Illustration of a brain connectivity map from an Ohio State University study, showing neural patterns predicting cognitive activities, for a news article on neuroscience findings.
Bild generiert von KI

Study maps how brain connectivity predicts activity across cognitive functions

Bild generiert von KI
Fakten geprüft

Scientists at The Ohio State University have charted how patterns of brain wiring can predict activity linked to many mental functions across the entire brain. Each region shows a distinct “connectivity fingerprint” tied to roles such as language and memory. The peer‑reviewed findings in Network Neuroscience offer a baseline for studying healthy young adult brains and for comparisons with neurological or psychiatric conditions.

New research led by Ohio State doctoral student Kelly Hiersche finds that the web of connections linking brain regions can be used to anticipate where brain activity will rise or fall across a broad range of cognitive domains, extending prior work from isolated functions to a whole‑brain view. (news.osu.edu)

“We see connectivity as a fundamental organizational principle of brain function,” Hiersche said, describing the study’s overarching result. Co‑author Zeynep Saygin added that brain areas carry distinct “connectivity fingerprints” that relate to what those areas do. (news.osu.edu)

Senior author David Osher said the work clarifies “the connectivity pattern that makes a language area unique,” helping distinguish it from neighboring regions. (news.osu.edu)

Methods combined MRI data from 1,018 Human Connectome Project participants with NeuroQuery, an online meta‑analytic tool that maps activity for 33 cognitive processes (for example, speech, decision‑making, music listening and face perception). The team built computational models linking each region’s wiring to predicted task‑related activation patterns across the brain. (news.osu.edu)

Across regions and domains, connectivity patterns reliably tracked brain activity. The link was strongest in higher‑level functions, notably memory and executive control—skills that develop over many years, the authors noted. (news.osu.edu)

Because the analysis offers a “bird’s‑eye view” of typical young adult brains, the authors say it provides a reference point for future comparisons in neurological or psychiatric conditions. (news.osu.edu)

The study appears in Network Neuroscience; the journal lists the article’s DOI as 10.1162/NETN.a.504 and an Oct. 20, 2025 publication date. (eurekalert.org)

Verwandte Artikel

Realistic depiction of a rhesus macaque in a Princeton lab with brain overlay showing prefrontal cortex assembling reusable cognitive 'Lego' modules for flexible learning.
Bild generiert von KI

Princeton study reveals brain’s reusable ‘cognitive Legos’ for flexible learning

Von KI berichtet Bild generiert von KI Fakten geprüft

Neuroscientists at Princeton University report that the brain achieves flexible learning by reusing modular cognitive components across tasks. In experiments with rhesus macaques, researchers found that the prefrontal cortex assembles these reusable “cognitive Legos” to adapt behaviors quickly. The findings, published November 26 in Nature, underscore differences from current AI systems and could eventually inform treatments for disorders that impair flexible thinking.

Researchers at Rutgers Health have identified how the brain integrates fast and slow processing through white matter connections, influencing cognitive abilities. Published in Nature Communications, the study analyzed data from nearly 1,000 people to map these neural timescales. Variations in this system may explain differences in thinking efficiency and hold promise for mental health research.

Von KI berichtet

Neuroscientists have identified eight body-like maps in the visual cortex that mirror the organization of touch sensations, enabling the brain to physically feel what it sees in others. This discovery, based on brain scans during movie viewing, enhances understanding of empathy and holds promise for treatments in autism and advancements in AI. The findings were published in Nature.

Scientists at Northwestern University have created a soft, wireless brain implant that delivers patterned light directly to neurons, enabling mice to interpret these signals as meaningful cues without relying on sight, sound or touch. The fully implantable device uses an array of up to 64 micro-LEDs to generate complex activity patterns across the cortex, a development that could advance next-generation prosthetics and sensory therapies, according to Northwestern and Nature Neuroscience.

Von KI berichtet Fakten geprüft

A new study reports that as people listen to a spoken story, neural activity in key language regions unfolds over time in a way that mirrors the layer-by-layer computations inside large language models. The researchers, who analyzed electrocorticography recordings from epilepsy patients during a 30-minute podcast, also released an open dataset intended to help other scientists test competing theories of how meaning is built in the brain.

Researchers at MIT’s Picower Institute report that rotating waves of neural activity help the brain recover focus after distraction. In animal studies, the extent of these rotations tracked performance: full rotations aligned with correct responses, while incomplete cycles were linked to errors. The timing between a distraction and response also mattered, suggesting a timing‑dependent recovery cycle.

Von KI berichtet

Researchers have created a detailed brain organoid mimicking the developing cerebral cortex, complete with blood vessels that closely resemble those in a real brain. This advance addresses a key limitation in lab-grown mini-brains, potentially allowing them to survive longer and provide deeper insights into neurological conditions. The organoid, grown from human stem cells, features evenly distributed vessels with hollow centers, marking a significant step forward in brain research.

 

 

 

Diese Website verwendet Cookies

Wir verwenden Cookies für Analysen, um unsere Website zu verbessern. Lesen Sie unsere Datenschutzrichtlinie für weitere Informationen.
Ablehnen