太阳镜
布莱顿循环
热能储存
集中太阳能
工艺工程
太阳能
太阳能
储能
钥匙(锁)
热的
领域(数学)
功率(物理)
机械工程
工程类
物理
计算机科学
电气工程
热交换器
气象学
生物
纯数学
量子力学
计算机安全
数学
生态学
作者
Ya‐Ling He,Yu Qiu,Kun Wang,Yuan Fan,Wenqi Wang,Ming-Jia Li,Jiaqi Guo
出处
期刊:Energy
[Elsevier]
日期:2020-03-16
卷期号:198: 117373-117373
被引量:346
标识
DOI:10.1016/j.energy.2020.117373
摘要
In this perspective paper, the present status and development tendency of concentrating solar power (CSP) are analyzed from two aspects: (1) Potential pathways to efficient CSP through improving operation temperature to above 700 °C; (2) Technologies for efficient solar collection, thermal storage, and power generation at >700 °C. Based on the analyses, barriers on the way to the high-temperature CSP are summarized. They are: (1) the lack of methodology for heliostat design and field layout optimization, (2) significant performance degradations of solar-thermal conversion, heat storage and transfer in receiver and thermal energy storage due to high temperature, (3) the lack of suitable supercritical CO2(S–CO2) Brayton cycle for CSP and mature design methods for S–CO2 components. To overcome these issues, perspectives on following three aspects are proposed. Firstly, optimization approaches for optimal heliostat size and layout, and game-changing techniques for heliostat structure design should be brainstormed. Secondly, receivers and thermal storage devices designed through efficiency-improving approaches and fabricated by durable materials should be developed to maintain efficient and reliable operation. Thirdly, the developments of novel S–CO2 cycle and corresponding key components are eagerly desired to achieve efficient thermal-electric conversion. Perspectives from this paper would present possible approaches to efficient CSP.
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