The lateral line is a sensory system that allows fishes to detect weak water motions and
pressure gradients. The smallest functional unit of the lateral line is the neuromast, a …

Fishes are able to detect and perceive the hydrodynamic and physical environment they
inhabit and process this sensory information to guide the resultant behaviour through their …

A great many living beings, such as aquatics and arthropods, are equipped with highly
sensitive flow sensors to help them survive in challenging environments. These sensors are …

We describe a Eulerian–Lagrangian–agent method (ELAM) for mechanistically decoding
and forecasting 3-D movement patterns of individual fish responding to abiotic stimuli. A …

Anthropogenic structures in rivers are major threats for fish migration and effective mitigation
is imperative given the worldwide expansion of such structures. Fish behaviour is strongly …

Riverine fish are subjected to heterogeneous flow velocities and turbulence and may use
this to their advantage by selecting regions that balance energy expenditure for station …

The lateral line of fish is composed of neuromasts used to detect water motions. Neuromasts
occur as superficial neuromasts on the skin and as canal neuromasts in subepidermal …

Anthropogenic structures (eg weirs and dams) fragment river networks and restrict the
movement of migratory fish. Poor understanding of behavioural response to hydrodynamic …

One model for marine migration of Atlantic salmon Salmo salar proposes that North
American and southern European stocks (< 62° N) move directly to feeding grounds off west …

With the mechanosensory lateral line fish perceive water motions relative to their body
surface and local pressure gradients. The lateral line plays an important role in many fish …