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Understanding Ceramic Proppants: Are They All Created Equal?

机译:了解陶瓷支撑剂:它们都是平等的吗?

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Introduced in the 1970’s, ceramic proppants have provided the industry with higher conductivity alternatives to naturally occurring frac sand, and are used to increase well productivity in a wide range of reservoir conditions. Initially dominated by a handful of ceramic proppant manufacturers, the increased recognition of the need for highly conductive fractures has led to a tremendous growth in the industry, with nearly 100 ceramic proppant plants in operation today [Kim 2012]. The oil and gas industry used more than 65 billion pounds of proppant in 2011, and the rapid growth of the ceramic industry often could not keep pace with the surging global demand. This explosive growth has led to significant variations in ceramic proppant quality and sustained conductivity, which affects production benefits. Although the industry has historically considered ceramic proppants to be interchangeable, they represent a wide range of different materials whose properties are highly dependent upon their composition and manufacturing technology. This paper will examine the performance of different types of ceramic, including lightweight, intermediate density and high density proppants, and some of the new materials that don’t necessarily fit neatly into these categories. It will also describe the major manufacturing techniques used in the industry, and illustrate the differences that key steps in the industrial process have in the quality and conductivity of the final product. Microphotographs and laboratory testing will be supplemented with modeling forecasts to show the productivity expected from specific ceramic proppants at realistic conditions. Finally, field studies will be presented which corroborate the predictions that proppant quality significantly affects well productivity and proppants within the same generic categorization do not provide identical productivity. This paper will serve as an excellent resource to completion and fracture design engineers as they navigate their way to choosing the optimal proppant for specific well parameters and economic conditions. It will be clear that proppants should not be considered an interchangeable commodity, and that well performance will be dependent on the quality and characteristics of the specific proppants selected.
机译:在20世纪70年代推出的陶瓷支撑剂提供了具有较高导电性的替代品的行业,以便在广泛的储层条件下提高良好的生产率。最初由少数陶瓷支撑剂制造商主导,增加了对高导电性裂缝的需求的增加导致了该行业的巨大增长,目前在运营中有近100个陶瓷支撑厂[金2012]。石油和天然气工业在2011年使用了超过650亿英镑的支撑剂,陶瓷行业的快速增长往往无法与全球需求飙升的步伐。这种爆炸性增长导致陶瓷支撑剂质量和持续电导率的显着变化,这影响了生产效益。虽然该行业历史上被认为是可互换的陶瓷支撑剂,但它们代表了各种不同的材料,其特性高度依赖于其组成和制造技术。本文将研究不同类型陶瓷的性能,包括轻质,中间密度和高密度的支撑剂,以及一些不一定地融入这些类别的新材料。它还将描述行业中使用的主要制造技术,并说明了工业过程中的关键步骤具有最终产品的质量和电导率的差异。将补充显微照片和实验室检测,以显示建模预测,以表明特定陶瓷支撑剂在现实条件下预期的生产率。最后,将提出现场研究,其证实了支撑剂质量显着影响同一通用分类内的生产率和支撑剂的预测不提供相同的生产率。本文将作为完成和骨折设计工程师的优秀资源,因为它们导航为特定井参数和经济条件选择最佳支撑剂。很明显,支撑剂不应被认为是一种可互换的商品,并且该性能将取决于所选特定支撑剂的质量和特征。

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