Vijayan Dhanasingh Sivalinga, Sivasuriyan Arvindan, Patchamuthu Parthiban, Jayaseelan Revathy
Department of Civil Engineering, Aarupadai Veedu Institute of Technology, Vinayaka Mission's Research Foundation (VMRF), Chennai, India.
Aarupadai Veedu Institute of Technology, Vinayaka Missions Research Foundation (VMRF), Paiyanoor, Chennai, 603104, India.
Environ Sci Pollut Res Int. 2022 Jul;29(34):51130-51142. doi: 10.1007/s11356-021-17602-3. Epub 2021 Nov 30.
Thermal performance of civil structure has turned out to be a demanding application in civil engineering and architecture. Thermal comfort (heating, ventilation, air cooling, airtightness, fabric performance) in buildings keeps the occupants energetic and positive. The study's objective is to maintain residents' comfort levels in their homes in the elimination of heat and humidity. Therefore, findings indicate that it is necessary to design a structure according to thermal comfort, decrease in carbon emission, air flows, electricity control, fuel, etc. This article provides detailed information about civil engineering structures' excellent and bad thermal performance, including buildings like residential, commercial, and educational institutions. This article provides an incisive assessment of the thermal performance, thermal comfort, thermal resistance, and thermal sensation of residential, commercial, and educational structures. The article contains in-depth information as well as case studies on how to improve indoor air quality and energy efficiency. Additionally, the topic of building energy consumption is discussed. The use of thermal performance of various building in various climatic circumstances has been discussed extensively in the works provided. A building's thermal performance determines how quickly heat enters the building and how quickly it is warmed. Heat travels faster through a poorly performing building, and the interior temperature is ultimately dependent on external temperature and climate changes. The thermal performance of different types of buildings such as residential, commercial, and educational buildings was analyzed in this study.
土木结构的热性能已成为土木工程和建筑领域一项具有挑战性的应用。建筑物的热舒适性(供暖、通风、空气冷却、气密性、围护结构性能)能让居住者保持活力和积极向上。该研究的目的是在消除热量和湿气的情况下,维持居民在家中的舒适水平。因此,研究结果表明,有必要根据热舒适性、碳排放减少、气流、电力控制、燃料等因素来设计建筑结构。本文提供了有关土木工程项目热性能优劣的详细信息,包括住宅、商业和教育机构等建筑。本文对住宅、商业和教育建筑的热性能、热舒适性、热阻和热感觉进行了深刻评估。文章包含了关于如何改善室内空气质量和能源效率的深入信息以及案例研究。此外,还讨论了建筑能耗的话题。在所提供的文献中,广泛探讨了各种建筑在不同气候条件下的热性能应用。建筑物的热性能决定了热量进入建筑物的速度以及升温的速度。在性能不佳的建筑中,热量传播得更快,而室内温度最终取决于外部温度和气候变化。本研究分析了住宅、商业和教育建筑等不同类型建筑的热性能。