Jan Clevers 1 & Anatoly Gitelson 2 Results optimal band setting for CI red-edge : Coefficient of variation (CV %) of canopy chlorophyll content estimation.

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Jan Clevers 1 & Anatoly Gitelson 2 Results optimal band setting for CI red-edge : Coefficient of variation (CV %) of canopy chlorophyll content estimation (maize and soybean) or canopy N content (grass and potato) by the R 800 /R xxx index, with R xxx as the reflectance of a spectral band in the 500 – 800 nm interval. Results Vegetation indices using Sentinel-2 bands: Summary: R 2 of linear relationship between indices and chlorophyll or N content. Conclusions The red-edge chlorophyll index is a linear estimator of canopy chlorophyll and N content. The best red-edge chlorophyll index uses a band in the range 700 nm – 720 nm in the denominator. Sentinel-2 red-edge bands are well positioned for deriving red-edge indices. potato field Map of canopy N content based on RapidEye data. 1 Centre for Geo-Information, Wageningen University, P.O. Box 47, NL-6700 AA Wageningen, The Netherlands, 2 Centre for Advanced Land Management Information Technologies, University of Nebraska, Lincoln, Nebraska, 58588, USA, Using the red-edge bands on Sentinel-2 for retrieving canopy chlorophyll and nitrogen content IndexMaizeSoy- bean GrassPotato Best R 800 /R xxx CI red edge CI green REP MTCI MCARI/OSAVI[705,750] TCARI/OSAVI[705,750] NDRE NDRE Introduction Chlorophyll and nitrogen play a key role in the biochemistry of plants (e.g., photosynthesis). Optical remote sensing primarily provides integrated information of a plant or canopy, meaning over the IFOV of the sensor. As a result, we may get estimates of the canopy chlorophyll or nitrogen content. For the estimation the so-called red-edge region is very important and the new ESA mission Sentinel-2 carries a sensor (the MSI) incorporating two red-edge bands (at 705 nm and 740 nm). This will make the use of, e.g., the red-edge chlorophyll index feasible at high resolution. Research objectives: Which band setting can best be used in the red-edge chlorophyll index? How well does the band setting of Sentinel-2 match the best setting? What is the suitability of different vegetation indices in estimating the chlorophyll and nitrogen (N) content based on Sentinel-2? Methodology Sentinel-2: Polar orbiting satellite Launch planned in 2013 Spatial resolution: 10 m, 20 m or 60 m Interesting narrow bands for vegetation studies: 560, 665, 705, 740, 783, 842, 865 nm High revisit due two constellation of two satellites 11.3 Data sets: Test site 1: maize – chlorophyll content growing seasons - Ocean Optics USB2000 spectroradiometer Test site 2: soybean – chlorophyll content growing seasons - Ocean Optics USB2000 spectroradiometer Test site 3: extensively grazed fen meadow – N content - one date mid-June 2008, 40 random plots - ASD FieldSpec measurements Test site 2: potato field – N content - multiple dates season 2010, 8 plots (4 N levels) - 16-band Cropscan measurements Indices tested for chlorophyll and nitrogen estimation: IndexFormulation CI red edge CI green REP MTCI MCARI/OSAVI[705,750] TCARI/OSAVI[705,750] NDRE1 NDRE2 Jan Clevers