Chemical Process Equipment
Selection and Design
- 3rd Edition - September 19, 2012
- Latest edition
- Authors: James R. Couper, W Roy Penney, James R. Fair PhD
- Language: English
- Hardback ISBN:9 7 8 - 0 - 1 2 - 3 9 6 9 5 9 - 0
- eBook ISBN:9 7 8 - 0 - 1 2 - 3 9 7 2 3 6 - 1
Chemical Process Equipment is a results-oriented reference for engineers who specify, design, maintain or run chemical and process plants. This book delivers information on the se… Read more
Chemical Process Equipment is a results-oriented reference for engineers who specify, design, maintain or run chemical and process plants. This book delivers information on the selection, sizing and operation of process equipment in a format that enables quick and accurate decision making on standard process and equipment choices, saving time, improving productivity, and building understanding. Coverage emphasizes common real-world equipment design rather than experimental or esoteric and focuses on maximizing performance.
- Legacy reference for chemical and related engineers who work with vendors to design, specify and make final equipment selection decisions
- Copious examples of successful applications, with supporting schematics and data to illustrate the functioning and performance of equipment
- Provides equipment rating forms and manufacturers’ data, worked examples, valuable shortcut methods, and rules of thumb to demonstrate and support the design process
- Heavily illustrated with line drawings and schematics to aid understanding, as well as graphs and tables to illustrate performance data
Chemical and process engineers. Industrial and plant engineers
Dedication
Preface to the Third Edition
Preface to the Second Edition
Preface to the First Edition
Contributors
0. Rules of Thumb: Summary
Compressors and Vacuum Pumps
Conveyors for Particulate Solids
Cooling Towers
Crystallization From Solution
Disintegration
Distillation and Gas Absorption
Drivers and Power Recovery Equipment
Drying of Solids
Evaporators
Extraction, Liquid-Liquid
Filtration
Fluidization of Particles with Gases
Heat Exchangers
Insulation
Mixing and Agitation
Particle Size Enlargement
Piping
Pumps
Reactors
Refrigeration
Size Separation of Particles
Utilities: Common Specifications
Vessels (Drums)
Vessels (Pressure)
Vessels (Storage Tanks)
Membrane Separations
Materials of Construction
Reference
Bibliography
1. Introduction
1.1 Process Design
1.2 Equipment
1.3 Categories of Engineering Practice
1.4 Sources of Information for Process Design
1.5 Codes, Standards, and Recommended Practices
1.6 Material and Energy Balances
1.7 Economic Balance
1.8 Design Safety Factors
1.9 Safety of Plant and Environment
1.10 Steam and Power Supply
1.11 Design Basis
1.12 Laboratory and Pilot Plant Work
Other Sources of Information
1.1 Process Design
1.2 Process Equipment
2. Flowsheets
2.1 Block Flowsheets
2.2 Process Flowsheets
2.3 Process and Instrumentation Diagrams (P&ID)
2.4 Utility Flowsheets
2.5 Drawing of Flowsheets
References
3. Process Control
3.1 The Feedback Control Loop
3.2 Control Loop Performance and Tuning Procedures
3.3 Single Stream Control
3.4 Unit Operation Control
Bibliography
4. Drivers for Moving Equipment
4.1 Motors
4.2 Steam Turbines and Gas Expanders
4.3 Combustion Gas Turbines and Engines
References
5. Transfer of Solids
5.1 Slurry Transport
5.2 Pneumatic Conveying
5.3 Mechanical Conveyors and Elevators
5.4 Chutes
5.5 Solids Feeders
References
6. Flow of Fluids
6.1 Properties and Units
6.2 Energy Balance of a Flowing Fluid
6.3 Liquids
6.4 Pipeline Networks
6.5 Optimum Pipe Diameter
6.6 Non-Newtonian Liquids
6.7 Gases
6.8 Liquid-Gas Flow in Pipelines
6.9 Granular and Packed Beds
6.10 Gas-Solid Transfer
6.11 Fluidization of Beds of Particles with Gases
References
7. Fluid Transport Equipment
7.1 Piping
7.2 Pump Theory
7.3 Pump Characteristics
7.4 Criteria for Selection of Pumps
7.5 Equipment for Gas Transport
7.6 Theory and Calculations of Gas Compression
7.7 Ejector and Vacuum Systems
Glossary for Chapter 7
Terms Concerning Centrifugal And Related Pumps
References
8. Heat Transfer and Heat Exchangers
8.1 Conduction of Heat
8.2 Mean Temperature Difference
8.3 Heat Transfer Coefficients
8.4 Data of Heat Transfer Coefficients
8.5 Pressure Drop in Heat Exchangers
8.6 Types of Heat Exchangers
8.7 Shell-and-Tube Heat Exchangers
8.8 Condensers
8.9 Reboilers
8.10 Evaporators
8.11 Fired Heaters
8.12 Insulation of Equipment
8.13 Refrigeration
References
9. Dryers and Cooling Towers
9.1 Interaction of Air and Water
9.2 Rate of Drying
9.3 Classification and General Characteristics of Dryers
9.4 Batch Dryers
9.5 Continuous Tray and Conveyor Belt Dryers
9.6 Rotary Cylindrical Dryers
9.7 Drum Dryers for Solutions and Slurries
9.8 Pneumatic Conveying Dryers
9.9 Flash and Ring Dryers
9.10 Fluidized Bed Dryers
9.11 Spray Dryers
9.12 Cooling Towers
References
10. Mixing and Agitation
10.1 A Basic Stirred Tank Design
10.2 Vessel Flow Patterns
10.3 Agitator Power Requirements
10.4 Impeller Pumping
10.5 Tank Blending
10.6 Heat Transfer
10.7 Vortex Depth
10.8 Solid Suspension
10.9 Solids Dissolving
10.10 Gas-Liquid Dispersions
10.11 Liquid-Liquid (L-L) Dispersions
10.12 Pipeline Mixers
10.13 Compartmented Columns
10.14 Fast Competitive/Consecutive (C/C) Reactions
10.15 Scale-Up
Nomenclature
References
11. Solid-Liquid Separation
11.1 Processes and Equipment
11.2 Liquid-Particle Characteristics
11.3 Theory of Filtration
11.4 Resistance to Filtration
11.5 Thickening and Clarifying
11.6 Laboratory Testing and Scale-Up
11.7 Illustrations of Equipment
11.8 Applications and Performance of Equipment
References
12. Disintegration, Agglomeration, and Size Separation of Particulate Solids
12.1 Screening
12.2 Commercial Classification with Streams of Air or Water
12.3 Size Reduction
12.4 Equipment for Size Reduction
12.5 Particle Size Enlargement (Agglomeration)
References
Bibliography
13. Distillation and Gas Absorption
13.0 Introduction
13.1 Vapor-Liquid Equilibria
13.2 Single-Stage Flash Calculations
13.3 Evaporation or Simple Distillation
13.4 Binary Distillation
13.5 Batch Distillation
13.6 Multicomponent Separation: General Considerations
13.7 Estimation of Reflux and Number of Trays (Fenske-Underwood-Gilliland Method (1932, 1948, 1940))
13.8 Absorption Factor Shortcut Method of Edmister (1947–1949)
13.9 Separations in Packed Towers
13.10 Basis for Computer Evaluation of Multicomponent Separations
13.11 Special Kinds of Distillation Processes
13.12 Tray Towers
13.13 Packed Towers
13.14 Efficiences of Trays and Packings
13.15 Energy Considerations
References
14. Extraction and Leaching
14.1 Introduction
14.2 Equilibrium Relations
14.3 Calculation of Stage Requirements
14.4 Countercurrent Operation
14.5 Leaching of Solids
14.6 Numerical Calculation of Multicomponent Extraction
14.7 Equipment for Extraction
14.8 Pilot-Testing
References
15. Adsorption and Ion Exchange
15.1 Adsorption Processes
15.2 Adsorbents
15.3 Adsorption Behavior in Packed Beds
15.4 Regeneration
15.5 Gas Adsorption Cycles
15.6 Adsorption Design and Operating Practices
15.7 Parametric Pumping
15.8 Ion Exchange Processes
15.9 Production Scale Chromatography
General References
16. Crystallization from Solutions and Melts
16.1 Some General Crystallization Concepts
16.2 Importance of the Solubility Curve in Crystallizer Design
16.3 Solubilities and Equilibria
16.4 Crystal Size Distribution
16.5 The Process of Crystallization
16.6 The Ideal Stirred Tank
16.7 Kinds of Crystallizers
16.8 Melt Crystallization and Purification
References
17. Chemical Reactors
17.1 Design Basis and Space Velocity
17.2 Rate Equations and Operating Modes
17.3 Material and Energy Balances of Reactions
17.4 Nonideal Flow Patterns
17.5 Selection of Catalysts
17.6 Types and Examples of Reactors
17.7 Heat Transfer in Reactors
17.8 Classes of Reaction Processes and Their Equipment
17.9 Biochemical Reactors and Processes
References
18. Process Vessels
18.1 Drums
18.2 Fractionator Reflux Drums
18.3 Liquid-Liquid Separators
18.4 Gas-Liquid Separators
18.5 Storage Tanks
18.6 Mechanical Design of Process Vessels
18.7 Bins and Hoppers
References
19. Membrane Separations
19.1 Membrane Processes
19.2 Liquid-Phase Separations
19.3 Gas Permeation
19.4 Membrane Materials and Applications
19.5 Membrane Cells and Equipment Configurations
19.6 Industrial Applications
19.7 Subquality Natural Gas
19.8 The Enhancement of Separation
19.9 Permeability Units
19.10 Derivations and Calculations for Single-Stage Membrane Separations
19.11 Representation of Multistage Membrane Calculations for a Binary System
19.12 Potential Large-Scale Commercialization
References
20. Gas-Solid Separations
20.1 Gas-Solid Separations
20.2 Foam Separation and Froth Flotation
20.3 Sublimation and Freeze Drying
20.4 Separations by Thermal Diffusion
20.5 Electrochemical Syntheses
References
21. Costs of Individual Equipment
References
APPENDIX A: Units, Notation, and General Data
APPENDIX B: Equipment Specification Forms
APPENDIX C: Questionnaires Of Equipment Suppliers
Index
- Edition: 3
- Latest edition
- Published: September 19, 2012
- Language: English
JC
James R. Couper
James R. Couper, D.Sc. is Professor Emeritus, Dept. of Chemical Engineering, Unviersity of Arkansas, Fayetteville, AR.
Affiliations and expertise
Department of Chemical Engineering, University of Arkansas, Fayetteville, USAWP
W Roy Penney
W. Roy Penney, Ph.D., Professor Emeritus, Dept. of Chemical Engineering, University of Arkansas, Fayetteville, AR, has taught graduate courses in Fluid Mixing for the last 25 years and he taught the AIChE “Industrial Fluid Mixing” course for 15 years. He spent 25 years in industry where he was involved in experimental and design work involving fluid mixing equipment. For the last 30 years he has had an academic career where he taught and researched fluid mixing technology. He consulted in the area of fluid mixing for several companies, including Chemineer, Dow Corning, Conoco, Unique Tire, Energy Transfer Partners et al. Dr. Penney is author or coauthor of over 60 papers, Patents and lectures and three books. He is a Fellow of the American Institute of Chemical Engineers. He has registration as a Professional Engineer in Missouri and Arkansas.
Affiliations and expertise
Professor Emeritus, Department of Chemical Engineering, University of Arkansas, Fayetteville, USAJF
James R. Fair PhD
Affiliations and expertise
Professor Emeritus, Department of Chemical Engineering, UT Austin, USARead Chemical Process Equipment on ScienceDirect