A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.

Crop change detection plays a pivotal role in ensuring agricultural sustainability and environmental monitoring. Leveraging the high spectral resolution of hyperspectral imagery and bi-temporal analysis, this study presents a Fast Hyperspectral Change Detection algorithm based on Spatial Reconstruct...

Full description

Saved in:
Bibliographic Details
Main Authors: Jianghong Yuan, Er-Yang Chen, Haiyin Qing
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2025-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0323446
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1849762441463857152
author Jianghong Yuan
Er-Yang Chen
Haiyin Qing
author_facet Jianghong Yuan
Er-Yang Chen
Haiyin Qing
author_sort Jianghong Yuan
collection DOAJ
description Crop change detection plays a pivotal role in ensuring agricultural sustainability and environmental monitoring. Leveraging the high spectral resolution of hyperspectral imagery and bi-temporal analysis, this study presents a Fast Hyperspectral Change Detection algorithm based on Spatial Reconstruction (FHCDSR) designed to identify subtle agricultural changes with improved accuracy and computational efficiency. The proposed method incorporates three key innovations: (1) boundary-constrained preprocessing of 3D hyperspectral data, (2) Laplacian-regularized spatial reconstruction, and (3) a novel tensor-based change detection framework. We conduct a comprehensive evaluation of FHCDSR using two datasets: the Hermiston dataset and the Yancheng dataset. Experimental results demonstrate that FHCDSR achieves superior performance on both datasets, with AUC values of 90.20% (Hermiston) and 95.39% (Yancheng), outperforming six state-of-the-art comparison methods by 3.39-14.78% in detection accuracy. Remarkably, the algorithm maintains high computational efficiency, completing analyses in 9.76 seconds (Hermiston) and 10.90 seconds (Yancheng), representing up to 94.05% reduction in processing time compared to conventional methods. The consistent performance across different agricultural landscapes highlights FHCDSR's robustness as an unsupervised change detection solution, with significant potential for precision agriculture and wetland ecosystem monitoring applications.
format Article
id doaj-art-c72f1bf8428a414ca1a5bb525d63fe74
institution DOAJ
issn 1932-6203
language English
publishDate 2025-01-01
publisher Public Library of Science (PLoS)
record_format Article
series PLoS ONE
spelling doaj-art-c72f1bf8428a414ca1a5bb525d63fe742025-08-20T03:05:44ZengPublic Library of Science (PLoS)PLoS ONE1932-62032025-01-01205e032344610.1371/journal.pone.0323446A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.Jianghong YuanEr-Yang ChenHaiyin QingCrop change detection plays a pivotal role in ensuring agricultural sustainability and environmental monitoring. Leveraging the high spectral resolution of hyperspectral imagery and bi-temporal analysis, this study presents a Fast Hyperspectral Change Detection algorithm based on Spatial Reconstruction (FHCDSR) designed to identify subtle agricultural changes with improved accuracy and computational efficiency. The proposed method incorporates three key innovations: (1) boundary-constrained preprocessing of 3D hyperspectral data, (2) Laplacian-regularized spatial reconstruction, and (3) a novel tensor-based change detection framework. We conduct a comprehensive evaluation of FHCDSR using two datasets: the Hermiston dataset and the Yancheng dataset. Experimental results demonstrate that FHCDSR achieves superior performance on both datasets, with AUC values of 90.20% (Hermiston) and 95.39% (Yancheng), outperforming six state-of-the-art comparison methods by 3.39-14.78% in detection accuracy. Remarkably, the algorithm maintains high computational efficiency, completing analyses in 9.76 seconds (Hermiston) and 10.90 seconds (Yancheng), representing up to 94.05% reduction in processing time compared to conventional methods. The consistent performance across different agricultural landscapes highlights FHCDSR's robustness as an unsupervised change detection solution, with significant potential for precision agriculture and wetland ecosystem monitoring applications.https://doi.org/10.1371/journal.pone.0323446
spellingShingle Jianghong Yuan
Er-Yang Chen
Haiyin Qing
A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.
PLoS ONE
title A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.
title_full A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.
title_fullStr A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.
title_full_unstemmed A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.
title_short A fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction.
title_sort fast hyperspectral change detection algorithm for agricultural crops based on spatial reconstruction
url https://doi.org/10.1371/journal.pone.0323446
work_keys_str_mv AT jianghongyuan afasthyperspectralchangedetectionalgorithmforagriculturalcropsbasedonspatialreconstruction
AT eryangchen afasthyperspectralchangedetectionalgorithmforagriculturalcropsbasedonspatialreconstruction
AT haiyinqing afasthyperspectralchangedetectionalgorithmforagriculturalcropsbasedonspatialreconstruction
AT jianghongyuan fasthyperspectralchangedetectionalgorithmforagriculturalcropsbasedonspatialreconstruction
AT eryangchen fasthyperspectralchangedetectionalgorithmforagriculturalcropsbasedonspatialreconstruction
AT haiyinqing fasthyperspectralchangedetectionalgorithmforagriculturalcropsbasedonspatialreconstruction