
Structure and Rheology of Molten Polymers
From Structure to Flow Behavior and Back Again
Hanser Publications (Publisher)
2nd Edition
Published on 30. January 2018
Book
Hardback
610 pages
978-1-56990-611-8 (ISBN)
Shipment within 3-4 weeks
Description
Recent advances in polymer science have made it possible to relate quantitatively molecular structure to rheological behavior. At the same time, new methods of synthesis and characterization allow the preparation and structural verification of samples having a range of branched polymeric structures. This book unites this knowledge to enable production of polymers with prescribed processability and end-product properties.
Methods of polymer synthesis and characterization are described, starting from fundamentals. The foundations of linear viscoelasticity are introduced, and then the linear behavior of entangled polymers is described in detail. This is followed by a discussion of the molecular modeling of linear behavior. Tube models for both linear and branched polymers are presented. The final two chapters deal with nonlinear rheological behavior and tube models to describe nonlinearity.
In this second edition, each chapter has been significantly rewritten to account for recent advances in experimental methods and theoretical modeling. It includes new and updated material on developments in polymer synthesis and characterization, computational algorithms for linear and nonlinear rheology prediction, measurement of nonlinear viscoelasticity, entanglement detection algorithms in molecular dynamics, nonlinear constitutive equations, and instabilities.
Contents:
- Structure of Polymers
- Polymerization Reactions and Processes
- Linear Viscoelasticity - Fundamentals
- Linear Viscoelasticity - Behavior of Molten Polymers
- Tube Models for Linear Polymers - Fundamentals
- Tube Models for Linear Polymers - Advanced Topics
- Determination of Molecular Weight Distribution Using Rheology
- Tube Models for Branched Polymers
- Nonlinear Viscoelasticity
- Tube Models for Nonlinear Viscoelasticity of Linear and Branched Polymers
Reviews / Votes
"I can thoroughly recommend this book to scientists needing a comprehensive and reliable introduction to the state of the art in polymer melt rheology, whether they are graduate students in universities (or more experienced researchers for that matter), or situated in an industrial development group. No reader will escape the correct impression that this field has grown through a healthy collaboration between academia and industry, and I expect that 'Structure and Rheology of Molten Polymers' will help to support that productive engagement for many years to some. It belongs right next to both Doi and Edwards Theory of Polymer Dynamics and Ferry's Viscoelastic Properties of Polymers, and that is where I have put it on my own shelf - and within arm's reach too." Tom McLeish, Rheological Acta, December 2018 "Methods of polymer synthesis and characterisation are described, starting from fundamentals. ... ln this second edition, each chapter has been significantly updated to include recent advances in experimental methods and theoretical modelling." TPE Magazine, June 2018More details
Edition
2. Auflage
Language
English
Place of publication
München
Germany
Target group
Professional and scholarly
Edition type
New edition
Product notice
Paper over boards
Dimensions
Height: 24.8 cm
Width: 17.7 cm
Thickness: 3.6 cm
Weight
1233 gr
ISBN-13
978-1-56990-611-8 (9781569906118)
Schweitzer Classification
Other editions
Additional editions

John M. Dealy | Daniel J. Read | Ronald G. Larson
Structure and Rheology of Molten Polymers
From Structure to Flow Behavior and Back Again
E-Book
02/2018
1st Edition
Hanser Publications
€279.99
Available for download
Previous edition

John M. Dealy | Ronald G. Larson
Structure and Rheology of Molten Polymers
From Structure to Flow Behavior and Back Again
Book
03/2006
1st Edition
Hanser
€249.00
Article exhausted; check for reprint
Persons
John Dealy is Professor Emeritus of Chemical Engineering at McGill University, Canada. He has developed novel new methods for measuring nonlinear viscoelasticity and wall slip of molten polymers and elastomers and is the author or coauthor of four books on polymer rheology.
Daniel Read is a Reader in the School of Mathematics at the University of Leeds, UK. His research includes development of models to predict rheology of entangled molten polymers, and of models to predict molecular structure from reactor kinetics. He is coauthor of the "BoB" code for entangled polymer rheology prediction.
Ronald Larson is Professor of Chemical Engineering at the University of Michigan. His research interests include rheology and flow of complex fluids, molecular simulations of such materials, and polyelectrolyte interactions.
Daniel Read is a Reader in the School of Mathematics at the University of Leeds, UK. His research includes development of models to predict rheology of entangled molten polymers, and of models to predict molecular structure from reactor kinetics. He is coauthor of the "BoB" code for entangled polymer rheology prediction.
Ronald Larson is Professor of Chemical Engineering at the University of Michigan. His research interests include rheology and flow of complex fluids, molecular simulations of such materials, and polyelectrolyte interactions.
Content
Introduction
Structure of Polymers
Polymerization Reactions and Processes
Linear Viscoelasticity--Fundamentals
Linear Viscoelasticity--Behavior of Molten Polymers
Tube Models for Linear Polymers--Fundamentals
Tube Models for Linear Polymers--Advanced Topics
Determination of Molecular Weight Distribution Using Rheology
Tube Models for Branched Polymers
Nonlinear Viscoelasticity
Tube Models for Nonlinear Viscoelasticity of Linear and Branched Polymers
Structure of Polymers
Polymerization Reactions and Processes
Linear Viscoelasticity--Fundamentals
Linear Viscoelasticity--Behavior of Molten Polymers
Tube Models for Linear Polymers--Fundamentals
Tube Models for Linear Polymers--Advanced Topics
Determination of Molecular Weight Distribution Using Rheology
Tube Models for Branched Polymers
Nonlinear Viscoelasticity
Tube Models for Nonlinear Viscoelasticity of Linear and Branched Polymers