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Analysis of Energy Demand of Building Envelope Modification Schemes in Hot-humid Areas

机译:热潮湿地区建筑包络改装方案的能源需求分析

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Since the Kyoto Protocol signed in December 1997, the majority of governments around the world have committed themselves to reducing the emission of the greenhouse gases. Thus, efficient use of energy and sustainability has become a key issue for the most energy policies. It is known that cooling energy demand of a building can play an important part in building total energy consumption. In addition, most cooling energy has been lost from building envelope. In hot-humid climate, heat insulation becomes a more important issue for its heat storage capacity of the envelope energy efficiency of the building. In this paper, building envelope modification schemes and the energy consumption simulation on a typical building model are constructed to show the importance of thermal mass in hot-humid areas, using TRNSYS, an energy consumption-simulation software. Eleven cases are examined throughout the simulation process and the basic condition of the building and ten other cases of energy efficient envelope design are studied. The results show that the energy saving effect of thermal insulation of walls is not remarkable in Hot Summer, Warm Winter Region; however, energy efficient window design seems the most effective method by improving the window material and shading devices so as to prevent the heat transfer from outdoor to indoor. The energy saving rate of window is up to 33.89%.
机译:自1997年12月签署的京都议定书以来,世界各地各国政府致力于减少温室气体的排放。因此,能源和可持续性的有效利用已成为最能源政策的关键问题。众所周知,建筑物的冷却能量需求可以在构建总能耗中发挥重要组成部分。此外,大多数冷却能量已从建筑信封中丢失。在热潮湿的气候中,隔热成为其建筑物包络能效的储热容量的更重要问题。在本文中,构建了典型建筑模型上的建筑物包络修改方案和能耗仿真,以显示热湿度地区的热质量的重要性,使用TRNSYS,能量消耗仿真软件。研究了整个仿真过程中的11个案例,研究了建筑物的基本条件和10例能力效率包络设计。结果表明,墙壁隔热的节能效果在炎热的夏季,温暖的冬季地区不是显着的;然而,节能窗口设计似乎是通过改善窗材料和遮光装置来实现最有效的方法,以防止从室外传递到室外的热量。窗口的节能率高达33.89%。

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