Optical Study on Soot Formation of Ethanol/ hydrogenated Catalytic Biodiesel/octanol Blends

Shufa Zhou, Wenjun Zhong, Tamilselvan Pachiannan, Qing Liu, F. Yan, Jiafeng Chen, Zhixia He, Qian Wang
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Abstract

Article Optical Study on Soot Formation of Ethanol/hydrogenated Catalytic Biodiesel/octanol Blends Shufa Zhou 1, Wenjun Zhong 1,*, Tamilselvan Pachiannan 2, Qing Liu 1, Feibin Yan 1, Jiafeng Chen 1, Zhixia He 2, and Qian Wang 1 1 School of Energy and Power Engineering, Jiangsu University, Zhenjiang 212013, China 2 Institute for Energy Research, Jiangsu University, Zhenjiang 212013, China * Correspondence: wj_zhong@ujs.edu.cn     Received: 5 September 2023 Accepted: 2 November 2023 Published: 28 November 2023   Abstract: The incorporation of alcohol-based fuel is pivotal in attenuating soot emissions arising from highly reactive hydrocarbon-based fuels. To elucidate the mechanism through which ethanol curtails soot formation in hydrogenated biodiesel, an experimental inquiry was undertaken by employing the high-frequency background light extinction technique within a constant volume combustion chamber system. The primary objective of this study was to scrutinize the impact of blending ethanol with highly reactive fuel on soot generation. Empirical evidence shows that ethanol, owing to its substantial oxygen content, has the potential to facilitate soot oxidation. Incorporating ethanol effectively diminishes soot formation in aspects of quantity, rate, and area. The initial time and location of soot formation increase as the ethanol blending ratio increases. The influence of latent heat of evaporation and Cetane Number on the initial time and location of soot formation varies with distinct environmental temperatures. At 750 K, the latent heat of evaporation exhibits a more pronounced influence in contrast to the Cetane Number. As the temperature rises, the Cetane Number gradually becomes more influential. At a temperature of 825 K and an oxygen content of 21%, the E30H60O10 blend shows an increase of 21.2% and 21.4% in the initial time and location of soot formation, respectively, compared to the E15H75O10 mix. Furthermore, there is a reduction of 75.8% in the total soot mass.
乙醇/加氢催化生物柴油/辛醇混合物烟尘形成的光学研究
文章 乙醇/加氢催化生物柴油/辛醇混合物烟尘形成的光学研究 周树发 1, 钟文军 1,*, Tamilselvan Pachiannan 2, 刘青 1, 严飞斌 1, 陈佳峰 1、1 江苏大学能源与动力工程学院,中国镇江 212013 2 江苏大学能源研究院,中国镇江 212013 * 通讯地址:中国镇江 212013:wj_zhong@ujs.edu.cn 收稿日期:2023 年 9 月 5 日收稿日期:2023 年 9 月 5 日 收稿日期:2023 年 11 月 2 日 发表日期:2023 年 11 月 28 日 摘要:醇基燃料的加入对减少高活性烃基燃料产生的烟尘排放至关重要。为阐明乙醇抑制氢化生物柴油中烟尘形成的机理,我们在恒容燃烧室系统中采用高频背景光消光技术进行了实验研究。这项研究的主要目的是仔细研究乙醇与高活性燃料混合后对烟尘生成的影响。经验证据表明,乙醇由于含有大量氧气,有可能促进烟尘氧化。掺入乙醇可在数量、速度和面积方面有效减少烟尘的形成。随着乙醇混合比例的增加,烟尘形成的初始时间和位置也会增加。蒸发潜热和十六烷值对烟尘形成的初始时间和位置的影响随不同的环境温度而变化。在 750 K 时,蒸发潜热的影响比十六烷值更明显。随着温度的升高,十六烷值的影响逐渐增大。在温度为 825 K、氧含量为 21% 的条件下,与 E15H75O10 混合气相比,E30H60O10 混合气在烟尘形成的初始时间和位置上分别增加了 21.2% 和 21.4%。此外,烟尘总量减少了 75.8%。
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