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Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Human Health Effects Remediation Sign in to save

Consequences of stratospheric ozone depletion and climate change on the use of materials

Photochemical & Photobiological Sciences 2014 41 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 40 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Krishna K. Pandey Ayako Torikai, Ayako Torikai, Krishna K. Pandey Halim Hamid Redhwi, Anthony L. Andrady, Krishna K. Pandey Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Peter Gies, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Peter Gies, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Anthony L. Andrady, Krishna K. Pandey Krishna K. Pandey Krishna K. Pandey Krishna K. Pandey Krishna K. Pandey Krishna K. Pandey

Summary

This review examines how stratospheric ozone depletion and associated increases in ground-level UV-B radiation accelerate the weathering and degradation of wood and plastic building materials used in outdoor construction. Researchers find that further ozone depletion would meaningfully reduce the service life of exterior materials, with plastic products particularly vulnerable to UV-induced chain scission and embrittlement.

Materials used in the exterior of buildings and in construction are routinely exposed to solar UV radiation. Especially in the case of wood and plastic building materials, the service life is determined by their weather-induced deterioration. Any further increase in ground-level solar UV radiation, UV-B radiation in particular, will therefore reduce the outdoor service life of these products. Any increase in ambient temperature due to climate change will also have the same effect. However, the existing light-stabilizer technologies are likely to be able to mitigate the additional damaging effects due to increased solar UV radiation and maintain the outdoor lifetimes of these materials at the present levels. These mitigation choices invariably increase the lifetime cost of these products. A reliable estimate of what this additional cost might be for different products is not available at the present time. Personal exposure to UV radiation is reduced both by clothing fabrics and glass windows used in buildings and automobiles. This assessment describes how the recent technical advances in degradation and stabilization techniques impact the lifetimes of plastics and wood products routinely exposed to solar UV radiation and the protection to humans offered by materials against solar UV radiation.

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