64
61. Xu K, Li Y, Xu X, Zhou C, Liu Z, Yang F, Zhang L, Wang G, Gao J, Xu C (2015) Single-walled
carbon nanotubes supported Ni–Y as catalyst for ultra-deep hydrodesulfurization of gasoline
and diesel. Fuel 160:291–296
62. Wang T, Li J, Yi S, Wang C, Gao Y, Chou L, Yao W (2015) The tuning of pore structures and
acidity for Zn/Al layered double hydroxides: the application on selective hydrodesulfurization
for FCC gasoline. J Energy Chem 24:432–440
63. Le Page JF, Chatila SG, Davidson M (1992) Resid and heavy oil processing. Editions
Technip, Paris
64. Ferreira C, Tayakout-Fayolle M, Guibard I, Lemos F, Toulhoat H, Ramôa Ribeiro F (2012)
Hydrodesulfurization and hydrodemetallization of different origin vacuum residues: characterization and reactivity. Fuel 98:218–228
65. Ancheyta J, Rana MS, Furimsky E (2005) Hydroprocessing of heavy petroleum feeds: tutorial.
Catal Today 109 (1–4:3–15
66. Takahashi T, Higashi H, Kai T (2005) Development of a new hydrodemetallization catalyst for
deep desulfurization of atmospheric residue and the effect of reaction temperature on catalyst
deactivation. Catal Today 104(1):76–85
67. Stanislaus A, Al-Dolama K, Absi-Halabi M (2002) Preparation of a large pore alumina-based
HDM catalyst by hydrothermal treatment and studies on pore enlargement mechanism. J Mol
Catal A Chem 181:33–39
68. Kressmann S, Morel F, Harle V, Kasztelan S (1998) Recent developments in fixed-bed catalytic residue upgrading. Catal Today 43:203–215
69. Rana MS, Sámano V, Jorge A, Diaz JAI (2007) A review of recent advances on process technologies for upgrading of heavy oils and residua. Fuel 86:1216–1231
70. Díaz de León JN, Zavala-Sánchez LA, Suárez-Toriello VA, Alonso-Núñez G, Zepeda TA,
Yocupicio RI, de los Reyes JA, Fuentes S (2017) Support effects of NiW catalysts for highly
selective sulfur removal from light hydrocarbons. Appl Catal B Environ 213:167–176
G. Valavarasu and B. Ramachandrarao
61. Xu K, Li Y, Xu X, Zhou C, Liu Z, Yang F, Zhang L, Wang G, Gao J, Xu C (2015) Single-walled
carbon nanotubes supported Ni–Y as catalyst for ultra-deep hydrodesulfurization of gasoline
and diesel. Fuel 160:291–296
62. Wang T, Li J, Yi S, Wang C, Gao Y, Chou L, Yao W (2015) The tuning of pore structures and
acidity for Zn/Al layered double hydroxides: the application on selective hydrodesulfurization
for FCC gasoline. J Energy Chem 24:432–440
63. Le Page JF, Chatila SG, Davidson M (1992) Resid and heavy oil processing. Editions
Technip, Paris
64. Ferreira C, Tayakout-Fayolle M, Guibard I, Lemos F, Toulhoat H, Ramôa Ribeiro F (2012)
Hydrodesulfurization and hydrodemetallization of different origin vacuum residues: characterization and reactivity. Fuel 98:218–228
65. Ancheyta J, Rana MS, Furimsky E (2005) Hydroprocessing of heavy petroleum feeds: tutorial.
Catal Today 109 (1–4:3–15
66. Takahashi T, Higashi H, Kai T (2005) Development of a new hydrodemetallization catalyst for
deep desulfurization of atmospheric residue and the effect of reaction temperature on catalyst
deactivation. Catal Today 104(1):76–85
67. Stanislaus A, Al-Dolama K, Absi-Halabi M (2002) Preparation of a large pore alumina-based
HDM catalyst by hydrothermal treatment and studies on pore enlargement mechanism. J Mol
Catal A Chem 181:33–39
68. Kressmann S, Morel F, Harle V, Kasztelan S (1998) Recent developments in fixed-bed catalytic residue upgrading. Catal Today 43:203–215
69. Rana MS, Sámano V, Jorge A, Diaz JAI (2007) A review of recent advances on process technologies for upgrading of heavy oils and residua. Fuel 86:1216–1231
70. Díaz de León JN, Zavala-Sánchez LA, Suárez-Toriello VA, Alonso-Núñez G, Zepeda TA,
Yocupicio RI, de los Reyes JA, Fuentes S (2017) Support effects of NiW catalysts for highly
selective sulfur removal from light hydrocarbons. Appl Catal B Environ 213:167–176
G. Valavarasu and B. Ramachandrarao