Skip to content

Latest commit

 

History

History
17 lines (9 loc) · 2.09 KB

README.md

File metadata and controls

17 lines (9 loc) · 2.09 KB

Chapter 6: Spatiotemporal attention ConvLSTM networks for predicting and physically interpreting wildfire spread

Predicting Wildfire Spread Using Deep Learning: Unveiling Spatiotemporal Dynamics

Introduction

Wildfires represent billion-dollar disasters that exhibit intricate climate and vegetation dynamics. Particularly in the Western United States and various other countries, they have become a major concern in recent years. Accurately predicting the spread of wildfires over time from their initial detection is crucial for facilitating effective response and containment strategies. This chapter addresses the modeling challenges associated with wildfires and introduces deep learning approaches to enhance the understanding of the spatiotemporal interrelationships between a fire's space-time evolution and underlying biophysical factors.

Using AI

To capture the complex dynamics of fire progression in space and time, we present two spatiotemporal attention-based sequence-sequence modeling frameworks. These frameworks utilize Convolutional Long Short-Term Memory (ConvLSTM) networks. By leveraging a high spatiotemporal resolution wildfire spread dataset generated through a semiempirical percolation model, which mimics the biophysical process of wildfire spread, we evaluate the effectiveness of these approaches. Furthermore, we explore model interpretability by employing techniques such as Integrated Gradients and attention maps to identify the importance of spatiotemporal biophysical features in wildfire spread.

How AI performs

The results demonstrate the superiority of attention-based models in predicting fire-front movement and uncovering meaningful physical interpretations relevant to fire ecology. This chapter offers valuable insights into the effectiveness of attention mechanisms for capturing the intricate spatiotemporal dynamics of wildfire spread. Such insights can significantly contribute to ongoing fire management efforts, aiding in the development of proactive strategies to mitigate the devastating impact of wildfires.

No code is publicly available for this chapter yet