Dissertação de Mestrado

FireTools: Integrated Tools for Enhanced Wildfire Detection and Segmentation

Filipe Martins Tendeiro2025

Informações chave

Autores:

Filipe Martins Tendeiro (Filipe Martins Tendeiro)

Orientadores:

Alexandre José Malheiro Bernardino (Alexandre José Malheiro Bernardino); Nuno Alexandre Antunes Martins Pessanha Santos (Nuno Alexandre Antunes Martins Pessanha Santos)

Publicado em

28 de novembro de 2025

Resumo

Wildfires represent a serious threat to human lives, ecosystems, and infrastructure, particularly in Portugal, where severe fire events have become increasingly frequent. Current wildfire detection approaches rely heavily on manual video analysis, a process that is slow and prone to error. Although automated computer vision methods show strong potential, they remain limited by scarce training data, class imbalance, and challenges in detecting small or partially obscured fires. This thesis introduces FireTools, a modular system for wildfire detection and segmentation using RGB. The system comprises two main components: FireDetect, which enables fast detection of fire and smoke through bounding box object detection, and FireSeg, which performs pixel-level segmentation. These components are integrated into a web-based platform that supports GPU acceleration, video upload, and synchronized visualization of detection and segmentation results using temporal timelines, enabling efficient use in real-world firefighting and emergency response scenarios. The system is validated through three experimental studies. The first evaluates the impact of dataset scaling and data diversity on detection performance. The second compares YOLO and Faster R-CNN, analyzing trade-offs between inference speed and detection accuracy. The third assesses segmentation architectures, including DeepLabv3+ and EfficientSeg. Results show that dataset diversity contributes more to detection performance than dataset size alone. YOLO achieves 5.51 times faster inference, while Faster R-CNN provides higher detection accuracy. For segmentation, a hybrid DeepLabv3+ YOLO Smoke approach achieves the best overall performance, improving smoke IoU by 10.8%.

Detalhes da publicação

Autores da comunidade :

Domínio Científico (FOS)

electrical-engineering-electronic-engineering-information-engineering - Engenharia Eletrotécnica, Eletrónica e Informática

Idioma da publicação (código ISO)

eng - Inglês

Acesso à publicação:

Acesso Embargado

Data do fim do embargo:

15 de outubro de 2026

Nome da instituição

Instituto Superior Técnico