Page 169 - Characterization and Properties of Petroleum Fractions - M.R. Riazi
P. 169

P2: IML/FFX
                                        T1: IML
                           QC: IML/FFX
  P1: IML/FFX
                                           June 22, 2007
                                                        14:23
                        AT029-Manual-v7.cls
  AT029-03
            AT029-Manual
                                                           3. CHARACTERIZATION OF PETROLEUM FRACTIONS 149
                The specific gravity (at 60/60 F ) of fraction is 0.8597
                                         ◦
                                                                     Petroleum Fractions with Pseudocritical Constants,”
                [46]. Predict the following properties for the product  [10] Zhou, P., “Correlation of the Average Boiling Points of
                and compare with reported values.                    International Chemistry Engineering, Vol. 24, 1984, pp. 731–742.
                a. Kinematic viscosities at 100, 140, and 210 F (experi-  [11] Daubert, T. E., “Property Predictions,” Hydrocarbon Processing,
                                                     ◦
                  mental values are 3.26, 2.04, and 1.12 cSt.)       March, 1980, pp. 107–112.
                b. Molecular weight from viscosity and compare with  [12] Van Winkle, M., “Physical Properties of Petroleum Fraction,”
                                                                     Petroleum Refiner, Vol. 34, No. 6, 1955, pp. 136–138.
                  molecular weight estimated from the boiling point.  [13] Nelson, W. L. and Hansburg, M., “Relation of ASTM and True
                c. Boiling point and specific gravity from experimen-  Boiling Point Distillations,” Oil & Gas Journal, Vol. 38, No. 12,
                  tal values of kinematic viscosities at 100 and 210 F  1939, pp. 45–47.
                                                            ◦
                  (Part a) and compare with actual values.        [14] Edmister, W. C. and Pllock, D. H., “Phase Relations for
                d. Aniline point (experimental value is 143.5 F)     Petroleum Fractions,” Chemical Engineering Progress, Vol. 44,
                                                     ◦
                e. Cetane number (experimental value is 43.2)        1948, pp. 905–926.
                 f. Freezing point (experimental value is 21 F)   [15] Edmister, W. C. and Okamoto, K. K., “Applied Hydrocarbon
                                                    ◦
                g. Flash point (experimental value is 230 F)         Thermodynamics, Part 12: Equilibrium Flash Vaporization
                                                  ◦
                h. Carbon-to-hydrogen weight ratio (experimental value  Correlations for Petroleum Fractions,” Petroleum Refiner,
                                                                     Vol. 38, No. 8, 1959, pp. 117–132.
                  is 6.69)                                        [16] Edmister, W. C. and Okamoto, K. K., Applied Hydrocarbon
                 i. Aromatic content from experimental viscosity at  Thermodynamics, Gulf Publishing, Houston, TX, 1961,
                  100 F (experimental value is 34.9)                 pp. 116–133.
                     ◦
                 j. Aromatic content from experimental aniline point  [17] Edmister, W. C. and Okamoto, K. K., “Applied Hydrocarbon
                  (experimental value is 34.9)                       Thermodynamics, Part 13: Equilibrium Flash Vaporization
                k. Refractive index at 75 F (experimental value is   Correlations for Heavy Oils Under Subatmospheric Pressures,”
                                       ◦
                  1.4759)                                            Petroleum Refiner, Vol. 38, No. 9, 1959, pp. 271–288.
                                                            2
            3.25. A vacuum residue has kinematic viscosity of 4.5 mm /s  [18] Okamoto, K. K. and van Winkle, M., “Equilibrium Flash
                at 100 C and specific gravity of 0.854. Estimate viscosity  Vaporization of Petroleum Fractions,” Industrial and
                     ◦
                index (VI) of this fraction and compare with reported  Engineering Chemistry, Vol. 45, 1953, pp. 429–439.
                value of 119 [24].                                [19] House, H. G., Braun, W. G., Thompson, W. T. and Fenske,
            3.26. A kerosene sample has boiling range of 180–225 C and  M. R., “Documentation of the Basis for Selection of the
                                                        ◦
                                                                     Contents of Chapter 3, ASTM, TBP, and EFV Relationships for
                specific gravity of 0.793. This product has aromatic  Petroleum Fractions in Technical Data Book-Petroleum
                content of 20.5%. Predict smoke point and freezing   Refining,” Documentation Report No. 3-66, Pennsylvania State
                point of this product and compare with the experi-   University, 1966.
                mental values of 19 mm and −50 C [24]. How much   [20] Arnold, V. E., “Microcomputer Program Converts TBP, ASTM,
                                             ◦
                2-methylnonane (C 10 H 22 ) with freezing point of −74 C  EFV Distillation Curves,” Oil & Gas Journal, Vol. 83, No. 6,
                                                            ◦
                should be added to this kerosene to reduce the freezing  1985, pp. 55–62.
                point to −60 C.                                   [21] Ford, D. C., Miller, W. H., Thren, R. C. and Wertzler, R.,
                           ◦
                                                                     Correlation of ASTM Method D 2887-73 Boiling Range
                                                                     Distribution Data with ASTM Method D 86-67 Distillation Data,
                                                                     STP 577, ASTM International, West Conshohocken, PA, 1973,
            REFERENCES                                               p. 29.
                                                                  [22] Riazi, M. R. and Daubert, T. E., “Analytical Correlations
             [1] Lenoir, J. M. and Hipkin, H. G., “Measured Enthalpies of Eight  Interconvert Distillation Curve Types,” Oil & Gas Journal,
               Hydrocarbon Fractions,” Journal of Chemical and Engineering  Vol. 84, 1986, August 25, pp. 50–57.
               Data, Vol. 18, No. 2, 1973, pp. 195–202.           [23] Daubert, T. E.,“Petroleum Fraction Distillation
             [2] Daubert, T. E. and Danner, R. P., Eds., API Technical Data  Interconversion,” Hydrocarbon Processing, Vol. 73, No. 9, 1994,
               Book—Petroleum Refining, 6th ed., American Petroleum   pp. 75–78.
               Institute (API), Washington, DC, 1997.             [24] Wauquier, J.-P., “Petroleum Refining, Vol. 1: Crude Oil,
             [3] Curvers, J. and van den Engel, P., “Gas Chromatographic  Petroleum Products, Process Flowsheets,” Editions Technip,
               Method for Simulated Distillation up to a Boiling Point of  Paris, 1995.
               750 C Using Temperature-Programmed Injection and High  [25] HYSYS, “Reference Volume 1., Version 1.1,” HYSYS Reference
                  ◦
               Temperature Fused Silica Wide-Bore Columns,” J. High  Manual for Computer Software, HYSYS Conceptual Design,
               Resolution Chromatography, Vol. 12, 1989, pp. 16–22.  Hyprotech Ltd., Calgary, Alberta, Canada, 1996.
             [4] ASTM, Annual Book of Standards, ASTM International, West  [26] Daubert, T. E., Riazi, M. R. and Danner, R. P., “Documentation
               Conshohocken, PA, 2002.                               of the Basis for Selection of the Contents of Chapters 2 and 3 in
             [5] Denis, J., Briant, J. and Hipeaux, J. C., Lubricant Properties  the API Technical Data Book-Petroleum Refining,”
               Analysis and Testing, Translated to English by G. Dobson,  Documentation Report No. 2,3-86, Pennsylvania State
               Editions Technip, Paris, 1997.                        University, 1986.
             [6] Cryette, W. R., Model 5009 Wide Range Cryoscope—Instruction  [27] Maxwell, J. B. and Bonnel, L. S., Vapor Pressure Charts for
               Manual Precision Systems Inc., Natick, MA, 1994.      Petroleum Engineers, Esso Research and Engineering Company,
             [7] Speight, J. G., The Chemistry and Technology of Petroleum, 3rd  Linden, NJ, 1955.
               ed., Marcel Dekker, New York, 1998.                [28] Myers, H. S. and Fenske, M. R., “Measurement and Correlation
             [8] Firoozabadi, A., Thermodynamics of Hydrocarbon Reservoirs,  of Vapor Pressure Data for High-Boiling Hydrocarbons,”
               Mc-Graw Hill, New York, 1999.                         Industrial and Engineering Chemistry, Vol. 47, 1955,
             [9] Smith, R. L. and Watson, K. M., “Boiling Points and Critical  pp. 1652–1658.
               Properties of Hydrocarbon Mixtures,” Industrial and  [29] Riazi, M. R., Prediction of Thermophysical Properties of
               Engineering Chemistry, Vol. 29, 1937, pp. 1408–1414.  Petroleum Fractions, Doctoral Dissertation, Department of

                --`,```,`,``````,`,````,```,,-`-`,,`,,`,`,,`---
   Copyright ASTM International
   Provided by IHS Markit under license with ASTM             Licensee=International Dealers Demo/2222333001, User=Anggiansah, Erick
   No reproduction or networking permitted without license from IHS  Not for Resale, 08/26/2021 21:56:35 MDT
   164   165   166   167   168   169   170   171   172   173   174