Green diesel synthesis from palm fatty acid distillate using a nickel phosphide catalyst: Optimization by box behnken design

Q1 Environmental Science
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Abstract

The persistent global energy crisis is propelling significant innovations, including the use of palm fatty acid distillate (PFAD) as a renewable resource for producing green diesel (GD). Therefore, this study aimed to intensify GD synthesis from PFAD by optimizing the process using a Response Surface Methodology-Box Behnken Design (RSM-BBD). Optimization was achieved with a nickel phosphide catalyst supported by natural zeolite through hydrodeoxygenation method. RSM-BBD was used to design the process, considering time (1−3 h), temperature (300–350 °C), catalyst concentration (5–15 %), and pressure (20–60 bar). The results showed that the optimum conditions consisted of 11 % catalyst concentration, 3 h of reaction time, 342 °C temperature, and 29 bar pressure, leading to a 96.35 % GD yield. All conversion parameters, except pressure, significantly influenced GD yield. The quality of the synthesized GD showed high quality and compliance with Indonesian as well as European diesel fuel standards.

Abstract Image

使用磷化镍催化剂从棕榈脂肪酸馏分中合成绿色柴油:箱形设计优化
持续的全球能源危机正在推动重大创新,包括使用棕榈脂肪酸馏分(PFAD)作为生产绿色柴油(GD)的可再生资源。因此,本研究旨在通过响应面方法-盒式贝肯设计(RSM-BBD)优化工艺,加强以 PFAD 为原料合成 GD。通过加氢脱氧方法,使用天然沸石支撑的磷化镍催化剂实现了优化。采用 RSM-BBD 设计工艺,考虑了时间(1-3 小时)、温度(300-350 °C)、催化剂浓度(5-15%)和压力(20-60 巴)。结果表明,最佳条件为催化剂浓度为 11%、反应时间为 3 小时、温度为 342 ℃、压力为 29 巴,GD 收率为 96.35%。除压力外,所有转化参数都对 GD 收率有显著影响。合成的 GD 质量很高,符合印尼和欧洲柴油标准。
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来源期刊
Bioresource Technology Reports
Bioresource Technology Reports Environmental Science-Environmental Engineering
CiteScore
7.20
自引率
0.00%
发文量
390
审稿时长
28 days
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