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Stage analysis and production evaluation for class III gas hydrate deposit by depressurization

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  • Lu, Nu
  • Hou, Jian
  • Liu, Yongge
  • Barrufet, Maria A.
  • Ji, Yunkai
  • Xia, Zhizeng
  • Xu, Boyue

Abstract

Natural gas hydrate is of wide distribution and great potential as clean energy. To improve the production performance, the production characteristics of class III gas hydrate are studied by numerical simulation method when initial gas saturation is below the irreducible gas saturation. Based on the gas production behavior, a quantitative method is developed using both the production data and deposit properties to analyze the production process. A new index is introduced to evaluate the energy utilization efficiency of production stages. Then the influencing factors are analyzed. The results indicate that production can be divided into four stages, including slow changing stage, rapid increasing stage, rapid decreasing stage and stable decreasing stage. The boundaries between stages are clearly defined. Compared with other production stages, the first stage has lower energy utilization efficiency. The ratio drop of energy consumed by this stage can enhance the accumulative gas production. The gas flow ability and drawdown pressure impact the production stage and production performance. Optimization of related factors can improve the production performance. Hot fluid injection and fracturing should be considered when reservoir energy is low or gas flow ability is weak.

Suggested Citation

  • Lu, Nu & Hou, Jian & Liu, Yongge & Barrufet, Maria A. & Ji, Yunkai & Xia, Zhizeng & Xu, Boyue, 2018. "Stage analysis and production evaluation for class III gas hydrate deposit by depressurization," Energy, Elsevier, vol. 165(PB), pages 501-511.
    • Handle: RePEc:eee:energy:v:165:y:2018:i:pb:p:501-511
    DOI: 10.1016/j.energy.2018.09.184
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    Cited by:

    1. Bai, Yajie & Hou, Jian & Liu, Yongge & Lu, Nu & Zhao, Ermeng & Ji, Yunkai, 2020. "Interbed patterns division and its effect on production performance for class I hydrate deposit with mudstone interbed," Energy, Elsevier, vol. 211(C).
    2. Feng, Yongchang & Chen, Lin & Kanda, Yuki & Suzuki, Anna & Komiya, Atsuki & Maruyama, Shigenao, 2021. "Numerical analysis of gas production from large-scale methane hydrate sediments with fractures," Energy, Elsevier, vol. 236(C).
    3. Choi, Wonjung & Mok, Junghoon & Lee, Yohan & Lee, Jaehyoung & Seo, Yongwon, 2021. "Optimal driving force for the dissociation of CH4 hydrates in hydrate-bearing sediments using depressurization," Energy, Elsevier, vol. 223(C).
    4. Zhong, Xiuping & Pan, Dongbin & Zhu, Ying & Wang, Yafei & Tu, Guigang & Nie, Shuaishuai & Ma, Yingrui & Liu, Kunyan & Chen, Chen, 2022. "Commercial production potential evaluation of injection-production mode for CH-Bk hydrate reservoir and investigation of its stimulated potential by fracture network," Energy, Elsevier, vol. 239(PB).
    5. Zhao, Ermeng & Hou, Jian & Liu, Yongge & Ji, Yunkai & Liu, Wenbin & Lu, Nu & Bai, Yajie, 2020. "Enhanced gas production by forming artificial impermeable barriers from unconfined hydrate deposits in Shenhu area of South China sea," Energy, Elsevier, vol. 213(C).
    6. Lu, Nu & Hou, Jian & Liu, Yongge & Barrufet, Maria A. & Bai, Yajie & Ji, Yunkai & Zhao, Ermeng & Chen, Weiqing & Zhou, Kang, 2019. "Revised inflow performance relationship for productivity prediction and energy evaluation based on stage characteristics of Class III methane hydrate deposits," Energy, Elsevier, vol. 189(C).
    7. Hou, Jian & Zhao, Ermeng & Liu, Yongge & Ji, Yunkai & Lu, Nu & Liu, Yueliang & Li, Huazhou Andy & Bai, Yajie, 2019. "Pressure-transient behavior in class III hydrate reservoirs," Energy, Elsevier, vol. 170(C), pages 391-402.

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