Preface | p. vii |
Introduction | p. xvii |
Modeling and Simulation | p. xvii |
Modeling Philosophy | p. xx |
Notation | p. xxiv |
Concluding Remarks | p. xxvi |
References | p. xxvii |
Background | |
Polymer Materials Science | p. 1 |
Chemical Structure | p. 1 |
Molecular Weight | p. 4 |
Conformation and Configuration of Polymer Molecules | p. 9 |
Morphological Structure | p. 12 |
Copolymers and Polymer Blends | p. 16 |
Thermal Transitions | p. 18 |
Viscoelastic Behavior of Polymers | p. 24 |
Stress Relaxation | p. 24 |
Time-Temperature Superposition (WLF-Equation) | p. 26 |
Examples of Common Polymers | p. 29 |
Thermoplastics | p. 29 |
Thermosetting Polymers | p. 31 |
Elastomers | p. 32 |
Problems | p. 33 |
References | p. 36 |
Processing Properties | p. 37 |
Thermal Properties | p. 37 |
Thermal Conductivity | p. 38 |
Specific Heat | p. 43 |
Density | p. 45 |
Thermal Diffusivity | p. 51 |
Linear Coefficient of Thermal Expansion | p. 51 |
Thermal Penetration | p. 53 |
Measuring Thermal Data | p. 53 |
Curing Properties | p. 59 |
Rheological Properties | p. 63 |
Flow Phenomena | p. 63 |
Viscous Flow Models | p. 68 |
Viscoelastic Constitutive Models | p. 75 |
Rheometry | p. 85 |
Surface Tension | p. 90 |
Permeability properties | p. 93 |
Sorption | p. 94 |
Diffusion and Permeation | p. 96 |
Measuring S, D, and P | p. 100 |
Diffusion of Polymer Molecules and Self-Diffusion | p. 102 |
Friction properties | p. 102 |
Problems | p. 104 |
References | p. 108 |
Polymer Processes | p. 111 |
Extrusion | p. 112 |
The Plasticating Extruder | p. 113 |
Extrusion Dies | p. 122 |
Mixing Processes | p. 125 |
Distributive Mixing | p. 128 |
Dispersive Mixing | p. 129 |
Mixing Devices | p. 131 |
Injection Molding | p. 140 |
The Injection Molding Cycle | p. 141 |
The Injection Molding Machine | p. 144 |
Related Injection Molding Processes | p. 149 |
Secondary Shaping | p. 150 |
Fiber Spinning | p. 151 |
Film Production | p. 151 |
Thermoforming | p. 157 |
Calendering | p. 158 |
Coating | p. 160 |
Compression Molding | p. 163 |
Foaming | p. 164 |
Rotational Molding | p. 166 |
References | p. 167 |
Processing Fundamentals | |
Dimensional Analysis and Scaling | p. 171 |
Dimensional Analysis | p. 172 |
Dimensional Analysis by Matrix Transformation | p. 174 |
Problems with non-Linear Material Properties | p. 192 |
Scaling and Similarity | p. 192 |
Problems | p. 203 |
References | p. 206 |
Transport Phenomena in Polymer Processing | p. 207 |
Balance Equations | p. 207 |
The Mass Balance or Continuity Equation | p. 208 |
The Material or Substantial Derivative | p. 209 |
The Momentum Balance or Equation of Motion | p. 210 |
The Energy Balance or Equation of Energy | p. 217 |
Model Simplification | p. 220 |
Reduction in Dimensionality | p. 222 |
Lubrication Approximation | p. 223 |
Simple Models in Polymer Processing | p. 225 |
Pressure Driven Flow of a Newtonian Fluid Through a Slit | p. 225 |
Flow of a Power Law Fluid in a Straight Circular Tube (Hagen-Poiseuille Equation) | p. 227 |
Flow of a Power Law Fluid in a Slightly Tapered Tube | p. 228 |
Volumetric Flow Rate of a Power Law Fluid in Axial Annular Flow | p. 229 |
Radial Flow Between two Parallel Discs - Newtonian Model | p. 230 |
The Hele-Shaw model | p. 232 |
Cooling or Heating in Polymer Processing | p. 239 |
Problems | p. 243 |
References | p. 245 |
Analyses Based on Analytical Solutions | p. 247 |
Single Screw Extrusion-Isothermal Flow Problems | p. 248 |
Newtonian Flow in the Metering Section of a Single Screw Extruder | p. 249 |
Cross Channel Flow in a Single Screw Extruder | p. 251 |
Newtonian Isothermal Screw and Die Characteristic Curves | p. 255 |
Extrusion Dies-Isothermal Flow Problems | p. 258 |
End-Fed Sheeting Die | p. 258 |
Coat Hanger Die | p. 261 |
Extrusion Die with Variable Die Land Thicknesses | p. 263 |
Pressure Flow of Two Immiscible Fluids with Different Viscosities | p. 264 |
Fiber Spinning | p. 266 |
Viscoelastic Fiber Spinning Model | p. 269 |
Processes that Involve Membrane Stretching | p. 271 |
Film Blowing | p. 271 |
Thermoforming | p. 277 |
Calendering - Isothermal Flow Problems | p. 278 |
Newtonian Model of Calendering | p. 278 |
Shear Thinning Model of Calendering | p. 285 |
Calender Fed with a Finite Sheet Thickness | p. 287 |
Coating Processes | p. 289 |
Wire Coating Die | p. 289 |
Roll Coating | p. 291 |
Mixing - Isothermal Flow Problems | p. 295 |
Effect of Orientation on Distributive Mixing - Erwin's Ideal Mixer | p. 295 |
Predicting the Striation Thickness in a Couette Flow System - Shear Thinning Model | p. 296 |
Residence Time Distribution of a Fluid Inside a Tube | p. 300 |
Residence Time Distribution Inside the Ideal Mixer | p. 301 |
Injection Molding - Isothermal Flow Problems | p. 303 |
Balancing the Runner System in Multi-Cavity Injection Molds | p. 303 |
Radial Flow Between Two Parallel discs | p. 306 |
Non-Isothermal Flows | p. 309 |
Non-Isothermal Shear Flow | p. 309 |
Non-Isothermal Pressure Flow Through a Slit | p. 311 |
Melting and Solidification | p. 312 |
Melting with Pressure Flow Melt Removal | p. 317 |
Melting with Drag Flow Melt Removal | p. 319 |
Melting Zone in a Plasticating Single Screw Extruder | p. 324 |
Curing Reactions During Processing | p. 330 |
Concluding Remarks | p. 331 |
Problems | p. 331 |
References | p. 339 |
Numerical Techniques | |
Introduction to Numerical Analysis | p. 343 |
Discretization and Error | p. 344 |
Interpolation | p. 344 |
Polynomial and Lagrange Interpolation | p. 345 |
Hermite Interpolations | p. 352 |
Cubic Splines | p. 354 |
Global and Radial Interpolation | p. 357 |
Numerical Integration | p. 360 |
Classical Integration Methods | p. 362 |
Gaussian Quadratures | p. 364 |
Data Fitting | p. 367 |
Least Squares Method | p. 368 |
The Levenberg-Marquardt Method | p. 369 |
Method of Weighted Residuals | p. 376 |
Problems | p. 381 |
References | p. 383 |
Finite Difference Method | p. 385 |
Taylor-Series Expansions | p. 387 |
Numerical Issues | p. 392 |
The Info-Travel Concept | p. 393 |
Steady-State Problems | p. 395 |
Transient Problems | p. 409 |
Higher Order Approximation Techniques | p. 422 |
The Radial Flow Method | p. 428 |
Flow Analysis Network | p. 439 |
Predicting Fiber Orientation - The Folgar-Tucker Model | p. 443 |
Concluding Remarks | p. 445 |
Problems | p. 448 |
References | p. 450 |
Finite Element Method | p. 453 |
One-Dimensional Problems | p. 453 |
One-Dimensional Finite Element Formulation | p. 454 |
Numerical Implementation of a One-Dimenional Finite Element Formulation | p. 458 |
Matrix Storage Schemes | p. 464 |
Transient Problems | p. 466 |
Two-Dimensional Problems | p. 470 |
Solution of Posisson's equation Using a Constant Strain Triangle | p. 470 |
Transient Heat Conduction Problem Using Constant Strain Triangle | p. 474 |
Solution of Field Problems Using Isoparametric Quadrilateral Elements | p. 474 |
Two Dimensional Penalty Formulation for Creeping Flow Problems | p. 479 |
Three-Dimensional Problems | p. 487 |
Three-dimensional Elements | p. 487 |
Three-Dimensional Transient Heat Conduction Problem With Convection | p. 489 |
Three-Dimensional Mixed Formulation for Creeping Flow Problems | p. 491 |
Mold Filling Simulations Using the Control Volume Approach | p. 493 |
Two-Dimensional Mold Filling Simulation of Non-Planar Parts (2.5D Model) | p. 493 |
Full Three-Dimensional Mold Filling Simulation | p. 497 |
Viscoelastic Fluid Flow | p. 502 |
Problems | p. 507 |
References | p. 508 |
Boundary Element Method | p. 511 |
Scalar Fields | p. 512 |
Green's Identities | p. 512 |
Green's Function or Fundamental Solution | p. 515 |
Integral Formulation of Poisson's Equation | p. 516 |
4BEM Numerical Implementation of the 2D Laplace Equation | p. 518 |
2D Linear Elements | p. 522 |
2D Quadratic Elements | p. 525 |
Three-Dimensional Problems | p. 528 |
Momentum Equations | p. 533 |
Green's Identities for the Momentum Equations | p. 534 |
Integral Formulation for the Momentum Equations | p. 534 |
BEM Numerical Implementation of the Momentum Balance Equations | p. 536 |
Numerical Treatment of the Weakly Singular Integrals | p. 539 |
Solids in Suspension | p. 544 |
Comments of non-Linear Problems | p. 553 |
Other Boundary Element Applications | p. 554 |
Problems | p. 560 |
References | p. 563 |
Radial Functions Method | p. 567 |
The Kansa Collocation Method | p. 568 |
Applying RFM to Balance Equations in Polymer Processing | p. 570 |
Energy Balance | p. 570 |
Flow problems | p. 577 |
Problems | p. 594 |
References | p. 596 |
Index | p. 597 |
Table of Contents provided by Ingram. All Rights Reserved. |

Polymer Processing: Modeling and Simulation
by Tim A. Osswald, Juan P. Hernandez-Ortiz-
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