Monitoring PM10 levels in primary schools reveals crucial indoor air quality insights, suggesting intervention needs.
The health of children may be adversely influenced by the air quality in schools because they are more sensitive to indoor air pollutants. PM₁₀, which consists of tiny particles that are 10 µm in size or smaller, carries notable dangers associated with breathing issues and the escalation of asthma. This research marks the inaugural continuous monitoring of indoor air quality (IAQ) in Moroccan primary schools, which was conducted in Kenitra from May 27 to September 22, 2023. Indoor monitoring occurred during unoccupied times (May-July), while outdoor data collection was continued until late September. We investigated the PM₁₀ concentrations while considering temperature and humidity using IoT sensor technology. Results from the investigation indicated that the PM₁₀ levels found indoors were moderate, with study-long average concentrations of 15.3 µg/m³ at the urban residential school (Site 1) and 12.3 µg/m³ at the school on a heavy vehicle road near the Sebou River (Site 2). The levels of PM₁₀ outdoors fluctuated significantly, as they were shaped by traffic flow and weather variations. Diurnal patterns revealed morning peaks and afternoon decreases due to natural processes. An exhaustive study was executed, concentrating on three machine learning frameworks-Random Forest, CatBoost, and XGBoost-to reveal the undisclosed indoor PM₁₀ levels. The XGBoost framework demonstrated significant predictive accuracy for hourly PM₁₀ (R² = 0.77; MAE = 2.08 µg/m³; RMSE = 2.82 µg/m³), highlighting the efficacy of ensemble algorithms in environmental forecasting. The machine learning framework enhances confidence in the accurate representation of indoor air quality and provides a robust basis for sustaining pollution oversight. The investigation supplies a fundamental PM₁₀ dataset for Morocco, aiding future epidemiological examinations and specialized indoor air quality actions in academic settings. It emphasizes the necessity of combining cost-effective sensor networks with sophisticated machine learning to address indoor air quality challenges in developing urban environments.
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Lachhab et al. (2026) studied this question.
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