Cambridge Physics Lecture Notes: Lattice Models of Polymers by Carlo Vanderzande 1998 Paperback

$ 8.98

Table Of Content: Preface; 1. From polymers to random walks; 2. Excluded volume and the self-avoiding walk; 3. The SAW in d=2; 4. The SAW in d=3; 5. Polymers near a surface; 6. Percolation, spanning trees and the Potts model; 7. Dense polymers; 8. Self-interacting polymers; 9. Branched polymers; 10. Polymer topology; 11. Self-avoiding surfaces; References; Index. LCCN: 97-032153 Item Width: 6 in Number of Pages: 240 Pages ISBN-10: 0521559936 Publication Name: Lattice Models of Polymers Item Weight: 12 Oz Author: Carlo Vanderzande ISBN-13: 9780521559935 LC Classification Number: QC173.4.P65 V36 1998 Language: English Series Volume Number: Series Number 11 Intended Audience: Scholarly & Professional Synopsis: This book provides an introduction to lattice models of polymers. This is an important topic both in the theory of critical phenomena and the modelling of polymers. The first two chapters introduce the basic theory of random, directed and self-avoiding walks. The next two chapters develop and expand this theory to explore the self-avoiding walk in both two and three dimensions. Following chapters describe polymers near a surface, dense polymers, self-interacting polymers and branched polymers. The book closes with discussions of some geometrical and topological properties of polymers, and of self-avoiding surfaces on a lattice. The volume combines results from rigorous analytical and numerical work to give a coherent picture of the properties of lattice models of polymers. This book will be valuable for graduate students and researchers working in statistical mechanics, theoretical physics and polymer physics. It will also be of interest to those working in applied mathematics and theoretical chemistry., This is a comprehensive introduction to lattice models of polymers, an important topic both in the theory of critical phenomena and the modeling of polymers. The first two chapters introduce the basic theory of random, directed and self-avoiding walks. The book then goes on to develop and expand this theory to explore the self-avoiding walk in both two and three dimensions. Following chapters describe polymers near a surface, dense polymers, self interacting polymers and branched polymers. The book closes with discussions of some geometrical and topological properties of polymers, and of self-avoiding surfaces on a lattice. The volume combines results from rigorous analytical and numerical work to give a coherent picture of the properties of lattice models of polymers. This book will be valuable for graduate students and researchers working in statistical mechanics, theoretical physics and polymer physics. It will also be of interest to those working in applied mathematics and theoretical chemistry., Provides an introduction to lattice models of polymers. Presents theory on random, directed and self-avoiding walks. Discusses polymers near a surface, dense, self-interacting and branched polymers, polymer topology, and self - avoiding surfaces on a lattice. Valuable for graduate students and researchers working in statistical mechanics, theoretical physics, applied mathematics and theoretical chemistry. Dewey Decimal: 530.4/13 brand: Cambridge University Press Publication Year: 1998 Publisher: Cambridge University Press Subject Area: Technology & Engineering, Science Item Length: 9 in Series: Cambridge Lecture Notes in Physics Ser. Type: Textbook Format: Trade Paperback Illustrated: Yes Subject: Textiles & Polymers, Physics / Crystallography, Physics / General gtin13: 9780521559935 Item Height: 0.6 in Dewey Edition: 21

Description

The seller has not provided a description for this item. Contact them with any questions before purchasing.

  1. This book is a fantastic resource for anyone studying polymer physics! Vanderzande breaks down complex lattice models in a clear, approachable way, making it perfect for students and researchers. The explanations are thorough yet concise, with helpful examples. A must-have for understanding polymer dynamics—highly recommend!

    sment0d1fea8