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Study on Optimizing High-Gradient Magnetic Separation—Part 1: Improvement of Magnetic Particle Retention Based on CFD Simulations

机译:优化高梯度磁选的研究-第1部分:基于CFD仿真的磁粉保留率的改进

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The introduction of functionalized magnetizable particles for the purification of enzymes or for the multi-use of pre-immobilized biocatalysts offers a great potential for time and cost savings in biotechnological process design. The selective separation of the magnetizable particles is performed for example by a high-gradient magnetic separator. In this study FEM and CFD simulations of the magnetic field and the fluid flow field within a filter chamber of a magnetic separator were carried out, to find an optimal separator design. The motion of virtual magnetizable particles was calculated with a one-way coupled Lagrangian approach in order to test many geometric and parametric variations in reduced time. It was found that a flow homogenisator smoothed the fluid flow, so that the linear velocity became nearly equal over the cross section in the direction of flow. Furthermore the retention of magnetizable particles increases with a high total edge length within the filter matrix.
机译:引入功能化的可磁化颗粒用于酶的纯化或预固定的生物催化剂的多种用途,为节省生物技术工艺设计的时间和成本提供了巨大潜力。可磁化颗粒的选择性分离例如通过高梯度磁性分离器进行。在这项研究中,对电磁分离器的过滤室内的磁场和流体流场进行了有限元和CFD仿真,以找到最佳的分离器设计。虚拟磁化粒子的运动是通过单向耦合拉格朗日方法计算的,目的是在减少的时间内测试许多几何和参数变化。已经发现,均质器使流体流动变得平滑,从而线速度在流动方向上的横截面上变得几乎相等。此外,在过滤器基质内,可磁化颗粒的保留随着总边缘长度的增加而增加。

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