1 Background |
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1.1 Phase Separation Thermodynamics |
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4 | |
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1.1.1 Thermodynamics of Polymer Solutions |
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4 | |
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1.1.2 LiquidLiquid Phase Equilibria of Polymer Solutions |
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7 | |
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1.1.3 The LCST Phenomenon in Experimental Polymer/Small-Molecule Systems |
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12 | |
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22 | |
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1.2 Polymer Transport Processes |
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24 | |
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1.2.3 Diffusional Mass Transfer |
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28 | |
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35 | |
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1.3 Conventional Polymerization Kinetics and Processes |
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37 | |
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1.3.1 Free-Radical Kinetics |
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38 | |
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1.3.2 Polymerization Processes |
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44 | |
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1.3.3 Copolymerization Kinetics |
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1.4 Phase Separation Kinetics in Nonreactive Polymer Systems |
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48 | |
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1.4.1 Phase Separation Mechanisms |
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1.4.2 Mathematical Modeling of Structure Evolution in Phase Separating Polymer Systems |
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51 | |
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1.4.3 Experimental Efforts |
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64 | |
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1.4.4 Determination of Phenomenological Diffusivities from Numerical and Experimental Data |
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86 | |
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1.5 Phase Separation Kinetics in Reactive Polymer Systems |
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1.5.1 Derivation of the Spinodal Decomposition Equation with the Reaction Term |
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1.5.2 Numerical Simulation for Reactive Polymer Phase Separation Systems |
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1.5.3 Results and Discussion |
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2 The FRRPP Concept |
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2.1 Connection to Nanotechnology |
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2.1.1 Formation of Reactive Polymer Nanoparticles |
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2.1.2 Agglomeration of Nanoparticles in a Stirred Vessel |
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2.1.4 Proton and 13C-NMR Studies |
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2.1.6 Coil-to-Globule Transition |
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2.2 Local Heating and Energy Analysis of the FRRPP Process |
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2.2.3 Energy Analysis of Cases 1-2 |
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2.2.4 Glass Tube Reactor Experiment with Release of Reaction Fluid |
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2.3 FRRPP Polymerization Kinetics |
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2.3.1 Polystyrene/Styrene-Based FRRPP Systems |
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2.3.2 Poly(Methacrylic Acid)/Methacrylic Acid/Water System |
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2.4 Predictions of FRRPP Behavior Through the CoilGlobule Transition |
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2.4.1 Thermodynamics of Ternary Polystyrene/Styrene/Ether System |
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2.4.2 Mass Transport Phenomena |
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2.4.3 Calculation of Kinetic Parameters and Polymer Formation Behavior |
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2.5 Physicochemical Quantitative Description of FRRPP |
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164 | |
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3 Polymerization Processes |
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3.1 Statistical Polymerizations (Homopolymerizations and Multipolymerizations) |
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3.1.4 Results and Discussion |
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3.2 Staged Multipolymerizations |
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3.2.1 Straightforward Addition of Another Monomer(s) |
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3.2.2 Interstage Rapid Cooling Method |
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3.2.4 Emulsification of First-Stage Radicals |
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3.2.5 Radicalized Polymer Particulates |
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4 Product Materials |
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4.1 Homopolymers and Statistical Multipolymers |
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4.1.2 Statistical Multipolymers |
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4.3 Reactive Polymer Intermediates |
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4.3.1 PS-Based Intermediates |
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4.3.2 VDC Copolymer-Based Intermediates |
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4.3.3 VA/AA-Based Intermediates |
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4.5 Polymer Foams from the FRRPP Process |
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4.5.1 Vinyl Acetate-Acrylic Acid Copolymer Foams |
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4.5.2 Vinylidene Chloride Copolymer-Based Foams |
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4.5.3 VDC Multipolymer Nanocomposites in Polyurethane Foams |
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4.6.1 Polystyrene-Poly(Dimethyl Siloxane) (PSPDMS) Coatings |
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4.7 Bottom-Up Micropatterning of Polymers |
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5 Related Energy Application of FRRPP Products, |
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5.1 Surfactant-Based Waterflooding for Subterranean Oil Recovery |
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5.1.4 Results and Discussion |
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5.2 Foamflooding Subterranean Enhanced Oil Recovery |
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5.2.3 Results and Discussion |
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5.3 Bitumen Recovery from Surface Sources |
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5.3.3 Results and Discussion |
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6 Outlook |
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6.1 Polymers for Defense and Homeland Security |
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6.1.1 Labeled Surfactants |
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6.2 Conceptual Connections to Nuclear Material Systems |
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6.2.1 Energy-Producing Isotopes |
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6.2.2 Nuclear Waste Materials |
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6.3.1 Proton Exchange Membrane (PEM) Fuel Cells |
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6.3.2 Hydroxide Exchange Membrane Alkali Fuel Cells (HEMFCs) |
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6.4.1 Nanoparticle Polymers |
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Appendix |
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299 | |
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A.1 Mathematical Modeling of Spinodal Decomposition |
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299 | |
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305 | |
Index |
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307 | |