主要蓄热设备和材料的现状及改进趋势

Ivan V. Kots, O. Pankevych, Oleh Badiaka
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引用次数: 0

摘要

文章致力于研究作为主要节能措施的蓄热技术。文章进行了专利检索,并分析了涉及该问题的科学论文,介绍了现有热能储存技术的主要材料。论文介绍了蓄热器(HA)和蓄热材料(HSM)的主要类型。蓄热器按蓄热性质、工作温度水平和充放电时间长短进行分类。分析了蓄热材料的差异和设计特点、优缺点。确定了实际使用或未来可能使用的主要蓄热材料。介绍了蓄热材料的热物理性质,如比热容、熔点、密度和密度。 根据以下初始数据确定电容式蓄热器和相变式蓄热器的体积计算方法:蓄热材料的类型、热载体的类型和热特性以及蓄热材料的温降。本文举例说明了电容式蓄电池的实际应用,特别是太阳能供热系统中的水箱蓄电池和太阳能菜园中的砾石蓄电池。介绍了结晶水合物和有机低熔化合物(脂肪酸和石蜡)作为相变蓄热材料的用途。介绍了热化学蓄热器的特点、工作原理以及与电容式蓄热器和相变蓄热器相比的优势。介绍了传统碳燃料的富集反应,并举例说明了可用作蓄热过程的反应。确定了进一步研究的前景。
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CURRENT STATE AND TRENDS OF IMPROVEMENT CHARACTERISTICS OF MAIN HEAT ACCUMULATING INSTALLATIONS AND MATERIALS
The article is devoted to the study of heat storage technologies as the main energy saving measure. The paper conducts a patent search and analyzes scientific papers that cover the issue and present the main material of existing technologies for thermal energy storage. The classification of the main types of heat accumulators (HA) and heat storage materials (HSM) is presented. Heat accumulators are classified: by the nature of accumulation; by the level of operating temperatures; by the duration of the charge-discharge period. The differences and design features of TAMs, advantages and disadvantages are analyzed. The main heat storage materials that are actually used or can be used in the future are identified. The thermophysical properties of heat storage materials, such as specific heat capacity, melting point, density, and density, are described. The methodology for calculating the volume of capacitive and phase-transition heat accumulators is determined based on the following initial data: the type of heat storage material, the type and thermal characteristics of the heat carrier, and the temperature drop of the heat storage material. Examples of the practical use of capacitive batteries are given, in particular, a tank battery in a solar heating system, as well as a gravel battery in a solar vegetable garden. The use of crystalline hydrates and organic low-melting compounds (fatty acids and paraffins) as phase-transition heat storage materials is described. The characteristics of thermochemical thermal accumulators, their principle of operation, and their advantages over capacitive and phase-transition accumulation units are presented. The reactions of enrichment of traditional carbon fuels are described, and examples of reactions that can be used as heat storage processes are given. Prospects for further research are identified.
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