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Coastal wildlife more vulnerable to microplastics than expected

A new study by the University of Exeter and Plymouth Marine Laboratory reveals that coastal-dwelling marine wildlife are more vulnerable to harmful plastic pollution than previously thought. The research found that animals living in waters near densely-populated coastlines are at risk of coming into direct contact with microplastics.

SourceUniversity of Exeter·JournalFrontiers in Ecology and the Environment·DateOct 3, 2016

Fighting barnacle buildup with biology

A new study identifies a specific chain of proteins activated during barnacle metamorphosis, suggesting bacteria play a crucial role in their development. The findings could lead to the development of ship coatings that inhibit bacterial cues, mitigating biofouling issues.

SourceSan Diego State University·JournalProceedings of the National Academy of Sciences·DateAug 22, 2016

What can a sea-lion teach us about musicality?

Researchers found that a sea lion named Ronan can keep the beat better than any other non-human animal, suggesting that beat-keeping abilities may be more ancient and widespread than thought. The study used mathematical equations to analyze Ronan's brain activity while she moved to different rhythms.

SourceFrontiers·JournalFrontiers in Neuroscience·DateAug 2, 2016

On land and at sea, large animals are in 'double jeopardy'

A new study reveals that large marine and terrestrial species are in 'double jeopardy' of extinction, with economic value driving risk above a certain threshold. The analysis highlights the importance of considering trade and differences between terrestrial and marine animals when designing effective conservation strategies.

SourceCell Press·JournalCurrent Biology·DateJun 9, 2016

Scientists establish first map of the sea lion brain

Researchers at Vanderbilt University have created a detailed map of the California sea lion's brain, highlighting its unique somatosensory system. The study revealed specific areas in the brain responsible for processing touch information from whiskers and flippers, similar to those found in mice and humans.

SourceVanderbilt University·JournalJournal of Comparative Neurology·DateApr 27, 2016

Chasing after a prehistoric Kite Runner

Researchers from Yale, Oxford, and Imperial College London describe a new species of ancient arthropod that carried its young in capsules tethered to its body. The creature, named Aquilonifer spinosus, lived about 430 million years ago and had unique brooding strategies to protect its eggs and embryos from predators.

SourceYale University·JournalProceedings of the National Academy of Sciences·DateApr 4, 2016

Give and take

A new study by UC Santa Barbara researchers finds that excess nutrient input leads to imbalances in mutualistic species interactions. This can have far-reaching implications for ecosystems, including decreased growth of fungal partners and increased growth of plant partners.

SourceUniversity of California - Santa Barbara·JournalEcology Letters·DateMar 10, 2016

Animal evolution: Revolution averted

A recent study by an international group of evolutionary biologists has convincingly refuted the proposition that comb jellies are the phylogenetically oldest extant metazoan group. Sponges are now reaffirmed as the first phylum to diverge from the common ancestor of metazoans, restoring the classical view of early animal evolution.

SourceLudwig-Maximilians-Universität München·JournalProceedings of the National Academy of Sciences·DateDec 1, 2015

An arms race among venomous animals?

Researchers found that ancient venomous groups evolve slowly under purifying selection, while recent lineages diversify rapidly under positive selection. This reveals a new theory of venom evolution, proposing a 'two-speed' mode where toxins expand and then are preserved through purifying selection.

SourceThe Hebrew University of Jerusalem·JournalPLOS Genetics·DateNov 9, 2015

What does it take to escape the water? Plankton have clues

A new study on plankton's jumping behavior shows that velocity is the primary factor determining whether an animal can break the water's surface. Only certain species of copepods with high impact speeds of around one meter per second can jump out of the water, suggesting they may be the smallest animals capable of this feat.

SourceVirginia Tech·JournalInterface·DateOct 13, 2015