Comparison of two light attenuation parameterization focusing on timing of spring bloom and primary production in the Baltic Sea

Ecological Modelling

Volumn 259, Issue , 2013, Pages 40-49

  Wan, Zhenwen ^a   Bi, Hongsheng ^b   She, Jun ^a  

^a DANISH METEOROLOGICAL INSTITUTE   (Denmark)

^b UNIVERSITY OF MARYLAND CENTER FOR ENVIRONMENTAL SCIENCE   (United States)

Author keywords

Baltic Sea; Ecosystem model; Light attenuation; Parameter optimization; Primary production; Timing of spring bloom

Indexed keywords

BALTIC SEA; ECOSYSTEM MODEL; LIGHT ATTENUATION; PARAMETER OPTIMIZATION; PRIMARY PRODUCTION; SPRING BLOOMS;

BLOOMS (METAL); OPTIMIZATION; PARAMETERIZATION;

ELECTROMAGNETIC WAVE ATTENUATION;

CHLOROPHYLL; COMPARATIVE STUDY; ECOSYSTEM MODELING; LIGHT ATTENUATION; PARAMETERIZATION; PRIMARY PRODUCTION; SUSPENDED PARTICULATE MATTER;

ATLANTIC OCEAN; BALTIC SEA;

EID: 84876957832     PISSN: 03043800     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ecolmodel.2013.03.010     Document Type: Article

References (41)

1. Allen J.I., Holt T.J., Blackford J., Proctor R. Error quantification of a high-resolution coupled hydrodynamic-ecosystem coastal-ocean model: part 2, chlorophyll-a, nutrients and SPM. Journal of Marine Systems 2007, 68:381-404.
2. Arndt S., Vanderborght J., Regnier P. Diatom growth response to physical forcing in amacrotidal estuary: coupling hydrodynamics, sediment transport, and biogeochemistry. Journal of Geophysical Research 2007, 112(C5):c05045.
3. Banse K. Ergebnisse eines hydrographisch-produktionsbiologischen Längsschnitts durch die Ostsee im Sommer II. Verteilung von Sauerstoff, Phosphat und. Suspendierter Substanz. Kiel Meeresforsch 1956, 13:186-201.
4. Behrenfeld M.J. Abandoning Sverdrup's Critical Depth Hypothesis on phytoplankton blooms. Ecology 2010, 91:977-989.
5. Behrenfeld M.J., Falkowski P.G. Photosynthetic rates derived from satellite-based chlorophyll concentration. Limnology and Oceanography 1997, 42:1-20.
6. Berg, P., Poulsen, J.W., 2012. Implementation details for HBM. DMI Technical Report No. 12-11, ISSN: 1399-1388, Copenhagen.
7. Conkright M.E., Locarnini R., Garcia H., O'Brien T., Boyer T.P., Stephens C., Antonov J. World ocean atlas 2001: Objective Analyses, Data Statistics and Figures, CDROM Documentation 2002, National Oceanographic Data Center, Silver Spring, MD, p. 17.
8. Elmgren R. Trophic dynamics in the enclosed, brackish Baltic Sea. Rapports et Proces-verbaux des Réunions. Conseil International pour l'Éxploration de la Mer 1984, 183:152-169.
9. Fennel K. Convection and the timing of phytoplankton spring blooms in the Western Baltic Sea. Estuarine Coastal and Shelf Science 1999, 49:113-128.
10. Garrada G., Hopkins T., Jeftie L., Morcos S. Quantitative analysis and simulation of Mediterranean coastal ecosystems: the Gulf of Naples, a case study. UNESCO Reports in Marine Sciences 1983, 20:158.
11. Gayer G., Dick S., Pleskachevsky A., Rosenthal W. Numerical modeling of suspended matter transport in the North Sea. Ocean Dynamics 2006, 56:62-77.
12. Geider R.J., MacIntyre H.L., Kana T.M. A dynamic regulatory model of phytoplanktonic acclimation to light, nutrients, and temperature. Limnology and Oceanography 1998, 43(4):679-694.
13. Henriksen P., Riemann B., Kaas H., Sorensen H.M., Sorensen H.L. Effects of nutrient-limitation and irradiance on marine phytoplankton pigments. Journal of Plankton Research 2002, 24(9):835-858.
14. Kaiser W., Schulz S. On the causes for the differences in space and time of the commencement of the phytoplankton bloom in the Baltic. Kiel Meeresforsch Sonderh 1978, 4:161-170.
15. Kelble R.C., Ortner B.P., Hitchcock L.G., Boyer N.J. Attenuation of photosynthetically available radiation (PAR) in Florida Bay: potential for light limitation of primary producers. Estuaries 2005, 28(4):560-571.
16. Kowalczuk P., Stedmon A.C., Markager S. Modeling absorption by CDOM in the Baltic Sea from season, salinity and chlorophyll. Marine Chemistry 2006, 101(1-2):1-11.
17. Kahru M., Mömmann S. The phytoplankton spring bloom in the Baltic Sea in 1985, 1986: multitude of spatio-temporal scales. Continental Shelf Research 1990, 10(4):329-354.
18. Lyngsgaard, M.M., Markager, S., Richardson, K., 2012. Primary production in relation to water column characteristics in the Baltic Sea transition zone: vertical, horizontal and temporal distribution patherns. Unpublished results.
19. Maar M., Møller E.F., Larsen J., Kristine S.M., Wan Z., She J., Jonasson L., Neumann T. Ecosystem modeling across a salinity gradient from the North Sea to the Baltic Sea. Ecological Modelling 2011, 222:1696-1711.
20. Neumann T. Towards a 3D-ecosystem model of the Baltic Sea. Journal of Marine Systems 2000, 25:405-419.
21. Neumann T., Fennel W., Kremp C. Experimental simulations with an ecosystem model of the Baltic Sea: a nutrient load reduction experiment. Global Biogeochemical Cycles 2002, 16(3):1033-1051.
22. Osterroht C., Thomas H. New production enhanced by nutrient supply from non-Redfield mineralisation of freshly produced organic material. Journal of Marine Systems 2000, 25:33-46.
23. Pleskachevsky A., Gayer G., Horstmann J., Rosenthal W. Synergy of satellite remote sensing and numerical modeling for monitoring of suspended particulate matter. Ocean Dynamics 2005, 55(1):2-9.
24. Puls W., Pohlmann T., Suendermann J. Suspended particulate matter in the southern North Sea: application of a numerical model to extend NERC North Sea project data interpretation. Deutsche Hydrographische Zeitschrift 1997, 49(2/3):307-327.
25. Riley G.A. The plankton in estuaries. Estuaries 1967, 316-326. American Association for the Advancement of Science Publication 83, Washington, DC. G.H. Lauff (Ed.).
26. Savchuk O.P., Wulff F. Modeling the Baltic Sea eutrophication in a decision support system. AMBIO 2007, 36:141-148.
27. Smetacek V. Annual cycle of sedimentation in relation to plankton ecology in western Kiel bight. Ophelia Supplement 1980, 1:65-76.
28. Soulsby R. Dynamics of Marine Sands: A Manual for Practical Application 1997, Thomas Telford Services, London, p. 249.
29. Stedmon A.C., Osburn L.C., Kragh T. Tracing water mass mixing in the Baltic-North Sea transition zone using the optical properties of colored dissolved organic matter. Estuarine Coastal and Shelf Science 2010, 87(1):156-162.
30. Steel J.H. Environmental control of photosynthesis in the sea. Limnology and Oceanography 1962, 7:137-150.
31. Stigebrandt A., Wulff F. A model for the dynamics of nutrients and oxygen in the Baltic proper. Journal of Marine Research 1987, 45:729-759.
32. Struck U., Pollehne F., Bauerfeind E., Von Bodungen B. Sources of nitrogen for the vertical particle flux in the Gotland Sea (Baltic Proper)-results from sediment trap studies. Journal of Marine Systems 2004, 45:91-101.
33. Sverdrup H.U. On conditions for the vernal blooming of phytoplankton. Journal du Conseil International pour I'Exploration de la Mer 1953, 18:287-295.
34. Tian T., Merico A., Su J., Staneva J., Wiltshire K., Wirtz K. Importance of resuspended sediment dynamics for the phytoplankton spring bloom in a coastal marine ecosystem. Journal of Sea Research 2009, 62:214-228.
35. Wan Z., Jonasson L., Bi H. N/P ratio of nutrient uptake in the Baltic Sea. Ocean Science 2011, 7:693-704.
36. Wan Z., Bi H., She J., Maar M., Jonasson L. Model study on horizontal variability of nutrient N/P ratio in the Baltic Sea and its impacts on primary production. nitrogen fixation and nutrient limitation. Ocean Science Discussion 2012, 9:385-419.
37. Wan Z., She J., Maar M., Jonasson L., Baasch-Larsen J. Assessment of a physical-biogeochemical coupled model system for operational service in the Baltic Sea. Ocean Science 2012, 8:683-701.
38. Wasmund N., Nausch G., Matthäus W. Phytoplankton spring blooms in the southern Baltic Sea - spatio-temporal development and long term trends. Journal of Plankton Research 1998, 20:1099-1117.
39. Wasmund N., Nausch G., Schneider B. Primary production rates calculated by different concepts: an opportunity to study the complex production system in the Baltic Proper. Journal of Sea Research 2005, 54:244-255.
40. Wasmund N., Voss M., Lochte K. Evidence of nitrogen fixation by non-heterocystous yanobacteria in the Baltic Sea and re-calculation of a budget of nitrogen fixation. Marine Ecology Progress Series 2001, 214:1-14.
41. Xu J., Hood R., Chao S. A simple empirical optical model for simulating light attenuation variability in a partially mixed estuary. Estuaries and Coasts 2005, 28(4):572-580.