 1943-1950, DOI: 10.6038/pg2018CC0144.

[34] Xiao-Yi Ma, Shang-Xu Wang, Jian-guo Zhao, Han-Jun Yin, and Li-ming Zhao, “Velocity dispersion and fluid substitution in sandstone under partially saturated conditions”, Applied Geophysics, vol. 15, No.2, p. 188-196, 2018.

[35] 邢文军, 吴开龙, 吴鑫, 徐文会, 龙腾, 刘志军, 熊彬, 赵建国. 储层砂岩宽频段地震岩石物理特征的实验研究. 地球物理学进展, 2018, 33 (04): 1609-1616, DOI: 10.6038/pg2018BB0350.

[36] Pan, JG., Deng, JX., Li, C.，Jian-guo ZHAO et al. Effects of micrite microtextures on the elastic and petrophysical properties of carbonate reservoirs. Appl. Geophys. 16, 399–413 (2019). https://doi.org/10.1007/s11770-019-0777-y

[37] 未晛, 王尚旭, 赵建国, 唐跟阳, 邓继新. 含流体砂岩地震波频散实验研究[J]. 地球物理学报, 2015, 58 (09): 3380-3388, DOI: 10.6038/cjg20150930

[38] 邓继新, 周浩, 王欢, 赵建国, 王尚旭. 基于储层砂岩微观孔隙结构特征的弹性波频散响应分析[J]. 地球物理学报, 2015, 58 (09): 3389-3400, DOI: 10.6038/cjg20150931

[39] 未晛, 王尚旭, 赵建国, 邓继新. 致密砂岩纵、横波速度影响因素的实验研究[J]. 石油物探, 2015, 54 (01): 9-16

[40] Ji-xin Deng, Shang-xu Wang, Gen-yang Tang, Jian-guo Zhao, “The influence of mesoscopic flow on the P-wave attenuation and dispersion in a porous medium permeated by aligned fractures”, Studia Geophysica et Geodaetica, 2013, 57(3), 482-506.

[41] Chun-hui Dong, Shang-xu Wang, Jian-guo Zhao, and Genyang Tang, “Numerical experiment and analysis of the differential acoustic resonance spectroscopy for elastic property measurements”, Journal of Geophysics and Engineering, 2013, 10(5): doi:10.1088/1742-2132/10/5/054002.

[42] Liu, Weifang, Zhao, Jianguo, Hu, Yangming, Ouyang Fang, Miao, and Qing, “The study of Pp/Psv wave differences and relationship with hydrocarbon”, SEG Int Expo. Annu. Meet., SEG, 2019.

[43] Teng Long, Jianguo Zhao*, Douglas Schmit, Zhi Li and Yangming Hu, “Dispersion analysis of conventional and tight carbonates”, SEG 2018 Workshop: Rock Physics and Digital Rock Applications, Beijing, China, 20-23 May. 2018. (Oral).

[44] Long Teng, Zhao Jianguo*, "Rock Physics Modeling and Inversion of Complex Media", SEG Workshop, Daqing, China, August 2018. (Oral)

[45] Sun, Chao, Gen-yang Tang, Dong, C.H., Zhao, J.G., and Wang, S.X., “Fluid saturation effect on the characteristic frequency and attenuation of tight sandstone”, EAGE Conf. Exhib., 2017.

[46] Yin, H.J., Wang, S.X., Zhao, J.G., Tang, G.Y., Dong, C.H., “Pressure and fluid effect on frequency dependent velocities in fully saturated tight sandstone”, EAGE Conf. Exhib., 2017.

[47] 赵建国，王尚旭，王宏斌，李闯，龙腾，胡洋铭，“跨频段岩石物理测量技术进展及在碳酸盐岩储层预测中的应用”，中国地球物理年会，2017年10月（特邀报告）.

[48] 赵建国，王尚旭，马宵一，龙腾，胡洋铭，“跨频段岩石物理测量技术进展及在砂岩储层预测中的应用”，中国地球物理年会，2017年10月（特邀报告）.

[49] Jian-guo Zhao, Teng Long, Yang-ming Hu, Zhi Li, Jixin Deng, and Bin Xiong, “Multi-band Laboratory Study on Seismic Rock Physics Properties of Carbonate Rock”, SEG-China, Carbonate Reservoir E&P Workshop, Chengdu, China, October, 2017(Invited Presentation).

[50] T. Long, J. G. Zhao*, J. X. Deng, X. Y. Ma and Y. M. Hu, “Theoretical modeling and experimental analysis on velocity dispersion of carbonate”, 87th SEG conference, 2017, Houston. (Oral)

[51] J. G. Zhao, X. X. Huang, X. Y. Ma, H. J. Yin, L. M. Zhao, and S. X. Wang, “Experimental Studies on Dense Carbonates - An Analysis of Elastic Properties Dependent on Pore Structure”, 78th EAGE conference, 2016, Vienna. (Oral)

[52] Liu,Chongna, Wei, Jianxin, Di, Bangrang, Zhao, Jianguo, Gong, Fei, Gao, Feng, and Liu, Haihao, “Experimental study of scale-dependent velocity of heterogeneous media”, SEG Techn. Program Expand. Abstr., 2016.

[53] Yuan, D.J., Tang, G.Y., Wang, S.X., Qiao, Y., Zhao, J.G., and Yin, H.J., “Effect of heterogeneity scale on elastic properties of artificial sandstones at ultrasonic and quasi-seismic frequencies”, EAGE Conf. Exhib.: Earth Sci. Energy Environ., 2015.

[54] Wei, X., Wang, S.X., Zhao, J.G., Tang, G.Y., and Yin, H.J., “Direct measurements of wave dispersion at seismic frequencies and Gassmann fluid substitution”, EAGE Conf. Exhib.: Earth Sci. Energy Environ., 2015.

[55] Xin-yuan Luan, Bang-rang Di, Jian-xin Wei, Jian-guo Zhao, and Fei Gong, “Physical simulation research of synthetic shale”, SEG paper, October, 2015, USA.

[56] 赵建国，王尚旭，未晛，殷晗钧，马宵一，“跨频段地震岩石物理测量体系的建立”，地震岩石物理国际会议，2014.8, 上海同济大学（特邀报告）.

[57] Jian-guo Zhao, Shang-xu Wang, Zhe Li, Xian Wei and Han-jun Yin. Studies on dispersion of reservoir rocks using multi-band direct laboratory measurement methodology with micor-CT scnning. 76th EAGE conference, 2014, Amsterdam, Holand.

[58] Zhao Jianguo, Wang Shangxu, "Low-frequency Rock Physics Property Measurement Technology Based on Differential Resonance Spectra", National Frontiers Symposium on Reservoir Acoustics and Logging Technology, June 2013.

 

l  数字岩石物理方向

[1] 赵建国, 潘建国, 胡洋铭, 李劲松, 闫博鸿, 李闯, 孙朗秋, 刘欣泽. 基于数字岩心的碳酸盐岩孔隙结构对弹性性质的影响研究(上篇):图像处理与弹性模拟. 地球物理学报, 2021, 64 (02): 656-669, DOI: 10.6038/cjg2021O0228

[2] 赵建国, 潘建国, 胡洋铭, 李劲松, 刘欣泽, 李闯, 闫博鸿. 基于数字岩心的碳酸盐岩孔隙结构对弹性性质的影响研究(下篇):储层孔隙结构因子表征与反演. 地球物理学报, 2021, 64 (02): 670-683, DOI: 10.6038/cjg2021O0227

[3] Bohong Yan, Langqiu Sun, Jianguo Zhao*, Zixiong Cao, Mingxuan Li, K. C. Shiba, Xinze Liu and Chuang Li. 2024. Quantitative characterization of organic and inorganic pores in shale based on deep learning, Geophysics, Vol. 89(2), pp. 1-14

[4] Yangming Hu, Jianguo Zhao*, Langqiu Sun, Teng Long, and Fei Li, “Digital rock physics based type effect analysis on acoustic properties of carbonate rocks”, 80th EAGE Conference, 2018, Copenhagen. (Oral)

[5] Yangming Hu, Jianguo Zhao*, Langqiu Sun, Teng Long, and Zeyu Wang, “Digital rock physics studies on carbonate pore type characterization and its effect on acoustic properties”, SEG 2018 Workshop: Rock Physics and Digital Rock Applications, Beijing, China, 20-23 May. 2018. (Oral)

[6] Yangming Hu, Jianguo Zhao*, Langqiu Sun, Teng Long, and Zeyu Wang, “A study on effect of pore structure on acoustic properties of carbonate rocks using micro-CT imaging”, CPS/SEG 2018 Workshop: International Geophysical Conference and Exposition, Beijing, China, 24-27 April.2018. (Oral)

[7] Yangming Hu, Jianguo Zhao*, Teng long, Xingxing Huang, and Bin, Xiong, “Elastic simulation of carbonate rock under confining pressure using micro-CT imaging”, SEG-China, 2017, Chengdu. (Oral)

[8] Jian-guo Zhao, Shang-xu Wang, Zhe Li, Xian Wei and Han-jun Yin. Studies on dispersion of reservoir rocks using multi-band direct laboratory measurement methodology with micor-CT scnning. 76th EAGE conference, 2014, Amsterdam, Holand.

 

l  基于AVO的储层反演与表征方向

[1] Jianguo Zhao, Yan-Xiao He, Gang He, and Shangxu Wang, “A novel approach for evaluating gas saturation effects on the phase reversal characteristics of seismic AVO responses from strongly attenuating reservoirs”, IEEE Geoscience and Remote Sensing Letters, 2021, 1558-0571 (1545-598X)1: 1-5.

[2] Yan-Xiao He, Shang-Xu Wang, Rui Guo, Sanyi Yuan, Jianguo Zhao*, Mo Chen, “A novel reservoir characterization method based on an improved phase decomposition of seismic reflections from thin-layer targets”, IEEE Geoscience and Remote Sensing Letters, 2021.

[3] He, Yan Xiao, Wu, Xinyu, Wang, Shangxu, and Zhao, Jianguo, “Reflection dispersion signatures due to wave-induced pressure diffusion in heterogeneous poroelastic media, Exploration Geophysics, 2019, 50(5): 541-553.

[4] Yan-Xiao He, Gang He, Sanyi Yuan, Jianguo Zhao*, Shangxu Wang, “Bayesian Frequency-Dependent AVO Inversion Using an Improved Markov Chain Monte Carlo Method for Quantitative Gas Saturation Prediction in a Thin Layer”, IEEE Geoscience and Remote Sensing Letters, Print ISSN: 1545-598X, Online ISSN: 1558-0571, Digital Object Identifier: 10.1109/LGRS.2020.3046283, 2021.

[5] Muhammad Ajaz, Fang Ouyang, Gui-Hai Wang, Shuang-Lian Liu, Li-Xin Wang, and Jian-guo Zhao^*, “Fluid identification and effective fracture prediction based on frequency-dependent AVOAz inversion for fractured reservoirs”, Petroleum Science, Vol. 18(4), pp. 1069-1085.

[6] Fang Ouyang, Xinze Liu, Bin Wang, Ziduo Hu Yu, Jian-guo Zhao*, Xiu-Yi Yan, Yu Zhang, and Yihe Qing, 2023. The applicability and underlying factors of frequency-dependent amplitude-versus-offset(AVO) inversion, Petroleum Science, Issue 20, Pages 2075-2091 https://doi.org/10.1016/j.petsci.2023.02.011

[7] Rong Peng, Bangrang Di, Jianxin Wei, Pinbo Ding, Jianguo Zhao, Xiao Pan, and Zichun Liu, “Experimental study of the seismoelectric interface response in wedge and cavity models”, Geophysical Journal International, Volume 210, Issue 3, 1 September 2017, Pages 1703–1720, https://doi.org/10.1093/gji/ggx253.

[8] Chai, X., S. Wang, S. Yuan, J. Zhao, L. Sun, and X. Wei, 2014, Sparse reflectivity inversion for nonstationary seismic data: Geophysics, 79, no. 3, V93-V105, doi: 10.1190/GEO2013-0313.1.

[9] 刘欣泽, 李智, 赵建国*. 基于跨频段岩石物理实验的频散AVO反演, 2019年油气地球物理学术年会, DOI: 10.26914/c.cnkihy.2019.022903.

[10] Luo, C.M., Wang, S.X., Yuan, S.Y., Zhao, J.G., and Tang, G., “APES for prestack inversion”, EAGE Conf. Exhib.: Earth Sci. Energy Environ., 2015.

 

l  地质雷达与井孔雷达方向

[1] J. G. Zhao and M. Sato, “Radar polarimetry analysis applied to single-hole fully polarimetric borehole radar,” IEEE Transaction on Geosc. and Remote Sensing, vol. 44, pp. 3547-3554, Dec. 2006.

[2] J. G. Zhao and M. Sato, “Consistency analysis of subsurface fracture characterization with several polarimetry techniques,” IEEE Geosc. and Remote Sensing Letters, vol.4, No. 3, pp. 359-363, July 2007.

[3] Hai, Liu, Jian-guo Zhao*, and Motoyuki Sato, “A Hybrid Dual-Polarization GPR System for Detection of Linear Objects”, IEEE Antenna and Wireless Propagation Letters, Vol. 14, pp. 317-320, 2014.

[4] J. G. Zhao and M. Sato, “Experimental implementation and assessment of two polarimetric calibration approaches applied for a fully polarimetric borehole radar”, Journal of Geophysics and Engineering, vol. 5, No. 2, pp. 232-242, 2008.

[5] J. G. Zhao and M. Sato, “A fully polarimetric borehole radar based numerical modelling：fully polarimetric response to synthetic natural fractures,” Progress in Electromagnetics Research Symposium (PIERS) ，pp. 66-70, July, 2010, Cambridge.

[6] Jian-Guo Zhao, Shi-kun Dai, “2.5-Dimensional EM modelling and inversion and applications in CSEM subsurface sensing,” The 10th China International Geo-Electromagnetic Workshop, pp. 256-257, 2011/11/18-2011/11/20.

[7] Shi-kun Dai, Jian-Guo Zhao, “Electromagnetic wavefield transform in dissipative media” , The 10th China International Geo-Electromagnetic Workshop, pp. 258-260, 2011/11/18-2011/11/20.

[8] Jian-Guo Zhao and Motoyuki Sato, “A fully polarimetric borehole radar based numerical modelling” , pp. 320-323, 2011/11/18-2011/11/20.

[9] J. G. Zhao and M. Sato, “Comparison of radar polarimetric techniques for subsurface fracture characterization and classification,” IEEE International Geoscience and Remote Sensing Symposium (IGARSS 2006 POSTER SECTION), Denver, Colorado, July 31-August 04, 2006

[10] Zhao Jianguo, "Numerical Simulation Based on Full-Polarization Borehole Radar: Polarization Radar Response of Artificially Synthesized Fractures", Paper No. (201007-266), China Science and Technology Paper Online (www.paper.edu.cn), July 2010.

[11] Fu Jianwei, Zhao Jianguo, "Implementation of Transmitting Circuit in Acoustic Logging Experimental Instrument", Electronic Products World, 2010, Issue 17, pp. 34-37.

[12] Zhao Jianguo, "Polarization Correction Technology of Full-Polarization Borehole Radar", Paper No. (200801-844), China Science and Technology Paper Online (www.paper.edu.cn), February 2008.

[13] Zhao Jianguo, Sato Motoyuki, "Latest Progress of Full-Polarization Borehole Radar", October 2007 - 23rd China Geophysical Society Meeting, pp. 512.

[14] J. G. Zhao and M. Sato, “Subsurface fracture characterization by a fully polarimetric borehole radar and its polarimetric analysis,” 3rd International Workshop on WATER DYNAMICS, 16-17 November, 2005, Sendai, Japan

[15] J. G. Zhao and M. Sato, “Subsurface fracture characterization based on radar polarimetry by borehole radar,” Proc. of the 8th Workshop on Subsurface Electromagnetic Measurement (Technical Report of IEICE), A.P2004-181, pp. 61-68, October 25-26, 2005.

[16] J. G. Zhao and M. Sato, “Application of polarimetry analysis technique based on Pi-SAR polarimetry methodology to Single-hole Polarimetric borehole radar,” The 11th Formation Evaluation Symposium of Japan, Chiba, Tokyo, pp. 68-78, 2005.10.

[17] Lanbo Liu, Zhao Zhao, and Jian-guo Zhao, Characterization of fractures using interferometry techniques with multi-hole, multi-polarization borehole radar, SEG paper, September, 2013, Houston, USA.

[18] 刘澜波，赵建国，“用于地下裂隙系统探测的全极化孔中雷达干涉成像技术”，世界华人地质大会，2013年6月.

[19] Lanbo Liu, Zhao Zhao, and Jian-guo Zhao, Characterization of fractures using interferometry techniques with multi-hole, multi-polarization borehole radar, SEG paper, September, 2013, Houston, USA

 

l  地震波场模拟研究方向

[1] Jian-guo Zhao* Xing-xing Huang Wei-fang Liu Wei-jun Zhao Jian-yong Song Bin XiongShang-xu Wang, “2.5-D frequency-domain viscoelastic wave modelling using finite-element method”, Geophysical Journal International, Volume 211, Issue 1, 1 October 2017, Pages 164–187, https://doi.org/10.1093/gji/ggx273.

[2] Fang Ouyang, Jian-guo Zhao*, Shikun Dai, and Shangxu Wang, “Seismic wave modeling in vertically varying viscoelastic media with general anisotropy”, Geophysics, Vol. 86 (4), 2021.

[3] Fang Ouyang, Jian-guo Zhao*, Shikun Dai, and Shangxu Wang, “Shape-function-based non-uniform Fourier transforms for seismic modeling with irregular grids”, Geophysics, Vol. 86 (4), 2021.

[4] Ruiqi Shi, Shangxu Wang, and Jian-Guo Zhao, “An unsplit complex-frequency-shifted PML based on matched Z-transform for FDTD modeling of seismic wave equations,” Journal of Geophysics and Engineering, Vol.9, No.2, pp. 218-229, 2012.

[5] 赵建国, 史瑞其, 陈竞一, 潘建国, 王宏斌. 黏性声波方程数值正演中的匹配Z变换完全匹配层吸收边界. 地球物理学报, 2014, 57 (04): 1284-1291, DOI: 10.6038/cjg20140425

[6] 赵建国, 史瑞其, 陈竞一, 赵维俊, 王宏斌, 潘建国. 辅助微分方程完全匹配层在声波方程数值模拟中的应用. 吉林大学学报(地球科学版), 2014, 44 (02): 675-682

[7] Jian-Guo Zhao, Rui-Qi Shi, “A perfectly matched layer absorbing boundary condition for the finite-element time-domain modeling of elastic wave equation”, Applied Geophysics, 2013, Vol. 10, No.3, p. 323-336: DOI: 10.1007/s11770-013-0388.

[8] Shi Ruiqi, Wang Shangxu, Guo Rui, Zhao Jianguo. Finite-element numerical modeling of elastic wave on unstructured meshes. OGP, 2013, 48(6): 915-923.

[9] Can ozsoy, Jingyi Chen, Qunshan Zhang, Jian-guo Zhao, and Gulsah Metin, “Nearly perfectly matched layer boundary condition for second-order anisotropic acoustic wave equations”, Journal of seismic exploration, Vol. 22, pp. 489-500, 2013.

[10] Cheng Jingyi, Jian-Guo Zhao, “Application of the nearly perfectly matched layer to seismic wave propagation modeling in elastic anisotropic media,” Bull. Seism. Soc. Am., Vol. 101, No.6, pp. 2866-2871, Dec. 2011.

[11] Hai-qiang Lan, Jing-yi Chen, Zhong-jie Zhang, You-shan Liu, Jian-guo Zhao, and Rui-qi Shi, “Application of a perfectly matched layer in seismic wavefield simulation with an irregular free surface”, Geophysical Prospecting, doi: 10.1111/1365-2478. 12260.

[12] Xu, Yang, Zhao Jian-guo, Jian-yong Song, Huang, X.X., and Pan, X, “Joint first-arrival traveltime tomography and taveform inversion for near-surface imaging”, EAGE Conf. Exhib., 2017.

[13] Huang Xingxing, Zhao Jianguo, Di Bangrang, Xiong Bin, Li Dengkui, Luan Ruiqi, "Frequency-domain 2.5D Finite Element Viscoelastic Wave Numerical Simulation", China Geophysical Annual Conference, October 2017 (Oral Presentation).

[14] X. X. Huang, J. G. Zhao*, Y. Xu, B. R. Di, Y. M. Hu and Z. W. Wang, “2.5D frequency-domain finite-element modeling in viscoelastic media using unstructured mesh”, 87th SEG conference, 2017, Houston. (Oral)

[15] X. X. Huang, J. G. Zhao*, Y. Xu, T. Long, Q. Zhang, and C. X. Liu, “Stiffness Reduction Method for Finite-element Scheme Elastic Wave Modelling in Heterogeneous Media - An Alternative to PML”, 78th EAGE conference, 2016, Vienna. (Oral)

[16] J. G. Zhao, X. X. Huang, X. Y. Ma, H. J. Yin, L. M. Zhao, and S. X. Wang, “Experimental Studies on Dense Carbonates - An Analysis of Elastic Properties Dependent on Pore Structure”, 78th EAGE conference, 2016, Vienna. (Oral)

[17] X. X. Huang, J. G. Zhao, Y. Xu, T. Long, Q. Zhang, and C. X. Liu, “Stiffness Reduction Method for Finite-element Scheme Elastic Wave Modelling in Heterogeneous Media - An Alternative to PML”, 78th EAGE conference, 2016, Vienna. (Oral)

[18] Haiqiang Lan, Jingyi Chen, Youshan Liu, and Jianguo Zhao, Application of the perfectly matched layer in numerical modeling of wave propagation with an irregular free surface. SEG, 2014.

[19] Hai-qiang Lan, Jing-yi Chen, You-shan Liu, Jian-guo Zhao, “Application of the perfectly matched layer in numerical modeling of wave propagation with an irregular free surface”, SEG paper, September, 2013, Houston, USA.