Fiber optic 4C seabed cable for permanent reservoir monitoring

被引:10
|
作者
Maas, Steven J. [1 ]
Buchan, Iain [2 ]
机构
[1] PGS Marine Technol, 15150 Mem Dr, Houston, TX 77079 USA
[2] PGS Asia Pacific Pte Ltd, Singapore 228218, Singapore
关键词
D O I
10.1109/UT.2007.370762
中图分类号
TP24 [机器人技术];
学科分类号
080202 ; 1405 ;
摘要
Recent advances in fiber optic sensing technology have provided the oilfield service industry with a new tool for fiber optic reservoir monitoring. A fiber optic 4-Component (4C) permanent seabed cable has been successfully demonstrated in the Gulf of Mexico. At SEG 2004 Maas et al [1] discussed a seabed optical cable for seismic applications, advances in the cable design and optical sensors, including a 3-axis optical accelerometer. Further work has now turned this system into a practical tool for 4C permanent reservoir monitoring, and the cable design and performance of the new system are reviewed. An 800 m cable with 4C sensor stations located every 50 m was tested along side a 4C cable with conventional electrical sensors. While the cable tested was limited in size, we have demonstrated the optical systems capabilities beyond 3000 m depth and with channel counts in excess of 2000 over 12 km in the lab. Data collected from the field tests have proven the prototype optical system meets the performance required of the deepwater permanent reservoir monitoring.
引用
收藏
页码:411 / +
页数:2
相关论文
共 50 条
  • [21] High-power fiber optic cable with integrated active sensors for live process monitoring
    Blomster, Ola
    Blomqvist, Mats
    Bergstrand, Hans
    Palsson, Magnus
    HIGH POWER LASER MATERIALS PROCESSING: LASERS, BEAM DELIVERY, DIAGNOSTICS, AND APPLICATIONS, 2012, 8239
  • [22] Monitoring system for a cable-stayed bridge using static and dynamic fiber optic sensors
    Del Grosso, A.
    Torre, A.
    Inaudi, D.
    Brunetti, G.
    Pietrogrande, A.
    STRUCTURAL HEALTH MONITORING AND INTELLIGENT INFRASTRUCTURE, VOLS 1 AND 2, 2006, : 415 - 420
  • [23] Multipoint Pressure and Temperature Sensing Fiber Optic Cable for Monitoring CO2 Sequestration
    Challener, William A.
    Kasten, Ansas M.
    Dekate, Sachin
    Dylov, Dimitri
    Ghandi, Reza
    Guida, Renato
    Hasan, S. M.
    Czauski, Thaddeus
    Craddock, Russell
    Jones, Roger
    MRS ADVANCES, 2016, 1 (21): : 1501 - 1512
  • [24] Measurement of cable forces for automated monitoring of engineering structures using fiber optic sensors: A review
    Yao, Yadong
    Yan, Meng
    Bao, Yi
    AUTOMATION IN CONSTRUCTION, 2021, 126
  • [25] Reservoir characterisation using 4C seismic and calibrated 3D AVO
    Signer, C
    Hansen, JO
    Hutton, G
    Nickel, M
    Reymond, B
    Schlaf, J
    Sonneland, L
    Tjostheim, B
    Veire, HH
    IMPROVING THE EXPLORATION PROCESS BY LEARNING FROM THE PAST, 2000, (09): : 187 - 201
  • [26] Monitoring the stress of the post-tensioning cable using fiber optic distributed strain sensor
    Gao, JQ
    Shi, B
    Zhang, W
    Zhu, H
    MEASUREMENT, 2006, 39 (05) : 420 - 428
  • [27] Railway traffic monitoring with trackside fiber-optic cable by distributed acoustic sensing Technology
    Zhang, Gongbo
    Song, Zhenghong
    Osotuyi, Abayomi Gaius
    Lin, Rongbing
    Chi, Benxin
    FRONTIERS IN EARTH SCIENCE, 2022, 10
  • [28] Application of distribution fiber-optic sensing technology in Submarine Optical Cable Safety Monitoring
    Hu Shan
    Zuo Mingjiu
    OPTICS FRONTIERS ONLINE 2020: DISTRIBUTED OPTICAL FIBER SENSING TECHNOLOGY AND APPLICATIONS, 2021, 11607
  • [29] A four-element optical fiber 4C vector hydrophone array
    Wang Jianfei
    Luo Hong
    Chen Yu
    Meng Zhou
    22ND INTERNATIONAL CONFERENCE ON OPTICAL FIBER SENSORS, PTS 1-3, 2012, 8421
  • [30] Subsurface Multi-Physical Monitoring of a Reservoir Landslide With the Fiber-Optic Nerve System
    Ye, Xiao
    Zhu, Hong-Hu
    Wang, Jia
    Zhang, Qin
    Bin Shi
    Schenato, Luca
    Pasuto, Alessandro
    GEOPHYSICAL RESEARCH LETTERS, 2022, 49 (11)