Marine inherent optical properties (IOPs) from MODIS Aqua & Terra Marine inherent optical properties (IOPs) from MODIS Aqua & Terra Jeremy Werdell NASA.

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Marine inherent optical properties (IOPs) from MODIS Aqua & Terra Marine inherent optical properties (IOPs) from MODIS Aqua & Terra Jeremy Werdell NASA Goddard Space Flight Center Ocean Biology Processing Group MODIS Science Team Meeting Columbia, Maryland 30 Apr Werdell, NASA MODIS ST, Apr 2014

2 what are marine inherent optical properties (IOPs)? spectral absorption & scattering coefficients what can marine IOPs tell me? they describe the contents of the upper ocean - phytoplankton abundance & community structure - non-algal suspended particles - particulate & dissolved carbon - diffuse attenuation / water clarity why study marine IOPs from space? satellite time-series provide “big picture” views to better understand responses to climate change & for inclusion in bio-hydrographic models

a variety of ocean color approaches exist … 3 Werdell, NASA MODIS ST, Apr 2014 this presentation reviews semi-analytic algorithms (SAAs) (a.k.a. ocean reflectance inversion models) some of the first: Sugihara & Kishino 1988, Roesler & Perry 1995

presentation outline 4 Werdell, NASA MODIS ST, Apr 2014 Part 1: brief review of the theoretical basis Part 2: state of the art Part 3: future plans

inherent optical properties (IOPs) apparent optical properties (AOPs) ocean color in-water optics 5 Werdell, NASA MODIS ST, Apr 2014 relating ocean color & in-water optical properties photon entering a medium has two fates: absorbed ( a ) or scattered ( b ) radiative transfer equations provide exact solutions (simplifications exist) forward model measured by satellite desired products inverse model

6 Werdell, NASA MODIS ST, Apr 2014 dissolved + non- phytoplankton particles phytoplankton particles relating ocean color & in-water optical properties

7 Werdell, NASA MODIS ST, Apr 2014 eigenvector (shape) eigenvalue (magnitude) relating ocean color & in-water optical properties

8 Werdell, NASA MODIS ST, Apr 2014 eigenvector (shape) eigenvalue (magnitude) relating ocean color & in-water optical properties diatoms Noctiluca miliaris MODISA

N = 6 knowns ( the 6 visible MODISA R rs ( N ) ) User defined: G( N ), a * dg ( N ), a *  ( N ), b * bp ( N ) 3 (< N) unknowns: M dg, M , M bp solve for M using spectral optimization/unmixing/deconvolution 9 Werdell, NASA MODIS ST, Apr 2014 relating ocean color & in-water optical properties

presentation outline 10 Werdell, NASA MODIS ST, Apr 2014 Part 1: brief review of the theoretical basis Part 2: state of the art Part 3: future plans

SAAs developed routinely over 30 yrs many successfully retrieve three components many overlapping approaches exist power-law,  : fixed Lee et al. (2002) Ciotti et al. (1999) Hoge & Lyon (1996) Loisel & Stramski (2001) Morel (2001) Levenberg-Marquardt SVD matrix inversion Morel f/Q Gordon quadratic exponential, S dg : fixed (= 0.018) Lee et al. (2002) Werdell (2010) tabulated a * dg ( ) tabulated a *  ( ) Bricaud et al. (1998) Ciotti & Bricaud (2006) 11 Werdell, NASA MODIS ST, Apr 2014 relating ocean color & in-water optical properties

12 Werdell, NASA MODIS ST, Apr 2014 state of the art first comprehensive survey & evaluation of SAA approaches modern survey & evaluation of SAA (& other) approaches

first comprehensive evaluation of SAA similarities/differences 13 Werdell, NASA MODIS ST, Apr 2014 state of the art generalized IOP (GIOP) framework available through SeaDAS default, global GIOP configuration assigned for operational MODIS-Aqua & -Terra processing end-user can customize GIOP parameterizations - test new parameterizations or combinations - regional configurations default, global GIOP configuration assigned for operational MODIS-Aqua & -Terra processing end-user can customize GIOP parameterizations - test new parameterizations or combinations - regional configurations

presentation outline 14 Werdell, NASA MODIS ST, Apr 2014 Part 1: brief review of the theoretical basis Part 2: state of the art Part 3: future plans

future plans - general 15 Werdell, NASA MODIS ST, Apr 2014 temperature & salinity dependence of pure seawater

future plans - general 16 Werdell, NASA MODIS ST, Apr 2014 temperature & salinity dependence of pure seawater inversion approaches statistical cost functions, uncertainties the relationship between AOPs and IOPs (spectral G) expanded wavelength suites inelastic scattering Raman effects (Westberry et al. 2013) phytoplankton fluorescence ??? reduction of spectral shape assumptions one size rarely fits all optical water types (Moore et al. 2009) ensemble methods (Wang et al. 2005, Brando et al. 2012)

future plans - shallow water 17 Werdell, NASA MODIS ST, Apr 2014 optically shallow water where sunlight reflected off the seafloor is seen by the satellite SWIM model GIOP-like SAA extended to account for shallow water reflectances Great Barrier Reef McKinna et al. (2014)

18 Werdell, NASA MODIS ST, Apr 2014 again … why study marine IOPs from space?

Noctiluca identified during the NEM using MODISA 19 Werdell, NASA MODIS ST, Apr Number of Identifications why is this so important? satellites provide spatial & temporal data records that cannot be achieved on ships these data records provide “big picture” views to better understand responses to climate change & for inclusion in biological-hydrographic models the methods are portable to many ecosystems

20 Werdell, NASA MODIS ST, Apr 2014 thanks

a generalized IOP (GIOP) inversion model 21 Werdell, NASA MODIS ST, Apr 2014 in situ (NOMAD) & synthesized (IOCCG) data SeaWiFS & MODISA data

22 Werdell, NASA MODIS ST, Apr 2014 a generalized IOP (GIOP) inversion model

23 Werdell, NASA MODIS ST, Apr 2014 temperature & salinity dependence of b bw ( )

24 Werdell, NASA MODIS ST, Apr 2014 temperature & salinity dependence of b bw ( ) GIOP-C, GIOP-TS, ratio of GIOP-TS to GIOP-C

25 Werdell, NASA MODIS ST, Apr 2014 temperature & salinity dependence of b bw ( )