Coulson and Richardson’s Chemical Engineering: Volume 3A: Chemical and Biochemical Reactors and Reaction Engineering, Fourth Edition, covers reactor design, flow modelling, gas-liquid and gas-solid reactions and reactors.
1. Introduction - p. xviii 2. Chapter 1. Reactor Design—General Principles - p. 1 3. 1.1. Basic Objectives in Design of a Reactor - p. 1 4. 1.2. Classification of Reactors and Choice of Reactor Type - p. 4 5. 1.3. Choice of Process Conditions - p. 10 6. 1.4. Material and Energy Balances - p. 18 7. 1.5. Chemical Kinetics and Rate Equations - p. 26 8. 1.6. Batch Reactors - p. 36 9. 1.7. Tubular Flow Reactors - p. 52 10. 1.8. Continuous Stirred Tank Reactors - p. 65 11. 1.9. Comparison of Batch, Tubular, and Stirred Tank Reactors for a Single Reaction: Reactor Output - p. 76 12. 1.10. Comparison of Batch, Tubular, and Stirred Tank Reactors for Multiple Reactions: Reactor Yield - p. 81 13. 1.11. Appendix: Simplified Energy Balance Equations for Flow Reactors - p. 97 14. Nomenclature - p. 99 15. Chapter 2. Flow Characteristics of Reactors—Flow Modeling - p. 103 16. 2.1. Nonideal Flow and Residence Time Distribution - p. 103 17. 2.2. Zero-Parameter Models—Complete Segregation and Maximum Mixedness Models - p. 116 18. 2.3. Tanks-in-Series Model - p. 124 19. 2.4. Dispersed Plug Flow Model - p. 131 20. 2.5. Models Involving Combinations of the Basic Flow Elements - p. 155 21. Nomenclature - p. 157 22. Chapter 3. Gas–Solid Reactions and Reactors - p. 161 23. 3.1. Introduction - p. 161 24. 3.2. Mass Transfer Within Porous Solids - p. 164 25. 3.3. Chemical Reaction in Porous Catalyst Pellets - p. 170 26. 3.4. Mass Transfer From a Fluid Stream to a Solid Surface - p. 200 27. 3.5. Chemical Kinetics of Heterogeneous Catalytic Reactions - p. 203 28. 3.6. Design Calculations - p. 213 29. 3.7. Gas–Solid Noncatalytic Reactors - p. 247 30. Nomenclature - p. 262 31. Chapter 4. Gas–Liquid and Gas–Liquid–Solid Reactors - p. 273 32. 4.1. Gas–Liquid Reactors - p. 273 33. 4.2. Gas–Liquid–Solid Reactors - p. 316 34. Nomenclature - p. 338 35. Chapter 5. Fundamentals of Biological Sciences - p. 343 36. 5.1. Introduction - p. 343 37. 5.2. Biomolecules - p. 353 38. 5.3. Essential Microbiology for Engineers - p. 374 39. 5.4. Cellular Metabolism - p. 391 40. 5.5. Cellular Control Mechanisms and Their Manipulation - p. 409 41. Nomenclature - p. 423 42. Appendices - p. 423 43. Chapter 6. Biochemical Reaction Engineering - p. 451 44. 6.1. Enzymes: Biocatalysts - p. 451 45. 6.2. Immobilization of Biocatalysts - p. 479 46. 6.3. Microbial Stoichiometry - p. 490 47. 6.4. Cellular Growth - p. 494 48. 6.5. Bioreactor Configurations - p. 508 49. 6.6. Estimation of Kinetic Parameters - p. 532 50. 6.7. Non–Steady-State Microbial Systems - p. 544 51. 6.8. Further Design Considerations - p. 551 52. Nomenclature - p. 560 53. Index - p. 569
Coulson and Richardson’s Chemical Engineering: Volume 3A: Chemical and Biochemical Reactors and Reaction Engineering, Fourth Edition, covers reactor design, flow modelling, gas-liquid and gas-solid reactions and reactors.
1. Introduction - p. xviii 2. Chapter 1. Reactor Design—General Principles - p. 1 3. 1.1. Basic Objectives in Design of a Reactor - p. 1 4. 1.2. Classification of Reactors and Choice of Reactor Type - p. 4 5. 1.3. Choice of Process Conditions - p. 10 6. 1.4. Material and Energy Balances - p. 18 7. 1.5. Chemical Kinetics and Rate Equations - p. 26 8. 1.6. Batch Reactors - p. 36 9. 1.7. Tubular Flow Reactors - p. 52 10. 1.8. Continuous Stirred Tank Reactors - p. 65 11. 1.9. Comparison of Batch, Tubular, and Stirred Tank Reactors for a Single Reaction: Reactor Output - p. 76 12. 1.10. Comparison of Batch, Tubular, and Stirred Tank Reactors for Multiple Reactions: Reactor Yield - p. 81 13. 1.11. Appendix: Simplified Energy Balance Equations for Flow Reactors - p. 97 14. Nomenclature - p. 99 15. Chapter 2. Flow Characteristics of Reactors—Flow Modeling - p. 103 16. 2.1. Nonideal Flow and Residence Time Distribution - p. 103 17. 2.2. Zero-Parameter Models—Complete Segregation and Maximum Mixedness Models - p. 116 18. 2.3. Tanks-in-Series Model - p. 124 19. 2.4. Dispersed Plug Flow Model - p. 131 20. 2.5. Models Involving Combinations of the Basic Flow Elements - p. 155 21. Nomenclature - p. 157 22. Chapter 3. Gas–Solid Reactions and Reactors - p. 161 23. 3.1. Introduction - p. 161 24. 3.2. Mass Transfer Within Porous Solids - p. 164 25. 3.3. Chemical Reaction in Porous Catalyst Pellets - p. 170 26. 3.4. Mass Transfer From a Fluid Stream to a Solid Surface - p. 200 27. 3.5. Chemical Kinetics of Heterogeneous Catalytic Reactions - p. 203 28. 3.6. Design Calculations - p. 213 29. 3.7. Gas–Solid Noncatalytic Reactors - p. 247 30. Nomenclature - p. 262 31. Chapter 4. Gas–Liquid and Gas–Liquid–Solid Reactors - p. 273 32. 4.1. Gas–Liquid Reactors - p. 273 33. 4.2. Gas–Liquid–Solid Reactors - p. 316 34. Nomenclature - p. 338 35. Chapter 5. Fundamentals of Biological Sciences - p. 343 36. 5.1. Introduction - p. 343 37. 5.2. Biomolecules - p. 353 38. 5.3. Essential Microbiology for Engineers - p. 374 39. 5.4. Cellular Metabolism - p. 391 40. 5.5. Cellular Control Mechanisms and Their Manipulation - p. 409 41. Nomenclature - p. 423 42. Appendices - p. 423 43. Chapter 6. Biochemical Reaction Engineering - p. 451 44. 6.1. Enzymes: Biocatalysts - p. 451 45. 6.2. Immobilization of Biocatalysts - p. 479 46. 6.3. Microbial Stoichiometry - p. 490 47. 6.4. Cellular Growth - p. 494 48. 6.5. Bioreactor Configurations - p. 508 49. 6.6. Estimation of Kinetic Parameters - p. 532 50. 6.7. Non–Steady-State Microbial Systems - p. 544 51. 6.8. Further Design Considerations - p. 551 52. Nomenclature - p. 560 53. Index - p. 569
