Evidence of social learning is growing across the animal kingdom. Researchers have long
hypothesized that social interactions play a key role in many animal migrations, but strong …

Interpreting sound gives powerful insight into the health of ecosystems. Beyond detecting
the presence of wildlife, bioacoustic signals can reveal their behavior. However, behavioral …

Bio-logging devices equipped with inertial measurement units—particularly accelerometers,
magnetometers, and pressure sensors—have revolutionized our ability to study animals as …

Monitoring on the basis of sound recordings, or passive acoustic monitoring, can
complement or serve as an alternative to real‐time visual or aural monitoring of marine …

Animal migration plays a central role in many ecological and evolutionary processes, yet
migratory populations worldwide are increasingly threatened. Adjusting migration timing to …

Soundscapes offer rich descriptions of composite acoustic environments. Characterizing
marine soundscapes simply through sound levels results in incomplete descriptions, limits …

Low-frequency sound from large vessels is a major, global source of ocean noise that can
interfere with acoustic communication for a variety of marine animals. Changes in vessel …

Individual identification contributes significantly towards investigating behavioral
mechanisms of animals and understanding underlying ecological principles. Most studies …

Trophic transfer of energy through marine food webs is strongly influenced by prey
aggregation and its exploitation by predators. Rapid aggregation of some marine fish and …

Matching the timing of life‐history transitions with ecosystem phenology is critical for the
survival of many species, especially those undertaking long‐distance migrations. As a result …