一种新型高性能轻质热水泥的设计与应用

Jared Taylor, Simon S. Iremonger
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引用次数: 3

摘要

与传统的高密度水泥混合物相比,轻质水泥具有显著的性能优势,包括;提高了机械性能和应力恢复能力,降低了导热系数,降低了ecd,提高了地面回收量,降低了因环空压力被困导致套管坍塌的风险。然而,在开发用于热应用的轻质共混物方面存在许多挑战,特别是在低井底静态温度下实现水泥的短等待,同时确保高温下的长期化学和机械稳定性。在这里,我们报告了一种新型轻质热水泥利用中空玻璃微球的发展。通过经济有效的添加剂调整,进一步微调了所需的水泥浆性能,包括可控制的稠化时间、零游离水、低失液和短WOC,并通过在环境和高温(340℃)下的长期养护验证了水泥的机械性能。为了确保在受控的实验室环境中取得的高性能,一旦部署到全面的现场水平,就会进行广泛的QA/QC程序。该过程包括在每次作业前收集现场干体样品并确认性能(增稠时间、游离水、流变性和失液)。在对混合工艺进行初步优化后,在20多个工作过程中实现了100%的成功率。总之,一种具有优异长期力学性能的高质量轻质热水泥被成功开发和应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Application of a New High Performance Lightweight Thermal Cement
Lightweight cements offer significant performance benefits over conventional higher density cement blends, including; improved mechanical properties and stress resilience, lower thermal conductivity, lower ECDs and improved returns to surface and potentially lower risk of casing collapse due to trapped annular pressure. However, a number of challenges exist in developing lightweight blends for thermal applications specifically concerning achieving short wait on cement at low bottom hole static temperature while also ensuring long-term chemical and mechanical stability at high temperatures. Here we report the development of a new lightweight thermal cement by utilizing hollow glass microspheres. Further fine-tuning of the desired slurry properties including controllable thickening times, zero free water, low fluid loss and short WOC was achieved through cost-effective additive adjustment, and the mechanical properties of the cement we validated by long term curing at both ambient and high temperaures (340 °C). To ensure that the high performance achieved in the controlled lab environment was maintained once deployed at full-scale field level an extensive QA/QC program was undertaken. This process involved collecting dry bulk field samples and confirming performance (thickening time, free water, rheology and fluid loss) prior to every job. After initial optimization of the blending process, a 100% success rate was achieved over the course of a more than a twenty jobs. Overall, a high quality lightweight thermal cement with excellent long-term mechanical properties was successfully developed and deployed.
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