共晶体系
三元运算
材料科学
盐(化学)
热能储存
遏制(计算机编程)
氯化物
耐火材料(行星科学)
核化学
热的
无机化学
化学工程
冶金
化学
有机化学
热力学
工程类
程序设计语言
物理
计算机科学
合金
作者
Mithun Nath,Yang Xing-yu,Ning Liao,Yawei Li
摘要
Abstract Solar thermal technologies are sustainable, relatively safer, and cost‐effective renewable energy supplies. Theoretically, the efficiency of solar thermal power plants increases with increasing working temperatures. Solar thermal power plants hardly exceed the operating temperature of 500°C due to various limitations, such as the degradation of their components and linings (mainly alloys). In this paper, a recently proposed cost‐effective high‐temperature chloride salt mixture that can operate up to 750°C was tested against refractory monolithics (castables) as containment materials. Low‐cement castables (LCC,a type of monolithic refractory) were designed to meet the desired chemical, physical, and mechanical properties. The interaction between the refractory monolithics and the energy storage materials (molten chloride salt mixture) was investigated using X‐ray diffraction (XRD), scanning electron microscopy‐energy‐dispersive X‐ray spectroscopic analysis (SEM‐EDS), and so on. The castables designed with mullite aggregates (M) have more impurities and thermal conductivity but lower porosity than hibonite aggregates (B). Negligible salt corrosion and minimal penetration were observed for both samples, but sample B did not show refractory contamination in salt.
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