Process Systems Engineering Tools for Industrial Decarbonization
Editat de Dominic Foo, Raymond Tan, John Frederick Tapiaen Limba Engleză Paperback – aug 2026
Beyond technical frameworks, the book addresses the urgent need to manage rising atmospheric CO₂ levels, which now average 420 ppm—well above safe thresholds. It highlights the importance of using decision-making tools to efficiently deploy and systematize available technologies, ensuring the industrial sector contributes effectively to climate mitigation.
- Presents the most recent developments in process systems engineering of technologies for industrial decarbonization
- Introduces methods for decision-making involving low- carbon technologies under uncertainty
- Explores case studies that demonstrate the use of mathematical tools for CCUS systems
- Provides insights into developing strategies for deploying technologies for industrial decarbonization
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Specificații
ISBN-13: 9780443217210
ISBN-10: 0443217211
Pagini: 250
Dimensiuni: 152 x 229 mm
Editura: ELSEVIER SCIENCE
ISBN-10: 0443217211
Pagini: 250
Dimensiuni: 152 x 229 mm
Editura: ELSEVIER SCIENCE
Cuprins
Section 1: Carbon Capture, Utilisation & Storage (CCUS)
1. A Universal Platform for the Development and Evaluation of Various CO₂ Conversion Processes
2. Design of Carbon Capture and Storage Network – A Case Study in Malaysia
3. Evaluation of CO₂ Storage with Process System Engineering Methods – A Case Study in China
4. Selection of Geological Sinks for CO₂ Utilization and Storage under Neutrosophic Environment
5. Bilevel Optimization of CO₂ Networks with P-graph
Section 2: Negative Emission Technologies
6. Multi-footprint Optimization of Integrated Negative Emissions Technology Portfolios
7. Criticality Analysis in Negative Emissions Technologies Network
8. Development of a Rough Set-Based Model for Predicting the Change in Biochar Properties after Field Application
Section 3: Carbon Footprint Reduction
9. Carbon Footprint Reduction for an Infant Milk Production Process
10. Graphical Approach to Multi-Scope Carbon Footprint Reduction
11. Systematic Graphical Framework for Multiple Footprints Reduction for a Multi-Product Plant
Section 4: Energy Efficiency
12. Heat Exchange Network Design and Optimisation
13. Design and Optimization Approach for Sustainable Rankine Cycle Systems
Concluding
14. Research Roadmap for Computing Solutions in Carbon Management
1. A Universal Platform for the Development and Evaluation of Various CO₂ Conversion Processes
2. Design of Carbon Capture and Storage Network – A Case Study in Malaysia
3. Evaluation of CO₂ Storage with Process System Engineering Methods – A Case Study in China
4. Selection of Geological Sinks for CO₂ Utilization and Storage under Neutrosophic Environment
5. Bilevel Optimization of CO₂ Networks with P-graph
Section 2: Negative Emission Technologies
6. Multi-footprint Optimization of Integrated Negative Emissions Technology Portfolios
7. Criticality Analysis in Negative Emissions Technologies Network
8. Development of a Rough Set-Based Model for Predicting the Change in Biochar Properties after Field Application
Section 3: Carbon Footprint Reduction
9. Carbon Footprint Reduction for an Infant Milk Production Process
10. Graphical Approach to Multi-Scope Carbon Footprint Reduction
11. Systematic Graphical Framework for Multiple Footprints Reduction for a Multi-Product Plant
Section 4: Energy Efficiency
12. Heat Exchange Network Design and Optimisation
13. Design and Optimization Approach for Sustainable Rankine Cycle Systems
Concluding
14. Research Roadmap for Computing Solutions in Carbon Management