1st Edition
Advances in Urethane Science & Technology, Volume XIII
288 Pages
by
CRC Press
288 Pages
by
CRC Press
Also available as eBook on:
This book presents the reports on the developments in the field of urethane. It includes information on polyurethane automotive carpet composites, pentane blown polyurethane foams, and applications of polyols derived from renewable resources in polyurethanes and liquid crystalline polyurethanes.
PU Automotive Carpet Composites for Vehicle Interior Noise Control: Physical Basis of Behavior
A. Cunningham, ICI Polyurethane Research Centre, Belgium; N.C. Hilyard, Materials Research Institute, Sheffield Hallam University, UK
Abstract Introduction Background Characterisation of Composite Performance Theoretical Basis Test Methods Test Results-Vibration Test Results-Airborne Conclusions References
Pentane Blown Polyurethane Foams
O. Volkert, BASF AG, Germany
Abstract Introduction Pentanes as Blowing Agents Pentane in Integral Skin Foam Pentane in Rigid Foam Safety Environmental Pollution Toxicology Conclusions References
Applications of Polyols Derived from Renewable Resources in Polyurethane
Shaio-Wen Wong and Song-Bo Wang, Polymer Institute, University of Detroit Mercy; James F. Fraves and Innocent Odacha, Department of Biology, Center for Excellence in Environmental Engineering and Science, University of Detroit Mercy
Abstract Introduction Experimental HPLC Analysis Results and Discussion: 1. Urethane Formation 2. Urethane-Isocyanurate Formation Biodegradability Conclusions References
Phenylene Diisocyanate Based Polyurethane Elastomers
Ajaib Singh, Research and Development, Adiprener/Vibrathaner, Uniroyal Chemical Company
Abstract para-Phenylene Diisocyanate (PPDI) Physical Properties Toxicity Reactivity Elastomers Processing Morphology Properties Toughness High Temperature Properties Hydrolytic Stability Flex Fatigue Resistance Dynamic Performance Applications References
Urethane Elastomers/Liquid Cyrstalline Polyurethane Blends
J. G„hde, M.-M. Pohl, R. Mix and R. Dany, Institute of Applied Chemistry Berlin-Adlershof; G. Hinrichsen, Technical University of Berlin, Institute of Nonmetallic Materials, Germany
Abstract Introduction Experimental Results and Discussion Conclusions References
Liquid Crystalline Polyurethanes
Piotr Penczek and Barbara Szczepakiak, Industrial Chemistry Research Institute, Poland; Kurt C. Frisch, Polymer Institute, University of Detroit Mercy; Aleksandra Wolinska-Grabczyk, Institute of Coal Chemistry, Polish Academy of Science
Abstract Introduction Preparation Synthesis Properties Applications Conclusions References
Synthesis and Structure-Property Relationships of Polyurethane Hydrogels
E. Haschke, Busak"Shamban, Inc.; G. Hill, Vistakon-Johnson & Johnson Vision Products, Inc.; V. Sendijarevic, S. Wong and K. C. Frisch, Polymer Institute, University of Detroit Mercy
Abstract Introduction Experimental Results and Discussion Conclusions References
Special Report:
Recycling of Polyurethane Polymers
Michele Modesti, University of Padova, Industrial Chemistry-Engineering Department, Italy
Abstract Introduction
Recycling of Materials: Physical Processes: Recycling of Material as Filler, Flake and Particle Rebonding, Hot Compression Molding; Chemical Recycling: Hydrogenation, Hydrolysis, Glycolysis
Glycolysis Chemistry: Rigid Polyurethane Foams
Industrial Process Information: Glycolysis of Flexible Polyurethane Foams, Glycolysis of RIM Polyurethanes, Recycling of Microcellular Polyurethane Elastomer Waste, Pyrolysis
Energy Recovery: Combustion
Conclusion References
A. Cunningham, ICI Polyurethane Research Centre, Belgium; N.C. Hilyard, Materials Research Institute, Sheffield Hallam University, UK
Abstract Introduction Background Characterisation of Composite Performance Theoretical Basis Test Methods Test Results-Vibration Test Results-Airborne Conclusions References
Pentane Blown Polyurethane Foams
O. Volkert, BASF AG, Germany
Abstract Introduction Pentanes as Blowing Agents Pentane in Integral Skin Foam Pentane in Rigid Foam Safety Environmental Pollution Toxicology Conclusions References
Applications of Polyols Derived from Renewable Resources in Polyurethane
Shaio-Wen Wong and Song-Bo Wang, Polymer Institute, University of Detroit Mercy; James F. Fraves and Innocent Odacha, Department of Biology, Center for Excellence in Environmental Engineering and Science, University of Detroit Mercy
Abstract Introduction Experimental HPLC Analysis Results and Discussion: 1. Urethane Formation 2. Urethane-Isocyanurate Formation Biodegradability Conclusions References
Phenylene Diisocyanate Based Polyurethane Elastomers
Ajaib Singh, Research and Development, Adiprener/Vibrathaner, Uniroyal Chemical Company
Abstract para-Phenylene Diisocyanate (PPDI) Physical Properties Toxicity Reactivity Elastomers Processing Morphology Properties Toughness High Temperature Properties Hydrolytic Stability Flex Fatigue Resistance Dynamic Performance Applications References
Urethane Elastomers/Liquid Cyrstalline Polyurethane Blends
J. G„hde, M.-M. Pohl, R. Mix and R. Dany, Institute of Applied Chemistry Berlin-Adlershof; G. Hinrichsen, Technical University of Berlin, Institute of Nonmetallic Materials, Germany
Abstract Introduction Experimental Results and Discussion Conclusions References
Liquid Crystalline Polyurethanes
Piotr Penczek and Barbara Szczepakiak, Industrial Chemistry Research Institute, Poland; Kurt C. Frisch, Polymer Institute, University of Detroit Mercy; Aleksandra Wolinska-Grabczyk, Institute of Coal Chemistry, Polish Academy of Science
Abstract Introduction Preparation Synthesis Properties Applications Conclusions References
Synthesis and Structure-Property Relationships of Polyurethane Hydrogels
E. Haschke, Busak"Shamban, Inc.; G. Hill, Vistakon-Johnson & Johnson Vision Products, Inc.; V. Sendijarevic, S. Wong and K. C. Frisch, Polymer Institute, University of Detroit Mercy
Abstract Introduction Experimental Results and Discussion Conclusions References
Special Report:
Michele Modesti, University of Padova, Industrial Chemistry-Engineering Department, Italy
Abstract Introduction
Recycling of Materials: Physical Processes: Recycling of Material as Filler, Flake and Particle Rebonding, Hot Compression Molding; Chemical Recycling: Hydrogenation, Hydrolysis, Glycolysis
Glycolysis Chemistry: Rigid Polyurethane Foams
Industrial Process Information: Glycolysis of Flexible Polyurethane Foams, Glycolysis of RIM Polyurethanes, Recycling of Microcellular Polyurethane Elastomer Waste, Pyrolysis
Energy Recovery: Combustion
Conclusion References
Biography
Kurt C. Frisch (University of Detroit, Michigan, USA) (Author), Daniel Klempner (University of Detroit, Michigan, USA) (Author)
