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@article{186927,
        author = {RG Nauman Khan and Mohd Kaif and Abdul Majid and Md Rakhshan Danish and Md. Zameer Khan},
        title = {Enhancing Building Lifespan Using Isolated Paint Technologies},
        journal = {International Journal of Innovative Research in Technology},
        year = {2025},
        volume = {12},
        number = {6},
        pages = {2930-2935},
        issn = {2349-6002},
        url = {https://ijirt.org/article?manuscript=186927},
        abstract = {The longevity of buildings is determined by a combination of structural integrity environmental exposure, and maintenance practices. One of the most critical factors contributing to premature deterioration is surface degradation caused by moisture ingress, ultraviolet (UV) radiation, thermal expansion, and pollutant deposition. Paint, as the first protective barrier, plays a central role in shielding building envelopes from these external stressors. Conventional paint systems often fail to provide long-term protection due to cracking, peeling, and reduced adhesion over time, particularly in areas with extreme climate variations. The concept of isolated paint technologies where a specialized coating system functions independently from the base structural surface—offers an innovative approach to reducing environmental damage, thereby extending the functional lifespan of buildings.
This study focuses on developing and testing isolated paint technologies that incorporate a multi- layered application system with an intermediate isolation layer. This isolation layer is designed to prevent direct stress transfer between the paint film and building substrate, mitigating cracking and delamination caused by thermal and moisture-related movement.
Laboratory tests were conducted to assess the thermal reflectivity, moisture resistance, adhesion strength, and UV degradation resistance of the coating system. Field trials were also implemented on different building materials, including concrete, brick masonry, and steel cladding, under varying climatic conditions. Performance data were compared with conventional paint systems over a fixed monitoring period to determine improvements in service life and maintenance intervals.
The research demonstrates that isolated paint technologies significantly enhance the durability of building surfaces, reduce maintenance costs, and delay the need for repainting. The isolation layer effectively minimizes micro-cracking, protects against weather-induced stresses, and preserves structural aesthetics over longer periods. These findings suggest that such coating systems could become a viable standard for both new construction and refurbishment projects, particularly in regions with high environmental stress exposure.},
        keywords = {building lifespan, isolated paint technology, coating durability, moisture resistance, thermal stress, UV protection I.},
        month = {November},
        }