Efficient conversion of used palm cooking oil into biogasoline over hydrothermally prepared sulfated mesoporous silica loaded with NiMo catalyst

• Modifying mesoporous silica with sulfuric acid and dual metal NiMo impregnation improved its acidity value. • The increase in the acidity values of MS, SMS-2, and NiMo 1/SMS-2 is consistent with the increase in catalyst activity and selectivity in converting used palm cooking oil into biogasoline. • The presence of hydrogen gas in the catalytic hydrocracking process significantly increases the fraction of gasoline produced. • The obtained biogasoline has comparable properties to commercial gasoline. • Biogasoline production at atmospheric pressure offers an attractive proposition for a greener biofuel industry. Fossil-based fuels remain a primary global energy source, but their finite and non-renewable nature raises concerns about long-term sustainability. These issues underscore the urgent need for renewable and eco-friendly alternatives such as converting vegetable oil into biofuel. The present work reported biogasoline production from used palm cooking oil catalyzed by sulfated mesoporous silica impregnated with nickel-molybdenum bimetal using the hydrothermal method for both steps. We evaluated the effect of sulfuric acid concentration and metal loading amount on the acidity of the resulting catalysts. Catalysts' performance was assessed through the catalytic cracking and hydrocracking processes with a catalyst-to-feed ratio of 1 % at 550 °C and an atmospheric pressure. In comparison to mesoporous silica (MS) and sulfated mesoporous silica (SMS-2), along with an increase in acidity, NiMo-impregnated mesoporous silica (NiMo 1/SMS-2) exhibited superior catalytic performance in biogasoline production in the presence of H 2 gas, achieving liquid product conversion and gasoline selectivity of 55.9 % and 52.37 %, respectively. These results are an excellent step for developing biogasoline in a safer process and confirm the capability of mesoporous silica-based catalysts in biofuel production.

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Publication Details

Journal
Results in Engineering
Published
2024-10-19
DOI
https://doi.org/10.1016/j.rineng.2024.103185
Citations
5
Primary Topic
Biodiesel Production and Applications
Type
article
Field-Weighted Citation Impact
0.92
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article

Efficient conversion of used palm cooking oil into biogasoline over hydrothermally prepared sulfated mesoporous silica loaded with NiMo catalyst

Saharman Gea, Niko Prasetyo, Nono Darsono, Dita Adi Saputra et al.
5 citations
Results in Engineering
Biodiesel Production and Applications
0.92
article

Efficient conversion of used palm cooking oil into biogasoline over hydrothermally prepared sulfated mesoporous silica loaded with NiMo catalyst

Saharman Gea, Niko Prasetyo, Nono Darsono, Dita Adi Saputra, Aldino Javier Saviola, Amalia Kurnia Amin, Latifah Hauli, Wahyu Dita Saputri, Karna Wijaya, Saffana Ramadhani
article en
5 citations

Abstract

• Modifying mesoporous silica with sulfuric acid and dual metal NiMo impregnation improved its acidity value. • The increase in the acidity values of MS, SMS-2, and NiMo 1/SMS-2 is consistent with the increase in catalyst activity and selectivity in converting used palm cooking oil into biogasoline. • The presence of hydrogen gas in the catalytic hydrocracking process significantly increases the fraction of gasoline produced. • The obtained biogasoline has comparable properties to commercial gasoline. • Biogasoline production at atmospheric pressure offers an attractive proposition for a greener biofuel industry. Fossil-based fuels remain a primary global energy source, but their finite and non-renewable nature raises concerns about long-term sustainability. These issues underscore the urgent need for renewable and eco-friendly alternatives such as converting vegetable oil into biofuel. The present work reported biogasoline production from used palm cooking oil catalyzed by sulfated mesoporous silica impregnated with nickel-molybdenum bimetal using the hydrothermal method for both steps. We evaluated the effect of sulfuric acid concentration and metal loading amount on the acidity of the resulting catalysts. Catalysts' performance was assessed through the catalytic cracking and hydrocracking processes with a catalyst-to-feed ratio of 1 % at 550 °C and an atmospheric pressure. In comparison to mesoporous silica (MS) and sulfated mesoporous silica (SMS-2), along with an increase in acidity, NiMo-impregnated mesoporous silica (NiMo 1/SMS-2) exhibited superior catalytic performance in biogasoline production in the presence of H 2 gas, achieving liquid product conversion and gasoline selectivity of 55.9 % and 52.37 %, respectively. These results are an excellent step for developing biogasoline in a safer process and confirm the capability of mesoporous silica-based catalysts in biofuel production.

Results in EngineeringVol. 24
Universitas Gadjah Mada (ID), Universitas Sumatera Utara (ID), National Nuclear Energy Agency of Indonesia (ID), National Research and Innovation Agency (ID)
Openalex Percentile: Top 28%
Biodiesel Production and Applications
0.92
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