[an error occurred while processing this directive] ������� 2017, 36(3) 931-940 DOI:   10.3969/j.issn.1004-5589.2017.03.026  ISSN: 1004-5589 CN: 22-1111/P

����Ŀ¼ | ����Ŀ¼ | ������� | �߼�����                                                            [��ӡ��ҳ]   [�ر�]
��������
��չ����
������Ϣ
Supporting info
PDF(1245KB)
[HTMLȫ��]
�����[PDF]
�����
�����뷴��
�ѱ����Ƽ�������
�����ҵ����
�������ù�����
����
Email Alert
���·���
���������Ϣ
���Ĺؼ����������
΢������
�������
����-��������΢������
���������������
�ﺣ��
����˪
������
Ǯ��
��˱�
����
������
PubMed
Article by Sun H
Article by Qin Y
Article by Bai T
Article by Qian P
Article by Xu K
Article by Liu Y
Article by Jiang H
������ӵľ�������΢�����⼼���о�
�ﺣ��1, ����˪2, ������1, Ǯ��3, ��˱�1, ����1, ������4
1. �й�ʯ�ͼ��Ų�����̽���̹�˾, ��� 300457;
2. �������﹫˾��̽��ҵ��, ���������� 163453;
3. �й�ʯ����Ȼ���ɷ����޹�˾�ɺ�����ֹ�˾��ɹ����о�Ժ, �����̽� 124010;
4. ���ִ�ѧ������ѧ���������ѧԺ, ���� 130026
ժҪ�� ΢�����������Ҫȱ�����ڴ���λ�ֱ��ʲ��㣬�����¼������ں���λ�ֱ��ʽϵ����⡣�����Щ���⣬ͨ������-�������ϼ��ķ������΢����λ���Ŷȣ������������ӷ����Ե�����������ѹ�ơ�ģ����ά�������ݵķ���ʵ��֤���÷����Ŀ����ԣ����ݵõ�����Դλ����ģ����Դ��λ��һ�¡���ɽ���������һ��ˮ��ѹ�Ѽ��Ϊ����֤������������ķ�����ʵ��Ӧ���о��п����ԡ�
�ؼ����� ΢������   �������   ����-��������΢������  
Research on joint microseismic monitoring of surface and borehole using amplitude stacking
SUN Hai-lin1, QIN Yue-shuang2, BAI Tian-zeng1, QIAN Peng3, XU Ke-bin1, LIU Yu-hai1, JIANG Hai-yu4
1. Downhole Services Company, BHDC, Tianjin 300457, China;
2. Exploration Department, Daqing Oilfield Company Ltd, Daqing 163453, Heilongjiang, China;
3. Drilling and Production Technology Research Institute, Liaohe Oilfield Branch Company of PetroChina Co Ltd, Panjin 124010, Liaoning, China;
4. College of Instrumentation and Electrical Engineering, Jilin University, Changchun 130026, China
Abstract: The main drawback of microseismic surface monitoring is the lack of vertical positioning resolution, whereas the borehole monitoring is with the problem of low lateral resolution. In this study, the authors improve the reliability of microseismic positioning by means of joint monitoring of surface and borehole, and the noise is suppressed by amplitude stacking method. The feasibility of the method is demonstrated by the inversion experiments of three-dimensional seismic data. The result of source locations from inversion are consistent with the actual source points. In this study, a hydraulic fracturing monitoring in Ningwu Basin of Shanxi is taken as an example, it is proved that the proposed method is feasible in practical application.
Keywords: microseismic monitoring   amplitude stacking   joint microseismic monitoring of surface and borehole  
�ո����� 2016-11-01 �޻����� 2017-08-27 ����淢������  
DOI: 10.3969/j.issn.1004-5589.2017.03.026
������Ŀ:

������Ȼ��ѧ������Ŀ��41074074��.

ͨѶ����:
���߼��:
����Email:

�ο����ף�
[1] ����̩,�ߺ�ϼ. ΢�����⼼�����������↑���е�Ӧ��[J]. ʯ������,2004,18(5):5-8. DONG Shi-tai, GAO Hong-xia. Microseismic monitoring technology and its application to oilfield development[J]. Petroleum Instruments, 2004, 18(5):5-8.
[2] ������,�ż�ƽ,�¸�,��. ˮ��ѹ���ѷ��⼼��[J]. �¹�����, 2010,15(3):270-278. WANG Shu-jun, ZHANG Jian-ping, CHEN Gang, et al. Hydraulic fracture monitoring technology[J]. Tuha Oil & Gas, 2010,15(3):270-278.
[3] ��ο�,������. �����Ŵ��㷨��Levenberg-Marquardt�㷨����΢���ٶ�ģ��[J].�������,2016,35(4):1127-1132. SUN Jia-jun, ZENG Xiao-xian. Structuring velocity model of microseism based on genetic algorithm and Levenberg-Marquardt algorithm[J]. Global Geology, 2016,35(4):1127-1132.
[4] ������,�˽��,�����,��. ����΢�����ѷ�����Ƽ�ѹ��Ч������[J]. ����ʯ�͵�ַ�뿪��,2006,25(6):76-78. WANG Zhi-zhong, DENG Jin-gen, ZHAO Zhen-feng, et al. Downhole microseismic fracture monitoring design and fracturing results analysis[J]. Petroleum Geology & Oilfield Development in Daqing, 2006,25(6):76-78.
[5] ������,������,�º���. ΢��������ũ����ҳ�Ұ�����Ӧ��[J]. �������,2015,34(4):1091-1097. JIN Ze-long,LIU Yun-long,WEN Hong-tao. Application of micro-seismic technology in Nong'an oil shale target region[J]. Global Geology, 2015, 34(4):1091-1097.
[6] ��ά��. ˮ��ѹ�ѵ���΢�����������ݴ������о�:��ʿѧλ����[D]. ����:�й���ѧԺ��ѧ, 2012. WANG Wei-bo. Surface based microseismic monitoring and data processing method for hydraulic fracturing:doctor's degree thesis[D]. Beijing:University of Chinese Academy of Scicences,2012.
[7] ����,ʢ��Ⱥ,��ά��,��. �������Ϲ۲�����΢������ʱ���涨λ[J]. ʯ�͵�������̽, 2014,49(4):661-666,671. LI Zhen-chun, SHENG Guan-qun, WANG Wei-bo, et al. Time-reverse microseismic hypocenter location with interferometric imaging condition based on surface and downhole multi-components[J]. Oil Geophysical Prospecting, 2014,49(4):661-666,671.
[8] Gajewski D, Tessmer E. Reverse modelling for seismic event characterization[J]. Geophysical Journal International, 2005,163(1):276-284.
[9] Zhebel O, Eisner L. Simultaneous microseismic event localization and source mechanism determination[J]. Geophysics, 2015, 80(1):1-9.
[10] Anikiev D, Valenta J, Staně F. Joint location and source mechanism inversion of microseismic events:benchmarking on seismicity induced by hydraulic fracturing[J]. Geophysical Journal International, 2015, 198(1):249-258.
[11] ������,�̾���,����,��. �����뾮�й۲������µ�΢���������ʱ��λ�㷨[J]. ��������ѧ��, 2013, 56(9):3184-3196. WANG Chen-long, CHENG Jiu-bing, YIN Chen, et al. Microseismic events location of surface and borehole observation with reverse-time focusing using interferometry technique[J]. Chinese Journal of Geophysics, 2013, 56(9):3184-3196.
[12] �⽨��,��ƽ,���,��. ����������ӵ�΢�����¼���λ�ڵ������е�Ӧ��[J]. ���ִ�ѧѧ��:�����ѧ��,47(1):255-264. WU Jian-guang, ZHANG Ping, LV Hao, et al. Application of microseismic event location using amplitude summation in surface monitoring[J]. Journal of Jilin University:Earth Science Edition, 47(1):255-264.
[13] TIAN Yue, CHEN Xiao-fei. A rapid and accurate two-point ray tracing method in horizontally layered media[J]. Acta Seismologica Sinica, 2005,18(2):154-161.
[14] �Ż���.΢������ֵģ�⼰��Դ��λ�����о�:��ʿѧλ����[D].����:�����Ƽ���ѧ,2014. ZHANG Huan-lan. Numerical simulation of microseismic and study on source location method:doctor's degree thesis[D].Xi'an:Xi'an University of Science and Technolog,2014.
�������������
1������, ������, ����.����Radon�����������β�Ԥ�ⷽ��[J]. �������, 2018,37(1): 267-275
2����齨, ������, ������, ����.������Ԫ�㷨�ĵ���̽�߾�����Ԫ����ֵģ��[J]. �������, 2018,37(1): 276-281
3��κ����, ����, ������, �ű�, ��ϲ��.�����˹���Ⱥ�㷨��SCA��Ч���۵ľ��кᲨ�ٶ�Ԥ�ⷽ��[J]. �������, 2018,37(1): 282-288
4����Ӣΰ, ���߽�, ����.�沨��ģʽƵɢ������ȡ�⾫�ȶԱ��о�[J]. �������, 2017,36(3): 941-946
5������, ������, ��齨, Ҷ��, ����.�����������С���˷��ݵ�б�����ݹ�ѹ�Ʒ���[J]. �������, 2017,36(2): 595-601
6��������, ��ǿ.�Ľ���ֵ���ڶ���С���任ȥ���е�Ӧ��[J]. �������, 2017,36(2): 570-578
7���ϻ���, ����, �����, ����, κ����.˫��Radon�任��������[J]. �������, 2017,36(2): 579-587
8������, ������, ��׿, ����, �޼���.���������С���˼�ȨĿ�꺯��ȫ���η���[J]. �������, 2017,36(2): 588-594
9����˼��, ������, �ڳ�ϼ.��ʱƫ��˫���������������������[J]. �������, 2017,36(2): 602-608
10������, ������, Ҷ��, ��ǿ.����F-K���Curvelet-��ֵ�˲�����ȥ��Ļ�����ݷ��뷽��[J]. �������, 2017,36(2): 609-615
11���ս�ΰ, �ܼ���, ����, ����, ������.��᫺���OBC��������ȫ���η��ݲ���[J]. �������, 2017,36(1): 274-282
12������, �º���, ������, ���, �����, ����ӱ.������˹��������������20����ɽ1�����������о�[J]. �������, 2017,36(1): 202-208
13����͢, ����, �����, �ܳ�, �Ǻ���.�����˹���Ⱥ�㷨��Pearson���ϵ�����ѷ�����ʶ��[J]. �������, 2017,36(1): 293-298
14��½��, ����, ������, ��ϲ��.���������ϸ�����ѷ촢�����AVAzӰ���ģ�⼰����[J]. �������, 2017,36(1): 283-292
15����Сǿ, ������, ������, ���޽�.���ƺ����ij�������ҵ���ʶ����Ԥ��[J]. �������, 2017,36(1): 246-254

Copyright by �������