Agglomeration of Fines and Sand in the Separator

N.'.A. M Fauzi, T. Ganat, K. Elraies, S. Ridha, S. Zainal, W. Saphanuchart
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Abstract

Fines and sand capturing inside the separator is one of the methods to prevent solids carry over. Currently, there are ongoing studies to identify the suitable method to agglomerate the produced solids. Generally, heavier solids would be denser and easily settled at the bottom of the vessel, hence no solids carry over issues. Produced solids can be consisting of natural solids and/or artificial solids. Several types of polymers have been evaluated based on its agglomeration performance, rheology and compatibility as an approach to establish suitable particle size to minimize sand free rate. The procedures involved include bottle test experiments coupled with particle size distribution (PSD) analysis via Laser Particle Size Analyzer (LPSA). The materials used in the experiments are glass beads with sizes of 50µm and 100µm, synthetic water (0.1M NaCl), a cationic polymer and an anionic polymer. Both polymers have high molecular weight which is known to provide good agglomeration capacity. For each experiment, a 5g of glass bead was placed together with 90mL of synthetic water in a 100mL measuring cylinder. The system was then tested using three polymer system; i) a single cationic polymer system, ii) a single anionic polymer system and iii) a combination of both cationic and anionic polymer system. Light agitation was applied on each, PSD was evaluated and results compared to those of the untreated samples. The improvement of particle size distribution was observed for all three systems. The results will be discussed further in the paper. The novelty of this research is the application of the sand agglomeration mechanism towards surface sand capturing via separator.
细砂在分离器中的结块
分离器内的细粒和砂粒捕获是防止固体携带的方法之一。目前,有正在进行的研究,以确定合适的方法来凝聚产生的固体。一般来说,较重的固体密度更大,更容易在容器底部沉淀,因此没有固体携带问题。所生产的固体可以由天然固体和/或人造固体组成。根据聚合物的团聚性能、流变性和相容性,对几种聚合物进行了评估,以确定合适的粒径,从而最大限度地降低无砂率。所涉及的程序包括瓶子测试实验以及通过激光粒度分析仪(LPSA)进行粒度分布(PSD)分析。实验材料为尺寸分别为50µm和100µm的玻璃微珠、人工合成水(0.1M NaCl)、阳离子聚合物和阴离子聚合物。这两种聚合物都具有高分子量,这是已知的提供良好的团聚能力。每次实验,将5g玻璃珠与90mL合成水一起放入100mL量筒中。然后使用三聚合物体系对该体系进行了测试;1)单一阳离子聚合物体系;2)单一阴离子聚合物体系;3)阳离子和阴离子聚合物体系的组合。对每个样品进行轻度搅拌,评估PSD并将结果与未经处理的样品进行比较。三种体系的粒径分布均有改善。结果将在本文中进一步讨论。本研究的新颖之处在于将砂团聚机理应用于分离器表面捕砂。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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