Plastics to Energy

Part 1: Plastics & Plastic Solid Waste (PSW)

1. Introduction

2. Major Technologies Implemented for Chemicals and Fuel Recovery

3. Energy Production from Plastic Solid Waste (PSW)

4. The Sustainability Challenge in the Context of Polymer Degradation

Part II: Products Recovery From Plastics

5. Feedstock and Optimal Operation for Plastics to Fuel Conversion in Pyrolysis

6. Catalytic Conversion and Chemical Recovery

7. Fuel Properties Associated with Catalytic Conversion of Plastics

8. Design and Limitations in Polymer Cracking Fluidised Beds for Energy Recovery)

9. Kinetic Studies Related to Polymer Degradation and Stability

10. Gasification of Plastic Solid Waste and Competitive Technologies

11. The Valorisation of Plastic via Thermal Means: Industrial Scale Combustion Methods

12. Emissions and Environmental Burdens Associated with Plastic Solid Waste Management

Part III: Sustainable Implications

13. From Waste to Resources: How to Integrate Recycling into the Production Cycle of Plastics

14. Bio-Plastics: Is It The Way In Future Developments For End Users? A note on dissolution of waste polymers in Bio-Fuels

15. Life Cycle Assessment (LCA) in Municipal Waste Decision Making

16. Can Biodegradation Solve Plastic Waste Accumulation?

17. Optimization Frameworks in Resource Management and Process Engineering

18. Waste from Electronic & Electrical Equipment (WEEE)

19. The role of biodegradation in solving plastic solid waste accumulation

20. Research and Development (R&D) Strategies: The Way Forward as we See it

21. Future Directions

Plastics to Energy: Fuel, Chemicals, and Sustainability Implications covers important trends in the science and technology of polymer recovery, such as the thermo-chemical treatment of plastics, the impact of environmental degradation on mechanical recycling, incineration and thermal unit design, and new options in biodegradable plastics. The book also introduces product development opportunities from waste materials and discusses the main processes and pathways of the conversion of polymeric materials to energy, fuel and chemicals. A particular focus is placed on industrial case studies and academic reviews, providing a practical emphasis that enables plastics practitioners involved in end-of-life aspects to employ these processes.

Final sections examine lifecycle and cost analysis of different plastic waste management processes, exploring the potential of various techniques in modelling, optimization and simulation of waste management options.

• Introduces new pathways for the end-of-life treatment of plastics and polymers, including conversion to energy, fuel and other chemicals
• Compares different options to assist materials scientists, engineers and waste management practitioners to choose the most effective and sustainable option
• Covers the latest trends in the science and technology of polymer energy recovery

Polymer scientists and engineers involved in the development of new end-of-life recovery methods for plastics materials, and plastics practitioners actually carrying out these recovery processes