The gasification of a waste lube oil (WLO), using water under vapor and supercritical states leads to its valorization into green fuels with high energetic power like H₂ and CH₄. This work investigates how the most important variables of a flow continuous gasification process, temperature, pressure and reaction time, influence the efficiency of gasification and the amounts and characteristics of the gases produced. The study of the influence of these variables on the energetic efficiency of the process was also completed. The highest production yields, 2.4 10⁻² mol_H2 g_oil⁻¹ and 3.0 10⁻² mol_CH4 g_oil⁻¹, were registered at supercritical water conditions (750 °C, 250 bar and 1.87 min). The energetic study revealed that the energetic efficiency increased as the reaction time was lengthened. Gasification kinetics were slower as pressure increased but the reaction times inside the flow reactor were longer. A pressure range from 150 bar, steam region, to 250 bar, supercritical region, was identified as optimal since allowed the most suitable balance between kinetics and the reaction times achieved.

使用处于蒸汽和超临界状态的水对废润滑油（WLO）进行气化可使其变成具有H ₂和CH ₄等高能的绿色燃料。这项工作研究了连续气化过程中最重要的变量，温度，压力和反应时间如何影响气化效率以及所产生气体的数量和特性。这些变量对过程能量效率的影响的研究也已完成。最高的产量，2.4 10 ^-2 mol _H2  g_油^-1和3.0 10 ^-2 mol _CH4  g_油^-1在超临界水条件（750  °C，250 bar和1.87 min）下记录。能量研究表明，随着反应时间的延长，能量效率提高。气化动力学随着压力的增加而变慢，但流动反应器内部的反应时间更长。从150 bar（蒸汽区域）到250 bar（超临界区域）的压力范围被确定为最佳，因为它可以在动力学和所达到的反应时间之间实现最合适的平衡。