In a unified approach suitable to many applications, Fundamentals of Heat Exchanger Design details an in–depth thermal and hydraulic design theory underlying two–fluid heat exchangers for steady–state operation. An overall focus is given to offering guidance on applying basic heat exchanger design concepts to the solution of industrial heat exchanger problems.
Critical coverage for complex engineering design analysis features step–by–step guidelines for rating and sizing design procedures for four types of exchangers (extended surface, plate–type, regenerator, and shell–and–tube), examinations of all auxiliary calculations related to heat transfer characteristics and pressure drop calculations, and insightful material on such subjects as:
- Thermal and hydraulic design theory for both recuperators and regenerators
- Surface basic heat transfer and flow friction characteristics
- Heat exchanger surface geometrical properties
- Thermodynamic analysis and modeling
- Flow maldistribution and header design
- Fouling and corrosion
Complete with solved examples and problems clarifying important concepts and applications, Fundamentals of Heat Exchanger Design is a powerful tool for students, researchers, and engineers.
1 Classification of Heat Exchangers.
1.2 Classification According to Transfer Processes.
1.3 Classification According to Number of Fluids.
1.4 Classification According to Surface Compactness.
1.5 Classification According to Construction Features.
1.6 Classification According to Flow Arrangements.
1.7 Classification According to Heat Transfer Mechanisms.
2 Overview of Heat Exchanger Design Methodology.
2.1 Heat Exchanger Design Methodology.
2.2 Interactions Among Design Considerations.
3 Basic Thermal Design Theory for Recuperators.
3.1 Formal Analogy between Thermal and Electrical Entities.
3.2 Heat Exchanger Variables and Thermal Circuit.
3.3 The ?(Epsilon)–NTU Method.
3.4 Effectiveness Number of Transfer Unit Relationships.
3.5 The P–NTU Method.
3.6 P–N TU R elat ionships.
3.7 The Mean Temperature Difference Method.
3.8 F Factors for Various Flow Arrangements.
3.9 Comparison of the ?(Epsilon)–NTU, P–NTU, and MTD Methods.
3.10 The ?(Psi)–P and P1 P2 Methods.
3.11 Solution Methods for Determining Exchanger Effectiveness.
3.12 Heat Exchanger Design Problems.
4 Additional Considerations for Thermal Design of Recuperators.
4.1 Longitudinal Wall Heat Conduction Effects.
4.2 Nonuniform Overall Heat Transfer Coefficients.
4.3 Additional Considerations for Extended Surface Exchangers.
4.4 Additional Considerations for Shell–and–Tube Exchangers.
5 Thermal Design Theory for Regenerators.
5.1 Heat Transfer Analysis.
5.2 The ?(Epsilon)–NTUo Method.
5.3 The ?(Lambda) ?(Pi) Method.
5.4 Influence of Longitudinal Wall Heat Conduction.
5.5 Influence of Transverse Wall Heat Conduction.
5.6 Influence of Pressure and Carryover Leakages.
5.7 Influence of Matrix Material, Size, and Arrangement.
6 Heat Exchanger Pressure Drop Analysis.
6.2 Extended Surface Heat Exchanger Pressure Drop.
6.3 Regenerator Pressure Drop.
6.4 Tubular Heat Exchanger Pressure Drop.
6.5 Plate Heat Exchanger Pressure Drop.
6.6 Pressure Drop Associated with Fluid Distribution Elements.
6.7 Pressure Drop Presentation.
6.8 Pressure Drop Dependence on Geometry and Fluid Properties.
7 Surface Basic Heat Transfer and Flow Friction Characteristics.
7.1 Basic Concepts.
7.2 Dimensionless Groups.
7.3 Experimental Techniques for Determining Surface Characteristics.
7.4 Analytical and Semiempirical Heat Transfer and Friction Factor Correlations for Simple Geometries.
7.5 Experimental Heat Transfer and Friction Factor Correlations for Complex Geometries.
7.6 Influence of Temperature–Dependent Fluid Properties.
7.7 Influence of Superimposed Free Convection.
7.8 Influence of Superimposed Radiation.
8 Heat Exchanger Surface Geometrical Characteristics.
8.1 Tubular Heat Exchangers.
8.2 Tube–Fin Heat Exchangers.
8.3 Plate–Fin Heat Exchangers.
8.4 Regenerators with Continuous Cylindrical Passages.
8.5 Shell–and–Tube Exchangers with Segmental Baffles.
8.6 Gasketed Plate Heat Exchangers.
9 Heat Exchanger Design Procedures.
9.1 Fluid Mean Temperatures.
9.2 Plate–Fin Heat Exchangers.
9.3 Tube–Fin Heat Exchangers.
9.3.4 Core Mass Velocity Equation.
9.4 Plate Heat Exchangers.
9.5 Shell–and–Tube Heat Exchangers.
9.6 Heat Exchanger Optimization.
10 Selection of Heat Exchangers and Their Components.
10.1 Selection Criteria Based on Operating Parameters.
10.2 General Selection Guidelines for Major Exchanger Types.
10.3 Some Quantitative Considerations.
11 Thermodynamic Modeling and Analysis.
11.2 Modeling a Heat Exchanger Based on the First Law of Thermodynamics.
11.3 Irreversibilities in Heat Exchangers.
11.4 Thermodynamic Irreversibility and Temperature Cross Phenomena.
11.5 A Heuristic Approach to an Assessment of Heat Exchanger Effectiveness.
11.6 Energy, Exergy, and Cost Balances in the Analysis and Optimization of Heat Exchangers.
11.7 Performance Evaluation Criteria Based on the Second Law of Thermodynamics.
12 Flow Maldistribution and Header Design.
12.1 Geometry–Induced Flow Maldistribution.
12.2 Operating Condition Induced Flow Maldistribution.
12.3 Mitigation of Flow Maldistribution.
12.4 Header and Manifold Design.
13 Fouling and Corrosion.
13.1 Fouling and its Effect on Exchanger Heat Transfer and Pressure Drop.
13.2 Phenomenological Considerations of Fouling.
13.3 Fouling Resistance Design Approach.
13.4 Prevention and Mitigation of Fouling.
13.5 Corrosion in Heat Exchangers.
Appendix A: Thermophysical Properties.
Appendix B: ?(Epsilon)–NTU Relationships for Liquid–Coupled Exchangers.
Appendix C: Two–Phase Heat Transfer and Pressure Drop Correlations.
C.1 Two–Phase Pressure Drop Correlations.
C.2 Heat Transfer Correlations for Condensation.
C.3 Heat Transfer Correlations for Boiling.
Appendix D: U and CUA Values for Various Heat Exchangers.
General References on or Related to Heat Exchangers.