Cellulose assisted combustion synthesis of nanomaterials for energy conversion applications

Anand Kumar
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Abstract

Combustion synthesis has been used for a long time for synthesizing functional materials suitable for many applications such as ceramics, electronics, pigments, catalysts etc. In this paper we introduce an emerging field of nanomaterials synthesis, known as "Cellulose Assisted Combustion Synthesis (CACS)" technique. In this technique, an aqueous solution of metal nitrate and a reducing agent is impregnated on a thin cellulose paper to enhance heat transfer effects during the synthesis process. The paper is dried and locally ignited at one end to start a combustion reaction that is self-sustained, and under optimum loading of the reactive solution, can continuously produce nanoparticles with high surface area. The thin film helps in generating a quenching effect and limits nanoparticles sintering in post-combustion stages. This paper summarizes the synthesis of transition metals and their alloys that have shown exceptional catalytic performance for energy conversion applications such as ethanol hydrogen production and fuel cell applications. A summary of reported mechanistic study on selected reactions will be provided in future correspondences to understand the reaction pathway followed on the catalyst surfaces
纤维素辅助燃烧合成纳米材料的能量转换应用
燃烧合成法长期以来一直用于合成功能材料,适用于陶瓷、电子、颜料、催化剂等多种应用。本文介绍了纳米材料合成的一个新兴领域,即纤维素辅助燃烧合成(CACS)技术。在该技术中,将硝酸金属和还原剂的水溶液浸渍在薄纤维素纸上,以增强合成过程中的传热效果。将纸干燥并在一端局部点燃,开始自持的燃烧反应,在反应溶液的最佳负载下,可以连续产生高表面积的纳米颗粒。薄膜有助于产生淬火效应,并限制了纳米颗粒在燃烧后阶段的烧结。本文综述了在乙醇制氢和燃料电池等能源转化应用中表现出优异催化性能的过渡金属及其合金的合成。为了更好地理解在催化剂表面上的反应途径,我们将在以后的通信中对所选反应的机理研究进行总结
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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