利马办公室空调热建议验证(TES)的物理建模

Washington Rojas Casaverde, Angel De La Torre Galdo, Ada L. Arancibia Samaniego, Rubén Esaú Mogrovejo Gutiérrez
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引用次数: 0

摘要

适应气候变化的措施要求使用促进节能的技术。对热舒适的追求鼓励了诸如TES水箱(水箱能源系统)等技术的使用。本文对某TES储罐CFD仿真结果进行验证,通过1/25尺度下的模型评估,证实储罐热阻为1.63 W/m,导热系数为1.63 W/m。热传导系数为0.036 W/m°K的膨胀聚苯乙烯,用于墙壁和盖子。除了足够的耐热性、不透水性和耐用性外,圆形TES水箱的设计还保证了它在温度测量期间能够正常工作。在模型中,通过获得水温在7°C(12.6°F)下8小时的温度升高,证实了水箱的热阻。也就是说,从5.9°C(42.62°F)到12.9°C(55.22°F),不超过15°C(59°F),这是其生存能力的推荐值。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Physical Modeling for Thermal Proposal Validation (TES) in Lima Offices with Air Conditioning
Climate change adaptation measures are demanding the use of technologies that promote energy saving. The search for thermal comfort has encouraged the use of technologies such as the TES tank (Tank Energy System). This article presents the validation of the results obtained in the CFD simulation of a TES tank, through an evaluation of the model at 1/25 scale, to corroborate the thermal resistance of the tank whit thermal conductivity of 1.63 W/m. °K and expanded polystyrene with thermal conductivity of 0.036 W/m°K for both the walls and the lid. The circular TES tank designed guarantees, in addition to adequate thermal resistance, impermeability and durability so that it can function correctly during temperature measurements. In the model, the thermal resistance of the tank was corroborated, by obtaining an increase in the temperature of the temperature of the water in 8 hours of 7 °C (12.6 °F). That is, from 5.9 °C (42.62 °F) to 12.9 °C (55.22 °F), which does not exceed 15 °C (59 °F), the recommended value for its viability.
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