Cover of Analysis, Synthesis, and Design of Chemical Processes, 5th Edition

Analysis, Synthesis, and Design of Chemical Processes, 5th Edition

By Richard Turton, Joseph A. Shaeiwitz, Debangsu Bhattacharyya, Wallace B. Whiting

About this ebook

Analysis, Synthesis, and Design of Chemical Processes, 5th Edition follows chemical engineering design from process concepts to equipment decisions and economic evaluation. Turton and his coauthors combine heuristics, simulation, optimization, and safety considerations. Chemical engineering students and practitioners can examine how technical alternatives, costs, and environmental priorities shape a process design.

Inside this title
  • Flowsheet synthesis and systematic screening of process design alternatives
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Format
Digital ebook
ISBN
9780134177489
Last updated
2026-11-03

What this book covers.

Process design involves selecting among alternatives before refining equipment and operating conditions. This text follows that sequence through flowsheet synthesis, preliminary screening, equipment sizing, costing, and optimization. Heuristics and shortcut methods sit alongside rigorous simulation, showing how different tools contribute at different stages of design.

Economic analysis includes capital and operating costs as well as profitability measures. The fifth edition also examines reactors, separation equipment, heat exchangers, pumps, and compressors, with attention to safety, waste minimization, and sustainability. For chemical engineering design courses and professional review, the book connects calculations with decisions about how a complete process should operate and be evaluated.

Study guide included

Inside Analysis, Synthesis, and Design of Chemical Processes, 5th Edition.

A working guide to taking a chemical process from a product goal to a flowsheet that can be costed, simulated, operated and defended. Turton and his coauthors pair design heuristics with economics, equipment checks and professional practice for chemical engineering students and practicing engineers.

Early chapters build block, process and piping diagrams and close material balances. Costing and discounted cash flow then give a basis for comparing alternatives, before flowsheet synthesis, optimization, pinch analysis and steady-state and dynamic simulation take over. Equipment chapters test whether calculated duties are physically achievable, and the closing chapters extend the work to safety, environmental burden, ethics, teamwork and communication. Throughout, the emphasis falls on checking assumptions and physical plausibility rather than accepting a converged number, so readers move from conceptual choices to defensible recommendations.

Building the process diagram in stages

A block flow diagram shows the main transformations and separations; a process flow diagram adds equipment, connections and stream data; a piping and instrumentation diagram records valves, measurement points and controls. Choosing batch or continuous operation and tracking every feed, product, recycle and purge keeps the balances honest before equipment is sized or costs are estimated.

  • Each diagram answers a different level of detail
  • Recycle cuts losses but raises upstream flow
  • Purges prevent unwanted accumulation
  • Check the stream table against balances
Chs. 1–6 · Conceptualization and Analysis

Estimating costs and comparing cash flows

Capital investment covers equipment, installation and infrastructure, while manufacturing cost recurs through feedstocks, utilities and labor. Preliminary estimates rest on limited data and should display their assumptions, which later give way to site-specific figures. Discounted cash flow lets projects with different investment and operating schedules be compared, and testing feed price, capacity and demand shows how sensitive a ranking is.

  • Separate installed capital from recurring cost
  • State the basis of every preliminary estimate
  • Discount cash flows across the project life
  • Test rankings against uncertain prices and demand
Chs. 7–10 · Engineering Economic Analysis

Synthesis and steady-state simulation

Experience-based rules generate plausible arrangements for reaction, separation, recycle and heat exchange, but each rule assumes conditions that may not hold. A simulator combines conservation equations, equipment models and property data, so the chosen property method must fit the mixtures and phases present. A converged answer only satisfies the modeled equations; compare it with hand calculations and physical expectations before trusting it.

  • Use heuristics to generate, not to settle, options
  • Match the property model to the mixture
  • Convergence does not guarantee physical sense
  • Diagnose recycle failures before forcing values
Chs. 11–13 and 16 · Flowsheet Synthesis and Steady-State Simulation

Optimization, heat integration and control

An objective such as lower annual cost must be paired with explicit decisions and constraints; changing a temperature is parametric, while rearranging separations alters topology. Pinch analysis sets heat-recovery targets from hot and cold stream needs and a minimum approach temperature, trading utility savings against exchanger area. Steady-state balances describe a settled point, so dynamic models and control studies check start-up, disturbances and load changes.

  • Define the objective, decisions and constraints
  • Pinch targets trade utilities against area
  • Dynamic response can veto an economical design
  • Check that controls hold product quality
Chs. 14–15 and 17–18 · Optimization, Pinch Technology and Dynamics

Equipment duties and operating limits

Pumps must overcome pressure losses, exchangers need area and temperature difference, separators depend on how phases form, and reactors balance rate, residence time and heat removal. The same nominal flow places different demands on equipment as composition or temperature shifts. When purity falls or pressure climbs, check instruments and records first, then find the constraint that actually limits throughput before adding capacity.

  • Translate duties into physical equipment demands
  • Composition changes shift equipment loads
  • Diagnose from records before adding capacity
  • Debottlenecking can move the limit elsewhere
Chs. 19–24 · Chemical Equipment Design and Performance

Safety, environment and professional practice

Hazardous inventories, emissions, energy use and plausible deviations can change which process is attractive, so they belong in the comparison while options remain open. Green engineering looks for lower material and energy demand and for process changes that avoid shifting a burden elsewhere. Reviewable designs need shared specifications, consistent identifiers, records of decisions, honest uncertainty and clear reporting to colleagues.

  • Weigh hazards and emissions among alternatives
  • Avoid moving a burden to another part of the system
  • Keep specifications and identifiers consistent
  • Report uncertainty and unresolved questions
Chs. 25–29 · Ethics, Safety, Green Engineering and Communication

Chapter and section map

  • Diagrams and process structureChs. 1–2
  • Batch, product and flowsheet analysisChs. 3–6
  • Capital, manufacturing costs and profitabilityChs. 7–10
  • Process synthesis and simulationChs. 11–13, 16
  • Optimization and pinch technologyChs. 14–15
  • Dynamic modeling and controlChs. 17–18
  • Equipment and troubleshootingChs. 19–24
  • Professional practice and communicationChs. 25–29

Key takeaways

  • Close a material balance and stream table before comparing equipment or operating choices.
  • Verify the property model and assumptions behind any converged simulation result before use.
  • Carry profitability, operability and environmental consequences through one consistent comparison of design options.

Chemical engineering undergraduates and graduate students, plus practicing process engineers who want a structured refresher on design economics, simulation, equipment performance and process safety practice.

Topics covered

  • chemical process design
  • flowsheet synthesis
  • engineering economics
  • pinch analysis
  • steady-state simulation
  • equipment design
  • process safety
  • green engineering

Questions about this ebook.

Edition, audience, and study-guide details at a glance.

What is Analysis, Synthesis, and Design of Chemical Processes, 5th Edition about?

Analysis, Synthesis, and Design of Chemical Processes, 5th Edition follows chemical engineering design from process concepts to equipment decisions and economic evaluation. Turton and his coauthors combine heuristics, simulation, optimization, and safety considerations. Chemical engineering students and practitioners can examine how technical alternatives, costs, and environmental priorities shape a process design.

Which edition of Analysis, Synthesis, and Design of Chemical Processes, 5th Edition is this?

This listing is for the 5th edition. Check the title, ISBN, and book details above before ordering, especially if your course or reading list names a specific edition.

Who is Analysis, Synthesis, and Design of Chemical Processes, 5th Edition for?

Chemical engineering undergraduates and graduate students, plus practicing process engineers who want a structured refresher on design economics, simulation, equipment performance and process safety practice.

Does this page include a study guide?

Yes. This page includes an original study guide with six thematic sections, key takeaways, and a chapter and section map for structured reading.

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