Page 6 - Applied Process Design For Chemical And Petrochemical Plants Volume II
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Contents






             Preface to Third Edition ............................   V   63; Unequal Molal Flow, 63; Ponchon-Savant Method, 63;
                                                                      Example 8-21: Ponchon Unequal Molal Overflow, 65; Mul-
                                                                      ticomponent Dwtillation,  68;  Minimum  Reflux  Ratio -
             8.  Distillation ..............................................   1   Infinite Plates, 68; Example 8-22: Multicomponent Distilla-
                                                                      tion by Yaw’s Method, 70; Algebraic Plateto-Plate Method,
                                                                       70; Underwood Algebraic Method, 71; Example 8-23: Min-
                Part 1                                                imum Reflux Ratio Using Underwood Equation, 73; Mini-
                Distillation Process Performance ....................   1   mum Reflux  Colburn Method, 74;  Example 8-24 Using
                                                                       the Colburn Equation to Calculate Minimum Reflux Ratio,
                Equilibrium Basic  Consideration, 1; Ideal Systems, 2; IG   76;  Scheibel-Montross Empirical: Adjacent Key  Systems,
                Factor Hydrocarbon Equilibrium Charts, 4; Non-Ideal Sys-   79; Example 825: Scheibel-Montross Minimum Reflux, 80;
                tems,  5;  Example  8-1:  Raoult’s Law,  14;  Binary  System   Minimum  Number  of  Trays:  Total  Reflux  - Constant
                Material Balance: Constant Molal Overflow Tray to Tray,   Volatility, 80; Chou and Yaws  Method, 81; Example 8-26:
                18; Example 8-2:  Bubble Point and Dew Point, 17; Exam-   Distillation with  Two  Sidestream Feeds,  82;  Theoretical
                ple 8-3: Flashing Composition;  Distillation Operating hs-   Trays at Operating Reflux,  83; Example 8-27 Operating
                sures, 18; Total  Condenser,  19; Partial  Condenser,  20;   Reflux Ratio, 84; Estimating Multicomponent Recoveries,
                Thermal Condition of Feed, 20; Total Reflux, Minimum   85; Example 8-28: Estimated Multicomponent Recoveries
                Plates, 21; Fenske Equation: Overall Minimum Total Tray   by Yaw’s  Method, 87; Tray-by-Tray Using a Computer, 90;
                with Total Condenser, 22; Relative Volatility, 22; Example 8-   Example  8-29:  Tray-to-Tray  Design  Multicomponent
                4 Determine  Minimum  Number  of  Trays  by  Winn’s    Mixture, 90; Example 8-30: Tray-by-Tray Multicomponent
                Method, 24; Example 8-5: Boiling Point Curve and Equi-   Mixture Using a  Computer, 95;  Computer  Printout  for
                librium Diagram for Benzene-Toluene Mixture, 26; Exam-   Multicomponent  Distillation,  95;  Example  8-31:  Multi-
                ple 8-7: Flash Vaporization of a Hydrocarbon Liquid Mix-   component Examination of Reflux Ratio and Distillate to
                ture, 27; Quick Estimate of Relative Volatility, 28; Example   Feed Ratio, 99; Example 8-32: Stripping Dissolved Organ-
                8-8:  Relative  Volatility Estimate  by  Wagle’s  Method,  29;   ics from Water in a Packed Tower Using Method of Li and
                Minimum  Reflux  Ratio:  Infinite  Plates,  29;  Theoretical   Hsiao, 100; Troubleshooting, Predictive Maintenance, and
                Trays at Actual Reflux, 30; Example 8-9: Solving Gilliland’s   Controls for Distillation Columns, 101; Nomenclature for
                Equation for Determining Minimum Theoretical Plates for   Part 1,102
                Setting Actual Reflux, 32; “Pinch Conditions” on x-y  Dia-
                gram  at  High  Pressure,  32;  Example  8-10:  Graphical
                Design for  Binary  Systems,  33;  Example  8-11: Thermal   Part 2
                Condition of Feed, 35; Example 8-12: Minimum Theoreti-   Hydrocarbon Absorption
                cal Trays/Plates/Stages at Total Reflux, 38; Tray Eficiency,   and Stripping  ....................................................   108
                40;  Example 8-13: Estimating Distillation Tray Efficiency,
                42; Batch Distillation, 45; Differential Distillation, 46; Sim-   Kremser-Brown-Shenvood Method - No Heat of Absorp
                ple Batch Distillation, 47; Fixed Number Theoretical Trays,   tion, 108; Absorption - Determine Component Absorp-
                48; Batch with Constant Reflux Ratio, 48; Batch with Vari-   tion in Fixed Tray Tower,  108; Absorption - Determine
                able  Reflux  Rate Rectification, 50; Example 8-14 Batch   Number of  Trays for Specified Product Absorption, 109;
                Distillation, Constant Reflux; Following the Procedure of   Stripping  - Determine Theoretical Trays and Stripping or
                Block,  51; Example  8-18: Vapor  Boil-up  Rate  for  Fixed   Gas Rate for  a  Component  Recovery, 110; Stripping -
                Trays, 53; Example 8-16: Binary Batch Differential Distilla-   Determine  Stripping-Medium Rate  for  Fixed  Recovery,
                tion,  54;  Example 8-17:  Multicomponent  Batch  Distilla-   11 1; Absorption - Edmister Method, 112; Example 8-33:
                tion, 53; Steam Distillation, 57; Example 8-18: Multicom-   Absorption of  Hydrocarbons with  Lean  Oil,  114;  Inter-
                ponent Steam Flash, 59; Example 8- 18: Continuous Steam   cooling for Absorbers, 116; Absorption and Stripping Effi-
                Flash  Separation  Process - Separation  of  Non-Volatile   ciency, 118; Example 8-34 Determine Number of Trays for
                Component  from  Organics,  61;  Example  8-20:  Open   Specified Product Absorption, 118; Example 8-35:  Deter-
                Steam  Stripping  of  Heavy  Absorber  Rich  Oil  of  Light   mine  Component  Absorption  in  Fixed-Tray Tower,  119;
                Hydrocarbon Content, 62; Distillation with Heat Balance,   Nomenclature for Part 2, 121
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