优化五氧化二磷作为固体电解质的力学和物理性能

Abeer F. Al-Attar
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引用次数: 0

摘要

固体氧化物燃料电池(sofc)的长寿命被认为是评价固体氧化物燃料电池高性能的最重要的特征之一,固体氧化物燃料电池是由电解质支撑的燃料电池的高机械稳定性所实现的。因此,本文阐明了由五氧化二磷掺杂剂(P2O5)0.006-(Y2O3) 0.03-(ZrO2)0.92和(P2O5)0.012-(Y2O3)0.03(ZrO2)-0.92两种不同摩尔分数合成的新型SOFC电解质对固体氧化物电解质机械稳定性和物理性能的增强作用。采用固态法制备了这两种电解质。然后,研究了五氧化二磷摩尔浓度对烧结电解质性能的影响。因此,采用纳米压痕法研究了材料的力学性能,并采用ASTM方法精确计算了材料的物理性能。结果表明,烧结电解质的力学性能与相对密度精确对应,低P2O5掺杂的电解质具有较高的维氏硬度和韧性强度,且相对密度较高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optimizing Mechanical and Physical Properties of Phosphorus Pentoxide as Solid Electrolyte
The long lifetime of solid oxide fuel cells (SOFCs) considers one of the most important significant features for estimating the high performance of SOFCs achieved with the high mechanical stability of electrolyte for electrolyte supported fuel cells. Therefore, this paper clarifies the enhancement of the mechanical stability and physical properties for solid oxide electrolytes by synthesized new SOFC electrolytes from two different molar percentages of Phosphorus Pentoxide dopant (P2O5)0.006-(Y2O3) 0.03-(ZrO2)0.92, and (P2O5)0.012-(Y2O3)0.03(ZrO2)-0.92. The two electrolytes were produced successfully by using the solid-state method. Then, the influence of Phosphorus Pentoxide molar percentages dopant on the properties of sintered electrolytes was studied. Thus, the mechanical properties were investigated by the nanoindentation method, and the physical properties were accurately calculated by the ASTM method. Results showed that the mechanical properties precisely correspond to the relative density of the sintered electrolytes, and it appeared the higher Vickers hardness with toughness strength and higher relative density noticed with the electrolyte that had the lower P2O5 dopant.
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