Good design strategies can help reduce energy consumption and ensure proper natural lighting. In the process of building design, this paper uses orthogonal analysis to identify design elements that correspond optimally to light levels. The visible light transmission ratio, horizontal sunshade baffle depth, sunshade angle, horizontal sunshade height from the window, and heat transfer coefficient were selected as influencing factors. The design elements corresponding to the lowest energy consumption were found. The test points are representative, and the number of tests is small.
Mousavi MotlaghSFSohaniADjavad SaghafiMSayyaadiHNastasiB. Acquiring the foremost window allocation strategy to achieve the best trade-off among energy, environmental, and comfort criteria in a building. Energies.2021; 14(13): 3962.
2.
GanVJLLuoHTanYKwokHL. BIM and data-driven predictive analysis of optimum thermal comfort for indoor environment. Sensors.2021; 21(13): 4401.
3.
SilenziFPriaroneAFossaM. Hourly simulations of an hospital building for assessing the thermal demand and the best retrofit strategies for consumption reduction. Therm. Sci. Eng. Prog.2018; 6: 388-97.
4.
MohelníkováJNovotnýMMocováP. Evaluation of school building energy performance and classroom indoor environment. Energies.2020; 13(10): 2489.
5.
WangDMengJZhangT. Post-evaluation on energy saving reconstruction for hotel buildings, a case study in Jiangsu, China. Energy Build.2021; 251: 111316.
6.
AlvaMVlachokostasAMadamopoulosN. Experimental demonstration and performance evaluation of a complex fenestration system for daylighting and thermal harvesting. Sol. Energy.2020; 197: 385-95.
7.
AlwetaishiMBenjeddouO. Impact of window to wall ratio on energy loads in hot regions: A study of building energy performance. Energies.2021; 14(4): 1080.
8.
DudzińskaA. Efficiency of solar shading devices to improve thermal comfort in a sports hall. Energies.2021; 14(12): 3535.
9.
GomesMGSantosAJCalhauM. Experimental study on the impact of double tilted Venetian blinds on indoor daylight conditions. Build. Environ.2022; 225: 109675.
10.
FořtJ, et al. Energy efficiency of novel interior surface layer with improved thermal characteristics and its effect on hygrothermal performance of contemporary building envelopes. Energies.2020; 13(8): 2012.
11.
NematchouaMKNishimweAMRReiterS. Towards nearly zero-energy residential neighbourhoods in the European Union: A case study. Renew. Sust. Energ. Rev.2021; 135: 110198.
12.
KhorramMFariaPAbrishambafOValeZ. Consumption optimization in an office building considering flexible loads and user comfort. Sensors.2020; 20(3): 593.
13.
SontaADoughertyTRJainRK. Data-driven optimization of building layouts for energy efficiency. Energy Build.2021; 238: 110815.
14.
GanWCaoYJiangWLiLLiX. Energy-saving design of building envelope based on multiparameter optimization. Math. Probl. Eng.2019; 2019: 1-11.
15.
NicolettiFCarpinoCCucumoMAArcuriN. The control of venetian blinds: a solution for reduction of energy consumption preserving visual comfort. Energies.2020; 13(7): 1731.
16.
CharlesAMarefWOuellet-PlamondonCM. Case study of the upgrade of an existing office building for low energy consumption and low carbon emissions. Energy Build.2019; 183: 151-60.
17.
HuJYuX. Thermo and light-responsive building envelope: Energy analysis under different climate conditions. Sol. Energy.2019; 193: 866-77.
18.
LanduytLDe TurckSLavergeJSteemanMVan Den BosscheN. Balancing environmental impact, energy use and thermal comfort: Optimizing insulation levels for The Mobble with standard HVAC and personal comfort systems. Build. Environ.2021; 206: 108307.
