Utilizing OpenRemote as an Application Server in Developing the Air Quality Monitoring System in University

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Mas Aly Afandi
Delfin Daffa Pebrian
Salsa Diniarti
Melinda Br Ginting
Azzis Hervian Delphiano

Abstract

This research develops an IoT-based air quality monitoring system at a university, utilizing LoRaWAN technology and the OpenRemote platform to address urban air pollution, which poses significant health risks. The system employs MQ-7 and MQ-135 sensors to detect carbon monoxide (CO) and carbon dioxide (CO₂) levels. Results showed marked differences in pollution levels between two locations: the DSP Building recorded peak CO levels of 16 ppm and CO₂ levels of 550 ppm, categorized as "unhealthy," while the Rectorate Building maintained stable concentrations in the "Good" category. Communication parameters for uplink and downlink were analyzed, revealing variable signal strengths across buildings. The DSP Building exhibited an uplink RSSI of -71.13 dBm and an SNR of 8.72 dB, and a downlink RSSI of -78.13 dBm with an SNR of 3.33 dB, both of which were significantly better than those of other buildings. The integration of OpenRemote enhances data management and visualization capabilities, allowing for real-time monitoring and historical analysis. The system provides a dashboard interface for easy access to air quality data and supports strategic recommendations to mitigate pollution impacts. Overall, this research highlights the effectiveness of IoT technology in environmental monitoring, demonstrating its potential to improve air quality management in university environments.

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References

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