Advances in Upgrading Process of Petroleum Residue: A Review

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  •   Ishag Alawad

  •   Isam Al Zubaidi

Abstract

Due to the depletion of light crude oil reserves, heavy crude oil and residues are the alternatives to meet ‎the ‎increasing global demand for light oil products. Heavy crude oil and residues are characterized by the presence of heavy ‎hydrocarbon ‎compounds which contain high levels of impurities such as metals, nitrogen, and sulfur-containing compounds. ‎Methods of ‎upgrading are required to increase refining efficiencies and to obtain high-quality products.‎ Upgrading processes can be categorized into three categories; ‎carbon rejection processes, hydrogen addition processes, and a combination of the two. The catalyst can be used with any of these processes for better improvement. Many types of research have been carried out to develop a high-performance process which is stable, high commercial products yield, and low solids formation. In this work, recent advances on petroleum residues upgrading with catalyst, solvents, and thermal cracking were reviewed. Advantages and disadvantages of each process were discussed along with conditions and main features. Nanoparticles catalysts and supercritical fluids based-processes are the trends of upgrading due to the excellent performance of these processes.


Keywords: Catalytic Process, Heavy Crude Oil, Upgrading, Thermal Process

References

EIA, International Energy Outlook 2016: U.S. Energy Information Administration (EIA), Washington DC., vol. 1, No. May.

R. Sahu, B. J. Song, J. S. Im, Y. P. Jeon, and C. W. Lee, 2006, A review of recent advances in catalytic hydrocracking of heavy residues, Oilf. Rev. Highlighting heavy oil, vol. 18, no. 2, pp. 12–24.

M. R. Gray, 1994, Upgrading Petroleum Residues and Heavy Oils. New York: CRC Press.

J. Singh, S. Kumar, and M. O. Garg, 2012, Kinetic modelling of thermal cracking of petroleum residues: A critique, Fuel Process. Technol., vol. 94, no. 1, pp. 131–144.

B. Azinfar, M. Zirrahi, H. Hassanzadeh, and J. Abedi, 2018, Characterization of heavy crude oils and residues using combined Gel Permeation Chromatography and simulated distillation, Fuel, vol. 233, no. June, pp. 885–893.

J. G. Speight, The Chemistry and Technology of Petroleum, 2006, 4th ed. New York: CRC Press.

M. R. Gray, R. R. Tykwinski, J. M. Stryker, and X. Tan, 2011, Supramolecular assembly model for aggregation of petroleum asphaltenes,Energy and Fuels, vol. 25, no. 7, pp. 3125–3134.

E. T. C. Vogt and B. M. Weckhuysen, 2015, Fluid catalytic cracking: recent developments on the grand old lady of zeolite catalysis, Chem. Soc. Rev., vol. 44, no. 20, pp. 7342–7370.

M. S. Rana, V. Sámano, J. Ancheyta, and J. A. I. Diaz, 2007, A review of recent advances on process technologies for upgrading of heavy oils and residua, Fuel, vol. 86, no. 9 SPEC. ISS., pp. 1216–1231.

C. Leyva, M. S. Rana, F. Trejo, and J. Ancheyta, 2007, On the use of acid-base-supported catalysts for hydroprocessing of heavy petroleum,” Ind. Eng. Chem. Res., vol. 46, no. 23, pp. 7448–7466.

A. G. Okunev, E. V Parkhomchuk, A. I. Lysikov, P. D. Parunin, V. S. Semeikina, and V. N. Parmon, 2015, Catalytic hydroprocessing of heavy oil feedstocks, Russ. Chem. Rev., vol. 84, no. 9, pp. 981–999.

L. C. Castañeda, J. A. D. Muñoz, and J. Ancheyta, 2014, Current situation of emerging technologies for upgrading of heavy oils, Catal. Today, vol. 220–222, pp. 248–273.

Y. G. Hur, D. W. Lee, and K. Y. Lee, 2016, Hydrocracking of vacuum residue using NiWS(x) dispersed catalysts, Fuel, vol. 185, pp. 794–803.

A. A. Akhmadiyarov et al., 2018, Thermocatalytic upgrading of heavy oil by iron oxides nanoparticles synthesized by oil-soluble precursors, J. Pet. Sci. Eng., vol. 169, no. October 2017, pp. 200–204.

S. H. Kim, K. D. Kim, and Y. K. Lee, 2017, Effects of dispersed MoS2 catalysts and reaction conditions on slurry phase hydrocracking of vacuum residue, J. Catal., vol. 347, pp. 127–137.

C. H. Kim, Y. G. Hur, S. H. Lee, and K. Y. Lee, 2018, Hydrocracking of vacuum residue using nano-dispersed tungsten carbide catalyst, Fuel, vol. 233, no. January, pp. 200–206.

A. Eshraghian and M. M. Husein, 2018, Catalytic thermal cracking of Athabasca VR in a closed reactor system, Fuel, vol. 217, no. January, pp. 409–419.

Y. G. Hur et al., 2014, Hydrocracking of vacuum residue into lighter fuel oils using nanosheet-structured WS2catalyst, Fuel, vol. 137, pp. 237–244.

K. S. Go, S. H. Lim, Y. K. Kim, E. H. Kwon, and N. S. Nho, 2018, Characteristics of slurry-phase hydrocracking for vacuum residue with reaction temperature and concentrations of MoS2dispersed catalysts, Catal. Today, vol. 305, pp. 92–101.

T. M. Nguyen, J. Jung, C. W. Lee, and J. Cho, 2018, Effect of asphaltene dispersion on slurry-phase hydrocracking of heavy residual hydrocarbons, Fuel, vol. 214, no. October 2017, pp. 174–186.

C. Nguyen-Huy and E. W. Shin, 2016, Amelioration of catalytic activity in steam catalytic cracking of vacuum residue with ZrO2-impregnated macro-mesoporous red mud, Fuel, vol. 179, pp. 17–24.

C. Leyva, J. Ancheyta, and G. Centeno, 2014, Effect of alumina and silica-alumina supported NiMo catalysts on the properties of asphaltenes during hydroprocessing of heavy petroleum, Fuel, vol. 138, pp. 111–117.

G. Li, X. Lu, Z. Tang, Y. Liu, X. Li, and C. Liu, 2013, Preparation of NiMo/γ-Al2O3catalysts with large pore size for vacuum residue hydrotreatment,” Mater. Res. Bull., vol. 48, no. 11, pp. 4526–4530.

J. Marques, D. Guillaume, I. Merdrignac, D. Espinat, and S. Brunet, 2011, Effect of catalysts acidity on residues hydrotreatment, Appl. Catal. B Environ., vol. 101, no. 3–4, pp. 727–737.

M. Golmohammadi, S. J. Ahmadi, and J. Towfighi, 2016, Catalytic cracking of heavy petroleum residue in supercritical water: Study on the effect of different metal oxide nanoparticles, J. Supercrit. Fluids, vol. 113, pp. 136–143.

S. H. Kim, K. D. Kim, H. Lee, and Y. K. Lee, 2017, Beneficial roles of H-donors as diluent and H-shuttle for asphaltenes in catalytic upgrading of vacuum residue, Chem. Eng. J., vol. 314, pp. 1–10.

H. K. Ahn, S. H. Park, S. Sattar, and S. I. Woo, 2016, Vacuum residue upgrading through hydroprocessing with subcritical water, Catal. Today, vol. 265, pp. 118–123.

M. Hosseinpour et al., 2018, The synergistic effect between supercritical waterand redox properties of iron oxide nanoparticlesfor in-situ catalyticupgrading heavy oil with formic acid. Isotopic study, Appl. Catal. B Environ., vol. 230, no. February, pp. 91–101.

J. B. Omajali, A. Hart, M. Walker, J. Wood, and L. E. Macaskie, 2017, In-situ catalytic upgrading of heavy oil using dispersed bionanoparticles supported on gram-positive and gram-negative bacteria, Appl. Catal. B Environ., vol. 203, pp. 807–819.

G. Magendie, B. Guichard, A. Chaumonnot, A. A. Quoineaud, C. Legens, and D. Espinat,2013, Toward a better understanding of residue hydroconversion catalysts using NiMo catalysts supported over silica grafted Al2O3, Appl. Catal. A Gen., vol. 468, pp. 216–229.

J. Alfadhli, A. Alhindi, A. Alotaibi, and D. Bahzad, 2016, Performance assessment of NiMo/γ-Al2O3 catalysts for upgrading KEC-AR: An assessment of selected apparent kinetic parameters of selected hydrotreating reactions, Fuel, vol. 164, pp. 38–45.

R. Sahu, B. J. Song, Y. P. Jeon, and C. W. Lee, 2016, Upgrading of vacuum residue in batch type reactor using Ni-Mo supported on goethite catalyst, J. Ind. Eng. Chem., vol. 35, pp. 115–122.

D. Wang, L. Jin, Y. Li, and H. Hu, 2017, Partial oxidation of vacuum residue over Al and Zr-doped Α-Fe2O3catalysts, Fuel, vol. 210, no. June, pp. 803–810.

Y. Lou, P. He, L. Zhao, and H. Song, 2016, Refinery oil upgrading under methane environment over PdOx/H-ZSM-5: Highly selective olefin cyclization, Fuel, vol. 183, pp. 396–404.

Y. Zhang et al., “Fundamental study of cracking gasification process for comprehensive utilization of vacuum residue,” Appl. Energy, vol. 112, pp. 1318–1325, 2013.

Y. Zhang, D. Yu, W. Li, S. Gao, and G. Xu, 2014, Bifunctional catalyst for petroleum residue cracking gasification, Fuel, vol. 117, no. PARTB, pp. 1196–1203.

J.Kang, A.A. Myint, S.Sim, J.Kim, W.B. Kong, and Y.W. Lee, 2018, Kinetics of the upgrading of heavy oil in supercritical methanol, J. Supercrit. Fluids, vol. 133, pp.133–138.

W. Kwek, M. K. Khan, B. Sarkar, and J. Kim, 2018, Supercritical methanol as an effective medium for producing asphaltenes-free light fraction oil from vacuum residue, J. Supercrit. Fluids, vol. 133, pp. 184–194.

W. Kwek, M. K. Khan, B. Sarkar, and J. Kim, 2018, Supercritical methanol as an effective medium for producing asphaltenes-free light fraction oil from vacuum residue, J. Supercrit. Fluids, vol. 133, pp. 184–194.

T. T. Viet, J. H. Lee, J. W. Ryu, I. S. Ahn, and C. H. Lee, 2012, Hydrocracking of vacuum residue with activated carbon in supercritical hydrocarbon solvents, Fuel, vol. 94, pp. 556–562.

D. W. Kim, P. R. Jeon, S. Moon, and C. H. Lee, 2018, Upgrading of petroleum vacuum residue using a hydrogen-donor solvent with acid-treated carbon, Energy Convers. Manag., vol. 161, no. February, pp. 234–242.

O. N. Fedyaeva, V. R. Antipenko, and A. A. Vostrikov, 2017, Heavy oil upgrading at oxidation of activated carbon by supercritical water-oxygen fluid, J. Supercrit. Fluids, vol. 126, pp. 55–64.

R. N. Magomedov, A. V. Pripakhaylo, and T. A. Maryutina, 2017, Solvent demetallization of heavy petroleum feedstock using supercritical carbon dioxide with modifiers, J. Supercrit. Fluids, vol. 119, pp. 150–158.

B. Sarkar, W. Kwek, D. Verma, and J. Kim, 2017, Effective vacuum residue upgrading using sacrificial nickel(II) dimethylglyoxime complex in supercritical methanol, Appl. Catal. A Gen., vol. 545, no. April, pp. 148–158.

F. AlHumaidan, A. Hauser, H. Al-Rabiah, H. Lababidi, and R. Bouresli, 2013, Studies on thermal cracking behavior of vacuum residues in Eureka process, Fuel, vol.109, pp.635–646.

A. Hauser, F. Alhumaidan, and H. Al-Rabiah, 2013, NMR investigations on products from thermal decomposition of Kuwaiti vacuum residues, Fuel, vol. 113, pp. 506–515.

R. Asgharzadeh Shishavan, M. Ghashghaee, and R. Karimzadeh, 2011, Investigation of kinetics and cracked oil structural changes in thermal cracking of Iranian vacuum residues, Fuel Process. Technol., vol. 92, no. 12, pp. 2226–2234.

K. Chen, H. Zhang, D. Liu, H. Liu, A. Guo, and Z. Wang, 2018, Investigation of the coking behavior of serial petroleum residues derived from deep-vacuum distillation of Venezuela extra-heavy oil in laboratory-scale coking, Fuel, vol. 219, pp. 159–165.

M. Alfi, M. A. Barrufet, R. G. Moreira, P. F. Da Silva, and O. C. Mullins, 2015, An efficient treatment of ultra-heavy asphaltic crude oil using electron beam technology, Fuel, vol. 154, pp. 152–160.

H. M. S. Lababidi, H. M. Sabti, and F. S. Alhumaidan, 2014, Changes in asphaltenes during thermal cracking of residual oils, Fuel, vol. 117, no. PART A, pp. 59–67.

H. Ortiz-Moreno, J. Ramírez, R. Cuevas, G. Marroquín, and J. Ancheyta, 2012, Heavy oil upgrading at moderate pressure using dispersed catalysts: Effects of temperature, pressure and catalytic precursor, Fuel, vol. 100, pp. 186–192.

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How to Cite
[1]
Alawad, I. and Al Zubaidi, I. 2019. Advances in Upgrading Process of Petroleum Residue: A Review. European Journal of Engineering and Technology Research. 4, 6 (Jun. 2019), 104-110. DOI:https://doi.org/10.24018/ejers.2019.4.6.1123.