Louis Theodore
Heat Transfer
Louis Theodore
Heat Transfer
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This book serves as a training tool for individuals in industry and academia involved with heat transfer applications. Although the literature is inundated with texts emphasizing theory and theoretical derivations, the goal of this book is to present the subject of heat transfer from a strictly pragmatic point of view. The book is divided into four Parts: Introduction, Principles, Equipment Design Procedures and Applications, and ABET-related Topics. The first Part provides a series of chapters concerned with introductory topics that are required when solving most engineering problems,…mehr
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This book serves as a training tool for individuals in industry and academia involved with heat transfer applications. Although the literature is inundated with texts emphasizing theory and theoretical derivations, the goal of this book is to present the subject of heat transfer from a strictly pragmatic point of view. The book is divided into four Parts: Introduction, Principles, Equipment Design Procedures and Applications, and ABET-related Topics. The first Part provides a series of chapters concerned with introductory topics that are required when solving most engineering problems, including those in heat transfer. The second Part of the book is concerned with heat transfer principles. Topics that receive treatment include Steady-state Heat Conduction, Unsteady-state Heat Conduction, Forced Convection, Free Convection, Radiation, Boiling and Condensation, and Cryogenics. Part three (considered the heart of the book) addresses heat transfer equipment design procedures and applications. In addition to providing a detailed treatment of the various types of heat exchangers, this part also examines the impact of entropy calculations on exchanger design, and operation, maintenance and inspection (OM&I), plus refractory and insulation effects. The concluding Part of the text examines ABET (Accreditation Board for Engineering and Technology) related topics of concern, including economies and finance, numerical methods, open-ended problems, ethics, environmental management, and safety and accident management.
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Produktdetails
- Produktdetails
- Verlag: John Wiley & Sons / Wiley
- Seitenzahl: 664
- Erscheinungstermin: 15. November 2011
- Englisch
- Abmessung: 240mm x 161mm x 40mm
- Gewicht: 1150g
- ISBN-13: 9780470643723
- ISBN-10: 0470643722
- Artikelnr.: 33392424
- Verlag: John Wiley & Sons / Wiley
- Seitenzahl: 664
- Erscheinungstermin: 15. November 2011
- Englisch
- Abmessung: 240mm x 161mm x 40mm
- Gewicht: 1150g
- ISBN-13: 9780470643723
- ISBN-10: 0470643722
- Artikelnr.: 33392424
Louis Theodore EngScD, a professor of chemical engineering for fifty years, is the author of many Wiley books, including Fluid Flow for the Practicing Chemical Engineer, Thermodynamics for the Practicing Engineer, and Mass Transfer Operations for the Practicing Engineer. He is also a contributor and Section Editor to Perry's Chemical Engineers' Handbook and coauthor of Introduction to Hazardous Waste Incineration, Second Edition, which is also published by Wiley. Dr. Theodore is currently a consultant to Theodore Tutorials, located in East Williston, New York.
Preface xv Introductory Comments xvii Part One Introduction 1. History of
Heat Transfer 3 Introduction 3 Peripheral Equipment 4 Recent History 5
References 6 2. History of Chemical Engineering: Transport Phenomena vs
Unit Operations 7 Introduction 7 History of Chemical Engineering 8
Transport Phenomena vs Unit Operations 10 What is Engineering? 12
References 13 3. Process Variables 15 Introduction 15 Units and Dimensional
Consistency 16 Key Terms and Definitions 19 Fluids 19 Temperature 19
Pressure 20 Moles and Molecular Weights 22 Mass and Volume 23 Viscosity 25
Heat Capacity 27 Thermal Conductivity 28 Thermal Diffusivity 30 Reynolds
Number 30 Kinetic Energy 31 Potential Energy 32 Determination of
Dimensionless Groups 33 References 36 4. Conservation Laws 37 Introduction
37 The Conservation Laws 38 The Conservation Law for Momentum 38 The
Conservation Law for Mass 40 The Conservation Law for Energy 45 References
54 5. Gas Laws 55 Introduction 55 Boyle's and Charles' Laws 56 The Ideal
Gas Law 57 Standard Conditions 60 Partial Pressure and Partial Volume 63
Non-Ideal Gas Behavior 65 References 65 6. Heat Exchanger Pipes and Tubes
67 Introduction 67 Pipes 67 Tubes 73 Valves and Fittings 75 Valves 75
Fittings 77 Noncircular Conduits 78 Flow Considerations 80 References 83
Part Two Principles 7. Steady-State Heat Conduction 87 Introduction 87
Fourier's Law 87 Conductivity Resistances 90 Microscopic Approach 99
Applications 102 References 114 8. Unsteady-State Heat Conduction 115
Introduction 115 Classification of Unsteady-State Heat Conduction Processes
116 Microscopic Equations 117 Applications 118 References 130 9. Forced
Convection 131 Introduction 131 Convective Resistances 134 Heat Transfer
Coefficients: Qualitative Information 137 Heat Transfer Coefficients:
Quantitative Information 138 Flow Past a Flat Plate 141 Flow in a Circular
Tube 146 Liquid Metal Flow in a Circular Tube 147 Convection Across
Cylinders 148 Microscopic Approach 155 References 159 10. Free Convection
161 Introduction 161 Key Dimensionless Numbers 162 Describing Equations 164
Environmental Applications 171 Lapse Rates 171 Plume Rise 173 References
176 11. Radiation 177 Introduction 177 Energy and Intensity 180 Radiant
Exchange 183 Kirchoff's Law 184 Emissivity Factors 189 View Factors 196
References 200 12. Condensation and Boiling 201 Introduction 201
Condensation Fundamentals 203 Phase Equilibrium 205 Psychrometric Chart 207
Steam Tables 208 Condensation Principles 209 Boiling Fundamentals 215
Boiling Principles 218 References 225 13. Refrigeration and Cryogenics 227
Introduction 227 Background Material 228 Refrigeration 228 Cryogenics 230
Liquefaction 231 Cryogens 232 Equipment 234 Typical Heat Exchangers 234
Materials of Construction 235 Insulation and Heat Loss 236 Storage and
Transportation 240 Hazards, Risks, and Safety 241 Physiological Hazards 241
Physical Hazards 242 Chemical Hazards 244 Basic Principles and Applications
244 Coefficient of Performance 246 Thermal Efficiency 248 Entropy and Heat
252 References 253 Part Three Heat Transfer Equipment Design Procedures and
Applications 14. Introduction to Heat Exchangers 257 Introduction 257
Energy Relationships 258 Heat Exchange Equipment Classification 260 The Log
Mean Temperature Difference (LMTD) Driving Force 262 Temperature Profiles
265 Overall Heat Transfer Coefficients 268 Fouling Factors 271 The
Controlling Resistance 272 Varying Overall Heat Transfer Coefficients 276
The Heat Transfer Equation 278 References 279 15. Double Pipe Heat
Exchangers 281 Introduction 281 Equipment Description 282 Describing
Equations 286 Calculation of Exit Temperatures 298 Effectiveness Factor and
Number of Transfer Units 304 Wilson's Method 309 References 313 16. Shell
and Tube Heat Exchangers 315 Introduction 315 Equipment Description 316
Describing Equations 322 The "F" Factor 328 Effectiveness Factor and Number
of Transfer Units 344 References 356 17. Fins and Extended Surfaces 357
Introduction 357 Fin Types 358 Describing Equations 360 Fin Effectiveness
and Performance 371 Fin Considerations 380 References 380 18. Other Heat
Exchange Equipment 381 Introduction 381 Evaporators 382 Mixing Effects 384
Waste Heat Boilers 392 Describing Equations 394 Condensers 401 Quenchers
404 Dilution with Ambient Air 405 Quenching with Liquids 405 Contact with
High Heat Capacity Solids 405 Natural Convection and Radiation 406
Forced-Draft Cooling 406 References 410 19. Insulation and Refractory 411
Introduction 411 Describing Equations 411 Insulation 430 Critical
Insulation Thickness 431 Refractory 435 References 442 20. Operation,
Maintenance, and Inspection (OM&I) 443 Introduction 443 Installation
Procedures 443 Clearance Provisions 444 Foundations 444 Leveling 444 Piping
Considerations 444 Operation 445 Startup 446 Shut Down 446 Maintenance and
Inspection 446 Cleaning 446 Testing 447 Improving Operation and Performance
448 References 449 21. Entropy Considerations and Analysis 451 Introduction
451 Qualitative Review of the Second Law 452 Describing Equations 453 The
Heat Exchanger Dilemma 455 Applications 460 References 463 22. Design
Principles and Industrial Applications 465 Introduction 465 General Design
Procedures 466 Process Schematics 467 Purchasing a Heat Exchanger 468
Applications 470 References 490 Part Four Special Topics 23. Environmental
Management 493 Introduction 493 Environmental Management History 493
Environmental Management Topics 495 Applications 496 References 503 24.
Accident and Emergency Management 505 Introduction 505 Legislation 506
Comprehensive Environmental Response, Compensation, and Liability Act
(CERCLA) 506 Superfund Amendments and Reauthorization Act of 1986 (SARA)
507 Occupational Safety and Health Act (OSHA) 508 USEPA's Risk Management
Program (RMP) 509 Hazard Risk Assessment 510 Applications 513 References
531 25. Ethics 533 Introduction 533 Teaching Ethics 534 The Case Study
Approach 535 Applications 537 References 540 26. Numerical Methods 541
Introduction 541 History 542 Partial Differential Equations (PDE) 544
Parabolic PDE 545 Elliptical PDE 546 Regresion Analysis 554 Correlation
Coefficient 557 Optimization 560 Perturbation Studies in Optimization 560
References 562 27. Economics and Finance 563 Introduction 563 The Need for
Economic Analyses 563 Definitions 565 Simple Interest 565 Compound Interest
565 Present Worth 566 Evaluation of Sums of Money 566 Depreciation 567
Fabricated Equipment Cost Index 567 Capital Recovery Factor 567 Present Net
Worth 568 Perpetual Life 568 Break-Even Point 569 Approximate Rate of
Return 569 Exact Rate of Return 569 Bonds 570 Incremental Cost 570
Optimization 570 Principles of Accounting 571 Applications 573 References
588 28. Open-Ended Problems 589 Introduction 589 Developing Students' Power
of Critical Thinking 592 Creativity 592 Brainstorming 593 Inquiring Minds
594 Applications 594 References 602 Appendix A. Units 603 Appendix B.
Tables 613 Appendix C. Figures 627 Appendix D. Steam Tables 631 Index 639
Heat Transfer 3 Introduction 3 Peripheral Equipment 4 Recent History 5
References 6 2. History of Chemical Engineering: Transport Phenomena vs
Unit Operations 7 Introduction 7 History of Chemical Engineering 8
Transport Phenomena vs Unit Operations 10 What is Engineering? 12
References 13 3. Process Variables 15 Introduction 15 Units and Dimensional
Consistency 16 Key Terms and Definitions 19 Fluids 19 Temperature 19
Pressure 20 Moles and Molecular Weights 22 Mass and Volume 23 Viscosity 25
Heat Capacity 27 Thermal Conductivity 28 Thermal Diffusivity 30 Reynolds
Number 30 Kinetic Energy 31 Potential Energy 32 Determination of
Dimensionless Groups 33 References 36 4. Conservation Laws 37 Introduction
37 The Conservation Laws 38 The Conservation Law for Momentum 38 The
Conservation Law for Mass 40 The Conservation Law for Energy 45 References
54 5. Gas Laws 55 Introduction 55 Boyle's and Charles' Laws 56 The Ideal
Gas Law 57 Standard Conditions 60 Partial Pressure and Partial Volume 63
Non-Ideal Gas Behavior 65 References 65 6. Heat Exchanger Pipes and Tubes
67 Introduction 67 Pipes 67 Tubes 73 Valves and Fittings 75 Valves 75
Fittings 77 Noncircular Conduits 78 Flow Considerations 80 References 83
Part Two Principles 7. Steady-State Heat Conduction 87 Introduction 87
Fourier's Law 87 Conductivity Resistances 90 Microscopic Approach 99
Applications 102 References 114 8. Unsteady-State Heat Conduction 115
Introduction 115 Classification of Unsteady-State Heat Conduction Processes
116 Microscopic Equations 117 Applications 118 References 130 9. Forced
Convection 131 Introduction 131 Convective Resistances 134 Heat Transfer
Coefficients: Qualitative Information 137 Heat Transfer Coefficients:
Quantitative Information 138 Flow Past a Flat Plate 141 Flow in a Circular
Tube 146 Liquid Metal Flow in a Circular Tube 147 Convection Across
Cylinders 148 Microscopic Approach 155 References 159 10. Free Convection
161 Introduction 161 Key Dimensionless Numbers 162 Describing Equations 164
Environmental Applications 171 Lapse Rates 171 Plume Rise 173 References
176 11. Radiation 177 Introduction 177 Energy and Intensity 180 Radiant
Exchange 183 Kirchoff's Law 184 Emissivity Factors 189 View Factors 196
References 200 12. Condensation and Boiling 201 Introduction 201
Condensation Fundamentals 203 Phase Equilibrium 205 Psychrometric Chart 207
Steam Tables 208 Condensation Principles 209 Boiling Fundamentals 215
Boiling Principles 218 References 225 13. Refrigeration and Cryogenics 227
Introduction 227 Background Material 228 Refrigeration 228 Cryogenics 230
Liquefaction 231 Cryogens 232 Equipment 234 Typical Heat Exchangers 234
Materials of Construction 235 Insulation and Heat Loss 236 Storage and
Transportation 240 Hazards, Risks, and Safety 241 Physiological Hazards 241
Physical Hazards 242 Chemical Hazards 244 Basic Principles and Applications
244 Coefficient of Performance 246 Thermal Efficiency 248 Entropy and Heat
252 References 253 Part Three Heat Transfer Equipment Design Procedures and
Applications 14. Introduction to Heat Exchangers 257 Introduction 257
Energy Relationships 258 Heat Exchange Equipment Classification 260 The Log
Mean Temperature Difference (LMTD) Driving Force 262 Temperature Profiles
265 Overall Heat Transfer Coefficients 268 Fouling Factors 271 The
Controlling Resistance 272 Varying Overall Heat Transfer Coefficients 276
The Heat Transfer Equation 278 References 279 15. Double Pipe Heat
Exchangers 281 Introduction 281 Equipment Description 282 Describing
Equations 286 Calculation of Exit Temperatures 298 Effectiveness Factor and
Number of Transfer Units 304 Wilson's Method 309 References 313 16. Shell
and Tube Heat Exchangers 315 Introduction 315 Equipment Description 316
Describing Equations 322 The "F" Factor 328 Effectiveness Factor and Number
of Transfer Units 344 References 356 17. Fins and Extended Surfaces 357
Introduction 357 Fin Types 358 Describing Equations 360 Fin Effectiveness
and Performance 371 Fin Considerations 380 References 380 18. Other Heat
Exchange Equipment 381 Introduction 381 Evaporators 382 Mixing Effects 384
Waste Heat Boilers 392 Describing Equations 394 Condensers 401 Quenchers
404 Dilution with Ambient Air 405 Quenching with Liquids 405 Contact with
High Heat Capacity Solids 405 Natural Convection and Radiation 406
Forced-Draft Cooling 406 References 410 19. Insulation and Refractory 411
Introduction 411 Describing Equations 411 Insulation 430 Critical
Insulation Thickness 431 Refractory 435 References 442 20. Operation,
Maintenance, and Inspection (OM&I) 443 Introduction 443 Installation
Procedures 443 Clearance Provisions 444 Foundations 444 Leveling 444 Piping
Considerations 444 Operation 445 Startup 446 Shut Down 446 Maintenance and
Inspection 446 Cleaning 446 Testing 447 Improving Operation and Performance
448 References 449 21. Entropy Considerations and Analysis 451 Introduction
451 Qualitative Review of the Second Law 452 Describing Equations 453 The
Heat Exchanger Dilemma 455 Applications 460 References 463 22. Design
Principles and Industrial Applications 465 Introduction 465 General Design
Procedures 466 Process Schematics 467 Purchasing a Heat Exchanger 468
Applications 470 References 490 Part Four Special Topics 23. Environmental
Management 493 Introduction 493 Environmental Management History 493
Environmental Management Topics 495 Applications 496 References 503 24.
Accident and Emergency Management 505 Introduction 505 Legislation 506
Comprehensive Environmental Response, Compensation, and Liability Act
(CERCLA) 506 Superfund Amendments and Reauthorization Act of 1986 (SARA)
507 Occupational Safety and Health Act (OSHA) 508 USEPA's Risk Management
Program (RMP) 509 Hazard Risk Assessment 510 Applications 513 References
531 25. Ethics 533 Introduction 533 Teaching Ethics 534 The Case Study
Approach 535 Applications 537 References 540 26. Numerical Methods 541
Introduction 541 History 542 Partial Differential Equations (PDE) 544
Parabolic PDE 545 Elliptical PDE 546 Regresion Analysis 554 Correlation
Coefficient 557 Optimization 560 Perturbation Studies in Optimization 560
References 562 27. Economics and Finance 563 Introduction 563 The Need for
Economic Analyses 563 Definitions 565 Simple Interest 565 Compound Interest
565 Present Worth 566 Evaluation of Sums of Money 566 Depreciation 567
Fabricated Equipment Cost Index 567 Capital Recovery Factor 567 Present Net
Worth 568 Perpetual Life 568 Break-Even Point 569 Approximate Rate of
Return 569 Exact Rate of Return 569 Bonds 570 Incremental Cost 570
Optimization 570 Principles of Accounting 571 Applications 573 References
588 28. Open-Ended Problems 589 Introduction 589 Developing Students' Power
of Critical Thinking 592 Creativity 592 Brainstorming 593 Inquiring Minds
594 Applications 594 References 602 Appendix A. Units 603 Appendix B.
Tables 613 Appendix C. Figures 627 Appendix D. Steam Tables 631 Index 639
Preface xv Introductory Comments xvii Part One Introduction 1. History of
Heat Transfer 3 Introduction 3 Peripheral Equipment 4 Recent History 5
References 6 2. History of Chemical Engineering: Transport Phenomena vs
Unit Operations 7 Introduction 7 History of Chemical Engineering 8
Transport Phenomena vs Unit Operations 10 What is Engineering? 12
References 13 3. Process Variables 15 Introduction 15 Units and Dimensional
Consistency 16 Key Terms and Definitions 19 Fluids 19 Temperature 19
Pressure 20 Moles and Molecular Weights 22 Mass and Volume 23 Viscosity 25
Heat Capacity 27 Thermal Conductivity 28 Thermal Diffusivity 30 Reynolds
Number 30 Kinetic Energy 31 Potential Energy 32 Determination of
Dimensionless Groups 33 References 36 4. Conservation Laws 37 Introduction
37 The Conservation Laws 38 The Conservation Law for Momentum 38 The
Conservation Law for Mass 40 The Conservation Law for Energy 45 References
54 5. Gas Laws 55 Introduction 55 Boyle's and Charles' Laws 56 The Ideal
Gas Law 57 Standard Conditions 60 Partial Pressure and Partial Volume 63
Non-Ideal Gas Behavior 65 References 65 6. Heat Exchanger Pipes and Tubes
67 Introduction 67 Pipes 67 Tubes 73 Valves and Fittings 75 Valves 75
Fittings 77 Noncircular Conduits 78 Flow Considerations 80 References 83
Part Two Principles 7. Steady-State Heat Conduction 87 Introduction 87
Fourier's Law 87 Conductivity Resistances 90 Microscopic Approach 99
Applications 102 References 114 8. Unsteady-State Heat Conduction 115
Introduction 115 Classification of Unsteady-State Heat Conduction Processes
116 Microscopic Equations 117 Applications 118 References 130 9. Forced
Convection 131 Introduction 131 Convective Resistances 134 Heat Transfer
Coefficients: Qualitative Information 137 Heat Transfer Coefficients:
Quantitative Information 138 Flow Past a Flat Plate 141 Flow in a Circular
Tube 146 Liquid Metal Flow in a Circular Tube 147 Convection Across
Cylinders 148 Microscopic Approach 155 References 159 10. Free Convection
161 Introduction 161 Key Dimensionless Numbers 162 Describing Equations 164
Environmental Applications 171 Lapse Rates 171 Plume Rise 173 References
176 11. Radiation 177 Introduction 177 Energy and Intensity 180 Radiant
Exchange 183 Kirchoff's Law 184 Emissivity Factors 189 View Factors 196
References 200 12. Condensation and Boiling 201 Introduction 201
Condensation Fundamentals 203 Phase Equilibrium 205 Psychrometric Chart 207
Steam Tables 208 Condensation Principles 209 Boiling Fundamentals 215
Boiling Principles 218 References 225 13. Refrigeration and Cryogenics 227
Introduction 227 Background Material 228 Refrigeration 228 Cryogenics 230
Liquefaction 231 Cryogens 232 Equipment 234 Typical Heat Exchangers 234
Materials of Construction 235 Insulation and Heat Loss 236 Storage and
Transportation 240 Hazards, Risks, and Safety 241 Physiological Hazards 241
Physical Hazards 242 Chemical Hazards 244 Basic Principles and Applications
244 Coefficient of Performance 246 Thermal Efficiency 248 Entropy and Heat
252 References 253 Part Three Heat Transfer Equipment Design Procedures and
Applications 14. Introduction to Heat Exchangers 257 Introduction 257
Energy Relationships 258 Heat Exchange Equipment Classification 260 The Log
Mean Temperature Difference (LMTD) Driving Force 262 Temperature Profiles
265 Overall Heat Transfer Coefficients 268 Fouling Factors 271 The
Controlling Resistance 272 Varying Overall Heat Transfer Coefficients 276
The Heat Transfer Equation 278 References 279 15. Double Pipe Heat
Exchangers 281 Introduction 281 Equipment Description 282 Describing
Equations 286 Calculation of Exit Temperatures 298 Effectiveness Factor and
Number of Transfer Units 304 Wilson's Method 309 References 313 16. Shell
and Tube Heat Exchangers 315 Introduction 315 Equipment Description 316
Describing Equations 322 The "F" Factor 328 Effectiveness Factor and Number
of Transfer Units 344 References 356 17. Fins and Extended Surfaces 357
Introduction 357 Fin Types 358 Describing Equations 360 Fin Effectiveness
and Performance 371 Fin Considerations 380 References 380 18. Other Heat
Exchange Equipment 381 Introduction 381 Evaporators 382 Mixing Effects 384
Waste Heat Boilers 392 Describing Equations 394 Condensers 401 Quenchers
404 Dilution with Ambient Air 405 Quenching with Liquids 405 Contact with
High Heat Capacity Solids 405 Natural Convection and Radiation 406
Forced-Draft Cooling 406 References 410 19. Insulation and Refractory 411
Introduction 411 Describing Equations 411 Insulation 430 Critical
Insulation Thickness 431 Refractory 435 References 442 20. Operation,
Maintenance, and Inspection (OM&I) 443 Introduction 443 Installation
Procedures 443 Clearance Provisions 444 Foundations 444 Leveling 444 Piping
Considerations 444 Operation 445 Startup 446 Shut Down 446 Maintenance and
Inspection 446 Cleaning 446 Testing 447 Improving Operation and Performance
448 References 449 21. Entropy Considerations and Analysis 451 Introduction
451 Qualitative Review of the Second Law 452 Describing Equations 453 The
Heat Exchanger Dilemma 455 Applications 460 References 463 22. Design
Principles and Industrial Applications 465 Introduction 465 General Design
Procedures 466 Process Schematics 467 Purchasing a Heat Exchanger 468
Applications 470 References 490 Part Four Special Topics 23. Environmental
Management 493 Introduction 493 Environmental Management History 493
Environmental Management Topics 495 Applications 496 References 503 24.
Accident and Emergency Management 505 Introduction 505 Legislation 506
Comprehensive Environmental Response, Compensation, and Liability Act
(CERCLA) 506 Superfund Amendments and Reauthorization Act of 1986 (SARA)
507 Occupational Safety and Health Act (OSHA) 508 USEPA's Risk Management
Program (RMP) 509 Hazard Risk Assessment 510 Applications 513 References
531 25. Ethics 533 Introduction 533 Teaching Ethics 534 The Case Study
Approach 535 Applications 537 References 540 26. Numerical Methods 541
Introduction 541 History 542 Partial Differential Equations (PDE) 544
Parabolic PDE 545 Elliptical PDE 546 Regresion Analysis 554 Correlation
Coefficient 557 Optimization 560 Perturbation Studies in Optimization 560
References 562 27. Economics and Finance 563 Introduction 563 The Need for
Economic Analyses 563 Definitions 565 Simple Interest 565 Compound Interest
565 Present Worth 566 Evaluation of Sums of Money 566 Depreciation 567
Fabricated Equipment Cost Index 567 Capital Recovery Factor 567 Present Net
Worth 568 Perpetual Life 568 Break-Even Point 569 Approximate Rate of
Return 569 Exact Rate of Return 569 Bonds 570 Incremental Cost 570
Optimization 570 Principles of Accounting 571 Applications 573 References
588 28. Open-Ended Problems 589 Introduction 589 Developing Students' Power
of Critical Thinking 592 Creativity 592 Brainstorming 593 Inquiring Minds
594 Applications 594 References 602 Appendix A. Units 603 Appendix B.
Tables 613 Appendix C. Figures 627 Appendix D. Steam Tables 631 Index 639
Heat Transfer 3 Introduction 3 Peripheral Equipment 4 Recent History 5
References 6 2. History of Chemical Engineering: Transport Phenomena vs
Unit Operations 7 Introduction 7 History of Chemical Engineering 8
Transport Phenomena vs Unit Operations 10 What is Engineering? 12
References 13 3. Process Variables 15 Introduction 15 Units and Dimensional
Consistency 16 Key Terms and Definitions 19 Fluids 19 Temperature 19
Pressure 20 Moles and Molecular Weights 22 Mass and Volume 23 Viscosity 25
Heat Capacity 27 Thermal Conductivity 28 Thermal Diffusivity 30 Reynolds
Number 30 Kinetic Energy 31 Potential Energy 32 Determination of
Dimensionless Groups 33 References 36 4. Conservation Laws 37 Introduction
37 The Conservation Laws 38 The Conservation Law for Momentum 38 The
Conservation Law for Mass 40 The Conservation Law for Energy 45 References
54 5. Gas Laws 55 Introduction 55 Boyle's and Charles' Laws 56 The Ideal
Gas Law 57 Standard Conditions 60 Partial Pressure and Partial Volume 63
Non-Ideal Gas Behavior 65 References 65 6. Heat Exchanger Pipes and Tubes
67 Introduction 67 Pipes 67 Tubes 73 Valves and Fittings 75 Valves 75
Fittings 77 Noncircular Conduits 78 Flow Considerations 80 References 83
Part Two Principles 7. Steady-State Heat Conduction 87 Introduction 87
Fourier's Law 87 Conductivity Resistances 90 Microscopic Approach 99
Applications 102 References 114 8. Unsteady-State Heat Conduction 115
Introduction 115 Classification of Unsteady-State Heat Conduction Processes
116 Microscopic Equations 117 Applications 118 References 130 9. Forced
Convection 131 Introduction 131 Convective Resistances 134 Heat Transfer
Coefficients: Qualitative Information 137 Heat Transfer Coefficients:
Quantitative Information 138 Flow Past a Flat Plate 141 Flow in a Circular
Tube 146 Liquid Metal Flow in a Circular Tube 147 Convection Across
Cylinders 148 Microscopic Approach 155 References 159 10. Free Convection
161 Introduction 161 Key Dimensionless Numbers 162 Describing Equations 164
Environmental Applications 171 Lapse Rates 171 Plume Rise 173 References
176 11. Radiation 177 Introduction 177 Energy and Intensity 180 Radiant
Exchange 183 Kirchoff's Law 184 Emissivity Factors 189 View Factors 196
References 200 12. Condensation and Boiling 201 Introduction 201
Condensation Fundamentals 203 Phase Equilibrium 205 Psychrometric Chart 207
Steam Tables 208 Condensation Principles 209 Boiling Fundamentals 215
Boiling Principles 218 References 225 13. Refrigeration and Cryogenics 227
Introduction 227 Background Material 228 Refrigeration 228 Cryogenics 230
Liquefaction 231 Cryogens 232 Equipment 234 Typical Heat Exchangers 234
Materials of Construction 235 Insulation and Heat Loss 236 Storage and
Transportation 240 Hazards, Risks, and Safety 241 Physiological Hazards 241
Physical Hazards 242 Chemical Hazards 244 Basic Principles and Applications
244 Coefficient of Performance 246 Thermal Efficiency 248 Entropy and Heat
252 References 253 Part Three Heat Transfer Equipment Design Procedures and
Applications 14. Introduction to Heat Exchangers 257 Introduction 257
Energy Relationships 258 Heat Exchange Equipment Classification 260 The Log
Mean Temperature Difference (LMTD) Driving Force 262 Temperature Profiles
265 Overall Heat Transfer Coefficients 268 Fouling Factors 271 The
Controlling Resistance 272 Varying Overall Heat Transfer Coefficients 276
The Heat Transfer Equation 278 References 279 15. Double Pipe Heat
Exchangers 281 Introduction 281 Equipment Description 282 Describing
Equations 286 Calculation of Exit Temperatures 298 Effectiveness Factor and
Number of Transfer Units 304 Wilson's Method 309 References 313 16. Shell
and Tube Heat Exchangers 315 Introduction 315 Equipment Description 316
Describing Equations 322 The "F" Factor 328 Effectiveness Factor and Number
of Transfer Units 344 References 356 17. Fins and Extended Surfaces 357
Introduction 357 Fin Types 358 Describing Equations 360 Fin Effectiveness
and Performance 371 Fin Considerations 380 References 380 18. Other Heat
Exchange Equipment 381 Introduction 381 Evaporators 382 Mixing Effects 384
Waste Heat Boilers 392 Describing Equations 394 Condensers 401 Quenchers
404 Dilution with Ambient Air 405 Quenching with Liquids 405 Contact with
High Heat Capacity Solids 405 Natural Convection and Radiation 406
Forced-Draft Cooling 406 References 410 19. Insulation and Refractory 411
Introduction 411 Describing Equations 411 Insulation 430 Critical
Insulation Thickness 431 Refractory 435 References 442 20. Operation,
Maintenance, and Inspection (OM&I) 443 Introduction 443 Installation
Procedures 443 Clearance Provisions 444 Foundations 444 Leveling 444 Piping
Considerations 444 Operation 445 Startup 446 Shut Down 446 Maintenance and
Inspection 446 Cleaning 446 Testing 447 Improving Operation and Performance
448 References 449 21. Entropy Considerations and Analysis 451 Introduction
451 Qualitative Review of the Second Law 452 Describing Equations 453 The
Heat Exchanger Dilemma 455 Applications 460 References 463 22. Design
Principles and Industrial Applications 465 Introduction 465 General Design
Procedures 466 Process Schematics 467 Purchasing a Heat Exchanger 468
Applications 470 References 490 Part Four Special Topics 23. Environmental
Management 493 Introduction 493 Environmental Management History 493
Environmental Management Topics 495 Applications 496 References 503 24.
Accident and Emergency Management 505 Introduction 505 Legislation 506
Comprehensive Environmental Response, Compensation, and Liability Act
(CERCLA) 506 Superfund Amendments and Reauthorization Act of 1986 (SARA)
507 Occupational Safety and Health Act (OSHA) 508 USEPA's Risk Management
Program (RMP) 509 Hazard Risk Assessment 510 Applications 513 References
531 25. Ethics 533 Introduction 533 Teaching Ethics 534 The Case Study
Approach 535 Applications 537 References 540 26. Numerical Methods 541
Introduction 541 History 542 Partial Differential Equations (PDE) 544
Parabolic PDE 545 Elliptical PDE 546 Regresion Analysis 554 Correlation
Coefficient 557 Optimization 560 Perturbation Studies in Optimization 560
References 562 27. Economics and Finance 563 Introduction 563 The Need for
Economic Analyses 563 Definitions 565 Simple Interest 565 Compound Interest
565 Present Worth 566 Evaluation of Sums of Money 566 Depreciation 567
Fabricated Equipment Cost Index 567 Capital Recovery Factor 567 Present Net
Worth 568 Perpetual Life 568 Break-Even Point 569 Approximate Rate of
Return 569 Exact Rate of Return 569 Bonds 570 Incremental Cost 570
Optimization 570 Principles of Accounting 571 Applications 573 References
588 28. Open-Ended Problems 589 Introduction 589 Developing Students' Power
of Critical Thinking 592 Creativity 592 Brainstorming 593 Inquiring Minds
594 Applications 594 References 602 Appendix A. Units 603 Appendix B.
Tables 613 Appendix C. Figures 627 Appendix D. Steam Tables 631 Index 639