Chemical Industry and Engineering Progress ›› 2019, Vol. 38 ›› Issue (02): 740-751.DOI: 10.16085/j.issn.1000-6613.2017-2641
• Chemical processes and equipment • Previous Articles Next Articles
Xin LI1,2(),Pan ZHANG2,3,Guanghui CHEN1,2,Jianlong LI1,2()
Received:
2017-12-21
Revised:
2018-01-26
Online:
2019-02-05
Published:
2019-02-05
Contact:
Jianlong LI
通讯作者:
李建隆
作者简介:
<named-content content-type="corresp-name">李鑫</named-content>(1992—),男,博士研究生,研究方向为传质与分离工程。E-mail:<email>qdlx2015@126.com</email>。|李建隆,教授,博士生导师,研究方向为多相流体的流动与分离。E-mail:<email>ljlong@qust.edu.cn</email>。
基金资助:
CLC Number:
Xin LI, Pan ZHANG, Guanghui CHEN, Jianlong LI. Rising behavior of bubbles and interfacial mass transfer in liquid: experimental study and numerical simulation[J]. Chemical Industry and Engineering Progress, 2019, 38(02): 740-751.
李鑫, 张攀, 陈光辉, 李建隆. 液相中气泡上升行为与界面传质:实验研究与数值计算[J]. 化工进展, 2019, 38(02): 740-751.
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多相流数值计算模型 | 优点 | 缺点 |
---|---|---|
边界积分法[ | 计算量小,能准确模拟表面张力效应 | 难以模拟流场的拓扑变化和黏性效应 |
界面追踪法[ | 计算精确度较高 | 处理拓扑几何变化计算量大 |
水平集方法[ | 模拟相界面动态行为效果较好 | 处理三维数值模拟效果不理想 |
流体体积函数模型 | 利用几何重构实现界面追踪,可清晰地区分各相主体以及界面 | 计算光滑几何特性精确度偏低 |
水平集-流体体积函数耦合法[ | 模拟界面及流场变化效果较好 | 计算过程复杂,计算量较大 |
混合模型[ | 可模拟各相速度不同的多相流以及强烈耦合的各向同性多相流 | 对界面特性的计算结果不理想 |
欧拉模型 | 计算精确度较高,适用范围广 | 由于各相采用不同动量方程描述,导致计算量很大 |
多相流数值计算模型 | 优点 | 缺点 |
---|---|---|
边界积分法[ | 计算量小,能准确模拟表面张力效应 | 难以模拟流场的拓扑变化和黏性效应 |
界面追踪法[ | 计算精确度较高 | 处理拓扑几何变化计算量大 |
水平集方法[ | 模拟相界面动态行为效果较好 | 处理三维数值模拟效果不理想 |
流体体积函数模型 | 利用几何重构实现界面追踪,可清晰地区分各相主体以及界面 | 计算光滑几何特性精确度偏低 |
水平集-流体体积函数耦合法[ | 模拟界面及流场变化效果较好 | 计算过程复杂,计算量较大 |
混合模型[ | 可模拟各相速度不同的多相流以及强烈耦合的各向同性多相流 | 对界面特性的计算结果不理想 |
欧拉模型 | 计算精确度较高,适用范围广 | 由于各相采用不同动量方程描述,导致计算量很大 |
气液体系 | 多相流 模型 | 气泡类型 | 作者及发表年份 |
---|---|---|---|
空气-水 | VOF | 多气泡 | 王乐等[ |
空气-水 | VOF | 多气泡 | Zhang等[ |
空气-水 | VOF | 多气泡 | Akhtar等[ |
空气-水 | VOF | 单气泡 | 程军明等[ |
空气-水 | VOF | 单气泡 | Guan等[ |
空气-水 | VOF | 单气泡 | 蔡杰进等[ |
空气-水 | VOF | 单气泡 | 赵婷婷等[ |
空气-水 | VOF | 单气泡 | 徐玲君等[ |
空气-水 | VOF | 单气泡 | Goel等[ |
空气-水 | Eulerian | 多气泡 | Pourtousi等[ |
空气-水 | Eulerian | 多气泡 | Rampure等[ |
空气-水 | Eulerian | 多气泡 | Chen等[ |
空气-水 | Eulerian | 多气泡 | Sanyal等[ |
空气-水 | Eulerian | 单气泡 | 鞠花等[ |
空气-羧甲基纤维素钠溶液 | VOF | 单气泡 | Premlata等[ |
空气-0.4%羧甲基纤维素钠溶液 | VOF | 多气泡 | Liu等[ |
空气-0.5%羧甲基纤维素钠溶液 | VOF | 多气泡 | Liu等[ |
空气-甘油+水 | VOF-IB | 单气泡/多气泡 | Baltussen等[ |
空气-水/甘油+水 | VOF | 单气泡 | Rabha等[ |
氮气-离子液体 | VOF | 单气泡 | Wang等[ |
空气-液态流体(未公开) | VOF | 单气泡 | Taha等[ |
气液体系 | 多相流 模型 | 气泡类型 | 作者及发表年份 |
---|---|---|---|
空气-水 | VOF | 多气泡 | 王乐等[ |
空气-水 | VOF | 多气泡 | Zhang等[ |
空气-水 | VOF | 多气泡 | Akhtar等[ |
空气-水 | VOF | 单气泡 | 程军明等[ |
空气-水 | VOF | 单气泡 | Guan等[ |
空气-水 | VOF | 单气泡 | 蔡杰进等[ |
空气-水 | VOF | 单气泡 | 赵婷婷等[ |
空气-水 | VOF | 单气泡 | 徐玲君等[ |
空气-水 | VOF | 单气泡 | Goel等[ |
空气-水 | Eulerian | 多气泡 | Pourtousi等[ |
空气-水 | Eulerian | 多气泡 | Rampure等[ |
空气-水 | Eulerian | 多气泡 | Chen等[ |
空气-水 | Eulerian | 多气泡 | Sanyal等[ |
空气-水 | Eulerian | 单气泡 | 鞠花等[ |
空气-羧甲基纤维素钠溶液 | VOF | 单气泡 | Premlata等[ |
空气-0.4%羧甲基纤维素钠溶液 | VOF | 多气泡 | Liu等[ |
空气-0.5%羧甲基纤维素钠溶液 | VOF | 多气泡 | Liu等[ |
空气-甘油+水 | VOF-IB | 单气泡/多气泡 | Baltussen等[ |
空气-水/甘油+水 | VOF | 单气泡 | Rabha等[ |
氮气-离子液体 | VOF | 单气泡 | Wang等[ |
空气-液态流体(未公开) | VOF | 单气泡 | Taha等[ |
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