Petroleum residue upgrading via delayed coking: A review

Canadian Journal of Chemical Engineering

Volumn 85, Issue 1, 2007, Pages 1-24

  Sawarkar, Ashish N ^a   Pandit, Aniruddha B ^a   Samant, Shriniwas D ^a   Joshi, Jyeshtharaj B ^a  

^a UNIVERSITY OF MUMBAI   (India)

Author keywords

Delayed coking; Graphite electrodes; Kinetics; Needle coke; Petroleum residue

Indexed keywords

ELECTRODES; FEEDSTOCKS; REACTION KINETICS; REFINING; STEEL;

BOTTOM OTAHE BARREL PROCESSING; DELAYED COKING; MILLION METRIC TONS PER ANNUM;

CRUDE PETROLEUM;

CRUDE PETROLEUM; ELECTRODES; FEEDSTOCKS; REACTION KINETICS; REFINING; STEEL;

EID: 33947284052     PISSN: 00084034     EISSN: None     Source Type: Journal    
DOI: 10.1002/cjce.5450850101     Document Type: Article

References (75)

1. Acciarri, J. A. and G. H. Stockman, "Demand for Superpremium Needle Cokes on Upswing," Oil Gas J., December 25, 118-120 (1989).
2. Anon., "New Raw Material for Coke and Gasoline," Pet Refiner 35 (8), 153-155 (1956).
3. Bansal, S. B., A. R. Gentry and J. C. Moretta, "Improve Your Coking Process," Hydrocarbon Process. (2), 63-66 (1994).
4. Berber, J. S., R. L. Rice and R. L. Lynch, "Delayed Coking of Low-Temperature Lignite Pitch," Ind. Eng. Chem. Prod. Res. Develop. 7 (12), 270-274 (1968).
5. Boduszynski, M. M., "Composition of Petroleum Residua," ACS preprints, Petroleum Chemistry Division 47(4), 329-331 (2002).
6. Brooks, J. D. and G. H. Taylor, "Coking Studies on Coal Tar Pitch," Carbon 3, 185-187 (1965).
7. Christman, R. D., "Carbon-Out Processes for Heavy Resids," World Refining, November/December 22-24 (1999).
8. DeBiase, R. and J. D. Elliott, "Delayed Coking: Latest Trends," Hydrocarbon Process. (5), 99-104 (1982).
9. Del Bianco, A., N. Panariti, M. Anelli, P. L. Beltrame and P. Carniti, "Thermal Cracking of Petroleum Residues 1. Kinetic Analysis of the Reaction," Fuel 72 (1), 75-80 (1993).
10. Di Carlo, S. and B. Janis, "Composition and Visbreakability of Petroleum Residues," Chem. Eng. Sci. 47 (9-11), 2695-2700 (1992).
11. Dymond, R. E., "World Markets for Petroleum Coke," Hydrocarbon Process. (9), 162-C-162-J (1991).
12. Elliott, J. D., "Design, Operation Factors can Up Coker Liquid Yields," Oil Gas J., February 4, 41-44 (1991).
13. Elliott, J. D., "Maximize Distillate Liquid Products," Hydrocarbon Process. (1), 75-84 (1992).
14. Foulkes, P. B. and M. D. Harper, "Prospects for Coking may Brighten," Oil Gas J., March 20, 85-93 (1978).
15. Friday, J. R., "Production of High Quality Needle Coke," in "Proc. 9th World Petroleum Congress," 5, 187-190 (1975).
16. Furimsky, E., "Gasification in Petroleum Refinery of 21st Century," Oil Gas Sci. Technol. 54 (5), 597-618 (1999).
17. Gambro, A. J., D. T. Shedd, H. W. Wang and T. Yoshida, "Delayed Coking of Coal Tar Pitch," Chem. Eng. Progress 65 (5), 75-79 (1969).
18. Gawrys, K. L., M. P. Spiecker and P. K. Kilpatrick, "The Role of Asphaltene Solubility and Chemistry on Asphaltene Aggregation," ACS preprints, Petroleum Chemistry Division 47 (1), 323-335 (2002).
19. Goyal, O. P., "Indian Petroleum Refining Industry," Chem. Ind. Digest, Annual-January, 55-63 (2006).
20. Heck, S. B., "Design Techniques for Modern Delayed Coker," Oil Gas J., July 24, 46-48 (1972).
21. Henderson, R., M. Rodwell and A. Harji, "Consider Modifying your Refinery to Handle Heavy Opportunity Crude Oils," Hydrocarbon Process. (9), 47-54 (2005).
22. Hobson, G. D., "Cracking and Reforming," in "Modern Petroleum Technology," Applied Science Publishers Ltd, London (1982), pp. 395-411.
23. Jacob, R. R., "Coke Quality and How to Make it," Hydrocarbon Process. (9), 132-136 (1971).
24. Karpenski, M. J. and E. D. Alveal, "Refiner Uses Cogeneration Project to Revamp for High-Sulfur Crudes," Hydrocarbon Process. (12), 55-59 (1999).
25. Kasch, J. E. and E. W. Thiele, "Delayed Coking - A Modern Process 25 Years Old," Oil Gas J., January 2, 89-90 (1956).
26. Kuchhal, Y. K., "Feasibility of Needle Coke Production in India," Res. Ind. 27 (3), 30-36 (1982).
27. Kumar, M. M., D. C. Madhwal, B. M. L. Bhatia, S. Singh, H. C. Chandola and D. Tandon, "Feasibility of Production of Needle Coke from Lube Oil Extracts," Indian J. Chem. Technol. 3 (9), 285-288 (1996).
28. Kutler, A. A., R. De Biase, L. W. Zahnstecher and R. L. Godino, "Here is what's New in Delayed Coking," Oil Gas J., April 6, 92-96 (1970).
29. Leon, O., E. Rogel, J. Espidel and G. Torres, "Asphaltenes: Structural Characterization Self-Association and Stability Behavior," Energy Fuels 14, 6-10 (2000).
30. Li, S., Z. Liu, C. Liu, G. Que, W Liang and Y. Zhu, "Formation of the Physical Neophase in Terms of SARA Compositions of Vacuum Residua," ACS preprints, Petroleum Chemistry Division 43, 187-189 (1998).
31. Magaril, R. Z. and E. I. Aksenova, "Study of the Mechanism of Coke Formation in the Cracking of Petroleum Resins," Int. Chem. Eng. 8, 727-729 (1968).
32. Magaril, R. Z., L. F. Ramazaeva and E. I. Aksenova, "Kinetics of the Formation of Coke in Thermal Processing of Crude Oil," Int. Chem. Eng. 11 (2), 250-251 (1971).
33. Matson, J. A., "Coke is Entering Turbulent Era Now," Oil Gas J., March 24, 93-94 (1980).
34. Mekler, V. and M. E. Brooks, "When is Delayed Coking Worthwhile?," Hydrocarbon Process. 38. (6), 169-176 (1959).
35. Meyer, D. B. and J. C. Webb, "Coker can Handle High Carbon Stock," Petroleum Refiner 39 (2), 155-158 (1960).
36. Meyers, R. A., "FW Delayed-Coking Process," in "Handbook of Petroleum Refining Processes," McGraw-Hill Publications, New York (1997), pp. 12.25-12.37.
37. Mochida, I., Y. Korai, S. M. Zeng, A. Sakanishi, Y. Todo and T. Oyama, "Cocarbonization Properties of Heat-Treated FCC Decant Oils with Low Sulfur Vacuum Residue Leading to Production of Needle Coke," Sekiyu Gakkaishi 33(6), 373-377 (1990).
38. Nelson, W. L., "Petroleum Coke Handling Problems," Hydrocarbon Process. (2), 176-178 (1970).
39. Nelson, W. L., "What are Feedstocks for Production of Needle Coke?," Oil Gas J., December 18, 68-69 (1978).
40. Oyama, T. and Y. Todo, "Study on Mechanism of Formation and Quality Improvement of Petroleum-Based Needle Coke," Sekiyu Gakkaishi 36 (6), 407-413 (1993).
41. Philips, G. and F. Liu, "Advances in Resid Upgradation Technologies Offer Refiners Cost-Effective Options for Zero Fuel Oil Production," in "Proc. European Refining Technology Conference," Paris (2002).
42. Rahmani, S., W. C. McCaffrey, H. D. Dettman and M. R. Gray, "Coking Kinetics of Asphaltenes as a Function of Chemical Structure," Energy Fuels 17 (4), 1048-1056 (2003).
43. Rahmani, S., W. McCaffrey and M. R. Gray, "Kinetics of Solvent Interactions with Asphaltenes during Coke Formation," Energy Fuels 16(1), 148-154 (2002).
44. Reis, T., "To Coke, Desulfurize and Calcine Part 2: Coke Quality and its Control," Hydrocarbon Process. (6), 97-104 (1975).
45. Rose, K. E., "Delayed Coking-What You Should Know," Hydrocarbon Process. (7), 85-92 (1971).
46. Sarkar, G. N., "Advanced Petroleum Refining," Khanna Publishers, New Delhi, 1st Ed. (1998), pp. 44-49.
47. Savage, P. E., M. T. Klein and S. G. Kukes, "Asphaltene Reaction Pathways. 1. Thermolysis," Ind. Eng. Chem. Process Design Develop. 24, 1169-1174 (1985).
48. Savage, P. E. and M. T. Klein, "Asphaltene Reaction Pathways. V. Chemical and Mathematical Modeling," Chem. Eng. Sci. 44, 393-404 (1988).
49. Schabron, J. F., A. T. Pauli and J. F. Rovani Jr., "Coke Predictability Maps," ACS preprints, Petroleum Chemistry Division 48 (1), 1-5 (2003).
50. Schulman, B. L., F. E. Biasca, H. E. Johnson and R. L. Dickenson, "Bottom-of-the-Barrel Upgrading Moves Aggressively," Hydrocarbon Process. (12), 100-C-100-F (1993).
51. Scott, C. B., "Petroleum Coke as a Raw Material for Graphite and Metallurgical Carbon Manufacture," Chem. Ind., July 1, 1124-1131 (1967).
52. Shen, H., Z. Ding and R. Li, "Thermal Conversion-An Efficient Way for Heavy Residue Processing," in "Proc. 15th World Petroleum Congress," 2 (1998), pp. 907-913.
53. Singh, H., "Needle Coke - A Technological Study," Erdol and Kohle-Erdgas-Petrochemie 44, 67-70 (1991).
54. Sloan, D., B. Bansal and J. Fruchtbaum, "Delayed Coking has a Role in Clean Fuels Environment," Fuel Reformulation, July/August, 46-54 (1992).
55. Sloan, H. D., "Refinery Expansion/Upgrading Means Lighter, Quality Products," Hydrocarbon Process. (1), 82-C-82-H (1994).
56. Song, F. M., G. J. Yang, S. K. Han, Z. Q. Huang and J. L. Qian, "Study on Coking Kinetics of Chinese Gudao Vacuum Residue," Fuel Sci. Technol. Int. 13(7), 819-835 (1995).
57. Speight, J. G., "The Chemistry and Technology of Petroleum," Marcel Dekker Inc., New York (1980), pp. 200-236.
58. Speight, J. G., "The Desulfurization of Heavy Oils and Residua," Marcel Dekker Inc., New York (2000), pp. 45-66.
59. Stefani, A., "Choosing a Coke Recovery System," Hydrocarbon Process. (9), 61-66 (1995).
60. Stefani, A., "Debottleneck Delayed Cokers for Greater Profitability," Hydrocarbon Process. (6), 99-103 (1996).
61. Stefani, A., "Reduce the Impact of Coke Fines on Delayed Cokers," Hydrocarbon Process. (8), 110-113 (1997).
62. Stokes, C. A. and V. J. Guercio, "Feedstocks for Carbon Black, Needle Coke and Electrode Pitch," Erdol and Kohle-Erdgas-Petrochemie 38 (1), 31-34 (1985).
63. Stormont, D. H., "Delayed Coking Techniques Feel Effect of Increased Needle-Coke Demand," Oil Gas J., March 17, 75-78 (1969).
64. Swain, E. J., "Power, Cement Industries Shape Coke Future," Oil Gas J., May 20, 49-52 (1991).
65. Swaty, T. E., "Global Refining Industry Trends: The Present and Future," Hydrocarbon Process. (9), 35-46 (2005).
66. Takatsuka, T., R. Kajiyama, H. Hashimoto, I. Matsuo and S. Miwa, "A Practical Model of Thermal Cracking of Residual Oil," J. Chem. Eng. Japan 22 (3), 304-310 (1989).
67. Todo, Y., T. Ohyama, I. Mochida, Y. Korai, K. Sakanishi and X. Zhao, "Improved Cocarbonization Properties of a Petroleum Vacuum Residue by Catalytic Hydrotreatment Leading to Production of Needle Coke," Sekiyu Gakkaishi 34 (4), 298-302 (1991).
68. Wang, Z., G. Que, W. Liang and J. Qian, "Chemical Structure Analysis of Shengli Crude Vacuum Residuum Related to Thermal Conversion," ACS preprints, Petroleum Chemistry Division 43(1), 151-154 (1998).
69. Welsh, A. F., "Hydraulic Decoking," Petroleum Process. (2), 157-160 (1950).
70. Wiehe, I. A., "A Solvent-Resid Phase Diagram for Tracking Resid Conversion," Ind. Eng. Chem. Res. 31 (2), 530-536 (1992).
71. Wiehe, I. A., "A Phase-Separation Kinetic Model for Coke Formation," Ind. Eng. Chem. Res. 32(11), 2447-2454 (1993).
72. Wiehe, I. A., "The Pendant-Core Building Block Model of Petroleum Residua," Energy Fuels 8(3), 536-544 (1994).
73. Wiehe, I. A. and K. S. Liang, "Asphaltenes, Resins, and Other Petroleum Macromolecules," Fluid Phase Equilib. 117, 201-210 (1996).
74. Yasar, M., D. Trauth and M. T. Klein, "Asphaltene and Resid Pyrolysis. 2. Effect of Reaction Environment on Pathways and Selectivities," Energy Fuel 15, 504-509 (2001).
75. Zuba, B. I., "Delayed Coking in the CIS," Hydrocarbon Process. (10), 132-B-132-G (1998).