New Technology Yields Ultrahigh-Strength Proppant

被引:33
|
作者
Palisch, T. [1 ]
Duenckel, R. [1 ]
Wilson, B. [1 ]
机构
[1] CARBO Ceram, Houston, TX 77079 USA
来源
SPE PRODUCTION & OPERATIONS | 2015年 / 30卷 / 01期
关键词
D O I
10.2118/168631-PA
中图分类号
TE [石油、天然气工业];
学科分类号
0820 ;
摘要
Nearly all of the proppant available on the market today can be classified into one of three tiers-sand, resin-coated sand, or ceramic. The products contained in these three tiers have served the industry well and have typically covered the broad spectrum of applications required by completions engineers. However, with the development of deeper reservoirs and the ongoing look at geothermal and steamflood applications, there now exists a gap in proppant technology. No conventional proppant can provide sufficient conductivity at the 20,000-psi (and higher) closure stresses anticipated in the Lower Tertiary formations in the deep Gulf of Mexico. Similarly, no conventional proppant can adequately withstand the harsh chemical conditions in many geothermal and steamflood applications. The industry has begun to address this gap in performance with the development of higher-strength proppants. One such proppant has been developed and commercialized to meet these challenges. It achieves twice the baseline conductivity of any conventional proppant at these high stresses, and should also provide additional advantages because of increased durability. This paper will review the step-change advancements achieved by this new proppant, including improvements in both raw materials and manufacturing processes. It will present properties never seen before in regard to proppant shape, sizing, and strength. Extensive laboratory testing has been completed and will be presented to demonstrate the superior performance of the proppant in harsh conditions. The paper will also outline the expected applications for this product, including areas in which increased production rates, superior estimated ultimate recovery, lower erosivity, and reduced equipment wear are primary concerns. Field applications are under way to properly assess the implications of these findings. This paper should be beneficial to all completions engineers and production technologists currently working in regions with high-stress applications (>= 14,000 psi) or other harsh conditions such as those of steamflooding and geothermal applications.
引用
收藏
页码:76 / 81
页数:6
相关论文
共 50 条
  • [21] Mechanical properties of ultrahigh-strength gold nanowires
    Wu, B
    Heidelberg, A
    Boland, JJ
    NATURE MATERIALS, 2005, 4 (07) : 525 - 529
  • [22] Controlling Hydrogen Embrittlement in Precharged Ultrahigh-Strength Steels
    Dogan, H.
    Li, D.
    Scully, J. R.
    CORROSION, 2007, 63 (07) : 689 - 703
  • [23] The effect of mechanical behavior on bendability of ultrahigh-strength steel
    Arola, Anna-Maija
    Kaijalainen, Antti
    Kesti, Vili
    Troive, Lars
    Larkiola, Jari
    Porter, David
    MATERIALS TODAY COMMUNICATIONS, 2021, 26
  • [24] Ultrahigh-strength TWIP steel strengthens impact resistance
    Anon
    Advanced Materials and Processes, 2005, 163 (07):
  • [25] A polymer-like ultrahigh-strength metal alloy
    Xu, Zhizhi
    Ji, Yuanchao
    Liu, Chang
    He, Liqiang
    Zhao, Hui
    Yuan, Ye
    Qian, Yu
    Cui, Jin
    Xiao, Andong
    Wang, Wenjia
    Yang, Yang
    Ma, Tianyu
    Ren, Xiaobing
    NATURE, 2024, 633 (8030) : 575 - 581
  • [26] Precision piercing and blanking of ultrahigh-strength steel sheets
    Murakawa, Masao
    Suzuki, Manabu
    Shionome, Tomio
    Komuro, Fumitoshi
    Harai, Akira
    Matsumoto, Akira
    Koga, Nobuhiro
    11TH INTERNATIONAL CONFERENCE ON TECHNOLOGY OF PLASTICITY, ICTP 2014, 2014, 81 : 1114 - 1120
  • [27] Review of precipitation strengthening in ultrahigh-strength martensitic steel
    Zhihao Tian
    Chunlei Shang
    Chaolei Zhang
    Xiaoye Zhou
    Honghui Wu
    Shuize Wang
    Guilin Wu
    Junheng Gao
    Jiaming Zhu
    Xinping Mao
    International Journal of Minerals,Metallurgy and Materials, 2025, (02) : 256 - 269
  • [28] Carbide dissolution and austenite grain growth behavior of a new ultrahigh-strength stainless steel
    Liu, Zhen-bao
    Tu, Xin
    Wang, Xiao-hui
    Liang, Jian-xiong
    Yang, Zhi-yong
    Sun, Yong-qing
    Wang, Chang-jun
    JOURNAL OF IRON AND STEEL RESEARCH INTERNATIONAL, 2020, 27 (06) : 732 - 741
  • [29] Review of precipitation strengthening in ultrahigh-strength martensitic steel
    Tian, Zhihao
    Shang, Chunlei
    Zhang, Chaolei
    Zhou, Xiaoye
    Wu, Honghui
    Wang, Shuize
    Wu, Guilin
    Gao, Junheng
    Zhu, Jiaming
    Mao, Xinping
    INTERNATIONAL JOURNAL OF MINERALS METALLURGY AND MATERIALS, 2025, 32 (02) : 256 - 269
  • [30] Carbide dissolution and austenite grain growth behavior of a new ultrahigh-strength stainless steel
    Zhen-bao Liu
    Xin Tu
    Xiao-hui Wang
    Jian-xiong Liang
    Zhi-yong Yang
    Yong-qing Sun
    Chang-jun Wang
    Journal of Iron and Steel Research International, 2020, 27 : 732 - 741