Skip to main content

Dataset / Fire Science Physics Informed Machine Learning

Have a question about this item?

Item information. View source record on contributor's website.

Title
Fire Science Physics Informed Machine Learning
Contributor
Dwivedi, Brij
Gurvich, Sergey
Munipalli, Sirish
Perera, Camm
Subramanian, Solaimalai
Date Created and/or Issued
2023-01 to 2023-06
Contributing Institution
UC San Diego, Research Data Curation Program
Collection
Data Science & Engineering Master of Advanced Study (DSE MAS) Capstone Projects
Rights Information
Under copyright
Constraint(s) on Use: This work is protected by the U.S. Copyright Law (Title 17, U.S.C.). Use of this work beyond that allowed by "fair use" or any license applied to this work requires written permission of the copyright holder(s). Responsibility for obtaining permissions and any use and distribution of this work rests exclusively with the user and not the UC San Diego Library. Inquiries can be made to the UC San Diego Library program having custody of the work.
Use: This work is available from the UC San Diego Library. This digital copy of the work is intended to support research, teaching, and private study.
Rights Holder and Contact
Gurvich, Sergey; Perera, Camm; Dwivedi, Brij; Subramanian, Solaimalai; Munipalli, Sirish
Description
Next generation fire models provide the basis to understand fire physics in detail, leading the way for emulators to model potential fire behavior. This project uses data from hundreds of coupled fire-atmosphere simulations using the QUIC-Fire model to develop a reduced-order emulator. Such an emulator can be used to predict the wildfire spread, which can help the fire agencies to take necessary steps to reduce the damage. Additionally, the predictions can be utilized to mitigate the risk of controlled fires escalating into wildfires. The project encompasses several objectives: developing a system to evaluate the performance of deep learning models through benchmarking, conducting the benchmarking process, and leveraging the obtained results to enhance the accuracy of the models. Our product utilizes cloud infrastructure to provide a scalable and robust solution for managing the entire lifecycle of machine learning. This infrastructure enabled us to conduct numerous experiments, analyze results, and optimize various deep learning models, including U_Net, TF_Net,PhyDNet, and ConvLSTM.
Research Data Curation Program, UC San Diego, La Jolla, 92093-0175 (https://lib.ucsd.edu/rdcp)
Gurvich, Sergey; Perera, Camm; Dwivedi, Brij; Subramanian, Solaimalai; Munipalli, Sirish; Altintas De Callafon, Ilkay; Perez, Ismael; Yu, Rose (2023). Fire Science Physics Informed Machine Learning. In Data Science & Engineering Master of Advanced Study (DSE MAS) Capstone Projects. UC San Diego Library Digital Collections. https://doi.org/10.6075/J0FX79NP
Type
dataset
Identifier
ark:/20775/bb9362558h
Language
English
Subject
Machine learning
Physics-guided machine learning
Wildfire spread prediction
Physics-informed machine learning
Capstone projects
Deep learning
Neural networks (Computer science)
Data Science & Engineering Master of Advanced Study (DSE MAS)
Kubernetes
Physics guided machine learning (PGML)
DSE MAS - 2023 Cohort

About the collections in Calisphere

Learn more about the collections in Calisphere. View our statement on digital primary resources.

Copyright, permissions, and use

If you're wondering about permissions and what you can do with this item, a good starting point is the "rights information" on this page. See our terms of use for more tips.

Share your story

Has Calisphere helped you advance your research, complete a project, or find something meaningful? We'd love to hear about it; please send us a message.

Explore related content on Calisphere: