用于提高采收率的HPAM聚合物溶液机械降解的实验评价

Gustavo Maya Toro, Julia Jineth Herrera Quintero, Rubén Hernán Castro García, Henderson Iván Quintero Pérez, Dalje Sunith Barbosa Trillos, L. Prada, Laura Maldonado Manrique, Eduar Pérez
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引用次数: 2

摘要

本研究通过实验设计(DoE),分析了物理变量(毛细管直径和压降)和化学变量(盐度、聚合物浓度和分子量)对提高采油过程中部分水解聚丙烯酰胺型聚合物溶液(HPAM)机械降解的影响。首先,在分数因子设计(2k-p)的帮助下,找到了对聚合物机械降解影响最大的变量。筛选的实验结果表明,统计上影响机械降解的因素是分子量、毛细管直径和压差。随后,建立了一个回归模型来估计HPAM聚合物溶液的降解百分比作为影响聚合物溶液机械降解的重要因素的函数。该模型与实验条件下的预测值拟合率为97.85%。同样,通过Box Behnken响应面法进行优化,确定压差是影响最大的因素。其次是毛细管直径,当聚合物分子量较低(6.5 MDa)、压差小于500 psi、毛细管直径大于0.125英寸时,降解率低于50%。
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Experimental evaluation of the mechanical degradation of HPAM polymeric solutions used in Enhanced Oil Recovery
With the design of experiments (DoE), this study analyses the influence of physical (capillary diameter and pressure drop) and chemical variables (salinity, polymer concentration, and molecular weight) on the mechanical degradation of partially hydrolyzed polyacrylamide-type polymer solutions (HPAM) used in enhanced oil recovery processes. Initially, with the help of a fractional factorial design (2k-p), the variables with the most significant influence on the polymer's mechanical degradation were found. The experimental results of the screening demonstrate that the factors that statistically influence the mechanical degradation are the molecular weight, the diameter of the capillary, and the pressure differential. Subsequently, a regression model was developed to estimate the degradation percentages of HPAM polymer solutions as a function of the significant factors influencing the mechanical degradation of polymer solutions. This model had a 97.85% fit for the predicted values under the experimental conditions. Likewise, through the optimization developed by the Box Behnken response surface methodology, it was determined that the pressure differential was the most influential factor. This variable was followed by the capillary diameter, where less than 50% degradation rates are obtained with low polymer molecular weight (6.5 MDa), pressure differentials less than 500 psi, and diameters of the capillary greater than 0.125 inches.
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