nutrient; limitation; phytoplankton; iron; nitrate; Southern Ocean; lake; biogeochemical cycle; bioavailability; biodiversity; phosphate; biosensor
Doblin MA, Petrou K, Sinutok S, Seymour J, Messer LF, Brown MV, Norman L, Everett JD, McInnes A, Ralph P, Thompson PA, Hassler C (2016), Nutrient uplift in a cyclonic eddy increases diversity, primary productivity and iron demand of microbial communities relative to a western boundary current, in
PeerJ, 1973.
[18]. Davies C.H. Coughlan A. Hallegraeff G. Ajani P. Armbrecht L.et al. (2016), The Australian phytoplankton database – abundance and biovolume, in
Scientific Data, Nature, 160043.
[17]. Petrou K. Kranz S.A. Trimborn S. Hassler C.S. Blanco Ameijeiras S. Ralph P.J. Davidson A (2016), The Southern Ocean carbon sink in a changing climate, in
Journal of Plant Physiology, 135.
Norman Louiza (2015), The role of bacterial and algal exopolymeric substances (EPS) on iron chemistry, in
Marine Chemistry, 173, 148.
Norman Louiza et al. (2014), Iron biogeochemistry in aquatic systems : from source to bioavailability, in
Chimia, 68, 764-771.
Hassler Christel et al. (2014), Primary productivity induced by Iron and Nitrogen in the Tasman Sea-An overview of the PINTS expedition, in
Marine and Freshwater Research, 65, 517-537.
[29]. Petrou K. Trimborn S. Rost B. Ralph P.J. Hassler C.S. (2014), The impact of iron limitation on the physiology of the Antarctic diatom Chaetoceros simplex, in
Marine Biology, 925.
Hassler Christel et al., Iron associated with exopolymeric substances is highly bioavailable to oceanic phytoplankton, in
Marine Chemistry.
Trimborn Scarlett et al., Physiological characteristics of open ocean and coastal phytoplankton communities of Western Antarctic Peninsula and Drake Passage waters., in
Deep-Sea Research I.