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利用热力学方法研究甘氨酸和氯化镁—乙醇加合物结晶动力学

摘要第5-7页
Abstract第7-9页
1 Introduction第19-25页
    1.1 Background第19-20页
    1.2 Measurement and Modeling of Solubility第20-22页
    1.3 Scope of this Work第22-23页
    1.4 Organization of the Thesis第23页
    1.5 Final Remarks第23-25页
2 Literature Survey第25-49页
    2.1 Introduction第25页
    2.2 Solubilities of Glycine in Different Media第25-26页
        2.2.1 Glycine/water第25-26页
        2.2.2 Glycine/electrolyte/water第26页
        2.2.3 Glycine/acid-base/water第26页
        2.2.4 Glycine/alcohol/water第26页
    2.3 Previous Studies on Modeling Glycine Solubilities第26-28页
        2.3.1 Glycine/electrolyte/water第28页
        2.3.2 Glycine/acid-base/water第28页
        2.3.3 Glycine/alcohol/water第28页
    2.4 Theoretical Modeling第28-34页
        2.4.1 Bromley Model第29-30页
        2.4.2 Pitzer Model第30-31页
        2.4.3 Bromley-Zemaitis Model第31-32页
        2.4.4 ElecNRTL Model第32页
        2.4.5 The Extended UNIQUAC Model第32-33页
        2.4.6 Mixed Solvent Electrolyte (MSE) Model第33页
        2.4.7 Perturbation Theory第33-34页
        2.4.8 PC-SAFT第34页
    2.5 Introduction to OLI Software第34-36页
    2.6 Glycine第36页
    2.7 Polymorphism of Glycine第36-38页
    2.8 Crystallization第38页
    2.9 Supersaturation (Detailed in Section 6.1)第38-40页
    2.10 Driving Force for Crystallization第40页
    2.11 Homogeneous Nucleation第40-41页
    2.12 Heterogeneous Nucleation第41-42页
    2.13 Ostwald's Rule of Stages (Ostwald, 1897) (Kinetic control)第42页
    2.14 Thermodynamic Consideration (Weber et al.,1998)第42-43页
    2.15 Crystal Growth (Mullin, 2001)第43-44页
        2.15.1 Surface Energy第44页
        2.15.2 Adsorption Layer Theories第44页
        2.15.3 Diffusion Theories第44页
    2.16 Crystallization Kinetics第44-46页
        2.16.1 Nyvlt Approach(Nyvlt, 1983;Nyvlt et al.,1970:Nyvlt, 1968)第45-46页
        2.16.2 Kubota Approach (Kubota, 2008b)第46页
        2.16.3 Sangwal Approach(Sangwal,2009b)第46页
    2.17 Estimation of Interfacial Tension第46-49页
3 Solubilities and Modeling of the Glycine in Mixed NaCl-MgCl_2 Solutions atHighly Concentrated Region第49-71页
    3.1 Abstract第49-50页
    3.2 Introduction第50-52页
    3.3 Experimental Section第52-53页
        3.3.1 Chemicals第52页
        3.3.2 Experimental Procedure第52-53页
    3.4 Thermodynamic Model第53-56页
        3.4.1 Chemical Equilibria第53-54页
        3.4.2 Equilibrium Constants第54-55页
        3.4.3 Activity Coefficient Model第55-56页
    3.5 Results and Discussion第56-69页
        3.5.1 Solubilities Measurements in the Glycine-MgCl_2-H_2O andGlycine-NaCl-MgCl_2-H_2O Systems第56-66页
        3.5.2 Model Parameterization第66-69页
    3.6 Conclusions第69-71页
4 Modeling of Glycine Solubility in Aqueous HCl-MgCl_2 System and ItsApplication in Phase Transition of Glycine by Changing Media and Supersaturation第71-95页
    4.1 Abstract第71-72页
    4.2 Introduction第72-75页
    4.3 Experimental Section第75-76页
        4.3.1 Chemicals第75页
        4.3.2 Measurement of Solubilities第75页
        4.3.3 Polymorph Transformation第75-76页
    4.4 Thermodynamic Modeling Framework第76-79页
        4.4.1 Chemical Equilibrium Relationships第76-77页
        4.4.2 Equilibrium Constants第77页
        4.4.3 Activity Coefficient Model第77-79页
    4.5 Results and Discussion第79-89页
        4.5.1 Solubility Determination of Glycine in HCl and HCl-MgCl_2 Aqueous Solutions第79-85页
        4.5.2 Model Parameterization第85-88页
        4.5.3 Supersaturation Calculation第88-89页
    4.6 Polymorph Transformation of Glycine第89-94页
    4.7 Conclusions第94-95页
5 Solid-Liquid Equilibria for the Glycine-Alcohol-NaCl-H_2O System第95-117页
    5.1 Abstract第95-96页
    5.2 Introduction第96-98页
    5.3 Experimental Section第98-99页
        5.3.1 Chemical Agents第98-99页
        5.3.2 Solubility Determination第99页
    5.4 Thermodynamic Modeling第99-102页
        5.4.1 Chemical Equilibrium Relationships第99-100页
        5.4.2 Activity Coefficient Model第100-102页
    5.5 Results and Discussion第102-115页
        5.5.1 Solubility of Glycine in Ethanol and Ethanol-NaCl Aqueous Solutions第102-108页
        5.5.2 Solubility of Glycine in 1-propanol and 1-propanol-NaCl Aqueous Solutions第108-111页
        5.5.3 Solubility of NaCl in alcohol (ethanol/1-propanol)-glycine-H_2O System第111-113页
        5.5.4 Model Parameterization第113-115页
    5.6 Conclusions第115-117页
6 Crystallization Kinetics of MgCl_2-Ethanol Adduct as a Support for theZiegler-Natta Catalyst with a Thermodynamic Approach第117-137页
    6.1 Abstract第117-118页
    6.2 Introduction第118-120页
    6.3 Experimental Section第120-125页
        6.3.1 Chemicals第120页
        6.3.2 Experimental Setup第120-121页
        6.3.3 Measurement of Metastable Zone Width (MSZW)第121-122页
        6.3.4 Measurement of Induction Time第122页
        6.3.5 Supersaturation Calculation第122-124页
        6.3.6 Activity Coefficient第124-125页
    6.4 Results and Discussion第125-135页
        6.4.1 Validation of Calculation by OLI Software第125-126页
        6.4.2 Metastable Zone Width (MSZW)第126-127页
        6.4.3 Nyvlt's Approach第127-128页
        6.4.4 Sangwal's Approach第128-130页
        6.4.5 Induction time第130-132页
        6.4.6 Estimation of Interfacial Tension第132-135页
    6.5 Conclusions第135-137页
7 Conclusions and Recommendations第137-141页
    7.1 Conclusions第137-139页
    7.2 Claims to Originality第139页
    7.3 Suggestions for Future Work第139-141页
Nomenclature第141-143页
References第143-155页
Acknowledgement第155-157页
Curriculum Vitae第157-158页

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