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Carnegie Mellon University


People watching: Different brain pathways responsible for person, movement recognition

A study published in PNAS found that individuals with prosopagnosia can still recognize human movements, engaging different brain mechanisms. The research team used point-light displays to test patients with brain damage preventing facial recognition, revealing a neural process for comprehending actions independent of the actor.

SourceCarnegie Mellon University·JournalProceedings of the National Academy of Sciences·DateJan 12, 2015

Social support: How to thrive through close relationships

Researchers Brooke Feeney and Nancy L. Collins identify two support functions that help individuals thrive through close relationships: source of strength (SOS) support and relational catalyst (RC) support. SOS support enables individuals to cope with stress, while RC support fosters opportunities for growth and positive well-being.

SourceCarnegie Mellon University·JournalPersonality and Social Psychology Review·DateSep 5, 2014

'Haven't my neurons seen this before?'

A new study reveals that neurons in the brain's inferotemporal cortex fire strongly and selectively when exposed to familiar images, especially those seen many times before. This finding suggests that the brain uses this mechanism to track a rapidly changing visual environment and may lead to improvements in perception and cognition.

SourceCarnegie Mellon University·JournalNature Neuroscience·DateAug 24, 2014

Weighing the Milky Way

An international team of researchers devises precise method for calculating galaxy masses using gravity and expansion data. The new study shows the Milky Way has only half the mass of its neighbor Andromeda.

SourceCarnegie Mellon University·JournalMonthly Notices of the Royal Astronomical Society·DateJul 29, 2014

Molecular networks provide insights for computer security, Carnegie Mellon finds

The Carnegie Mellon team developed an algorithm that generates robust architectures for computer networks by analyzing the evolution of molecular connections in yeast cells. This approach can help understand how networks respond to cascading failures and external threats, offering insights into designing secure systems.

SourceCarnegie Mellon University·JournalJournal of The Royal Society Interface·DateApr 29, 2014