<p>a) Examples of backtracked trajectories for six observations of larval in the CPR distributed across the North Sea. Red circles mark capture points in the CPR, blue circles the end points of particles after 10 days of backtracking. Black lines connect the two points for visual reference. Text denotes the CPR label code. b) Distribution of particle displacements after 10 days drift. Left axis (grey bars) depict the frequency (number of CPR observations containing larvae) for each 10km class bin. Black-line with black dot (right axis) shows the empirical cumulative distribution function.</p
<p>Selected position trajectories from participant D are shown. Thick lines represent measured traje...
A Lagrangian stochastic larva tracking model based on a 3-dimensional (3D) high resolution wind-driv...
<p>First six days of the estimated (in blue) and real (in red) discrete-time trajectories of the 24 ...
Larvae example trajectories This is 2x 10.000 example trajectories from biophysical experiments per...
Larvae example trajectories This is 2x 10.000 example trajectories from biophysical experiments per...
Drift models are commonly used to study the transport of early life stages of fish and other marine ...
<p>Simulations were conducted by continuously releasing (<i>n</i> = 1×10<sup>6</sup>) “virtual larva...
<p>Each Fig (a-d) displays histograms from six release dates (01 April—01 September), released from ...
Lagrangian particle-tracking models (LPTMs) were used to identify sources, destinations, and transpo...
<p>Onshore/offshore distribution of trajectory density predicted by the Base experiments with (light...
<p>(A) Observed GPS trajectory of F2 (bold line, the final location is indicated by the large gray c...
<p>Each panel (a-d) displays PTM output, after a 30-day PLD, from six release dates (01 April—01 Sep...
Lagrangian particle-tracking models (LPTMs) were used to identify sources, destinations, and transpo...
<p>(<b>A</b>) A symmetric, two–dimensional probability density function (dispersal kernel). Dispersa...
<p>Relative larval dispersal probabilities predicted from a biophysical model where larvae were rele...
<p>Selected position trajectories from participant D are shown. Thick lines represent measured traje...
A Lagrangian stochastic larva tracking model based on a 3-dimensional (3D) high resolution wind-driv...
<p>First six days of the estimated (in blue) and real (in red) discrete-time trajectories of the 24 ...
Larvae example trajectories This is 2x 10.000 example trajectories from biophysical experiments per...
Larvae example trajectories This is 2x 10.000 example trajectories from biophysical experiments per...
Drift models are commonly used to study the transport of early life stages of fish and other marine ...
<p>Simulations were conducted by continuously releasing (<i>n</i> = 1×10<sup>6</sup>) “virtual larva...
<p>Each Fig (a-d) displays histograms from six release dates (01 April—01 September), released from ...
Lagrangian particle-tracking models (LPTMs) were used to identify sources, destinations, and transpo...
<p>Onshore/offshore distribution of trajectory density predicted by the Base experiments with (light...
<p>(A) Observed GPS trajectory of F2 (bold line, the final location is indicated by the large gray c...
<p>Each panel (a-d) displays PTM output, after a 30-day PLD, from six release dates (01 April—01 Sep...
Lagrangian particle-tracking models (LPTMs) were used to identify sources, destinations, and transpo...
<p>(<b>A</b>) A symmetric, two–dimensional probability density function (dispersal kernel). Dispersa...
<p>Relative larval dispersal probabilities predicted from a biophysical model where larvae were rele...
<p>Selected position trajectories from participant D are shown. Thick lines represent measured traje...
A Lagrangian stochastic larva tracking model based on a 3-dimensional (3D) high resolution wind-driv...
<p>First six days of the estimated (in blue) and real (in red) discrete-time trajectories of the 24 ...