Advances in Interpenetrating Polymer Networks, Volume III

by Daniel Klempner, K.C. Frisch

IPNs Around the World. II: Recent Advances
L. H. Sperling, Materials Research Center, Lehigh University
Introduction
Recent Papers, Presentations and Patents
Future Directions of IPN Research
References

Thermoplastic Interpenetrating Polymer Networks
S. A. M. Ali and D. J. Hourston, The Polymer Centre, Lancaster University, UK
Introduction
Morphological Characteristics
Thermoplastic IPN Materials
References

The Effect of Crosslink Density on Phase Separation in Interpenetrating Polymer Networks
Barry J. Bauer and Robert M. Briber, Materials Science and Engineering Laboratory, Polymers Division, National Institute of Standards and Technology (NIST)
Introduction
Theoretical
Experimental
PVME/PSD Semi-II IPNs
PSH/PSD Semi-II IPNs
PSH/PSD Grafted IPNs
Conclusions
References

Latex Interpenetrating Polymer Networks Based on Natural Rubber Latex
D. J. Hourston and J. Romaine (for affiliations see 2 above)
Introduction
Experimental
Results and Discussion
References

The Synthesis and Characterization of Three-Component IPNs
Jingyuan Wang, Yuwei Li and Xinyi Tang, Dept. of Chemistry, Jilin University (PRC)
Introduction
Experimental
Results and Discussion
Part 1: Three-Component SINs
Part 2: Three-Component SIPNs
Conclusions
References

Heat Resistant Semi-IPNs
Thierry Pascal, UMR 102 CNRS-IFP; and Bernard Sillion, CEMOTA (France)
Introduction
Thermoplastic-Modified Thermostable Epoxy Resins
Semi-Interpenetrating Polymer Network from Thermoplastic and Dicyanate Resins
Bismaleimide-Based Semi IPNs
Nadimide-Terminated Resin-Based Semi-IPNs
Conclusions
References

Gradient Interpenetrating Polymer Networks
Y. S. Lipatov and L. V. Karabanova, Institute for Macromolecular Chemistry, Ukrainian Academy of Sciences
Introduction
Preparation of Gradient IPNs and Estimation of Component Distribution Character
Preparation of Optical Gradient Elements, Gradans, Based on Gradient IPNs
Thermal Transitions, Thermodynamic and Physiochemical Characteristics of Gradient IPNs
Practical Applications of Gradient IPN-Based Materials
References

IPNs Synthesized at Low Temperature and Their Application as Membranes
Doo Sung Lee, Dept. of Polymer Science and Engineering, Sung Kyun University; Sung Chul Kim, Dept. of Chemical Engineering, Korea Advanced Institute of Science and Technology (Rep. of Korea)
Introduction
Experimental
Conclusion
References

Means to Widen the Temperature Range of High Damping Behavior by IPN Formation
Shuren Yao, Naval Academy of Engineering (PRC)
Introduction
Polymer Compatibility
Mechanical Blends of Polymers
Semi-IPNs Designed for Damping
Simultaneous IPNs (SINs) with Wide Temperature Range of Damping Behavior
Latex IPNs
Latex IPNs with Ionic Bonding Introduced
A,B-Crosslinked Polymers (ABCPS) with Superior Damping Properties
Polyurethanes Specially Designed for Damping
NMR Techniques Developed for the Characterization of Phase Structure and Polymer Compatibility
Concluding Remarks
References

Fiber Reinforced Interpenetrating Polymer Networks of Polyurethane and Unsaturated Polyester
K. H. Hsieh et al., Chemical Engineering Dept., National Taiwan University; C. C. M. Ma, Chemical Engineering Dept., National Tsung University (Taiwan)
Introduction
Experimenta
Results and Discussion
Conclusions
References

Progress in in situ Sequential Polydimeth- ylsiloxane/Poly(methylmethacrylate) Interpenetrating Polymer Networks
X. W. He et al., Institut Charles Sadron, E.A.H.P.; J. E. Herz, Institut Charles Sadron, C.R.M. (France)
Introduction
Experimental
Results and Discussion
Conclusions
References"

276 pages, Paperback

First published January 1, 1991