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公开(公告)号:US12013509B2
公开(公告)日:2024-06-18
申请号:US18395727
申请日:2023-12-25
发明人: Liang Gou , Gang Yu , Haibo Liu , Zhaohong Xu , Ximing Wang , Shujun Xia , Shujie An , Mengxiong Xiao
CPC分类号: G01V1/3808 , G01V1/201 , G01V1/3835 , G01V1/3852 , G01V2001/204
摘要: The present disclosure provides a method and a system for acquiring seismic data of a four-component ocean bottom node (OBN). The method is implemented by the system, comprising controlling installations of a plurality of ocean bottom submerged buoys and a plurality of four-component OBN seismic data acquisition instruments and sending positioning signals and timing signals to the plurality of ocean bottom submerged buoys through armored opto-electronic composite cables. The method also includes obtaining real-time and uninterrupted water temperature data, pressure data, density data, and salt saturation data along the armored opto-electronic composite cables from the ocean surface to locations of the plurality of ocean bottom submerged buoys, and calculating real-time and three-dimensional data of waters of a whole measurement work area through interpolation. The method further includes performing real-time correction on a hydroacoustic velocity of each hydroacoustic propagation trajectory based on the location, the hydroacoustic propagation trajectory and the three-dimensional data of each acquisition instrument.
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2.
公开(公告)号:US20230213669A1
公开(公告)日:2023-07-06
申请号:US18119829
申请日:2023-03-10
发明人: Gang Yu , Xing Liang , Liang Gou , Yunjiang Rao , Ximing Wang , Shujun Xia , Shujie An , Junjun Wu , Yuanzhong Chen , Zengling Ran , Renzhi Zhang
IPC分类号: G01V1/22 , G01D5/353 , G01V1/50 , E21B47/07 , E21B47/09 , E21B47/007 , E21B17/02 , E21B43/116 , E21B47/12 , E21B43/26 , E21B49/00 , E21B47/107
CPC分类号: G01V1/226 , G01D5/35361 , G01V1/50 , E21B47/07 , E21B47/09 , E21B47/007 , E21B17/026 , E21B43/116 , E21B47/12 , E21B43/26 , E21B49/00 , E21B47/107 , G01V2210/622 , E21B33/14
摘要: The present invention provides an intelligent geophysical data acquisition system and acquisition method for shale oil and gas optical fiber. A pipe string is arranged in a metal casing, and an external armored optical cable is fixed outside the metal casing; an, internal armored optical cable is fixed outside the pipe string; the external armored optical cable comprises a downhole acoustic sensing optical cable, two multi-mode optical fibers, a strain optical cable and a pressure sensor array, and further comprises horizontal ground acoustic sensing optical cables arranged in the shallow part of the ground according to an orthogonal grid, and artificial seismic source excitation points arranged on the ground according to the orthogonal grid.
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3.
公开(公告)号:US20240125963A1
公开(公告)日:2024-04-18
申请号:US18395727
申请日:2023-12-25
发明人: Liang GOU , Gang YU , Haibo LIU , Zhaohong XU , Ximing WANG , Shujun XIA , Shujie AN , Mengxiong XIAO
CPC分类号: G01V1/3808 , G01V1/201 , G01V1/3835 , G01V1/3852 , G01V2001/204
摘要: The present disclosure provides a method and a system for acquiring seismic data of a four-component ocean bottom node (OBN). The method is implemented by the system, comprising controlling installations of a plurality of ocean bottom submerged buoys and a plurality of four-component OBN seismic data acquisition instruments and sending positioning signals and timing signals to the plurality of ocean bottom submerged buoys through armored opto-electronic composite cables. The method also includes obtaining real-time and uninterrupted water temperature data, pressure data, density data, and salt saturation data along the armored opto-electronic composite cables from the ocean surface to locations of the plurality of ocean bottom submerged buoys, and calculating real-time and three-dimensional data of waters of a whole measurement work area through interpolation. The method further includes performing real-time correction on a hydroacoustic velocity of each hydroacoustic propagation trajectory based on the location, the hydroacoustic propagation trajectory and the three-dimensional data of each acquisition instrument.
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4.
公开(公告)号:US20240264319A1
公开(公告)日:2024-08-08
申请号:US18637442
申请日:2024-04-16
发明人: Liang GOU , Gang YU , Maojun YANG , Ximing WANG
摘要: The present disclosure provides a device for full-wave field seismic source based on a gas explosion technology and a method for acquiring seismic data. The device includes a cylindrical explosion-proof metal outer barrel, and four sides of the explosion-proof metal outer barrel are fixedly connected to four high-strength steel plates. The device also includes a cylindrical explosion-proof metal gas explosion inner barrel and pipelines for injecting high-pressure air and high-pressure gas into the gas explosion inner barrel. A center of the gas explosion inner barrel is installed with an electronic ignition gun, which is connected to a GPS timing module connected to the electronic ignition gun. The device further includes a controller configured to control a seismic source of a gas explosion full-wave field. Longitudinal wave source signals propagating vertically downward and perpendicular to ground, shear wave source signals propagating downward and parallel to a seismic source line direction, and shear wave source signals propagating downward and perpendicular to the seismic source line direction are triggered in sequence at each seismic source point. Longitudinal wave data and two transverse wave data orthogonal to each other and parallel to the ground excited through the each seismic source point are recorded in sequence by three-component geophones deployed on the ground, thereby achieving full-wave field exploration.
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公开(公告)号:US11994637B2
公开(公告)日:2024-05-28
申请号:US18503153
申请日:2023-11-06
发明人: Liang Gou , Gang Yu , Maojun Yang , Ximing Wang
摘要: The present disclosure provides a device for full-wave field seismic source based on a gas explosion technology and a method for acquiring seismic data. The device includes a cylindrical explosion-proof metal outer barrel, and four sides of the explosion-proof metal outer barrel are fixedly connected to four high-strength steel plates. The device also includes a cylindrical explosion-proof metal gas explosion inner barrel and pipelines for injecting high-pressure air and high-pressure gas into the gas explosion inner barrel. A center of the gas explosion inner barrel is installed with an electronic ignition gun, which is connected to a GPS timing module connected to the electronic ignition gun. The device further includes a controller configured to control a seismic source of a gas explosion full-wave field. Longitudinal wave source signals propagating vertically downward and perpendicular to ground, shear wave source signals propagating downward and parallel to a seismic source line direction, and shear wave source signals propagating downward and perpendicular to the seismic source line direction are triggered in sequence at each seismic source point. Longitudinal wave data and two transverse wave data orthogonal to each other and parallel to the ground excited through the each seismic source point are recorded in sequence by three-component geophones deployed on the ground, thereby achieving full-wave field exploration.
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6.
公开(公告)号:US20240085581A1
公开(公告)日:2024-03-14
申请号:US18503153
申请日:2023-11-06
发明人: Liang GOU , Gang YU , Maojun YANG , Ximing WANG
摘要: The present disclosure provides a device for full-wave field seismic source based on a gas explosion technology and a method for acquiring seismic data. The device includes a cylindrical explosion-proof metal outer barrel, and four sides of the explosion-proof metal outer barrel are fixedly connected to four high-strength steel plates. The device also includes a cylindrical explosion-proof metal gas explosion inner barrel and pipelines for injecting high-pressure air and high-pressure gas into the gas explosion inner barrel. A center of the gas explosion inner barrel is installed with an electronic ignition gun, which is connected to a GPS timing module connected to the electronic ignition gun. The device further includes a controller configured to control a seismic source of a gas explosion full-wave field. Longitudinal wave source signals propagating vertically downward and perpendicular to ground, shear wave source signals propagating downward and parallel to a seismic source line direction, and shear wave source signals propagating downward and perpendicular to the seismic source line direction are triggered in sequence at each seismic source point. Longitudinal wave data and two transverse wave data orthogonal to each other and parallel to the ground excited through the each seismic source point are recorded in sequence by three-component geophones deployed on the ground, thereby achieving full-wave field exploration.
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