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University of Toronto


Executive powers in the nursery

A new University of Toronto study examines the effect of infant vocalizations on adult cognitive conflict processing and attention. The research found that infant cries reduce attention to tasks and trigger greater cognitive conflict than infant laughs.

SourceUniversity of Toronto·JournalPLOS ONE·DateMay 19, 2016

How tree crickets tune into each other's songs

Researchers studied how tree crickets adjust their ears to match the changing frequency of their song with rising temperatures. By analyzing nerve cell reactions and ear vibrations, they found that tree cricket ears can adapt at a cellular level to recognize specific frequencies.

SourceUniversity of Toronto·JournalBiological Letters·DateMay 4, 2016

DNA barcodes gone wild

A team of researchers has developed a new technology that can stitch together DNA barcodes inside cells, allowing scientists to search amongst millions of protein pairs for protein interactions. This breakthrough increases the rate of discovery without increasing costs.

SourceUniversity of Toronto·JournalMolecular Systems Biology·DateApr 22, 2016

Do we judge distance based on how a word sounds?

A new study by the University of Toronto reveals that people intuitively pair front vowel sounds with things close by and back vowel sounds with distances away. This knowledge can inform marketing strategies, such as choosing names for products or brands that align with their intended distance from customers.

SourceUniversity of Toronto·JournalCognition·DateApr 18, 2016

The invisible world of human perception

A study published in Attention, Perception, & Psychophysics reveals that people can intentionally exclude objects from their mental model of their environment. Test observers were faster at finding a target when the objects matched the color of the rectangle, but not when they did not, indicating top-down control over attention.

New step toward determining the cause of MS

The study found that stromal cells, specialized fibers, and T helper 17 cells collaborate to form tertiary lymphoid tissues (TLTs) in the brain of MS patients. This discovery may lead to potential treatment options, such as targeted Th17 blockers, by understanding how TLTs are formed.

SourceUniversity of Toronto·JournalImmunity·DateDec 15, 2015

Possible new explanation for ALS

Researchers discovered a new way in which ALS kills nerve cells by disrupting protein synthesis, highlighting the importance of RNA-binding proteins in disease progression. The study provides a potential key to treating both ALS and dementia.

SourceUniversity of Toronto·JournalNeuron·DateOct 29, 2015

Plants with jobs

Two University of Toronto scientists developed a new research framework to measure agricultural impacts using functional trait-based ecology. The approach focuses on how plants respond to and affect changes in their environment, providing insights into crop diversity, nutrient cycling, pest repellence and drought mitigation.

SourceUniversity of Toronto·JournalJournal of Applied Ecology·DateSep 25, 2015

What powers the pumping heart?

Scientists have identified 500 novel membrane proteins that play a critical role in normal heart function and may help uncover new information about heart failure and arrhythmias. The research focuses on protein Tmem65, which regulates communication between cardiac contractile cells.

SourceUniversity of Toronto·JournalNature Communications·DateSep 25, 2015

Tree of life study unveils inner workings of a cell

A multinational team of scientists created the world's largest protein map, revealing tens of thousands of new protein interactions that account for about a quarter of all estimated protein contacts in a cell. The map is helping researchers spot individual proteins that could be at the root of complex human disorders.

SourceUniversity of Toronto·JournalNature·DateSep 7, 2015

Research with bite

A new study reveals that the distinctive, saw-like tooth structure of theropod dinosaurs enabled them to effectively process food, contributing to their success as predators. The discovery sheds light on the evolution of dinosaur dentition and has implications for our understanding of these ancient creatures.

SourceUniversity of Toronto·JournalScientific Reports·DateJul 28, 2015

Uncovering a key relationship in ALS

A University of Toronto research team discovered a new link between the genetic cause of ALS and its pathology, suggesting that C9orf72's mislocalization leads to TDP-43 buildup. This breakthrough offers new avenues for research and potential treatment or cure.

SourceUniversity of Toronto·JournalAnnals of Neurology·DateJul 15, 2015