9 Statistics of Lagrangian Transport Reveals Hidden Features of Velocity Fields
315
Breivik Ø, Allen AA, Maisondieu C, Roth JC, Forest B (2012) The leeway of shipping containers
at different immersion levels. Ocean Dyn 62:741–752
Broman B, Hammarklint T, Rannat K, Soomere T, Valdmann A (2006) Trends and extremes of
wave fields in the North-eastern part of the Baltic Proper. Oceanologia 48(S):165–184
Broström G, Carrasco A, Hole LR, Dick S, Janssen F, Mattsson J, Berger S (2011) Usefulness of
high resolution coastal models for operational oil spill forecast: the Full City accident. Ocean
Sci 7:805–820
Chrastansky A, Callies U (2009) Model-based long-term reconstruction of weather-driven variations in chronic oil pollution along the German North Sea coast. Mar Pollut Bull 58:967–975
Chrastansky A, Callies U, Fleet DM (2009) Estimation of the impact of prevailing weather conditions on the occurrence of oil-contaminated dead birds on the German North Sea coast. Environ
Pollut 157:194–198
Cushman-Roisin BJ, Beckers J-M (2011) Introduction to geophysical fluid dynamics: physical and
numerical aspects. Elsevier/Academic Press, Amsterdam/San Diego, 828 pp
Delpeche-Ellmann NC, Soomere T (2013) Investigating the Marine Protected Areas most at risk
of current-driven pollution in the Gulf of Finland, the Baltic Sea, using a Lagrangian transport
model. Mar Pollut Bull 67:121–129
de Vries P, Döös K (2001) Calculating Lagrangian trajectories using time-dependent velocity
fields. J Atmos Ocean Technol 18:1092–1101
Döös K (1995) Inter-ocean exchange of water masses. J Geophys Res—Oceans 100:13,499–
13,514
Fennel W, Seifert T, Kayser B (1991) Rossby radii and phase speeds in the Baltic Sea. Cont Shelf
Res 11:23–36
Fingas MF (2011) Buoys and devices for oil spill tracking. In: Proceedings of the 34th AMOP
technical seminar on environmental contamination and response, environment, Canada, Ottawa,
ON, pp 213–228
Gästgifvars M, Lauri H, Sarkanen A-K, Myrberg K, Andrejev O, Ambjörn C (2006) Modelling
surface drifting of buoys during a rapidly-moving weather front in the Gulf of Finland, Baltic
Sea. Estuar Coast Shelf Sci 70:567–576
Gerdes R, Köberle C, Willebrand J (1991) The influence of numerical advection schemes on the
results of ocean general circulation models. Clim Dyn 5:211–226
Gräwe U, Wolff J-O (2010) Suspended particulate matter dynamics in a particle framework. Environ Fluid Mech 10:21–39
Gräwe U, Deleersnijder E, Shah SHAM, Heemink AW (2012) Why the Euler scheme in particle
tracking is not enough: the shallow-sea pycnocline test case. Ocean Dyn 62:501–514
Havens H, Luther ME, Meyers SD, Heil CA (2010) Lagrangian particle tracking of a toxic dinoflagellate bloom within the Tampa Bay estuary. Mar Pollut Bull 60:2233–2241
HELCOM (2009) Ensuring safe shipping in the Baltic. In: Stankiewicz M, Vlasov N (eds) Helsinki
commission, Helsinki, 18 pp
Hibler WD III (1979) A dynamic thermodynamic sea ice model. J Phys Oceanogr 9:817–846
Höglund A, Meier HEM, Broman B, Kriezi E (2009) Validation and correction of regionalised
ERA-40 wind fields over the Baltic Sea using the Rossby Centre Atmosphere Model RCA3.0.
Rapport Oceanografi No 97, Swedish Meteorological and Hydrological Institute, Norrköping,
Sweden, 29 pp
Hunke EC, Dukowicz JK (1997) An elastic-viscous-plastic model for sea ice dynamics. J Phys
Oceanogr 27:1849–1867
Jevrejeva S, Leppäranta M (2002) Ice conditions along the Estonian coast in a statistical view.
Nord Hydrol 33:241–262
Kachel MJ (2008) Particularly sensitive sea areas. Hamburg studies on Maritime Affairs, vol 13.
Springer, Berlin, 376 pp
Keevallik S, Soomere T (2010) Towards quantifying variations in wind parameters across the Gulf
of Finland. Est J Earth Sci 59:288–297
Killworth P, Stainforth D, Webb D, Paterson S (1991) The development of a free-surface Bryan–
Cox–Semtner ocean model. J Phys Oceanogr 21:1333–1348
315
Breivik Ø, Allen AA, Maisondieu C, Roth JC, Forest B (2012) The leeway of shipping containers
at different immersion levels. Ocean Dyn 62:741–752
Broman B, Hammarklint T, Rannat K, Soomere T, Valdmann A (2006) Trends and extremes of
wave fields in the North-eastern part of the Baltic Proper. Oceanologia 48(S):165–184
Broström G, Carrasco A, Hole LR, Dick S, Janssen F, Mattsson J, Berger S (2011) Usefulness of
high resolution coastal models for operational oil spill forecast: the Full City accident. Ocean
Sci 7:805–820
Chrastansky A, Callies U (2009) Model-based long-term reconstruction of weather-driven variations in chronic oil pollution along the German North Sea coast. Mar Pollut Bull 58:967–975
Chrastansky A, Callies U, Fleet DM (2009) Estimation of the impact of prevailing weather conditions on the occurrence of oil-contaminated dead birds on the German North Sea coast. Environ
Pollut 157:194–198
Cushman-Roisin BJ, Beckers J-M (2011) Introduction to geophysical fluid dynamics: physical and
numerical aspects. Elsevier/Academic Press, Amsterdam/San Diego, 828 pp
Delpeche-Ellmann NC, Soomere T (2013) Investigating the Marine Protected Areas most at risk
of current-driven pollution in the Gulf of Finland, the Baltic Sea, using a Lagrangian transport
model. Mar Pollut Bull 67:121–129
de Vries P, Döös K (2001) Calculating Lagrangian trajectories using time-dependent velocity
fields. J Atmos Ocean Technol 18:1092–1101
Döös K (1995) Inter-ocean exchange of water masses. J Geophys Res—Oceans 100:13,499–
13,514
Fennel W, Seifert T, Kayser B (1991) Rossby radii and phase speeds in the Baltic Sea. Cont Shelf
Res 11:23–36
Fingas MF (2011) Buoys and devices for oil spill tracking. In: Proceedings of the 34th AMOP
technical seminar on environmental contamination and response, environment, Canada, Ottawa,
ON, pp 213–228
Gästgifvars M, Lauri H, Sarkanen A-K, Myrberg K, Andrejev O, Ambjörn C (2006) Modelling
surface drifting of buoys during a rapidly-moving weather front in the Gulf of Finland, Baltic
Sea. Estuar Coast Shelf Sci 70:567–576
Gerdes R, Köberle C, Willebrand J (1991) The influence of numerical advection schemes on the
results of ocean general circulation models. Clim Dyn 5:211–226
Gräwe U, Wolff J-O (2010) Suspended particulate matter dynamics in a particle framework. Environ Fluid Mech 10:21–39
Gräwe U, Deleersnijder E, Shah SHAM, Heemink AW (2012) Why the Euler scheme in particle
tracking is not enough: the shallow-sea pycnocline test case. Ocean Dyn 62:501–514
Havens H, Luther ME, Meyers SD, Heil CA (2010) Lagrangian particle tracking of a toxic dinoflagellate bloom within the Tampa Bay estuary. Mar Pollut Bull 60:2233–2241
HELCOM (2009) Ensuring safe shipping in the Baltic. In: Stankiewicz M, Vlasov N (eds) Helsinki
commission, Helsinki, 18 pp
Hibler WD III (1979) A dynamic thermodynamic sea ice model. J Phys Oceanogr 9:817–846
Höglund A, Meier HEM, Broman B, Kriezi E (2009) Validation and correction of regionalised
ERA-40 wind fields over the Baltic Sea using the Rossby Centre Atmosphere Model RCA3.0.
Rapport Oceanografi No 97, Swedish Meteorological and Hydrological Institute, Norrköping,
Sweden, 29 pp
Hunke EC, Dukowicz JK (1997) An elastic-viscous-plastic model for sea ice dynamics. J Phys
Oceanogr 27:1849–1867
Jevrejeva S, Leppäranta M (2002) Ice conditions along the Estonian coast in a statistical view.
Nord Hydrol 33:241–262
Kachel MJ (2008) Particularly sensitive sea areas. Hamburg studies on Maritime Affairs, vol 13.
Springer, Berlin, 376 pp
Keevallik S, Soomere T (2010) Towards quantifying variations in wind parameters across the Gulf
of Finland. Est J Earth Sci 59:288–297
Killworth P, Stainforth D, Webb D, Paterson S (1991) The development of a free-surface Bryan–
Cox–Semtner ocean model. J Phys Oceanogr 21:1333–1348