The Lofoten-Barents Sea area, which contains some of the most valuable fish stocks of the Atlantic Ocean, is being considered for offshore oil production. We review the effects of a hypothetical oil spill on fishes in this area, with a focus on effects on the egg and larval stage of the 3 dominating fish stocks: NE Arctic cod Gadus morhua, Barents Sea capelin Mallotus villosus, and Norwegian spring-spawning herring Clupea harengus. In particular, we emphasise that the long-term population impact of an oil spill depends on ecological and oceanographic factors, some of which have been poorly explored. Among these are (1) effects of the physical state of the ocean, especially mesoscale circulation features, on the advection of oil and fish lar...
We simulate oil spills of 1500 and 4500 m3/day lasting 14, 45, and 90 days in the spawning grounds o...
The main question we will be addressing is how oil spills affect fish populations, and how different...
Coupling an oil drift and fates model (Oscar) in an offline environment with an individual-based mod...
The Lofoten-Barents Sea area, which contains some of the most valuable fish stocks of the Atlantic O...
It has been proposed that the multiple pressures of fishing and petroleum activities impact fish sto...
The rich and valuable fish stocks of the Northeast Arctic cod and the Norwegian spring-spawning he...
We simulate the combined natural and pollutant-induced survival of early life stages of NEA cod and ...
We simulate the combined natural and pollutant-induced survival of early life stages of NEA cod and ...
Eggs, larvae and the larvae's first search for food are the most critical stages in a fish life, bo...
Oil exploration in Norwegian waters will probably be extended further north into the Barents Sea. T...
The Baltic Sea is one of the world’s most stressed sea areas. Major threats to the ecosystem include...
We simulate oil spills of 1500 and 4500 m3/day lasting 14, 45, and 90 days in the spawning grounds o...
An oil-spill fishery impact assessment model composed of an oil-spill fates model, a shelf hydrodyna...
Coupling an oil drift and fates model (Oscar) in an offline environment with an individual-based mod...
We simulate oil spills of 1500 and 4500 m3/day lasting 14, 45, and 90 days in the spawning grounds o...
The main question we will be addressing is how oil spills affect fish populations, and how different...
Coupling an oil drift and fates model (Oscar) in an offline environment with an individual-based mod...
The Lofoten-Barents Sea area, which contains some of the most valuable fish stocks of the Atlantic O...
It has been proposed that the multiple pressures of fishing and petroleum activities impact fish sto...
The rich and valuable fish stocks of the Northeast Arctic cod and the Norwegian spring-spawning he...
We simulate the combined natural and pollutant-induced survival of early life stages of NEA cod and ...
We simulate the combined natural and pollutant-induced survival of early life stages of NEA cod and ...
Eggs, larvae and the larvae's first search for food are the most critical stages in a fish life, bo...
Oil exploration in Norwegian waters will probably be extended further north into the Barents Sea. T...
The Baltic Sea is one of the world’s most stressed sea areas. Major threats to the ecosystem include...
We simulate oil spills of 1500 and 4500 m3/day lasting 14, 45, and 90 days in the spawning grounds o...
An oil-spill fishery impact assessment model composed of an oil-spill fates model, a shelf hydrodyna...
Coupling an oil drift and fates model (Oscar) in an offline environment with an individual-based mod...
We simulate oil spills of 1500 and 4500 m3/day lasting 14, 45, and 90 days in the spawning grounds o...
The main question we will be addressing is how oil spills affect fish populations, and how different...
Coupling an oil drift and fates model (Oscar) in an offline environment with an individual-based mod...