Wildfire Delineation
Wildfire Delineation from Satellite Imagery

A wildfire, which is also referred to as a forest fire, bushfire, or vegetation fire, is an uncontrolled fire that takes place within a forest, grassland, shrubland, or any other rural area. The fire can be started by various natural causes, including lightning strikes, and is sometimes exacerbated by arid climatic conditions, high winds, hot weather, drought, and the accumulation of combustible vegetation. Wildfires, especially large-scale ones that move at a fast speed, are capable of causing significant damage to ecosystems, wildlife habitat areas, natural resources, infrastructure, property, and people.
The rising number and scale of wildfires make it necessary to detect them at their early stages, to monitor their spread, and to create maps of their locations. This helps in making quicker and better decisions by disaster managers and emergency teams, and allows government bodies and environmental organizations to respond appropriately. It provides geospatial data that enables quick actions and contributes to minimizing the possible impacts of changing fire conditions.
Identification of wildfire-impacted or burned areas plays an integral role in risk assessment, disaster response, evacuation, damage assessment, environmental analysis, and efficient allocation of resources. This deep learning model can help save time and energy through automatic identification and segmentation of areas affected by wildfire activity on aerial or satellite imagery. The spatial data generated by this tool will help assess the environmental impact of wildfires, including damage to land and infrastructure.
Segmentation of wildfire areas can also aid post-disaster studies on ecology and environmental monitoring. Information obtained from imagery data can help in analyzing the environmental impact of fire in terms of assessing burn severity, assessing habitat loss, monitoring vegetation recovery, and other aspects of ecological impact.
In addition to fire detection, the presented model can find its usage in other geospatial segmentation of disaster-related information. It is possible to use this model to detect and segment lava flows that occur due to volcanic eruptions; it will provide essential information about the spatial distribution of lava flow and can be helpful in assessing the risks of further spreading.
Thus, with the help of the presented model, it becomes possible to implement automated segmentation of areas affected by wildfires or lava flows and further monitor such disasters. The implementation of artificial intelligence, deep learning, satellite imagery, aerial imagery, and remote sensing can allow processing large amounts of geospatial information and transforming it into useful information.
