Product and Process Design Principles: Synthesis, Analysis, and Evaluation, 4th Edition, EMEA Edition

Höfundar: Warren D. Seider; Daniel R. Lewin; J. D. Seader; Soemantri Widagdo; Rafiqul Gani; Ka Ming Ng (Útgáfa: 4)
Product and Process Design Principles: Synthesis, Analysis, and Evaluation, 4th Edition, EMEA Edition

Kaup valmöguleikar

The new 4th edition of Seider's Product and Process Design Principles: Synthesis, Analysis and Design covers content for process design courses in the chemical engineering curriculum, showing how process design and product design are inter-linked and why studying the two is important for modern applications. A principal objective of this new edition is to describe modern strategies for the design of chemical products and processes, with an emphasis on a systematic approach.

This fourth edition presents two parallel tracks: (1) product design, and (2) process design, with an emphasis on process design. Process design instructors can show easily how product designs lead to new chemical processes. Alternatively, product design can be taught in a separate course subsequent to the process design course.

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Útgefandi
Wiley Global Education UK
ISBN
9781119636960
Print ISBN
9781119588009
Format
ePub
Útgáfa
4
Höfundar
Warren D. Seider; Daniel R. Lewin; J. D. Seader; Soemantri Widagdo; Rafiqul Gani; Ka Ming Ng
Tungumál
English
Útgefið
2019-12-12
Prent takmörkun á líftíma
100
Prent takmörkun
10
Afritunar takmörkun
2

Kaflar

  • COVER
  • TITLE PAGE
  • ABOUT THE AUTHORS
  • PREFACE
  • OBJECTIVES
  • LIMITED TIME—PROCESS OR PRODUCT DESIGN?
  • FORMAT OF COURSEWARE AND SUPPORTING WEB SITE
  • ADVICE TO STUDENTS AND INSTRUCTORS
  • ACKNOWLEDGMENTS
  • PART ONE INTRODUCTION TO PRODUCT AND PROCESS DESIGN
  • CHAPTER 1 INTRODUCTION TO CHEMICAL PRODUCT DESIGN
  • 1.0 OBJECTIVES
  • 1.1 INTRODUCTION
  • 1.2 THE DIVERSITY OF CHEMICAL PRODUCTS
  • 1.3 PRODUCT DESIGN AND DEVELOPMENT
  • 1.4 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 2 INTRODUCTION TO PROCESS DESIGN
  • 2.0 OBJECTIVES
  • 2.1 INTRODUCTION
  • 2.2 EXPERIMENTS
  • 2.3 PRELIMINARY PROCESS SYNTHESIS
  • 2.4 NEXT PROCESS DESIGN TASKS
  • 2.5 PRELIMINARY FLOWSHEET MASS BALANCES
  • 2.6 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 3 DESIGN LITERATURE, STIMULATING INNOVATION, ENERGY, ENVIRONMENT, SUSTAINABILITY, SAFETY, ENGINEERING ETHICS
  • 3.0 OBJECTIVES
  • 3.1 DESIGN LITERATURE
  • 3.2 STIMULATING INVENTION AND INNOVATION
  • 3.3 ENERGY SOURCES
  • 3.4 ENVIRONMENTAL PROTECTION
  • 3.5 SUSTAINABILITY
  • 3.6 SAFETY CONSIDERATIONS
  • 3.7 ENGINEERING ETHICS
  • 3.8 SUMMARY
  • REFERENCES
  • EXERCISES
  • PART TWO DESIGN SYNTHESIS—PRODUCT AND PROCESSES
  • CHAPTER 4 MOLECULAR AND MIXTURE DESIGN
  • 4.0 OBJECTIVES
  • 4.1 INTRODUCTION
  • 4.2 FRAMEWORK FOR COMPUTER-AIDED MOLECULAR-MIXTURE DESIGN
  • 4S-1 Liquid Blend Product Design
  • 4S-2 Formulated Liquid Product Design
  • 4S-3 Software for Molecular and Mixture Design
  • 4.3 CASE STUDIES
  • 4.4 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 5 DESIGN OF CHEMICAL DEVICES, FUNCTIONAL PRODUCTS, AND FORMULATED PRODUCTS
  • 5.0 OBJECTIVES
  • 5.1 INTRODUCTION
  • 5.2 DESIGN OF CHEMICAL DEVICES AND FUNCTIONAL PRODUCTS
  • 5.3 DESIGN OF FORMULATED PRODUCTS
  • 5.4 DESIGN OF PROCESSES FOR B2C PRODUCTS
  • 5.5 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 6 HEURISTICS FOR PROCESS SYNTHESIS
  • 6.0 OBJECTIVES
  • 6S-0 Introduction to Three Supplements for Chapter 6
  • 6S-1 Hybrid Process-Group Based Process Synthesis
  • 6S-2 Math Programming Superstructures for Process Synthesis
  • 6S-3 ProCAFD, Computer-Aided Flowsheet Design
  • 6.1 INTRODUCTION
  • 6.2 RAW MATERIALS AND CHEMICAL REACTIONS
  • 6.3 DISTRIBUTION OF CHEMICALS
  • 6.4 SEPARATIONS
  • 6.5 HEAT REMOVAL FROM AND ADDITION TO REACTORS
  • 6.6 HEAT EXCHANGERS AND FURNACES
  • 6.7 PUMPING, COMPRESSION, PRESSURE REDUCTION, VACUUM, AND CONVEYING OF SOLIDS
  • 6.8 CHANGING THE PARTICLE SIZE OF SOLIDS AND SIZE SEPARATION OF PARTICLES
  • 6.9 REMOVAL OF PARTICLES FROM GASES AND LIQUIDS
  • 6.10 CONSIDERATIONS THAT APPLY TO THE ENTIRE FLOWSHEET
  • 6.11 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 7 SIMULATION TO ASSIST IN PROCESS CREATION
  • 7.0 OBJECTIVES
  • 7.1 INTRODUCTION
  • 7.2 PRINCIPLES OF PROCESS SIMULATION
  • 7.3 PROCESS CREATION THROUGH PROCESS SIMULATION
  • 7.4 CASE STUDIES
  • 7.5 PRINCIPLES OF BATCH FLOWSHEET SIMULATION
  • 7.6 SUMMARY
  • REFERENCES
  • EXERCISES
  • NOTE
  • CHAPTER 8 SYNTHESIS OF NETWORKS CONTAINING REACTORS
  • 8.0 OBJECTIVES
  • 8.1 INTRODUCTION
  • 8.2 REACTOR MODELS IN THE PROCESS SIMULATORS
  • 8.3 REACTOR NETWORK DESIGN USING THE ATTAINABLE REGION
  • 8.4 REACTOR DESIGN FOR COMPLEX CONFIGURATIONS
  • 8.5 LOCATING THE SEPARATION SECTION WITH RESPECT TO THE REACTOR SECTION
  • 8.6 TRADE-OFFS IN PROCESSES INVOLVING RECYCLE
  • 8.7 OPTIMAL REACTOR CONVERSION
  • 8.8 RECYCLE TO EXTINCTION
  • 8.9 SNOWBALL EFFECTS IN THE CONTROL OF PROCESSES INVOLVING RECYCLE
  • 8.10 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 9 SYNTHESIS OF SEPARATION TRAINS
  • 9.0 OBJECTIVES
  • 9.1 INTRODUCTION
  • 9.2 CRITERIA FOR SELECTION OF SEPARATION METHODS
  • 9.3 SELECTION OF EQUIPMENT
  • 9.4 SEQUENCING OF ORDINARY DISTILLATION COLUMNS FOR THE SEPARATION OF NEARLY IDEAL LIQUID MIXTURES
  • 9.5 SEQUENCING OF OPERATIONS FOR THE SEPARATION OF NONIDEAL LIQUID MIXTURES
  • 9.6 SEPARATION SYSTEMS FOR GAS MIXTURES
  • 9.7 SEPARATION SYSTEMS FOR SOLID-FLUID MIXTURES
  • 9.8 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 10 SECOND-LAW ANALYSIS
  • 10.0 OBJECTIVES
  • 10.1 INTRODUCTION
  • 10.2 THE SYSTEM AND THE SURROUNDINGS
  • 10.3 ENERGY TRANSFER
  • 10.4 THERMODYNAMIC PROPERTIES
  • 10.5 EQUATIONS FOR SECOND-LAW ANALYSIS
  • 10.6 EXAMPLES OF LOST-WORK CALCULATIONS
  • 10.7 THERMODYNAMIC EFFICIENCY
  • 10.8 CAUSES OF LOST WORK
  • 10.9 THREE EXAMPLES OF SECOND-LAW ANALYSIS
  • 10.10 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 11 HEAT AND POWER INTEGRATION
  • 11.0 OBJECTIVES
  • 11.1 INTRODUCTION
  • 11.2 MINIMUM UTILITY TARGETS
  • 11.3 NETWORKS FOR MAXIMUM ENERGY RECOVERY
  • 11.4 MINIMUM NUMBER OF HEAT EXCHANGERS
  • 11.5 THRESHOLD APPROACH TEMPERATURE
  • 11.6 OPTIMUM APPROACH TEMPERATURE
  • 11.7 MULTIPLE UTILITIES
  • 11.8 HEAT-INTEGRATED REACTORS AND DISTILLATION TRAINS
  • 11.9 HEAT ENGINES AND HEAT PUMPS
  • 11.10 SUMMARY
  • 11S-1 MILP and MINLP Applications in HEN Synthesis
  • 11S-2 Mass Integration
  • REFERENCES
  • EXERCISES
  • CHAPTER 12 HEAT EXCHANGER DESIGN
  • 12.0 OBJECTIVES
  • 12.1 INTRODUCTION
  • 12.2 EQUIPMENT FOR HEAT EXCHANGE
  • 12.3 HEAT-TRANSFER COEFFICIENTS AND PRESSURE DROP
  • 12.4 DESIGN OF SHELL-AND-TUBE HEAT EXCHANGERS
  • 12.5 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 13 SEPARATION TOWER DESIGN
  • 13.0 OBJECTIVES
  • 13.1 OPERATING CONDITIONS
  • 13.2 FENSKE-UNDERWOOD-GILLILAND (FUG) SHORTCUT METHOD FOR ORDINARY DISTILLATION
  • 13.3 KREMSER SHORTCUT METHOD FOR ABSORPTION AND STRIPPING
  • 13.4 RIGOROUS MULTICOMPONENT, MULTIEQUILIBRIUM-STAGE METHODS WITH A SIMULATOR
  • 13.5 PLATE EFFICIENCY AND HETP
  • 13.6 TOWER DIAMETER
  • 13.7 PRESSURE DROP AND WEEPING
  • 13.8 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 14 PUMPS, COMPRESSORS, AND EXPANDERS
  • 14.0 OBJECTIVES
  • 14.1 PUMPS
  • 14.2 COMPRESSORS AND EXPANDERS
  • 14.3 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 15 CHEMICAL REACTOR DESIGN
  • 15.0 OBJECTIVES
  • 15.1 INTRODUCTION
  • 15.2 LIMITING APPROXIMATE MODELS FOR TUBULAR REACTORS
  • 15.3 THE COMSOL CFD PACKAGE
  • 15.4 CFD FOR TUBULAR REACTOR MODELS
  • 15.5 NONISOTHERMAL TUBULAR REACTOR MODELS
  • 15.6 MIXING IN STIRRED-TANK REACTORS
  • 15.7 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 16 COST ACCOUNTING AND CAPITAL COST ESTIMATION
  • 16.0 OBJECTIVES
  • 16.1 ACCOUNTING
  • 16.2 COST INDEXES AND CAPITAL INVESTMENT
  • 16.3 CAPITAL INVESTMENT COSTS
  • 16.4 ESTIMATION OF THE TOTAL CAPITAL INVESTMENT
  • 16.5 PURCHASE COSTS OF THE MOST WIDELY USED PROCESS EQUIPMENT
  • 16.6 PURCHASE COSTS OF OTHER CHEMICAL PROCESSING EQUIPMENT
  • 16.7 EQUIPMENT COSTING SPREADSHEET
  • 16.8 EQUIPMENT SIZING AND CAPITAL COST ESTIMATION USING ASPEN PROCESS ECONOMIC ANALYZER (APEA)
  • 16.9 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 17 ANNUAL COSTS, EARNINGS, AND PROFITABILITY ANALYSIS
  • 17.0 OBJECTIVES
  • 17.1 INTRODUCTION
  • 17.2 ANNUAL SALES REVENUES, PRODUCTION COSTS, AND THE COST SHEET
  • 17.3 WORKING CAPITAL AND TOTAL CAPITAL INVESTMENT
  • 17.4 APPROXIMATE PROFITABILITY MEASURES
  • 17.5 TIME VALUE OF MONEY
  • 17.6 CASH FLOW AND DEPRECIATION
  • 17.7 RIGOROUS PROFITABILITY MEASURES
  • 17.8 PROFITABILITY ANALYSIS SPREADSHEET
  • 17.9 SUMMARY
  • REFERENCES
  • EXERCISES
  • PART THREE DESIGN ANALYSIS—PRODUCT AND PROCESS
  • CHAPTER 18 SIX-SIGMA DESIGN STRATEGIES
  • 18.0 OBJECTIVES
  • 18.1 INTRODUCTION
  • 18.2 SIX-SIGMA METHODOLOGY IN PRODUCT DESIGN AND MANUFACTURING
  • 18.3 EXAMPLE APPLICATIONS
  • 18S Penicillin Plant Fermenter and Extraction Models
  • 18.4 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 19 BUSINESS DECISION MAKING IN PRODUCT DEVELOPMENT
  • 19.0 OBJECTIVES
  • 19.1 INTRODUCTION
  • 19.2 ECONOMIC ANALYSIS
  • 19.3 MAKE-OR-BUY DECISIONS
  • 19.4 MICROECONOMICS OF PRODUCT DEVELOPMENT
  • 19.5 COMPANY AND SOCIETAL FACTORS AFFECTING PRODUCT DEVELOPMENT
  • 19.6 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 20 PLANTWIDE CONTROLLABILITY ASSESSMENT
  • 20.0 OBJECTIVES
  • 20.1 INTRODUCTION
  • 20.2 CONTROL SYSTEM CONFIGURATION
  • 20.3 QUALITATIVE PLANTWIDE CONTROL SYSTEM SYNTHESIS
  • 20.4 SUMMARY
  • 20S Flowsheet Controllability Analysis
  • REFERENCES
  • EXERCISES
  • CHAPTER 21 DESIGN OPTIMIZATION
  • 21.0 OBJECTIVES
  • 21.1 INTRODUCTION
  • 21.2 GENERAL FORMULATION OF THE OPTIMIZATION PROBLEM
  • 21.3 CLASSIFICATION OF OPTIMIZATION PROBLEMS
  • 21.4 LINEAR PROGRAMMING (LP)
  • 21.5 NONLINEAR PROGRAMMING (NLP) WITH A SINGLE VARIABLE
  • 21.6 CONDITIONS FOR NONLINEAR PROGRAMMING (NLP) BY GRADIENT METHODS WITH TWO OR MORE DECISION VARIABLES
  • 21.7 OPTIMIZATION ALGORITHM
  • 21.8 FLOWSHEET OPTIMIZATIONS—CASE STUDIES
  • 21.9 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 22 OPTIMAL DESIGN AND SCHEDULING OF BATCH PROCESSES
  • 22.0 OBJECTIVES
  • 22.1 INTRODUCTION
  • 22.2 DESIGN OF BATCH PROCESS UNITS
  • 22.3 DESIGN OF REACTOR–SEPARATOR PROCESSES
  • 22.4 DESIGN OF SINGLE-PRODUCT PROCESSING SEQUENCES
  • 22.5 DESIGN ON MULTIPRODUCT PROCESSING SEQUENCES
  • 22.6 SUMMARY
  • REFERENCES
  • EXERCISES
  • PART FOUR DESIGN REPORTS—PRODUCT AND PROCESS
  • CHAPTER 23 WRITTEN REPORTS AND ORAL PRESENTATIONS
  • 23.0 OBJECTIVES
  • 23.1 CONTENTS OF THE WRITTEN REPORT
  • 23.2 PREPARATION OF THE WRITTEN REPORT
  • 23.3 ORAL DESIGN PRESENTATIONS
  • 23.4 AWARD COMPETITION
  • 23.5 SUMMARY
  • REFERENCES
  • PART FIVE CASE STUDIES—PRODUCT AND PROCESS DESIGNS
  • CHAPTER 24 CASE STUDY 1—HOME HEMODIALYSIS DEVICES
  • 24.0 OBJECTIVES
  • 24.1 HEMODIALYSIS TECHNOLOGY
  • 24.2 DESIGN SPECIFICATIONS OF HOME HEMODIALYSIS DEVICE
  • 24.3 SUMMARY
  • REFERENCES
  • PATENTS—HEMODIALYSIS DEVICES—HOLLOW-FIBER MEMBRANES
  • PATENTS—HEMODIALYSIS DEVICES—DIALYSATE REGENERATION
  • PATENTS—HEMODIALYSIS DEVICES—ALARMS/USER INTERFACE
  • EXERCISES
  • CHAPTER 25 CASE STUDY 2—HIGH THROUGHPUT SCREENING DEVICES FOR KINASE INHIBITORS
  • 25.0 OBJECTIVES
  • 25.1 BACKGROUND TECHNOLOGY FOR HIGH THROUGHPUT SCREENING OF KINASE INHIBITORS
  • 25.2 PRODUCT CONCEPT
  • 25.3 PROTOTYPING
  • 25.4 PRODUCT DEVELOPMENT
  • 25.5 SUMMARY
  • REFERENCES
  • PATENTS
  • EXERCISES
  • CHAPTER 26 CASE STUDY 3—DIE ATTACH ADHESIVE: A CASE STUDY OF PRODUCT DEVELOPMENT
  • 26.0 OBJECTIVES
  • 26.1 BACKGROUND OF TECHNOLOGY
  • 26.2 MARKET STUDY
  • 26.3 PRODUCT DESIGN
  • 26.4 PROCESS DESIGN
  • 26.5 PROTOTYPING
  • 26.6 ESTIMATION OF PRODUCT COST
  • 26.7 SUMMARY
  • REFERENCES
  • EXERCISES
  • CHAPTER 27 CASE STUDY 4—AMMONIA PROCESS
  • 27.0 OBJECTIVES
  • 27.1 INTRODUCTION
  • 27.2 INITIAL BASE CASE DESIGN
  • 27.3 DESIGN REFINEMENT
  • REFERENCES
  • EXERCISES
  • NOTE
  • CHAPTER 28 CASE STUDY 5—WINE AERATOR DEVICE
  • CHAPTER 29 CASE STUDY 6—FAUCET WATER PURIFIER
  • CHAPTER 30 CASE STUDY 7—DOMESTIC DEHUMIDIFIER
  • CHAPTER 31 CASE STUDY 8—VITAMIN C TABLETS
  • CHAPTER 32 CASE STUDY 9—CONDUCTIVE INK FOR PRINTED ELECTRONICS
  • CHAPTER 33 CASE STUDY 10—PVB INTERLAYER FOR SMART WINDOW
  • APPENDIX I RESIDUE CURVES FOR HETEROGENEOUS SYSTEMS
  • APPENDIX II DESIGN PROBLEM STATEMENTS BY AREA
  • APPENDIX III MATERIALS OF CONSTRUCTION
  • TABLE OF ACRONYMS
  • AUTHOR INDEX
  • SUBJECT INDEX
  • END USER LICENSE AGREEMENT