Conversion of Oil Shale To Liquid Hydrocarbons as A New Energy Resources Using Iron (Fe)-Pillared Clay (Kaolinite) Catalyst

O. Dewanto, Istifani Ferucha, D. Darsono, Sri Rizky
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Abstract

In the context of new energy exploration, oil shale is currently a source of energy that is being developed so that it can be used as an alternative energy in the future. Based on this background, it is important to research the conversion method of oil shale to liquid hydrocarbons. The method used is using clay (kaolinite) catalyst and  iron (Fe)-pillared clay (kaolinite) catalyst. Clay catalyst products are capable of making organic mature faster and even requiring a lower temperature for the changes (through thermal cracking of non-volatile organic material). The addition of Fe metal in the clay catalyst product to oil shale, causing the surface area of the natural clays were significantly increased, then the volume of micro pore were also increased, it causes the organic material to mature faster and the temperature required for the change is less than the shale material without Fe. The catalyst method by the pillarization technique able to increase the surface area and pore volume, thus accelerating the reaction and changing the reaction rate to be greater. It is observed that clay catalyst products can serve as catalysts for accelerating organic maturation reactions. if compared between the clay material  of OD1-Ast1 (50% clay-50% organic), OD1-Ast2 (33% clay-67% organic), and the OD1-Ast3 shale material (67% clay - 33% organic),then OD1-Ast3 has a faster reaction rate. Comparison of clay material is smaller than organic, then the properties of the catalyst product to accelerate the reaction are reduced, such as the OD1-Ast2 shale material has a slow reaction rate compared to the OD1-Ast3 shale material. The addition of Fe metal in the clay catalyst product to the OD1-Ast2 shale material, resulting in OD1-Ast2-Fe shale material (75% OD1-Ast2 and 25% Fe) having a faster reaction rate than before the addition of Fe metal.The design of heavy (%) clay (kaolinite) and Fe pilaration on oil shale were greatly influence the change of TOC values when heated,then affecting maturation and Tmax. The temperature of maturation and Tmax as the main parameters of conversion of oil shale to liquid hydrocarbon. This method supports the development of science and technology in the field of exploitation and processing of natural resources.
利用铁(Fe)柱撑粘土(高岭土)催化剂将油页岩转化为液态烃
在新能源勘探的背景下,油页岩目前是一种正在开发的能源,以便在未来用作替代能源。基于这一背景,研究油页岩转化为液态烃的方法具有重要意义。所使用的方法是使用粘土(高岭石)催化剂和铁(Fe)柱撑粘土(高岭土)催化剂。粘土催化剂产品能够使有机物更快地成熟,甚至需要更低的温度来改变(通过非挥发性有机材料的热裂化)。在油页岩中添加粘土催化剂产物中的铁金属,使天然粘土的表面积显著增加,然后微孔体积也增加,使有机材料更快成熟,变化所需的温度低于不含铁的页岩材料。通过柱撑技术的催化剂方法能够增加表面积和孔体积,从而加速反应并使反应速率变大。观察到粘土催化剂产物可以用作加速有机成熟反应的催化剂。如果在OD1-Ast1(50%粘土-50%有机)、OD1-Ast2(33%粘土-67%有机)的粘土材料和OD1-Ast3页岩材料(67%粘土-33%有机)之间进行比较,则OD1-Ast三具有更快的反应速率。粘土材料的比较小于有机材料,则催化剂产物加速反应的性能降低,例如OD1-Ast2页岩材料与OD1-Ast3页岩材料相比具有较慢的反应速率。将粘土催化剂产物中的Fe金属添加到OD1-Ast2页岩材料中,导致OD1-Ast2-Fe页岩材料(75%的OD1-Ast 2和25%的Fe)具有比添加Fe金属之前更快的反应速率。油页岩上重(%)粘土(高岭石)和铁的设计对加热时TOC值的变化有很大影响,进而影响成熟度和Tmax。成熟温度和Tmax是油页岩转化为液态烃的主要参数。这种方法支持自然资源开发和加工领域的科学技术发展。
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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