估算输送二氧化碳管道的线路包装时间

Sergey B. Martynov, Richard T.J. Porter, Haroun Mahgerefteh
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摘要

在输送可压缩流体的加压管道运行过程中,管线填料是一种有效的方法,它利用管道本身作为缓冲存储,对流体供应或需求的波动进行补偿。在大容量天然气输送系统中,管线填料期间达到最大工作压力通常不是实际问题,但在输送低压缩性流体(如液态或浓相二氧化碳)的小容量管道中,管线填料可能会迅速发生,因此,估算管线填料时间对于确保避免超过管道最大允许工作压力非常重要。在本研究中,根据管道中的瞬态质量平衡得出了估算管道填料时间的相关性。提出的相关性考虑了管道的整体尺寸、工作压力和温度,以及流体特性,即密度和膨胀系数。该相关性还可用于计算管道不平衡排放造成的管道拆封时间。对密集相二氧化碳管道中的管线填料进行的验证研究表明,在测试范围内,所提出的相关性对管线填料时间的估计较为保守,与使用严格的瞬态管道流动模型模拟得出的结果相差约 15%。建议的相关性还与使用抛物线流动模型获得的预测结果进行了验证,建议用于估算浓相和气相二氧化碳在压力和温度范围分别为 2 - 12 兆帕和 280 - 330 K 时的管线包装时间。文中讨论了所建议的管线填料时间相关性的局限性。
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Estimating the line packing time for pipelines transporting carbon dioxide

During the operation of pressurised pipelines transporting compressible fluids, line packing is employed as an effective method that uses the pipeline itself as a buffer storage, compensating for fluctuations in the fluid supply or demand. While in large-capacity natural gas transmission systems, reaching maximum operating pressures during line packing is usually not of practical concern, in small capacity pipelines transporting low-compressibility fluids, such as liquid or dense-phase CO2, line packing can occur quickly, and therefore, estimating the line packing times becomes important to ensure avoiding exceeding the pipeline maximum allowable operating pressure. In this study, a correlation for estimating the line packing time is derived from the transient mass balance in the pipeline. The proposed correlation accounts for the pipeline overall dimensions, operating pressure and temperature, and the fluid properties, namely density and the expansion coefficient. The correlation is also adopted for the calculation of pipeline unpacking times caused by unbalanced discharge from a pipeline. A verification study on line packing in a dense-phase CO2 pipeline shows that within the ranges tested, the proposed correlation estimates conservatively the line packing times with ca. 15 % deviation from the results of simulations obtained using a rigorous transient pipeline flow model. The proposed correlation is also verified against predictions obtained using a parabolic flow model and is recommended for estimating line packing times for both dense-phase and gas-phase CO2 at pressures and temperatures in the ranges 2 - 12 MPa and 280 – 330 K, respectively. The limitations of the proposed line packing time correlation are discussed.

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