China's deepwater gas hydrate development strategies under the goal of carbon peak

被引:0
|
作者
Wei N. [1 ]
Bai R. [1 ]
Zhou S. [1 ]
Luo P. [1 ]
Zhao J. [1 ]
Zhang Y. [1 ]
Xue J. [1 ]
机构
[1] State Key Laboratory of Oil & Gas Reservoir Geology and Exploitation, Southwest Petroleum University, Chengdu
关键词
Carbon peak; Commingled production; Development path; Development strategy; Emission and carbon reduction; Gas hydrate; Joint development; Safe and efficient production; Technology roadmap;
D O I
10.3787/j.issn.1000-0976.2022.02.017
中图分类号
学科分类号
摘要
Developing marine gas hydrate (hereinafter referred to as hydrate) in a large scale is one of China's major strategies for energy development. In order to determine China's strategies to deepwater hydrate under the goal of carbon peak, this paper classifies its development technologies into five types, i.e., laboratory simulation test technology, geological exploration technology, drilling and sampling technology, three-gas commingled production technology and environmental risk monitoring technology, according to the clustering analysis results of the papers and patents related to hydrate. In addition, hydrate development status and deepwater hydrate development direction are studied systematically. And the following research results are obtained. First, marine hydrate production technologies have the double attributes of great significance and great difficulty and they have strategic and revolutionary characteristics in the nation level and prospective and competitive features in the technical level. Second, the large-scale hydrate development in the sea areas of China still faces several theoretical and technologies difficulties. For example, the temporal and spatial evolution of reservoir heat, fluid, mechanics, space, structure and multiple fields are not understood clearly, the complex gas-liquid-sand-hydrate four-phase flow law from reservoir and wellbore to underwater Christmas tree, submarine pipeline and downstream process facility is not clarified, and the regeneration mechanism of hydrate is not recognized. Third, as for the development of deepwater shallow hydrate, high-accuracy detection technology and stereoscopic and comprehensive detection technology of geophysics, geology, logging and drilling are the main development directions in the future. Fourth, the hydrate resource evaluation method is on the way to be refined, the development mode and production test engineering of hydrate resource tend to the joint development of hydrate and oil & gas, and new commingled production technology and equipment will be the hot spot and frontier direction of following research. Furthermore, China's deepwater hydrate development path and the development theories and technology roadmap in 2020-2035 are put forward. In conclusion, the future development strategies of deepwater hydrate focus on exploring and breaking through the safe and efficient production technologies of surface, shallow and deep hydrate of different types and different occurrence forms. What's more, for different development modes of deepwater hydrate, it is in urgent need to establish a comprehensive monitoring and systematical evaluation mechanism from local to entire and from short term to long term, so as to ensure the stable production test and large-scale development of hydrate. © 2022, Natural Gas Industry Journal Agency. All right reserved.
引用
收藏
页码:156 / 165
页数:9
相关论文
共 50 条
  • [41] A review on flexible peak shaving development of coal-fired boilers in China under the carbon peak and carbon neutrality goals
    Xu, Jiaye
    Zhang, Qichao
    Ye, Nina
    Zhang, Zhongxiao
    Wu, Xiaojiang
    Fan, Haojie
    [J]. Thermal Science and Engineering Progress, 2024, 55
  • [42] Recent progress and emerging strategies for carbon peak and carbon neutrality in China
    Liu, Lan
    Wang, Xin
    Wang, Zegao
    [J]. GREENHOUSE GASES-SCIENCE AND TECHNOLOGY, 2023, 13 (05) : 732 - 759
  • [43] China's Energy Consumption and Carbon Peak Path Under Different Scenarios
    Chen X.-Y.
    Zhou C.
    Wang T.
    [J]. Huanjing Kexue/Environmental Science, 2023, 44 (10): : 5464 - 5477
  • [44] Development of NGI's Deepwater Gas Probe, DGP
    Mokkelbost, KH
    Strandvik, S
    [J]. GEOSHORE INTERNATIONAL CONFERENCE ON OFFSHORE AND NEARSHORE GEOTECHNICAL ENGINEERING, 2000, : 107 - 111
  • [45] China's deepwater development: subsurface challenges and opportunities
    Li, Hangyu
    Zhang, Ming
    Lau, Hon Chung
    Fu, Shiwen
    [J]. JOURNAL OF PETROLEUM SCIENCE AND ENGINEERING, 2020, 195
  • [46] Analysis of the Financing Structure of China's Listed New Energy Companies under the Goal of Peak CO2 Emissions and Carbon Neutrality
    Li, Fuyou
    Di, Hao
    [J]. ENERGIES, 2021, 14 (18)
  • [47] China's Momentous Carbon Neutrality Goal
    ZOU JI
    [J]. China Today, 2021, 70 (01) : 38 - 40
  • [48] Construction and Evolution of China’s New Power System Under Dual Carbon Goal
    Ren D.
    Xiao J.
    Hou J.
    Du E.
    Jin C.
    Liu Y.
    [J]. Dianwang Jishu/Power System Technology, 2022, 46 (10): : 3831 - 3839
  • [49] Exploration of the CO2 conversion under China’s carbon neutrality goal
    Zhou H.
    Zhou Y.
    Xu C.
    [J]. Huagong Jinzhan/Chemical Industry and Engineering Progress, 2022, 41 (06): : 3381 - 3385
  • [50] China's shipping emissions governance: status and prospects under the dual carbon goal
    Hu, Mai
    Dong, Yue
    [J]. FRONTIERS IN MARINE SCIENCE, 2024, 11