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Coupling of Contact Nucleation Kinetics with Breakage Model for Crystallization of Sodium Chloride Crystal in Fluidized Bed Crystallizer

机译:接触成核动力学与破损模型的偶联模拟流化床结晶氯化钠晶体结晶

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摘要

There are many nucleation theory-based different mechanisms. These theories mainly focused on production parameters in the crystallization and less on physical properties of crystals. In this research, a new model of contact nucleation theory coupled with the breakage mechanism of crystals is applied to describe the collision process in sodium chloride crystallization. This coupling nucleation model is presented here which relates the number of contact-collision site in nucleation owing to collision rate and the interfacial energy. F2 in the expression of the classic contact nucleation rate is redefined as a power function with the physical properties of crystals and breakage propensity. The experiment results indicate that crystal breakage propensity has a significant influence on the nucleation rate. Finally, analysis of the contact nucleation kinetic model and comparison with experiments reveal that the new nucleation model results are in better agreement with experiments. This new nucleation model is confirmed to represent the time-dependent collision behavior. The parameters of model are strongly related to the physical properties of crystal and fluidization conditions.
机译:基于成核的不同机制有许多成核理论。这些理论主要集中在结晶中的生产参数和较少的晶体物理性质。在该研究中,应用与晶体破裂机制耦合的新型接触成核理论模型,用于描述氯化钠结晶中的碰撞过程。此处提出了该偶联成核模型,其涉及由于碰撞速率和界面能量而在成核中的接触碰撞部位的数量。在经典接触成核表达中的表达式的F2被重新定义为功率功能,具有晶体的物理性质和破损倾向。实验结果表明,晶体断裂倾向对核切割率具有显着影响。最后,分析了与实验的接触成核动力学模型及其比较表明,新的成核模型结果与实验更好。确认该新的成核模型代表了时间依赖的碰撞行为。模型参数与晶体和流化条件的物理性质密切相关。

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