What is included with this book?
Acknowledgements | p. xi |
Preface | p. xiii |
General Introduction | p. 1 |
What is Environmental Sustainability? | p. 4 |
Facing the Contradictions of Plastics | p. 8 |
Plastics at Play in Consumer Lifestyles | p. 10 |
Controversies Concerning Plastics: Recent Examples | p. 11 |
PVC and Phthalate Plasticizers | p. 12 |
Plastic Shopping Bags | p. 14 |
Health Effects of BPA (Bisphenol-A) | p. 16 |
The Desire to be "Green" | p. 19 |
Consumer Interest in Sustainability | p. 19 |
Sustainability: Views and Counterviews | p. 21 |
The Course of This Book: A Chapter-by-Chapter Overview | p. 26 |
References | p. 29 |
The Life Cycles of Plastics | p. 31 |
"Green Principles" - A Basis for Discussion | p. 33 |
Life Cycle Assessment (LCA) - A Baseline Tool | p. 37 |
Life Cycle Inventory (LCI) | p. 39 |
LCA: Controversies and Limitations | p. 40 |
LCA/LCI: Plastics-related Examples | p. 43 |
Plastic Lifetimes: Cradle-to-Gate...to Gate-to-Grave | p. 46 |
The "Cradle": Polymer Feedstocks and Production | p. 46 |
"Gate-to-Gate": General Plastics Use-life Impacts | p. 50 |
The "Grave": Disposal, Recycling, and Biodegradability | p. 52 |
Towards a Hierarchy of Choosing Plastics for Sustainability | p. 66 |
References | p. 68 |
Polymer Properties and Environmental Footprints | p. 73 |
Background on Polymers and Plastics | p. 75 |
"Green Chemistry" Principles Most Relevant to Plastics | p. 76 |
Common Commodity Thermoplastics | p. 82 |
Polyethylene (PE) | p. 82 |
Polypropylene (PP) | p. 87 |
Polyvinyl Chloride (PVC, or "Vinyl") | p. 89 |
Polystyrene (PS) | p. 91 |
Polyethylene Terephthalate (PET) and Related Polyesters | p. 92 |
Traditional Engineering Thermoplastics | p. 95 |
Nylon or Polyamide (PA) | p. 96 |
Acrylonitrile-Butadiene-Styrene (ABS) | p. 97 |
Polycarbonate (PC) | p. 99 |
Traditional Thermosets and Conventional Composites | p. 100 |
Unreinforced Thermosets | p. 101 |
Conventional Composites | p. 103 |
Biopolymers: Polymers of Biological Origin | p. 104 |
Polylactic Acid (PLA) | p. 106 |
Polyhydroxyalkanoates (PHAs): PHB and Related Copolymers | p. 110 |
Starch-based Polymers | p. 113 |
Protein-based Polymers | p. 114 |
Algae-based Polymers | p. 115 |
Blends of Biopolymers | p. 115 |
Additives and Fillers: Conventional and Bio-based | p. 116 |
Common Additives | p. 117 |
Fillers | p. 118 |
Fiber Reinforcement | p. 119 |
Nanocomposites | p. 125 |
Concluding Summary | p. 125 |
References | p. 126 |
Applications: Demonstrations of Plastics Sustainability | p. 133 |
Trends in Sustainable Plastics Applications | p. 136 |
Sustainable Plastics Packaging | p. 137 |
Traditional Plastics Bags and Containers: Use, Disposal, and Recycling | p. 140 |
Bio-based Plastic Packaging | p. 142 |
"Greener" Foam Packaging | p. 144 |
Key Points about Plastics Packaging and Sustainability | p. 146 |
Sustainable Plastics in Building and Construction | p. 146 |
Recycled/Recyclable Construction Applications | p. 149 |
Wood-plastic Composites | p. 150 |
Key Points about Plastics Sustainability in Construction | p. 151 |
Automotive Plastics and Sustainability | p. 152 |
Fuel-saving Contributions of Plastics | p. 152 |
Recycling and Automotive Plastics | p. 154 |
Bioplastics in the Automotive Industry | p. 155 |
Key Points: Plastics Sustainability in the Automotive Industry | p. 157 |
Specialized Applications and Plastics Sustainability | p. 158 |
Electrical/Electronics Applications | p. 158 |
Medical Plastics and Packaging | p. 159 |
Agricultural Applications | p. 161 |
Conclusions about Sustainable Plastics Applications | p. 162 |
References | p. 163 |
Design Guidelines for Sustainability | p. 169 |
Green Design Principles | p. 172 |
Minimize Material Content | p. 174 |
Exploit a Material's Full Value in the Design | p. 175 |
Design Only to Fulfill Service Durability Requirements | p. 178 |
Minimize Non-functional Features | p. 179 |
Focus on Single-material Designs | p. 179 |
Incorporate Renewable Content | p. 182 |
The Wildcard: Consumer Preferences in Green Design | p. 183 |
References | p. 184 |
Sustainable Considerations in Material Selection | p. 187 |
A Broad Example of Materials Selection: Plastics vs. Metals and Glass | p. 191 |
Material Selection for Common High-Volume Plastics Applications | p. 193 |
Plastics Selection for Beverage Bottles: PET vs. rPET vs. bio-PET | p. 193 |
Plastics Selection for Thermoformed and Flexible Packaging | p. 197 |
Selection for Housewares and Food Service Tableware | p. 199 |
Bio-based Plastic Selection | p. 202 |
Selecting Bio-based Resins: PLA, PHA, TPS, and Bio-based PE | p. 203 |
Selecting Natural Fiber Plastics Reinforcement | p. 207 |
Selecting Engineering (Bio)polymers | p. 212 |
The Selection Process: A Visual Approach | p. 214 |
References | p. 219 |
Processing: Increasing Efficiency in the Use of Energy and Materials | p. 221 |
Optimizing Resin Recycling | p. 223 |
Reprocessing Scrap and Post-industrial Material | p. 223 |
Recycling Technologies for Post-consumer Plastic | p. 226 |
Optimizing Plastics Processes for Sustainability | p. 231 |
Optimizing Process Water Use | p. 231 |
Optimizing Process Energy Consumption of Existing Machinery | p. 233 |
Choosing New Machinery for Sustainability | p. 236 |
Sourcing Options for "Green" Processing Energy | p. 237 |
References | p. 238 |
Conclusion: A World with(out) Sustainable Plastics? | p. 241 |
Trends Affecting Future Global Plastics Use | p. 244 |
Consumer Needs and Market Growth | p. 244 |
Fossil Fuel Availability and Price | p. 247 |
Alternative Feedstock Trends | p. 248 |
Industry Priorities in Responding to Calls for Sustainability | p. 250 |
Plastic Bans and (Never Ending?) Controversies | p. 252 |
Future Progress in Promoting Plastics Sustainability | p. 256 |
Improved Partnerships, Standards, Industry Practices, and Public Education | p. 256 |
New Sustainability-Enhancing Uses of Both Fossil- and Bio-based Plastics | p. 265 |
From R&D to Real World: Newer, More Renewably Based Polymeric Materials | p. 268 |
References | p. 269 |
Index | p. 273 |
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