We explore the evolutionary effects of fisheries on North-East Arctic (NEA) cod. It has earlier been shown that fisheries can change the cod’s age and size at maturation in two ways: first, by reducing the biomass, which may lead to faster individual growth and thereby earlier maturation (through phenotypic plasticity), and secondly, by altering the selective pressures so the stock evolves towards maturing at a smaller size and younger age (i.e., shifting the maturation reaction norm). Shifts in maturation reactions norms can be rapid and estimating them can help disentangle plastic and evolutionary changes in the age and size at maturation, which is important from a management perspective, as genetic changes are likely more difficult to re...
Harvesting may be a potent driver of demographic change and contemporary evolution, which both may h...
Climate change influences the marine environment, with ocean warming being the foremost driving fact...
Ecosystem dynamics and optimal long-term harvest in the Barents Sea fisheries. Proceedings of the 11...
Keywords: fisheries-induced adaptive change, life-history evolution, individual-based model, Gadus ...
Over the last eight decades, northeast Arctic cod has shown a marked change towards earlier maturati...
We present a probabilistic concept of reaction norms for age and size at maturation, and outline met...
In exploited fish stocks, long-term trends towards earlier maturation have been interpreted as an ev...
Fish stocks experiencing high fishing mortality show a tendency to mature earlier and at a smaller s...
This investigation commenced by constructing principal maturation schedule equations as a function o...
By estimating probabilistic reaction norms for age and size at maturation, we show that maturation s...
The relative roles of density dependence and life history evolution in contributing to rapid fisheri...
Population growth is affected by several factors such as climate, species interaction and harvesting...
Marine ecosystems, particularly in high‐latitude regions such as the Arctic, have been significantly...
The polar cod (Boreogadus saida) in the Barents Sea is one of the main stocks of this species in the...
Harvesting may be a potent driver of demographic change and contemporary evolution, which both may h...
Climate change influences the marine environment, with ocean warming being the foremost driving fact...
Ecosystem dynamics and optimal long-term harvest in the Barents Sea fisheries. Proceedings of the 11...
Keywords: fisheries-induced adaptive change, life-history evolution, individual-based model, Gadus ...
Over the last eight decades, northeast Arctic cod has shown a marked change towards earlier maturati...
We present a probabilistic concept of reaction norms for age and size at maturation, and outline met...
In exploited fish stocks, long-term trends towards earlier maturation have been interpreted as an ev...
Fish stocks experiencing high fishing mortality show a tendency to mature earlier and at a smaller s...
This investigation commenced by constructing principal maturation schedule equations as a function o...
By estimating probabilistic reaction norms for age and size at maturation, we show that maturation s...
The relative roles of density dependence and life history evolution in contributing to rapid fisheri...
Population growth is affected by several factors such as climate, species interaction and harvesting...
Marine ecosystems, particularly in high‐latitude regions such as the Arctic, have been significantly...
The polar cod (Boreogadus saida) in the Barents Sea is one of the main stocks of this species in the...
Harvesting may be a potent driver of demographic change and contemporary evolution, which both may h...
Climate change influences the marine environment, with ocean warming being the foremost driving fact...
Ecosystem dynamics and optimal long-term harvest in the Barents Sea fisheries. Proceedings of the 11...