Data-Driven Modeling of Wildfire Spread with Stochastic Cellular Automata and Latent Spatio-Temporal Dynamics

06/05/2023
by   Nicholas Grieshop, et al.
0

We propose a Bayesian stochastic cellular automata modeling approach to model the spread of wildfires with uncertainty quantification. The model considers a dynamic neighborhood structure that allows neighbor states to inform transition probabilities in a multistate categorical model. Additional spatial information is captured by the use of a temporally evolving latent spatio-temporal dynamic process linked to the original spatial domain by spatial basis functions. The Bayesian construction allows for uncertainty quantification associated with each of the predicted fire states. The approach is applied to a heavily instrumented controlled burn.

READ FULL TEXT

page 8

page 15

page 16

page 17

page 22

research
06/07/2023

Bayesian Ensemble Echo State Networks for Enhancing Binary Stochastic Cellular Automata

Binary spatio-temporal data are common in many application areas. Such d...
research
02/09/2023

Using Echo State Networks to Inform Physical Models for Fire Front Propagation

Wildfires can be devastating, causing significant damage to property, ec...
research
10/26/2022

A Bayesian Spatio-Temporal Level Set Dynamic Model and Application to Fire Front Propagation

Intense wildfires impact nature, humans, and society, causing catastroph...
research
05/15/2021

Spatial Statistics

Spatial statistics is an area of study devoted to the statistical analys...
research
07/26/2017

Data-Driven Analysis and Common Proper Orthogonal Decomposition (CPOD)-Based Spatio-Temporal Emulator for Design Exploration

The present study proposes a data-driven framework trained with high-fid...
research
06/19/2023

Practical Equivariances via Relational Conditional Neural Processes

Conditional Neural Processes (CNPs) are a class of metalearning models p...

Please sign up or login with your details

Forgot password? Click here to reset