Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach

Due to different combinations of agriculture, livestock and forestry managed by rotation, succession and intercropping practices, integrated agriculture production systems such as integrated crop–livestock systems (iCL) constitute a very complex target and a challenge for automatic mapping of croppi...

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Main Authors: Patrick Calvano Kuchler, Margareth Simões, Rodrigo Ferraz, Damien Arvor, Pedro Luiz Oliveira de Almeida Machado, Marcos Rosa, Raffaele Gaetano, Agnès Bégué
Format: Article
Language:English
Published: MDPI AG 2022-03-01
Series:Remote Sensing
Subjects:
Online Access:https://www.mdpi.com/2072-4292/14/7/1648
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author Patrick Calvano Kuchler
Margareth Simões
Rodrigo Ferraz
Damien Arvor
Pedro Luiz Oliveira de Almeida Machado
Marcos Rosa
Raffaele Gaetano
Agnès Bégué
author_facet Patrick Calvano Kuchler
Margareth Simões
Rodrigo Ferraz
Damien Arvor
Pedro Luiz Oliveira de Almeida Machado
Marcos Rosa
Raffaele Gaetano
Agnès Bégué
author_sort Patrick Calvano Kuchler
collection DOAJ
description Due to different combinations of agriculture, livestock and forestry managed by rotation, succession and intercropping practices, integrated agriculture production systems such as integrated crop–livestock systems (iCL) constitute a very complex target and a challenge for automatic mapping of cropping practices based on remote sensing data. The overall objective of this study was to develop a classification strategy for the annual mapping of integrated Crop–Livestock systems (iCL) at a regional scale. This strategy was designed and tested in the six agro-climatic regions of Mato Grosso, the largest Brazilian soybean producer state, using MODIS satellite time-series images acquired between 2012 and 2019, ground data with heterogeneous distribution in space and time and a Random Forest classifier. The results showed that: 1. the use of unbalanced training samples with a class composition close to the real one was the right classifier training strategy; 2. the use of a single training database (pooling samples from different years and regions) to classify each region and year individually proved to be robust enough to provide similar classification accuracies in comparison to those based on the use of a database acquired for each region and for each year. The final hierarchical classification overall accuracy was 0.89 for Level 1, the cropping pattern level (single and double crops DC); 0.84 for Level 2, the DC category level (integrated system iCL soy-pasture/brachiaria, soy-cotton and soy-cereal); 0.77 for Level 3, the iCL level (iCL1 soy-pasture and iCL2 soy-pasture mixed with corn). The F-scores for DC, iCL and iCL1 cropping systems presented high accuracy (0.89, 0.85 and 0.84), while iCL2 was more difficult to classify (0.63). This approach will next be applied across the entire Brazilian soybean corridor, leading to an operational tool for monitoring the adoption of sustainable intensification practices recognized by Brazil’s Agriculture Low Carbon Plan (ABC PLAN).
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spelling doaj.art-0b055a20f13244f889d328a1a98c698a2023-11-30T23:56:59ZengMDPI AGRemote Sensing2072-42922022-03-01147164810.3390/rs14071648Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data ApproachPatrick Calvano Kuchler0Margareth Simões1Rodrigo Ferraz2Damien Arvor3Pedro Luiz Oliveira de Almeida Machado4Marcos Rosa5Raffaele Gaetano6Agnès Bégué7Department of Computer Engineering, Rio de Janeiro State University (UERJ/FEN/DESC/PPGMA), Rua São Francisco Xavier, 524, 5031 D, Maracanã, Rio de Janeiro 20550-900, BrazilDepartment of Computer Engineering, Rio de Janeiro State University (UERJ/FEN/DESC/PPGMA), Rua São Francisco Xavier, 524, 5031 D, Maracanã, Rio de Janeiro 20550-900, BrazilEmbrapa Solos, Rua Jardim Botânico 1024, Rio de Janeiro 22460-000, BrazilCNRS, UMR 6554 LETG, Université Rennes 2, 35043 Rennes, FranceEmbrapa Arroz e Feijão, Rodovia GO-462, km 12, Santo Antonio de Goias 75375-000, BrazilDepartment of Geography, PPGM Universidade Estadual de Feira de Santana, Novo Horizonte 44036-900, BrazilTETIS, University Montpellier, AgroParisTech, CIRAD, CNRS, INRAE 648 Rue Jean François Breton, 34090 Montpellier, FranceTETIS, University Montpellier, AgroParisTech, CIRAD, CNRS, INRAE 648 Rue Jean François Breton, 34090 Montpellier, FranceDue to different combinations of agriculture, livestock and forestry managed by rotation, succession and intercropping practices, integrated agriculture production systems such as integrated crop–livestock systems (iCL) constitute a very complex target and a challenge for automatic mapping of cropping practices based on remote sensing data. The overall objective of this study was to develop a classification strategy for the annual mapping of integrated Crop–Livestock systems (iCL) at a regional scale. This strategy was designed and tested in the six agro-climatic regions of Mato Grosso, the largest Brazilian soybean producer state, using MODIS satellite time-series images acquired between 2012 and 2019, ground data with heterogeneous distribution in space and time and a Random Forest classifier. The results showed that: 1. the use of unbalanced training samples with a class composition close to the real one was the right classifier training strategy; 2. the use of a single training database (pooling samples from different years and regions) to classify each region and year individually proved to be robust enough to provide similar classification accuracies in comparison to those based on the use of a database acquired for each region and for each year. The final hierarchical classification overall accuracy was 0.89 for Level 1, the cropping pattern level (single and double crops DC); 0.84 for Level 2, the DC category level (integrated system iCL soy-pasture/brachiaria, soy-cotton and soy-cereal); 0.77 for Level 3, the iCL level (iCL1 soy-pasture and iCL2 soy-pasture mixed with corn). The F-scores for DC, iCL and iCL1 cropping systems presented high accuracy (0.89, 0.85 and 0.84), while iCL2 was more difficult to classify (0.63). This approach will next be applied across the entire Brazilian soybean corridor, leading to an operational tool for monitoring the adoption of sustainable intensification practices recognized by Brazil’s Agriculture Low Carbon Plan (ABC PLAN).https://www.mdpi.com/2072-4292/14/7/1648cropping systemsdouble croppingsustainable agriculturesatellite image time seriesMODISmachine learning
spellingShingle Patrick Calvano Kuchler
Margareth Simões
Rodrigo Ferraz
Damien Arvor
Pedro Luiz Oliveira de Almeida Machado
Marcos Rosa
Raffaele Gaetano
Agnès Bégué
Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach
Remote Sensing
cropping systems
double cropping
sustainable agriculture
satellite image time series
MODIS
machine learning
title Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach
title_full Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach
title_fullStr Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach
title_full_unstemmed Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach
title_short Monitoring Complex Integrated Crop–Livestock Systems at Regional Scale in Brazil: A Big Earth Observation Data Approach
title_sort monitoring complex integrated crop livestock systems at regional scale in brazil a big earth observation data approach
topic cropping systems
double cropping
sustainable agriculture
satellite image time series
MODIS
machine learning
url https://www.mdpi.com/2072-4292/14/7/1648
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