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The effect of Rh~(3+) catalyst on the combustion characteristics of crude vegetable oil droplets

机译:Rh〜(3+)催化剂对植物油微滴燃烧特性的影响

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摘要

The effect of Rh3+ catalyst on the combustion of the Crude Vegetable Oil droplet, namely coconut, jatropha, and sunflower oil has been studied experimentally at atmospheric pressure and room temperature. The oil droplets contain multi-component elements that are saturated fatty acid, monounsaturated fatty acid, polyunsaturated fatty acid, and glycerol. Results demonstrated that the catalyst has a stronger influence on crude coconut oil (CCO) and crude sunflower seed oil (CSFO) polar compounds during combustion, indicated by a greater enlargement of their triglyceride chains relative to those in crude jatropha oil (CJO). The changes in triglyceride geometry were identified as the cause of the distinguishing CVO droplet combustion characteristics. During the heating process preceding ignition, internal evaporation occurs with the appearance of bubbles trapped in oil droplets, and it appears that the diameter of the CJO droplet is greater than that of CCO and CSFO. This result suggests that the non-polar CJO compounds are more saturated, requiring additional heat for evaporation and ignition. The results also show that the catalyst makes multi-step burning droplets becomes shorter in one stage with the highest burning temperature. This proves that the catalyst does not only enlarge the triglyceride geometry but also excites the electrons due to hydrogen atom attraction as well.
机译:在大气压力和室温下,已通过实验研究了Rh3 +催化剂对粗制植物油小滴(即椰子油,麻风树和向日葵油)燃烧的影响。油滴包含多组分元素,这些元素是饱和脂肪酸,单不饱和脂肪酸,多不饱和脂肪酸和甘油。结果表明,该催化剂对燃烧过程中的粗椰子油(CCO)和粗葵花籽油(CSFO)极性化合物有更强的影响,这表明它们的甘油三酸酯链相对于粗麻风树油(CJO)更大。甘油三酸酯几何形状的变化被确定为区别CVO液滴燃烧特性的原因。在点火之前的加热过程中,内部蒸发会发生,并在气泡中捕获气泡,并且CJO液滴的直径似乎大于CCO和CSFO的直径。该结果表明非极性CJO化合物更饱和,需要更多的热量来蒸发和点火。结果还表明,该催化剂使具有最高燃烧温度的多级燃烧液滴在一个阶段中变得更短。这证明该催化剂不仅扩大了甘油三酸酯的几何形状,而且还由于氢原子的吸引而激发了电子。

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