从生产砂废料中提取分级沸石作为二氧化碳到碳纳米管的催化剂:探索和生产的可持续性

Sunisa Watcharasing, Chularat Wattanakit, Anawat Thivasasith, P. Kiattikomol
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引用次数: 0

摘要

该项目旨在将油气生产中通常作为垃圾填埋场处理的砂石废物转化为更高价值的产品,称为“分级沸石”。作为可持续发展目标的一部分,该项目还探索减少填埋砂废物数量的机会,并尝试将二氧化碳转化为碳纳米管。层次化分子筛是一种具有纳米片形态的分子筛,克服了传统分子筛在以下方面的局限性:1)改进了微孔结构,增强了活性位点的质量传递;2)延长了催化剂寿命;3)提高了比表面积。由于这些优越的特性,它被广泛地应用于从吸附、分离、离子交换到催化等领域。在这项工作中,分层沸石被用作二氧化碳转化为碳纳米管的催化剂,碳纳米管是未来的材料。方法:研究了制备纳米级ZSM-5分子筛和Faujasite (FAU)分子筛的工艺。生产砂废作为硅源;后经过砂预处理和二氧化硅萃取等步骤,进行分级沸石合成,降低其生产成本。分析了合成的分级沸石的理化性质,如比表面积、孔隙度、拓扑结构和结构性质。这些物理化学性质将与使用商业二氧化硅源获得的性质进行比较。然后,将所制备的分级沸石作为催化剂应用于二氧化碳合成碳纳米管。采用固定床化学气相沉积(CVD)技术合成碳纳米管,具有能耗低、质量好等优点。CNTs的物理性能包括管径、石墨结构(ID/IG)。为了证明提取二氧化硅源作为合成分级沸石的物质,并将其用作从二氧化碳中生产碳纳米管的催化剂的概念。以纳米二氧化硅和废渣为原料,成功合成了两种分级沸石纳米片ZSM-5和FAU,产率均在75%以上。同时比较了分层- fau和分层-FAU-5在二氧化碳生成碳纳米管方面的性能。结果表明,层次化fau是制备碳纳米管的最佳催化剂,其产率为28.9%,平均直径为22.8 nm, ID/ igp为0.68。在原型阶段,将以50倍的放大倍数进一步应用合成分级沸石的最佳条件。该技术有望减少生产砂废料的填埋量。此外,除了碳纳米管合成外,还将在催化裂化等其他高级反应中进一步探索所合成的分级沸石。在PTTEP中首次从生产砂废料中提取并成功制备了分级沸石。根据这些发现,信息将应用于分级沸石合成的原型和放大阶段的工艺设计。
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Hierarchical Zeolites from Production Sand Waste as Catalysts for CO2 to Carbon Nanotubes CNTs: Exploration and Production Sustainability
This project targets to convert sand waste from oil & gas production, which is typically disposed as landfill, to be the higher-value products, called "Hierarchical Zeolites". This project also explores opportunities to lower amount of sand waste to landfill and try to convert CO2 to CNTs, as part of Sustainable Development Goals. Hierarchical Zeolites is developed with nanosheets morphology to overcome limitation of conventional zeolites in terms of, 1) microporous structure improvement to enhance the mass transport through active sites, 2) longer catalyst lifetime, and 3) higher surface area. With these superior characteristics, it is popularly used in wide range of applications ranging from adsorption, separation, and ion-exchange to catalysis. In this work, the Hierarchical Zeolites are utilized as catalysts for CO2 conversion to CNTs, which is the futuristic materials. Methods, The procedure to produce hierarchical zeolites with nanosheet morphology for ZSM-5, and Faujasite (FAU) topologies have been developed. Production sand waste is used as a silica source; after it is passed sand pretreatment and silica extraction steps, for hierarchical zeolites synthesis, to reduce their production cost. Physicochemical properties of the synthesized hierarchical zeolites are analyzed, such as surface area, porosity, topology, and textural properties. These physicochemical properties will be compared with the one obtained using the commercial silica sources. Then, the developed Hierarchical zeolites are applied as catalyst for CNTs production from CO2. The fixed bed Chemical Vapor Deposition (CVD) technique is introduced for CNTs synthesis, as its low energy cost consumption, high quality of CNTs synthesis. The physical properties of CNTs, including tube diameter, graphitic structure (ID/IG). To prove of concept for extracting silica source as a substance for hierarchical zeolite synthesis and use as catalyst for CNTs production from CO2. Two types of hierarchical zeolites nanosheet (ZSM-5, and FAU) have been successfully synthesized from nano silica obtained froms and waste, with high yield more than 75%. The hierarchical-FAU, and hierarchical -FAU-5's performance on CNTs production from CO2 are compared together. It was found that the hierarchical-FAU provide the best catalyst for CNT production with the CNTs yield of 28.9%, the average diameter of 22.8 nm and ID/IGof 0.68. The optimal condition for hierarchical zeolites synthesis will be further applied in the prototype phase, in the 50X up-scaling. This technology is expected to lower an amount of production sand waste disposal to landfill. Moreover, the synthesized hierarchical zeolites will be further explored in other advanced reactions apart from CNTs synthesis, such as catalytic cracking. Hierarchical zeolites from production sand waste are firstly initiated and successfully achieved in PTTEP. From these findings, information will be applied to the process design of Hierarchical zeolites synthesis in prototype, and scale-up phase.
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