Process Simulation of Oil Palm Empty Fruit Bunch (OPEFB) Pyrolysis using Open-Source DWSIM: Analysis of Temperature-Dependent Product Yields

Dani Puji Utomo, Andri Cahyo Kumoro, Muhammad Haqqiyuddin Robbani
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Abstract

This study investigates the pyrolysis of Oil Palm Empty Fruit Bunches (OPEFB) using the open-source process simulation software DWSIM to evaluate the impact of temperature on product distribution, particularly bio-oil, biochar, and pyrolysis gas. OPEFB, an abundant lignocellulosic waste from Indonesia’s palm oil industry, holds significant potential as a renewable biomass feedstock. The simulation model was developed based on thermochemical conversion principles and was validated against selected experimental data from the literature. Results show that pyrolysis temperature significantly influences the yield and composition of the products. The gas yield increased with temperature up to 460°C, dominated by CO, CO₂, and H₂ due to the decomposition of volatile organic matter. However, gas yield declined beyond 460°C, likely due to secondary reactions converting gas precursors into liquid products. The optimal temperature was found to be around 510°C, offering a balanced yield of bio-oil and gas with minimal biochar formation. The chemical composition of bio-oil included furfural, phenols, alcohols, and acetic acid—compounds derived from the breakdown of cellulose, hemicellulose, and lignin. Biochar yield decreased with temperature, but its quality improved in terms of carbon content and fixed carbon fraction. This study highlights the utility of DWSIM as an accessible and transparent tool for simulating biomass pyrolysis. Future work should focus on refining the kinetic parameters, experimental validation of simulation results, and integrating downstream processing for fuel and chemical recovery.
基于开源DWSIM的油棕空果串(OPEFB)热解过程模拟:温度依赖性产物产率分析
本研究利用开源过程模拟软件DWSIM对油棕空果束(OPEFB)的热解过程进行了研究,以评估温度对产品分布的影响,特别是生物油、生物炭和热解气。OPEFB是一种来自印度尼西亚棕榈油工业的丰富的木质纤维素废料,作为可再生生物质原料具有巨大的潜力。基于热化学转化原理建立了模拟模型,并根据文献中选定的实验数据进行了验证。结果表明,热解温度对产物的收率和组成有显著影响。当温度升高到460℃时,由于挥发性有机物的分解,气体产率以CO、CO₂和H₂为主。然而,超过460°C后,气体产率下降,可能是由于将气体前体转化为液体产物的二次反应。最佳温度在510°C左右,以最小的生物炭形成提供平衡的生物油和天然气产量。生物油的化学成分包括糠醛、酚类、醇类和乙酸,这些化合物是纤维素、半纤维素和木质素分解后产生的。随着温度的升高,生物炭的产率降低,但其质量在碳含量和固定碳分数方面有所提高。本研究强调了DWSIM作为模拟生物质热解的一种可访问和透明的工具的实用性。未来的工作应该集中在细化动力学参数,实验验证模拟结果,并整合下游处理的燃料和化学回收。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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