Use este identificador para citar ou linkar para este item: http://www.alice.cnptia.embrapa.br/alice/handle/doc/1188914
Título: Satellite imagery to machine learning datasets: an automated system for soil water stress monitoring in agriculture.
Autoria: HEIDEKER, A.
SPERANZA, E. A.
FERREIRA, E. J.
SILVA, D.
KAMIENSKI, C.
BIANCHI, R.
Afiliação: ALEXANDRE HEIDEKER, CENTRO UNIVERSITÁRIO FEI
EDUARDO ANTONIO SPERANZA, CNPTIA
EDNALDO JOSE FERREIRA, CNPDIA
DENER SILVA, CENTRO UNIVERSITÁRIO FEI
CARLOS KAMIENSKI
REINALDO BIANCHI, CENTRO UNIVERSITÁRIO FEI.
Ano de publicação: 2026
Referência: In: INTERNATIONAL CONFERENCE ON PRECISION AGRICULTURE, 17., CONGRESSO BRASILEIRO DE AGRICULTURA DE PRECISÃO DIGITAL, 11., 2026, Porto Alegre. Proceedings [...]. Monticello: International Society of Precision Agriculture, 2026.
Páginas: 9 p.
Conteúdo: Abstract. Satellite remote sensing is a key data source for precision agriculture, enabling vegetation indices such as NDMI and EVI to monitor vegetation health and soil water stress over large areas. Its practical use, however, is often constrained by manual image selection, downloading, and preprocessing workflows, which are time-consuming, hard to reproduce, and ill-suited to building the large, multi-temporal datasets that machine learning requires. This study presents an automated system for satellite image acquisition and preprocessing that enables scalable dataset generation for soil water stress monitoring. The system retrieves historical and current Sentinel-2 multispectral imagery through the Copernicus API, guided by predefined spatial and temporal parameters. Areas of interest are defined as multiple polygons in GeoJSON files representing individual agricultural sectors, which are grouped within a simplified bounding area to reduce redundant queries and improve retrieval efficiency. By eliminating manual scene inspection, the system reduces human effort while ensuring consistency and reproducibility, enabling systematic expansion of monitored regions and supporting the creation of high-quality datasets for training and deploying machine learning models in irrigation management. Its modular design accommodates the integration of additional satellite missions, spectral indices, and preprocessing methods in the future
Thesagro: Sensoriamento Remoto
Agricultura de Precisão
NAL Thesaurus: Remote sensing
Vegetation index
Water stress
Crop management
Palavras-chave: Sentinel-2
Índice de vegetação
Aprendizado de máquina
Estresse hídrico do solo
Monitoramento da cultura do café
Satellite remote sensing
Vegetation indices
Machine learning datasets
Cloud masking
Soil water stress
Coffee crop monitoring
Notas: ICPA 2026, ConBAP 2026. Na publicação: Eduardo Speranza, Ednaldo Pereira.
Tipo do material: Artigo em anais e proceedings
Acesso: openAccess
Aparece nas coleções:Artigo em anais de congresso (CNPTIA)

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