@misc{fischer2009tivo, author={Gerhard {Fischer} and Christian {Reuter} and G\"{o}kay {Karakas} and Nicolas {Nowald} and Gerold {Wefer}}, title={{(Table 3) Interannual variability of total mass flux at the deep sediment trap site CBmeso between 1988 and 2006}}, year={2009}, doi={10.1594/PANGAEA.760041}, url={https://doi.org/10.1594/PANGAEA.760041}, note={Supplement to: Fischer, G et al. (2009): Offshore advection of particles within the Cape Blanc filament, Mauritania: Results from observational and modelling studies. In: Freon, P; Barange, M; Aristegui, J (eds.) Eastern Boundary Upwelling systems: Integrative and Comparative Approaches. Special Edition, Progress in Oceanography, 83(1-4), 322-330, https://doi.org/10.1016/j.pocean.2009.07.023}, abstract={This article will review major features of the {\textquotesingle}giant{\textquotesingle} Cape Blanc filament off Mauritania with regard to the transport of chlorophyll and organic carbon from the shelf to the open ocean. Within the filament, chlorophyll is transported about 400 km offshore. Modelled particle distributions along a zonal transect at 21{\textdegree}N showed that particles with a sinking velocity of 5 m d$\ast$$\ast$-1 are advected offshore by up to 600 km in subsurface particle clouds generally located between 400 m and 800 m water depth, forming an Intermediate Nepheloid Layer (INL). It corresponds to the depth of the oxygen minimum zone. Heavier particles with a sinking velocity of 30 m d$\ast$$\ast$-1 are transported from the shelf within the Bottom Layer (BL) of more than 1000 m thickness, largely following the topography of the bottom slope. The particles advected within the BL contribute to the enhanced winter-spring mass fluxes collected at the open-ocean mesotrophic sediment trap site CB-13 (200 nm offshore), due to a long distance advection in deeper waters. The lateral contribution to the deep sediment trap in winter-spring is estimated to be 63{\%} and 72{\%} for organic carbon and total mass, respectively, whereas the lateral input for both components on an annual basis is estimated to be in the order of 15{\%}. Biogenic opal increases almost fivefold from the upper to the lower mesotrophic CB-13 trap, also pointing to an additional source for biogenic silica from eutrophic coastal waters. Blooms obviously sink in smaller, probably mesoscale-sized patches with variable settling rates, depending on the type of aggregated particles and their ballast content. Generally, particle sinking rates are exceptionally high off NW Africa. Very high chlorophyll values and a large size of the Cape Blanc filament in 1998-1999 are also documented in enhanced total mass and organic carbon fluxes. An increasing trend in satellite chlorophyll concentrations and the size of the Cape Blanc filament between 1997 and 2008 as observed for other coastal upwelling areas is not documented.}, type={data set}, publisher={PANGAEA} }