Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems

Tornado damage estimation is important for providing insights into tornado studies and assisting rapid disaster response. However, it is challenging to precisely estimate tornado damage because of the large volumes of perishable data. This study presents data-driven approaches to tornado damage esti...

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Main Authors: Zhiang Chen, Melissa Wagner, Jnaneshwar Das, Robert K. Doe, Randall S. Cerveny
Format: Article
Language:English
Published: MDPI AG 2021-04-01
Series:Remote Sensing
Subjects:
Online Access:https://www.mdpi.com/2072-4292/13/9/1669
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author Zhiang Chen
Melissa Wagner
Jnaneshwar Das
Robert K. Doe
Randall S. Cerveny
author_facet Zhiang Chen
Melissa Wagner
Jnaneshwar Das
Robert K. Doe
Randall S. Cerveny
author_sort Zhiang Chen
collection DOAJ
description Tornado damage estimation is important for providing insights into tornado studies and assisting rapid disaster response. However, it is challenging to precisely estimate tornado damage because of the large volumes of perishable data. This study presents data-driven approaches to tornado damage estimation using imagery collected from Unpiloted Aerial Systems (UASs) following the 26 June 2018 Eureka Kansas tornado. High-resolution orthomosaics were generated from Structure from Motion (SfM). We applied deep neural networks (DNNs) on the orthomosaics to estimate tornado damage and assessed their performance in four scenarios: (1) object detection with binary categories, (2) object detection with multiple categories, (3) image classification with binary categories, and (4) image classification with multiple categories. Additionally, two types of tornado damage heatmaps were generated. By directly stitching the resulting image tiles from the DNN inference, we produced the first type of tornado damage heatmaps where damage estimates are accurately georeferenced. We also presented a Gaussian process (GP) regression model to build the second type of tornado damage heatmap (a spatially continuous tornado damage heatmap) by merging the first type of object detection and image classification heatmaps. The GP regression results were assessed with ground-truth annotations and National Weather Service (NWS) ground surveys. This detailed information can help NWS Weather Forecast Offices and emergency managers with their damage assessments and better inform disaster response and recovery.
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spelling doaj.art-d21648b5683943b8b1a0f8d37e5e84252023-11-21T17:05:10ZengMDPI AGRemote Sensing2072-42922021-04-01139166910.3390/rs13091669Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial SystemsZhiang Chen0Melissa Wagner1Jnaneshwar Das2Robert K. Doe3Randall S. Cerveny4School of Earth and Space Exploration, Arizona State University, Tempe, AZ 85281, USACooperative Institute for Mesoscale Meteorological Studies, The University of Oklahoma, Norman, OK 73019, USASchool of Earth and Space Exploration, Arizona State University, Tempe, AZ 85281, USASchool of Environmental Sciences, University of Liverpool, Liverpool L69 3BX, UKSchool of Geographical Sciences and Urban Planning, Arizona State University, Tempe, AZ 85281, USATornado damage estimation is important for providing insights into tornado studies and assisting rapid disaster response. However, it is challenging to precisely estimate tornado damage because of the large volumes of perishable data. This study presents data-driven approaches to tornado damage estimation using imagery collected from Unpiloted Aerial Systems (UASs) following the 26 June 2018 Eureka Kansas tornado. High-resolution orthomosaics were generated from Structure from Motion (SfM). We applied deep neural networks (DNNs) on the orthomosaics to estimate tornado damage and assessed their performance in four scenarios: (1) object detection with binary categories, (2) object detection with multiple categories, (3) image classification with binary categories, and (4) image classification with multiple categories. Additionally, two types of tornado damage heatmaps were generated. By directly stitching the resulting image tiles from the DNN inference, we produced the first type of tornado damage heatmaps where damage estimates are accurately georeferenced. We also presented a Gaussian process (GP) regression model to build the second type of tornado damage heatmap (a spatially continuous tornado damage heatmap) by merging the first type of object detection and image classification heatmaps. The GP regression results were assessed with ground-truth annotations and National Weather Service (NWS) ground surveys. This detailed information can help NWS Weather Forecast Offices and emergency managers with their damage assessments and better inform disaster response and recovery.https://www.mdpi.com/2072-4292/13/9/1669deep learninggaussian processtornado damagedamage assessmentUAS
spellingShingle Zhiang Chen
Melissa Wagner
Jnaneshwar Das
Robert K. Doe
Randall S. Cerveny
Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems
Remote Sensing
deep learning
gaussian process
tornado damage
damage assessment
UAS
title Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems
title_full Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems
title_fullStr Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems
title_full_unstemmed Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems
title_short Data-Driven Approaches for Tornado Damage Estimation with Unpiloted Aerial Systems
title_sort data driven approaches for tornado damage estimation with unpiloted aerial systems
topic deep learning
gaussian process
tornado damage
damage assessment
UAS
url https://www.mdpi.com/2072-4292/13/9/1669
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