一种可以用于干燥微观领域研究的新方法
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摘要
分析了当前干燥学科发展的新态势及干燥微观领域的研究状况,简单介绍了格子气自动机法的发展状况及FHP模型与扩展模型LG的模型原理,并用LG模型对液体的相变过程进行模拟,从模拟结果可以清晰地看到气泡的产生、生长、分解过程。在模拟相变过程的基础上,分析了LG模型应用在干燥微观领域研究的可行性。
A microscopic method for drying research, the lattice gas automata were introduced. A phase transition process in liquid was simulated by the LG (liquid-gas) model and a series images of bubbling variety were obtained by the computer simulation. The feasibility of applying the LG model in microscopic drying research was discussed based on the simulation of phase transition.
A microscopic method for drying research, the lattice gas automata were introduced. A phase transition process in liquid was simulated by the LG (liquid-gas) model and a series images of bubbling variety were obtained by the computer simulation. The feasibility of applying the LG model in microscopic drying research was discussed based on the simulation of phase transition.
引文
[1] Mujumdar A S．全球干燥技术的研究与进展[J]．www．dry．com．cn, 2004-08-19．
[2]曹崇文．第十三届国际干燥学术研讨会(IDS 2002)简介[J]． www．dry．com．cn,2004-9-9．
[3]潘永康,王喜忠．现代干燥技术[M]．北京:化学工业出版社,1998．
[4]曹崇文．我国干燥技术学术交流活动纪事[J]．干燥技术与设备, 2003,(1):52-54．
[5]刘登瀛．超常传递过程-干燥基础研究的新领域(二)[J]．干燥技 术与设备,2004,(2):3-5．
[6]Mujumdar A S．干燥技术的革新及未来发展趋势[J]． www．dry．com．cn,2004-08-19．
[7]葛仕福．现代干燥理论与技术简评[J]．化工装备技术,2004,25 (2):19-23．
[8]刘友明,谭军,赵思明,干燥对稻谷籽粒微观结构的影响研究[J]． 中国粮油学报,2004,19(4):5-8．
[9]杨浩林．玉米内部传热传质的理论分析及其数值模拟[D]．沈阳: 东北大学,2002．
[10]刘舒考,刘裴林,郑晓东．格子气自动机模型-一种地震数据正 演研究的新方法[J]．石油地球物理勘探,1998,33(5):658-662．
[11]李元香,康立山,陈毓屏．格子气自动机[M]．北京:清华大学出 版社,1994．
[12]李元香．模拟流体力学的离散运动论模型[J]．数值计算与计算机 应用,1995,(3):233-240．
[13]钱跃竑,D d'Humie res,Y Pomeau,et al．格子气流体动力学及其 最新进展[J]．力学与实践,1990,(12):7-16．
[14] Luo Li-shi.The lattice-gas and lattice Boltzamann methods:Past, Present and future, ICASE. Mail stop 132C.NASA Langley Reserch Center, 54-83.
[15]战洪仁,寇丽萍．多方位粒子相互作用的格子气自动机法相变模 型[J]．材料与冶金学报,2003,2(3):237-240．
[16] Appert C,Zaleski S.Dynamical liquid-gas phase transition[J]. Physics Abstracts. 1993,(3):309-337.
[17] Pot V, Appert C, Melayah A, et al.Interacting Lattice Gas Automaton Study of Liquid-Gas Properties in Porous Media[J].J.Phys.Ⅱ France 1996,(6): 1517-1534.
[2]曹崇文．第十三届国际干燥学术研讨会(IDS 2002)简介[J]． www．dry．com．cn,2004-9-9．
[3]潘永康,王喜忠．现代干燥技术[M]．北京:化学工业出版社,1998．
[4]曹崇文．我国干燥技术学术交流活动纪事[J]．干燥技术与设备, 2003,(1):52-54．
[5]刘登瀛．超常传递过程-干燥基础研究的新领域(二)[J]．干燥技 术与设备,2004,(2):3-5．
[6]Mujumdar A S．干燥技术的革新及未来发展趋势[J]． www．dry．com．cn,2004-08-19．
[7]葛仕福．现代干燥理论与技术简评[J]．化工装备技术,2004,25 (2):19-23．
[8]刘友明,谭军,赵思明,干燥对稻谷籽粒微观结构的影响研究[J]． 中国粮油学报,2004,19(4):5-8．
[9]杨浩林．玉米内部传热传质的理论分析及其数值模拟[D]．沈阳: 东北大学,2002．
[10]刘舒考,刘裴林,郑晓东．格子气自动机模型-一种地震数据正 演研究的新方法[J]．石油地球物理勘探,1998,33(5):658-662．
[11]李元香,康立山,陈毓屏．格子气自动机[M]．北京:清华大学出 版社,1994．
[12]李元香．模拟流体力学的离散运动论模型[J]．数值计算与计算机 应用,1995,(3):233-240．
[13]钱跃竑,D d'Humie res,Y Pomeau,et al．格子气流体动力学及其 最新进展[J]．力学与实践,1990,(12):7-16．
[14] Luo Li-shi.The lattice-gas and lattice Boltzamann methods:Past, Present and future, ICASE. Mail stop 132C.NASA Langley Reserch Center, 54-83.
[15]战洪仁,寇丽萍．多方位粒子相互作用的格子气自动机法相变模 型[J]．材料与冶金学报,2003,2(3):237-240．
[16] Appert C,Zaleski S.Dynamical liquid-gas phase transition[J]. Physics Abstracts. 1993,(3):309-337.
[17] Pot V, Appert C, Melayah A, et al.Interacting Lattice Gas Automaton Study of Liquid-Gas Properties in Porous Media[J].J.Phys.Ⅱ France 1996,(6): 1517-1534.
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