This paper illustrates how eco-friendly structures combined with resource-efficient approaches elevate interior air quality (IAQ), the broader interior environmental quality (IEQ), and overall human vitality. The increasing focus on eco-responsible lifestyles has spurred the development of environmentally sound construction practices, which are recognized to conserve power and lower expenses over time. An organized evaluation of 128 refereed articles was undertaken, encompassing investigations into structural planning, component choices, air surveillance innovations, and wellness consequences. Affordable detection units like the Dylos, Foobot, and AirVisual Pro models, alongside linkage protocols including WiFi, LoRa, Bluetooth, and visible light communication (VLC), were evaluated for their operational effectiveness, shortcomings, and applicability in ongoing IAQ supervision. Primary hurdles involve gradual sensor inaccuracies, routine servicing needs, reactions to the surrounding variables, and location-specific compliance restrictions. Sophisticated adjustment frameworks and merging techniques are delved into for improving the precision of information and the equipment's sustainability. The analysis underscores the necessity for an integrated, vitality-centered methodology in eco-construction.
Citation: Anshul Jain, Hridayesh Varma. Fusing wellness and innovation within eco-friendly structures: An exhaustive critique on tracking and enhancing interior air conditions[J]. Urban Resilience and Sustainability, 2025, 3(4): 306-327. doi: 10.3934/urs.2025016
This paper illustrates how eco-friendly structures combined with resource-efficient approaches elevate interior air quality (IAQ), the broader interior environmental quality (IEQ), and overall human vitality. The increasing focus on eco-responsible lifestyles has spurred the development of environmentally sound construction practices, which are recognized to conserve power and lower expenses over time. An organized evaluation of 128 refereed articles was undertaken, encompassing investigations into structural planning, component choices, air surveillance innovations, and wellness consequences. Affordable detection units like the Dylos, Foobot, and AirVisual Pro models, alongside linkage protocols including WiFi, LoRa, Bluetooth, and visible light communication (VLC), were evaluated for their operational effectiveness, shortcomings, and applicability in ongoing IAQ supervision. Primary hurdles involve gradual sensor inaccuracies, routine servicing needs, reactions to the surrounding variables, and location-specific compliance restrictions. Sophisticated adjustment frameworks and merging techniques are delved into for improving the precision of information and the equipment's sustainability. The analysis underscores the necessity for an integrated, vitality-centered methodology in eco-construction.
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