Effects of hydrogen enrichment on diesel engine fueled with Afzelia Africana biodiesel – TiO2 blends

Q1 Earth and Planetary Sciences Egyptian Journal of Petroleum Pub Date : 2023-03-01 DOI:10.1016/j.ejpe.2023.02.002
Azeez Adebisi , Ajiboye Abd-Rasheed , Tomomewo Olusegun , Samuel Eshorame Sanni , Tomiwa Oguntade , Babalola Aisosa Oni
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引用次数: 2

Abstract

Owing to strict emission-policies, vehicle manufacturers are mandated to control hazardous emissions from diesel engines. One novel step adopted in this work, is the use of hydrogen enrichment with nanofuel, where TiO2 nanoparticles- Afzelia Africana biodiesel-mix was blended with hydrogen for use in a diesel engine. 25 ppm TiO2 nanoparticles were admixed with biodiesel and ultrasonicated. Thereafter, H2 was introduced through the air inlet at the lowest possible flow rate (3–4 LPM) to avoid reaching H2/air explosion limit. The ratio of H2 to the blended fuels (BNH) is (15: 85 vol/vol %). The effects of the nanofuels blended with pure H2 were investigated by evaluating the brake thermal efficiency (BTE), wall temperature of the combustion chamber, NOx, CO, and HC emissions. Via a simplified model, the associated uncertainties in the parametric variations were determined while a Supervisory Computer Aided Data Acquisition (SCADA) system with an in-built program, was configured in the engine set-up for data generation. The results showed that higher BTE of the blends + 25 ppm TiO2 alongside hydrogen flowrates of 3 LPM and 4 LPM helped to improve the engine performance with lesser emissions of CO, NOx and HC respectively. Sample BNH@-3-LPM gave the best performance/BTE of 39.5 % compared to BNH@-4-LPM (32.4 %), BN (29 %) and diesel (29.4 %), whereas, BNH@-3-LPM gave the lowest emissions of 0.4, 5 and 81 g/kwh for CO, HC and NOx respectively compared with diesel which gave corresponding emissions of 0.8, 35 and 200 g/kwh for CO, HC and NOx respectively.

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富氢对Afzelia Africana生物柴油-TiO2混合燃料柴油发动机的影响
由于严格的排放政策,汽车制造商被要求控制柴油发动机的有害排放。这项工作中采用的一个新步骤是使用纳米燃料富集氢,其中二氧化钛纳米粒子-非洲非洲生物柴油混合物-与氢气混合用于柴油发动机。将25 ppm TiO2纳米颗粒与生物柴油混合,并进行超声波处理。然后,以尽可能低的流量(3-4 LPM)从进风口引入H2,以避免达到H2/空气爆炸极限。氢气与混合燃料(BNH)的比例为(15:85 vol/vol %)。通过考察纳米燃料与纯氢气混合后的制动热效率(BTE)、燃烧室壁温、NOx、CO和HC排放,研究了纳米燃料与纯氢气混合后的效果。通过简化模型,确定了参数变化中相关的不确定性,同时在发动机设置中配置了带有内置程序的监控计算机辅助数据采集(SCADA)系统以进行数据生成。结果表明,当混合燃料的BTE较高+ 25 ppm TiO2,氢气流量分别为3 LPM和4 LPM时,发动机性能得到改善,CO、NOx和HC的排放分别减少。与BNH@-4-LPM(32.4%)、BN(29%)和柴油(29.4%)相比,BNH@-3-LPM样品的最佳性能/BTE为39.5%,而BNH@-3-LPM样品的CO、HC和NOx排放量分别为0.4、5和81 g/kwh,而柴油样品的CO、HC和NOx排放量分别为0.8、35和200 g/kwh。
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来源期刊
Egyptian Journal of Petroleum
Egyptian Journal of Petroleum Earth and Planetary Sciences-Geochemistry and Petrology
CiteScore
7.70
自引率
0.00%
发文量
29
审稿时长
84 days
期刊介绍: Egyptian Journal of Petroleum is addressed to the fields of crude oil, natural gas, energy and related subjects. Its objective is to serve as a forum for research and development covering the following areas: • Sedimentation and petroleum exploration. • Production. • Analysis and testing. • Chemistry and technology of petroleum and natural gas. • Refining and processing. • Catalysis. • Applications and petrochemicals. It also publishes original research papers and reviews in areas relating to synthetic fuels and lubricants - pollution - corrosion - alternate sources of energy - gasification, liquefaction and geology of coal - tar sands and oil shale - biomass as a source of renewable energy. To meet with these requirements the Egyptian Journal of Petroleum welcomes manuscripts and review papers reporting on the state-of-the-art in the aforementioned topics. The Egyptian Journal of Petroleum is also willing to publish the proceedings of petroleum and energy related conferences in a single volume form.
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