TY - GEN
T1 - Performance of ni-cu/hzsm-5 catalyst in hydrocracking process to produce biofuel from cerbera manghas oil
AU - Aini, Afrida Nur
AU - Al-Muttaqii, Muhammad
AU - Roesyadi, Achmad
AU - Kurniawansyah, Firman
N1 - Publisher Copyright:
© 2021 Trans Tech Publications Ltd, Switzerland.
PY - 2021
Y1 - 2021
N2 - Catalytic cracking and hydroprocessing are two processes used to convert vegetable oil into biofuel, the combination of the two processes is called the hydrocracking reaction. Bintaro oil which is non-edible oil and has a considerable oil content of 35-50% can be recommended as a source of vegetable oil that can be processed into biogasoil. Catalyst preparation was carried out using the incipient wetness impregnation method. The loading support variable HZSM-5 used is 5% and 10%, and the Ni-Cu metal ratio is 1: 2. Ni-Cu / HZSM-5 catalyst was analyzed using BET, EDX, and XRD to determine the characteristics of the catalyst. Furthermore, the hydrocracking process was carried out by mixing 2 grams of Ni-Cu / HZSM-5 catalyst and 250 ml of Bintaro oil into a stirred batch reactor at a reaction temperature of 375 °C for 2 hours. The liquid product (biofuel) produced from the hydrocracking process was analyzed using GC-MS to determine the hydrocarbon composition. The reaction routes that dominate in this study are the decarbonylation and decarboxylation reactions. This can be seen from the largest hydrocarbon composition of the biofuel products that are C15 and C17. The highest value of biofuel selectivity was obtained by loading support at 5%, namely 0.6% gasoline, 5.4% kerosene, and 92.6% gasoil.
AB - Catalytic cracking and hydroprocessing are two processes used to convert vegetable oil into biofuel, the combination of the two processes is called the hydrocracking reaction. Bintaro oil which is non-edible oil and has a considerable oil content of 35-50% can be recommended as a source of vegetable oil that can be processed into biogasoil. Catalyst preparation was carried out using the incipient wetness impregnation method. The loading support variable HZSM-5 used is 5% and 10%, and the Ni-Cu metal ratio is 1: 2. Ni-Cu / HZSM-5 catalyst was analyzed using BET, EDX, and XRD to determine the characteristics of the catalyst. Furthermore, the hydrocracking process was carried out by mixing 2 grams of Ni-Cu / HZSM-5 catalyst and 250 ml of Bintaro oil into a stirred batch reactor at a reaction temperature of 375 °C for 2 hours. The liquid product (biofuel) produced from the hydrocracking process was analyzed using GC-MS to determine the hydrocarbon composition. The reaction routes that dominate in this study are the decarbonylation and decarboxylation reactions. This can be seen from the largest hydrocarbon composition of the biofuel products that are C15 and C17. The highest value of biofuel selectivity was obtained by loading support at 5%, namely 0.6% gasoline, 5.4% kerosene, and 92.6% gasoil.
KW - Biofuel
KW - Cerbera manghas oil
KW - Hydrocracking
KW - Ni-Cu/HZSM5 catalyst
UR - https://www.scopus.com/pages/publications/85118993828
U2 - 10.4028/www.scientific.net/KEM.884.149
DO - 10.4028/www.scientific.net/KEM.884.149
M3 - Conference contribution
AN - SCOPUS:85118993828
SN - 9783035717754
T3 - Key Engineering Materials
SP - 149
EP - 156
BT - Symposium of Materials Science and Chemistry III
A2 - Kusumaatmaja, Ahmad
A2 - Wahyuningsih, Tutik Dwi
A2 - Siswanta, Dwi
A2 - Kartini, Indriana
A2 - Roto, Roto
A2 - Ohto, Keisuke
A2 - Motuzas, Julius
A2 - Natsir, Taufik Abdillah
A2 - Khairuddean, Melati
PB - Trans Tech Publications Ltd
T2 - 6th International Conference on Science and Technology, ICST 2020
Y2 - 7 September 2020 through 8 September 2020
ER -