TY - GEN
T1 - An Efficient Infravision Thermal-Infrared Human Detection System for Low-Visibility Surveillance
AU - Pantha, Kailash
AU - Rimal, Biman
AU - Shrestha, Kalyan Kumar
AU - Chieng, David
AU - Koiri, Jeevan
AU - Yonghang, Ashma
AU - Gupt, Aniket Kumar
AU - Khadka, Anamol
N1 - Publisher Copyright:
© 2026 IEEE.
PY - 2026
Y1 - 2026
N2 - Current detection systems struggle to provide real-time, accurate, and location-aware human detection in environments where illumination is poor or visibility is obstructed. Thermal imaging technology has become one of the prominent imaging technologies to capture and visualize the thermal radiation emitted from the body of living beings irrespective of visibility conditions. This work discusses the design and implementation of a low-cost, small and portable thermal imaging based human detection system to assist in low visibility environments such as wildlife conservation areas, harsh search and rescue zones, etc. The system integrates Raspberry Pi 4B with FLIR Lepton 3.5 thermal camera and Neo-6M GPS module, powered by YOLOV3 model to perform human detection on captured images. Our newly trained YOLOv3 model demonstrated good performance, achieving an Average Precision at IoU of 0.5 (AP50) of 0.9404 and a recall of 0.6974. This small and portable system can be easily mounted on a UAV or UGV to support a wide range of crucial and challenging surveillance tasks such as anti-poaching. A Flutter-based mobile application is also developed for real time alert notification with GPS coordinates and images captured, enabling rapid and informed decision making. Hence, the proposed holistic approach of efficient infravision human detection based on thermal imaging significantly enhances security and is directly applicable to crucial domains including anti-poaching, search and rescue and disaster management.
AB - Current detection systems struggle to provide real-time, accurate, and location-aware human detection in environments where illumination is poor or visibility is obstructed. Thermal imaging technology has become one of the prominent imaging technologies to capture and visualize the thermal radiation emitted from the body of living beings irrespective of visibility conditions. This work discusses the design and implementation of a low-cost, small and portable thermal imaging based human detection system to assist in low visibility environments such as wildlife conservation areas, harsh search and rescue zones, etc. The system integrates Raspberry Pi 4B with FLIR Lepton 3.5 thermal camera and Neo-6M GPS module, powered by YOLOV3 model to perform human detection on captured images. Our newly trained YOLOv3 model demonstrated good performance, achieving an Average Precision at IoU of 0.5 (AP50) of 0.9404 and a recall of 0.6974. This small and portable system can be easily mounted on a UAV or UGV to support a wide range of crucial and challenging surveillance tasks such as anti-poaching. A Flutter-based mobile application is also developed for real time alert notification with GPS coordinates and images captured, enabling rapid and informed decision making. Hence, the proposed holistic approach of efficient infravision human detection based on thermal imaging significantly enhances security and is directly applicable to crucial domains including anti-poaching, search and rescue and disaster management.
KW - Deep Learning
KW - GPS Coordinates
KW - Infravision
KW - Object Detection
KW - Real-Time Surveillance
KW - Thermal Infrared (TIR) Imaging
KW - YOLO (You Only Look Once)
UR - https://www.scopus.com/pages/publications/105038343896
U2 - 10.1109/ICTP67998.2026.11485207
DO - 10.1109/ICTP67998.2026.11485207
M3 - Conference contribution
AN - SCOPUS:105038343896
T3 - 2026 International Conference on ICT and Photonics, ICTP 2026: Advancing ICT Photonics for a Smarter, Sustainable World - Proceedings
BT - 2026 International Conference on ICT and Photonics, ICTP 2026
PB - Institute of Electrical and Electronics Engineers Inc.
T2 - 2026 International Conference on ICT and Photonics, ICTP 2026
Y2 - 11 February 2026 through 14 February 2026
ER -