Probabilistic Wildfire Spread Prediction Using an Autoregressive Conditional Generative Adversarial Network

TL;DR

This paper introduces an autoregressive conditional GAN model for probabilistic wildfire spread prediction, improving accuracy and capturing complex dynamics better than traditional deep learning methods, aiding real-time decision-making.

Contribution

The study presents a novel autoregressive CGAN framework that enhances wildfire prediction accuracy and interpretability by modeling sequential fire spread dynamics.

Findings

Outperforms conventional deep learning models in accuracy

Better boundary delineation of fire perimeters

Captures nonlinearity and uncertainty of wildfire spread

Abstract

Climate change has intensified the frequency and severity of wildfires, making rapid and accurate prediction of fire spread essential for effective mitigation and response. Physics-based simulators such as FARSITE offer high-fidelity predictions but are computationally intensive, limiting their applicability in real-time decision-making, while existing deep learning models often yield overly smooth predictions that fail to capture the complex, nonlinear dynamics of wildfire propagation. This study proposes an autoregressive conditional generative adversarial network (CGAN) for probabilistic wildfire spread prediction. By formulating the prediction task as an autoregressive problem, the model learns sequential state transitions, ensuring long-term prediction stability. Experimental results demonstrate that the proposed CGAN-based model outperforms conventional deep learning models in both overall predictive accuracy and boundary delineation of fire perimeters. These results demonstrate that adversarial learning allows the model to capture the strong nonlinearity and uncertainty of wildfire spread, instead of simply fitting the pixel average. Furthermore, the autoregressive framework facilitates systematic temporal forecasting of wildfire evolution. The proposed CGAN-based autoregressive framework enhances both the accuracy and physical interpretability of wildfire spread prediction, offering a promising foundation for time-sensitive response and evacuation planning.