Investigation of drag reduction by slurry-like drag-reducing agent in microtube flow using response surface methodology (RSM)

Author:

Cheng Zhensong1,Zhang Xin1,Dai Xiaodong1,Song Xinwang1,Li Lei1,Liu FeiFan1,Zhang Guoxin2,Lu Yuan2,Wang Xudong1

Affiliation:

1. Shandong Institute of Petroleum and Chemical Technology

2. CNOOC (Tianjin) Oilfield Chemical Co., Ltd

Abstract

Abstract In this study, we investigated the drag reduction property of a premixed slurry drag reducer in a millimeter-scale pipe. The aim of this study is to establish the correlation between Fanning friction factor and drag reducer concentration (C) and volume flow (Q). First, the experimental plan was designed by using the response surface method (RSM), and then the experimental data were processed to establish the quadratic correlation between the response variable and the description variable. After that, ANOVA analysis of variance was used to verify the accuracy of the experimental data and the correlation. Finally, the prediction model is extended to a larger concentration and volume flow range, and it is found that the accuracy between the predicted value of friction coefficient and the experimental value is ±30%, thus verifying that the correlation is suitable for the small-scale fully turbulent region.

Publisher

Research Square Platform LLC

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