Insights from using a Wearable Air Quality Sensor with Solar Energy Harvesting Features

Air pollution is a growing global health concern, yet traditional monitoring infrastructure fails to assess individual exposure. This project presents a wearable air quality monitoring (AQM) system that provides real-time personal exposure insights. The system integrates the SEN-55 sensor (PM2.5, PM10, VOC) and SCD-41 sensor (CO 2 , temperature, humidity), transmitting data via Bluetooth Low Energy to a mobile application. The application offers air quality index (AQI) interpretation, detailed sensor data, and spatiotemporal tracking to evaluate personal exposure levels. To address the limitation of battery life in wearable devices, the system incorporates a battery-aware algorithm and solar energy harvesting, extending operational runtime. Sensor accuracy tests confirmed reliable performance for air quality measurements. Deployment campaigns revealed notable differences between indoor and outdoor air quality. Outdoor environments, particularly during commuting, showed elevated levels of particulate matter and VOCs, while indoor spaces with good ventilation and air conditioning had lower pollutant levels. However, CO 2 concentrations were higher in poorly ventilated indoor areas. These results demonstrate the system’s effectiveness in capturing real-time environmental changes and providing actionable insights, enabling users to better manage their exposure to harmful pollutants.

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Publication Details

Journal
E3S Web of Conferences
Published
2025-01-01
DOI
https://doi.org/10.1051/e3sconf/202563403001
Primary Topic
Air Quality Monitoring and Forecasting
Type
article
Field-Weighted Citation Impact
0.00
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article

Insights from using a Wearable Air Quality Sensor with Solar Energy Harvesting Features

R. de los Reyes, Jaybie De Guzman, John Richard E. Hizon, Marc Rosales et al.
1 links
E3S Web of Conferences
Air Quality Monitoring and Forecasting
article

Insights from using a Wearable Air Quality Sensor with Solar Energy Harvesting Features

R. de los Reyes, Jaybie De Guzman, John Richard E. Hizon, Marc Rosales, Angelo Jay Baguio
article en

Abstract

Air pollution is a growing global health concern, yet traditional monitoring infrastructure fails to assess individual exposure. This project presents a wearable air quality monitoring (AQM) system that provides real-time personal exposure insights. The system integrates the SEN-55 sensor (PM2.5, PM10, VOC) and SCD-41 sensor (CO 2 , temperature, humidity), transmitting data via Bluetooth Low Energy to a mobile application. The application offers air quality index (AQI) interpretation, detailed sensor data, and spatiotemporal tracking to evaluate personal exposure levels. To address the limitation of battery life in wearable devices, the system incorporates a battery-aware algorithm and solar energy harvesting, extending operational runtime. Sensor accuracy tests confirmed reliable performance for air quality measurements. Deployment campaigns revealed notable differences between indoor and outdoor air quality. Outdoor environments, particularly during commuting, showed elevated levels of particulate matter and VOCs, while indoor spaces with good ventilation and air conditioning had lower pollutant levels. However, CO 2 concentrations were higher in poorly ventilated indoor areas. These results demonstrate the system’s effectiveness in capturing real-time environmental changes and providing actionable insights, enabling users to better manage their exposure to harmful pollutants.

E3S Web of ConferencesVol. 634
University of the Philippines Diliman (PH)
Industry, innovation and infrastructure
Openalex Percentile: Top 87%
Air Quality Monitoring and Forecasting
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Insights from using a Wearable Air Quality Sensor with Solar Energy Harvesting Features — R. de los Reyes, Jaybie De Guzman, et al. · E3S Web of Conferences (2025) | TGRS Research Map | TGRS