Kinetic study of thermal and catalytic hydrocracking of asphaltene

被引:27
作者
Pham, Hai Hung [1 ,2 ]
Nguyen, Ngoc Thuy [2 ]
Go, Kang Seok [1 ,2 ]
Park, Sunyoung [2 ]
Nho, Nam Sun [1 ,2 ]
Kim, Gyoo Tae [2 ]
Lee, Chul Wee [2 ]
Felix, Guillermo [3 ]
机构
[1] Korea Inst Energy Res, Climate Change Res Div, 52 Gajeong Ro, Daejeon 34129, South Korea
[2] Korea Res Inst Chem Technol, Ctr Convergent Chem Proc, 141 Gajeong Ro, Daejeon 34114, South Korea
[3] Inst Politecn Nacl, Ctr Invest Ciencia Aplicada & Tecnol Avanzada, Unidad Legaria, Legaria 694, Mexico City 11500, DF, Mexico
关键词
Asphaltene; Thermal hydrocracking; Catalytic hydrocracking; Coke induction period; Kinetics; SLURRY-PHASE HYDROCRACKING; HEAVY OIL; REACTION TEMPERATURE; VACUUM RESIDUE; CRACKING; COKE; PRECIPITATION; RESERVOIRS; FRACTIONS; INJECTION;
D O I
10.1016/j.cattod.2019.08.031
中图分类号
O69 [应用化学];
学科分类号
081704 ;
摘要
In this study, a five-lump model was proposed for kinetic modeling of asphaltene placed in a batch reactor with a commercial slurry-phase catalyst (Mo-octoate). Asphaltene was separated from vacuum residue using normal pentane. The kinetic experiments were carried out at 380 similar to 430 degrees C for 1 similar to 20 h together with a 1000 ppm concentration of Molybdenum in thermal and catalytic hydrocracking reaction modes. The results showed that the coke induction period and maximum maltene yield are changed with reaction temperature and time at thermal and catalytic hydrocracking. In addition, a linear relationship between coke and liquid (maltene + asphaltene remains) yields was shown so that the critical gas amount could be found as a criterion for determining the end of the coke induction period. Significantly, the kinetic model fit the experimental data well and, moreover, was found to be able to predict the moment when coke begins to form as well as maximum maltene yields.
引用
收藏
页码:112 / 118
页数:7
相关论文
共 30 条
[1]   The Peak of the Oil Age - Analyzing the world oil production Reference Scenario in World Energy Outlook 2008 [J].
Aleklett, Kjell ;
Hook, Mikael ;
Jakobsson, Kristofer ;
Lardelli, Michael ;
Snowden, Simon ;
Soderbergh, Bengt .
ENERGY POLICY, 2010, 38 (03) :1398-1414
[2]   Kinetic modeling of hydrocracking of heavy oil fractions:: A review [J].
Ancheyta, J ;
Sánchez, S ;
Rodríguez, MA .
CATALYSIS TODAY, 2005, 109 (1-4) :76-92
[3]   Asphaltene characterization as function of time on-stream during hydroprocessing of Maya crude [J].
Ancheyta, J ;
Centeno, G ;
Trejo, F ;
Speight, JG .
CATALYSIS TODAY, 2005, 109 (1-4) :162-166
[4]  
Ancheyta J., 2009, ASPHALTENES CHEM TRA
[5]   A review of experimental procedures for heavy oil hydrocracking with dispersed catalyst [J].
Angeles, M. J. ;
Leyva, C. ;
Ancheyta, J. ;
Ramirez, S. .
CATALYSIS TODAY, 2014, 220 :274-294
[6]   In-situ upgrading and enhanced recovery of heavy oil from carbonate reservoirs using nano-catalysts: Upgrading reactions analysis [J].
Elahi, Seyed Moein ;
Scott, Carlos E. ;
Chen, Zhangxin ;
Pereira-Almao, Pedro .
FUEL, 2019, 252 :262-271
[7]   Sensitivity analysis of kinetic parameters for heavy oil hydrocracking [J].
Felix, Guillermo ;
Ancheyta, Jorge ;
Trejo, Fernando .
FUEL, 2019, 241 :836-844
[8]   Comparison of hydrocracking kinetic models based on SARA fractions obtained in slurry-phase reactor [J].
Felix, Guillermo ;
Ancheyta, Jorge .
FUEL, 2019, 241 :495-505
[9]   Characteristics of slurry-phase hydrocracking for vacuum residue with reaction temperature and concentrations of MoS2 dispersed catalysts [J].
Go, Kang Seok ;
Lim, Suk Hyun ;
Kim, Yong Ku ;
Kwon, Eun Hee ;
Nho, Nam Sun .
CATALYSIS TODAY, 2018, 305 :92-101
[10]   Modelling and parameter estimation of ultra-dispersed in situ catalytic upgrading experiments in a batch reactor [J].
Hassanzadeh, Hassan ;
Abedi, Jalal .
FUEL, 2010, 89 (10) :2822-2828