Normalizing flow-based deep variational Bayesian network for seismic multi-hazards and impacts estimation from InSAR imagery

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Hauptverfasser: Li, Xuechun, Burgi, Paula M., Ma, Wei, Noh, Hae Young, Wald, David J., Xu, Susu
Format: Preprint
Veröffentlicht: 2023
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author Li, Xuechun
Burgi, Paula M.
Ma, Wei
Noh, Hae Young
Wald, David J.
Xu, Susu
author_facet Li, Xuechun
Burgi, Paula M.
Ma, Wei
Noh, Hae Young
Wald, David J.
Xu, Susu
contents Onsite disasters like earthquakes can trigger cascading hazards and impacts, such as landslides and infrastructure damage, leading to catastrophic losses; thus, rapid and accurate estimates are crucial for timely and effective post-disaster responses. Interferometric Synthetic aperture radar (InSAR) data is important in providing high-resolution onsite information for rapid hazard estimation. Most recent methods using InSAR imagery signals predict a single type of hazard and thus often suffer low accuracy due to noisy and complex signals induced by co-located hazards, impacts, and irrelevant environmental changes (e.g., vegetation changes, human activities). We introduce a novel stochastic variational inference with normalizing flows derived to jointly approximate posteriors of multiple unobserved hazards and impacts from noisy InSAR imagery.
format Preprint
id arxiv_https___arxiv_org_abs_2310_13805
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Normalizing flow-based deep variational Bayesian network for seismic multi-hazards and impacts estimation from InSAR imagery
Li, Xuechun
Burgi, Paula M.
Ma, Wei
Noh, Hae Young
Wald, David J.
Xu, Susu
Machine Learning
Computer Vision and Pattern Recognition
Onsite disasters like earthquakes can trigger cascading hazards and impacts, such as landslides and infrastructure damage, leading to catastrophic losses; thus, rapid and accurate estimates are crucial for timely and effective post-disaster responses. Interferometric Synthetic aperture radar (InSAR) data is important in providing high-resolution onsite information for rapid hazard estimation. Most recent methods using InSAR imagery signals predict a single type of hazard and thus often suffer low accuracy due to noisy and complex signals induced by co-located hazards, impacts, and irrelevant environmental changes (e.g., vegetation changes, human activities). We introduce a novel stochastic variational inference with normalizing flows derived to jointly approximate posteriors of multiple unobserved hazards and impacts from noisy InSAR imagery.
title Normalizing flow-based deep variational Bayesian network for seismic multi-hazards and impacts estimation from InSAR imagery
topic Machine Learning
Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2310.13805