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Full Description
To achieve environmental sustainability in industrial plants, resource conservation activities such as material recovery have begun incorporating process integration techniques for reusing and recycling water, utility gases, solvents, and solid waste. Process Integration for Resource Conservation presents state-of-the-art, cost-effective techniques, including pinch analysis and mathematical optimization, for numerous conservation problems. The second edition of this best-seller adds new chapters on heat integration and retrofitting of resource conservation networks and features multiple optimization examples via downloadable MS Excel spreadsheets.
Emphasizes the goal of setting performance targets ahead of detailed design following the holistic philosophy of process integration
Explains various industrial examples step by step and offers demo software and other materials online
Features a wealth of industrial case studies
Adds chapters on heat integration, combined heat and power, heat-integrated water network, and retrofit of resource conservation network
Adds new optimization examples and downloadable MS Excel files on superstructural approaches and automated targeting models for direct reuse, recycle and regeneration
Ideal for students preparing for real-world work as well as industrial practitioners in chemical processing, the text provides a systematic guide to the latest process integration techniques for performing material recovery in process plants. The book features a solutions manual, lecture slides, and figure slides for adopting professors to use in their courses.
Contents
1. Introduction. 2. Data Extraction for Resource Conservation. 3. Graphical Targeting Techniques for Direct Reuse/Recycle. 4. Algebraic Targeting Techniques for Direct Reuse/Recycle. 5. Automated Targeting Model for Direct Reuse/Recycle Networks. 6. Automated Targeting Model for Material Regeneration and Pretreatment Networks. 7. Process Changes for Resource Conservation Networks. 8. Network Design and Evolution Techniques. 9. Synthesis of Resource Conservation Networks: A Superstructural Approach. 10. Extended Application: Synthesis of Inter-Plant Resource Conservation Network. 11. Extended Application: Synthesis of Batch Resource Conservation Network. 12. Extended Application: Retrofit of Resource Conservation Network. 13. Synthesis of Heat Exchanger Network. 14. Combined Heat and Power (CHP). 15. Extended Application: Synthesis of Heat-Integrated Water Network.
