Comparison of variation in the building shapes and the window-to-wall ratio by concerning energy consumption for thermal comfort and lighting

Andre Kurniawan, Remon Lapisa, Muhammad Yasep Setiawan, Bulkia Rahim, Budi Syahri
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Abstract

: Currently, an influential factor contributing to thermal comfort home design is the incorporation of energy-efficient passive design principles. It is exemplified by strategic window placement, the utilization of thermally efficient materials, and effective insulation. It exerts a substantial influence on thermal comfort and electrical consumption. This paper examines the effect of building shape and window-to-wall ratio (WWR) on thermal comfort and lighting energy consumption in residential houses in tropical climates. The lighting electricity and the adaptive thermal discomfort hours of 30 different models of houses were obtained using OpenStudio and EnergyPlus simulation software. The models were developed for three building shapes (square, rectangle, and L-shaped), and each model was varied in five models of window-to-wall ratios. Results indicate that the square-shaped model with a WWR of 10% will provide the lowest energy consumption in thermal comfort had 420.45 kWh/m2. On the other side, the lowest energy consumption in lighting is the square-shaped model with a WWR of 50% had 507.95 kWh/m2. Thus, the recommendation is to use the square-shaped house that represents the most efficient air conditioning system while the other WWR set also produce the most natural luminaire. It is because the percentage of WWR increased will result in more energy consumption in air cooling but slightly lower energy consumption in lighting. However, when considering aesthetics and freshness, the WWR of the 50% model will offer a better deal.
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通过热舒适和照明能耗比较建筑外形和窗墙比的变化
:目前,促进热舒适住宅设计的一个有影响力的因素是采用节能的被动式设计原则。具体表现在窗户的合理布置、热效率高的材料的使用以及有效的隔热。它对热舒适度和电力消耗有很大影响。本文研究了建筑外形和窗墙比对热带气候下住宅热舒适度和照明能耗的影响。使用 OpenStudio 和 EnergyPlus 模拟软件获得了 30 种不同住宅模型的照明耗电量和自适应热舒适度小时数。这些模型是针对三种建筑形状(正方形、长方形和 L 形)开发的,每个模型都有五种不同的窗墙比。结果表明,WWR 为 10% 的正方形模型的热舒适能耗最低,为 420.45 kWh/m2。另一方面,WWR 为 50%的方形模型在照明方面的能耗最低,为 507.95 kWh/m2。因此,建议使用代表最高效空调系统的方形房屋,而其他 WWR 设置也能产生最自然的照明。这是因为增加 WWR 的百分比会导致更多的空调能耗,但照明能耗略低。不过,如果考虑到美观和新鲜度,50%WWR 模型的效果会更好。
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Experimental study of gas adsorption using high-performance activated carbon: Propane adsorption isotherm A comparative study utilizing hybridized ant colony optimization algorithms for solving dynamic capacity of vehicle routing problems in waste collection system Comparison of variation in the building shapes and the window-to-wall ratio by concerning energy consumption for thermal comfort and lighting
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