Jul 2026· International Journal of Scientific Research in Engineering & Technology· 0 citations
Abstract
Mining remains one of the most hazardous industries due to the continuous exposure of workers to toxic gases, extreme environmental conditions, and health-related risks. This paper presents an IoT-enabled Smart Mining Helmet with Health and Safety Monitoring designed to improve worker protection through real-time environmental and physiological monitoring. The proposed system is built around the ESP32 microcontroller and integrates an MQ135 gas sensor for hazardous gas detection, an LM35/DS18B20 temperature sensor for temperature monitoring, a pulse sensor for heart rate measurement, and an IR eye-blink sensor for detecting worker fatigue or unconsciousness. The collected sensor data are processed by the ESP32 and transmitted wirelessly via Wi-Fi to a centralized monitoring system for continuous supervision. Whenever any monitored parameter exceeds predefined safety thresholds, the system immediately activates a buzzer and sends alert notifications, enabling rapid response to potential emergencies. Experimental evaluation demonstrates that the proposed system accurately monitors environmental and physiological conditions while providing reliable real-time alerts under both normal and hazardous scenarios. Compared with conventional mining safety systems, the proposed solution offers integrated health monitoring, continuous remote monitoring, and enhanced emergency response capabilities at a low implementation cost. The developed smart helmet provides an effective, scalable, and reliable solution for improving occupational safety in mining environments and can be extended to other hazardous industries such as construction, oil and gas, and chemical manufacturing.
Workers in the oil and gas industry, construction, and mining are routinely exposed to life-threatening hazards that existing safety systems are too slow and too limited to address. Traditional safety approaches rely on manual reporting and passive physical protection, leaving critical gaps in real-time detection and...
O. S. Ogboro, Kehinde O. Adegboye, Chi-ife D. Ileka et al.· SPE Nigeria Annual Internati...· 0 citations
Experimental results demonstrate that the proposed system effectively detects hazardous conditions, provides timely alerts, and supports remote supervision, thereby improving worker safety and operational efficiency.
Vijaya Sri Andiboyina, Sri Chandrika Tamada Devi, Deepa Sahasra Saragadam et al.· International Journal of Sci...· 0 citations
The proposed solution provides a low-cost, scalable, and efficient approach for improving industrial safety, minimizing manual intervention, and supporting predictive monitoring applications in smart manufacturing environments.
Manasa Yerramsetti, Ganesh Gantyada, Divya Matam et al.· International Journal of Sci...· 0 citations
Experimental results demonstrate the feasibility of deploying embedded ANNs on the ESP32 within an industrial IoT framework, which paves the way for further research and development of embedded AI models addressing broader environmental safety monitoring challenges.
Floods pose a significant hazard in India, causing severe damage to life,
property, and the economy. Existing flood monitoring systems often suffer from delayed response,
limited coverage, and high costs. The objective of this study is to design and implement a low-cost,
real-time IoT-based smart flood monitoring a...
N. S. Benni, S. S, A. G. et al.· International Journal of Sen...· 0 citations
In modern healthcare systems, continuous patient monitoring plays a vital role in ensuring safety and timely medical intervention. One of the common challenges in hospitals is the manual monitoring of intravenous (IV) saline bottles, which often leads to human error, delayed response, and potential health risks such as...
Abirami, V, Bakkiyalakshmi, S, Akalya, R et al.· Irish Interdisciplinary Jour...· 0 citations
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