Hydrogenation of Low Density Polyethylene Using Transition Metal Based Catalyst Loaded on Active Natural Zeolite: Effect of Temperature and Metal Loading

The conversion of plastic waste to fuel is a viable approach to address challenges associated with LDPE waste while enhancing energy utilization in pyrolysis. Elevated olefin levels beyond set standards adversely affect exhaust emissions, underscoring the need for hydrogenation. This study comprises multiple phases, including catalyst formulation from natural zeolites, transition metal deposition, and hydrogenation of pyrolytic oil using these catalysts. Results indicate that the Nickel-based catalyst yields a significantly lower olefin yield of 6.1% with Ni/SNZ and 5.76% with NiMo/SNZ, complying with EN228 standards. In contrast, the CoMo/SNZ catalyst significantly increases carbon content to 87.25%, demonstrating improved deoxygenation and achieving the highest HHV of 39.95 MJ/kg, reflecting enhanced liquid product quality for potential alternative fuel applications.

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Publication Details

Journal
Egyptian Journal of Petroleum
Published
2026-02-17
DOI
https://doi.org/10.62593/2090-2468.1107
Primary Topic
Thermochemical Biomass Conversion Processes
Type
article
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article

Hydrogenation of Low Density Polyethylene Using Transition Metal Based Catalyst Loaded on Active Natural Zeolite: Effect of Temperature and Metal Loading

Lisna Efiyanti, Janter Pangaduan Simanjuntak, Ary Anggara Wibowo, Rahayu Rahayu et al.
Egyptian Journal of Petroleum
Thermochemical Biomass Conversion Processes
article

Hydrogenation of Low Density Polyethylene Using Transition Metal Based Catalyst Loaded on Active Natural Zeolite: Effect of Temperature and Metal Loading

Lisna Efiyanti, Janter Pangaduan Simanjuntak, Ary Anggara Wibowo, Rahayu Rahayu, Agus Kembaren, Muhammad Hadi, Herlinawati Herlinawati
article en

Abstract

The conversion of plastic waste to fuel is a viable approach to address challenges associated with LDPE waste while enhancing energy utilization in pyrolysis. Elevated olefin levels beyond set standards adversely affect exhaust emissions, underscoring the need for hydrogenation. This study comprises multiple phases, including catalyst formulation from natural zeolites, transition metal deposition, and hydrogenation of pyrolytic oil using these catalysts. Results indicate that the Nickel-based catalyst yields a significantly lower olefin yield of 6.1% with Ni/SNZ and 5.76% with NiMo/SNZ, complying with EN228 standards. In contrast, the CoMo/SNZ catalyst significantly increases carbon content to 87.25%, demonstrating improved deoxygenation and achieving the highest HHV of 39.95 MJ/kg, reflecting enhanced liquid product quality for potential alternative fuel applications.

Egyptian Journal of PetroleumVol. 35(2)
Openalex Percentile: Top 52%
Thermochemical Biomass Conversion Processes
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Hydrogenation of Low Density Polyethylene Using Transition Metal Based Catalyst Loaded on Active Natural Zeolite: Effect of Temperature and Metal Loading — Lisna Efiyanti, Janter Pangaduan Simanjuntak, et al. · Egyptian Journal of Petroleum (2026) | TGRS Research Map | TGRS