Design and Control of Distillation Systems

An azeotrope is a mixture of two or more compounds that cannot be separated or changed by simple distillation. This book addresses an important issue in the energy crisis: the distillation of azeotropes to improve the processing of biofuels. It describes azeotropic systems in a comprehensive, readable form, with updates on recent developments in vapor-liquid and liquid-liquid-vapor equilibrium, simulation tools, and specific examples covering the major processing options available. The text also presents methods for achieving optimum economic design and control structures, and demonstrates trade-offs between energy savings and controllability (product quality variability).

WILLIAM L. LUYBEN, PhD, is a professor at Lehigh University. Dr. Luyben has published more than 220 technical papers in process control and design and is the author or coauthor of eleven textbooks. In addition, he has nine years of industrial experience, working with Exxon and DuPont.

I-LUNG CHIEN, PhD, is a professor at National Taiwan University of Science and Technology with research interests in design and control of chemical, polymer, and bio-processes. He was a senior consulting engineer for DuPont Engineering for nine years, where he performed research and consultation for various chemical processes. Dr. Chien has published more than fifty technical papers in process control and design.

PREFACE.

ACKNOWLEDGEMENTS.

PART 1 FUNDAMENTALS AND TOOLS.

1 INTRODUCTION.

1.1 History.

1.2 Applications.

1.3 Literature.

1.4 Multiple Steady States.

References.

2 PHASE EQUILIBRIUM.

2.1 Phase Equilibrium Relationships.

2.2 Equations Describing Phase Equilibrium Relationships.

2.3 Diagrams For Binary Systems.

2.4 Ternary Diagrams.

2.5 Data Regression.

2.6 Group Contribution Method.

2.7 Conclusion.

References.

3 STEADY-STATE DESIGN IN ASPEN PLUS.

3.1 Building a Steady-State Model.

3.2 Unit Operation Blocks Used in this Book.

3.3 Add a Nondatabank Component.

3.4 Conclusion.

References.

4 DYNAMICS AND CONTROL IN ASPEN DYNAMICS.

4.1 Sizing of Process Vessels.

4.2 Sizing of Pumps, Compressors, and Control Valves.

4.3 Controllers and Dynamic Elements.

4.4 Controller Tuning.

4.5 Ratio and Cascade Control.

4.6 Conclusion.

PART 2 SEPARATIONS WITHOUT ADDING OTHER COMPONENTS.

5 PRESSURE-SWING AZEOTROPIC DISTILLATION.

5.1 Tetrahydrofuran–Water System.

5.2 Acetone–Methanol System.

5.3 Pentane–Methanol System.

5.4 Conclusion.

References.

6 PRESSURE SWING WITH HEAT INTEGRATION.

6.1 THF–Water System Steady-State Design with Heat Integration.

6.2 THF–Water System Dynamics and Control.

6.3 Heat Integration in an Acetone–Methanol System.

6.4 Conclusion.

References.

7 HETEROGENEOUS BINARY AZEOTROPES.

7.1 n-Butanol-Water System.

7.2 Phase Equilibrium.

7.3 Steady-State Design.

7.4 Dynamics and Control.

7.5 Conclusion.

References.

PART 3 SEPARATIONS USING A LIGHT ENTRAINER (HETEROGENEOUS AZEOTROPIC DISTILLATION).

8 ISOPROPANOL–WATER (CYCLOHEXANE AS THE ENTRAINER).

8.1 Feasible Column Sequence for the Separation.

8.2 Steady-State Design of an Isopropanol–Water System.

8.3 Overall Control Strategy Development.

8.4 Conclusion.

References.

9 ACETIC ACID–WATER (ISOBUTYL ACETATE AS THE ENTRAINER).

9.1 Comparison of Three Candidate Entrainers.

9.2 Control Strategy Development.

9.3 Industrial Column with Preliminary Dynamic Simulations.

9.4 Industrial Column with Continuous Side-Stream Draw Off.

9.5 Side Draw with a Practical Automatic Purging Strategy.

9.6 Conclusion.

References.

PART 4 SEPARATIONS USING HEAVY ENTRAINER (EXTRACTIVE DISTILLATION).

10 ISOPROPANOL-WATER (DIMETHYL SULFOXIDE AS THE ENTRAINER).

10.1 Comparing Entrainers: Dimethyl Sulfoxide Versus Ethylene Glycol.

10.2 Steady-State Design and Economical Analysis.

10.3 Overall Control Strategy Development.

10.4 Conclusion.

References.

11 EXTRACTIVE DISTILLATION OF THE ACETONE-METHANOL SYSTEM.

11.1 Acetone–Methanol–Water Phase Equilibrium.

11.2 Steady-State Design.

11.3 Dynamics and Control.

11.4 Heat-Integrated System.

11.5 Effect of Solvent on Controllability.

11.6 Conclusion.

References.

12 MAXIMUM-BOILING AZEOTROPES.

12.1 Acetone–Chloroform System Steady-State Design.

12.2 Dynamics and Control.

12.3 Conclusion.

Reference.

PART 5 OTHER WAYS FOR SEPARATING AZEOTROPES.

13 BATCH DISTILLATION OF AZEOTROPES.

13.1 Batch Extractive Distillation (Acetone–Methanol with Water as the Entrainer).

13.2 Batch Extractive Distillation (Isopropanol–Water with DMSO as the Entrainer).

13.3 Acetic Acid Dehydration Via Heteroazeotropic Batch Distillation.

13.4 Multivessel Heteroazeotropic Batch Distillation.

13.5 Conclusion.

References.

14 HYBRID DISTILLATION–PERVAPORATION SYSTEMS.

14.1 Introduction.

14.2 Pervaporation Model.

14.3 Pervaporation–Column System.

14.4 Dynamics and Control.

14.5 Process Modification.

14.6 Conclusion.

References.

INDEX.

What is included with this book?

The New copy of this book will include any supplemental materials advertised. Please check the title of the book to determine if it should include any access cards, study guides, lab manuals, CDs, etc.

The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.

FREE SHIPPING

Amazon no longer offers textbook rentals. We do!

Design and Control of Distillation Systems for Separating Azeotropes

Summary

Author Biography

Table of Contents

Supplemental Materials