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dc.contributorXiao, Xiangmingen_US
dc.contributorMenarguez, Michael Angeloen_US
dc.contributorZhang, Gelien_US
dc.contributorQin, Yuanweien_US
dc.contributorThau, Daviden_US
dc.contributorBiradar, Chandrashekharen_US
dc.contributorMoore III, Berrienen_US
dc.creatorDong, Jinweien_US
dc.date.accessioned2017-02-23T13:16:56Z
dc.date.available2017-02-23T13:16:56Z
dc.identifierhttps://mel.cgiar.org/dspace/limiteden_US
dc.identifierhttps://www.sciencedirect.com/science/article/pii/S003442571630044X#!en_US
dc.identifierhttps://www.researchgate.net/publication/296690405_Mapping_paddy_rice_planting_area_in_northeastern_Asia_with_Landsat_8_images_phenology-based_algorithm_and_Google_Earth_Engineen_US
dc.identifier.citationJinwei Dong, Xiangming Xiao, Michael Angelo Menarguez, Geli Zhang, Yuanwei Qin, David Thau, Chandrashekhar Biradar, Berrien Moore III. (30/11/2016). Mapping paddy rice planting area in northeastern Asia with Landsat 8 images, phenology-based algorithm and Google Earth Engine. Remote Sensing of Environment (, 185, pp. 142-154.en_US
dc.identifier.urihttps://hdl.handle.net/20.500.11766/5913
dc.description.abstractArea and spatial distribution information of paddy rice are important for understanding of food security, water use, greenhouse gas emission, and disease transmission. Due to climatic warming and increasing food demand, paddy rice has been expanding rapidly in high latitude areas in the last decade, particularly in northeastern (NE) Asia. Current knowledge about paddy rice fields in these cold regions is limited. The phenology- and pixel-based paddy rice mapping (PPPM) algorithm, which identifies the flooding signals in the rice transplanting phase, has been effectively applied in tropical areas, but has not been tested at large scale of cold regions yet. De- spite the effects from more snow/ice, paddy rice mapping in high latitude areas is assumed to be more encouraging due to less clouds, lower cropping intensity, and more observations from Landsat sidelaps. Moreover, the enhanced temporal and geographic coverage from Landsat 8 provides an opportunity to acquire phenology information and map paddy rice. This study evaluated the potential of Landsat 8 images on annual paddy rice mapping in NE Asia which was dominated by single cropping system, including Japan, North Korea, South Korea, and NE China. The cloud computing approach was used to process all the available Landsat 8 imagery in 2014 (143 path/rows, ~3290 scenes) with the Google Earth Engine (GEE) platform. The results indicated that the Landsat 8, GEE, and improved PPPM algorithm can effectively support the yearly mapping of paddy rice in NE Asia. The resultant paddy rice map has a high accuracy with the producer (user) accuracy of 73% (92%), based on the validation using very high resolution images and intensive field photos. Geographic characteristics of paddy rice distribution were analyzed from aspects of country, elevation, latitude, and climate. The resultant 30-m paddy rice map is expected to provide unprecedented details about the area, spatial distribution, and landscape pattern of paddy rice fields in NE Asia, which will contribute to food security assessment, water resource management, estimation of greenhouse gas emissions, and disease control.en_US
dc.formatPDFen_US
dc.languageenen_US
dc.publisherElsevieren_US
dc.sourceRemote Sensing of Environment (;185,(2016) Pagination 142-154en_US
dc.subjectpaddy riceen_US
dc.subjectphenology- and pixel-based algorithmen_US
dc.subjectcloud computingen_US
dc.subjectgoogle earth engineen_US
dc.subjectlandsat 8en_US
dc.titleMapping paddy rice planting area in northeastern Asia with Landsat 8 images, phenology-based algorithm and Google Earth Engineen_US
dc.typeJournal Articleen_US
dcterms.available2016-03-02en_US
dcterms.extent142-154en_US
dcterms.issued2016-11-30en_US
cg.creator.idBiradar, Chandrashekhar: 0000-0002-9532-9452en_US
cg.subject.agrovocanalysisen_US
cg.subject.agrovocgeodataen_US
cg.subject.agrovocRiceen_US
cg.contributor.centerInternational Center for Agricultural Research in the Dry Areas - ICARDAen_US
cg.contributor.centerUniversity of Oklahoma - OUen_US
cg.contributor.centerUniversity of Oklahoma, Center for Spatial Analysis - OU - CSAen_US
cg.contributor.centerUniversity of Oklahoma, College of Atmospheric and Geographic Science - OU - AGSen_US
cg.contributor.crpCGIAR Research Program on Dryland Systems - DSen_US
cg.contributor.crpCGIAR Research Program on Grain Legumes - GLen_US
cg.contributor.funderIndian Council of Agricultural Research - ICARen_US
cg.contributor.projectIndia Collaborative Program: Restricted funding for breeding for resistance to abiotic stresses in pulses & for 2017/2018 - 2017/2020 - 2020/2021en_US
cg.contributor.project-lead-instituteInternational Center for Agricultural Research in the Dry Areas - ICARDAen_US
cg.date.embargo-end-date2116-03-22en_US
cg.coverage.regionEastern Asiaen_US
cg.coverage.countryCNen_US
cg.coverage.countryJPen_US
cg.coverage.countryKPen_US
cg.coverage.countryKRen_US
cg.contactjinwei.dong@ou.eduen_US
cg.identifier.doihttps://dx.doi.org/10.1016/j.rse.2016.02.016en_US
cg.isijournalISI Journalen_US
dc.identifier.statusLimited accessen_US
mel.project.openhttp://geoagro.icarda.org/india/en_US
mel.impact-factor6.265en_US
cg.issn0034-4257en_US
cg.journalRemote Sensing of Environment (en_US
cg.volume185en_US


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