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Neurons gather together for vision

Researchers have discovered column-like structures in the visual cortex of mice, where neurons processing stimuli from the same eye form clusters. This finding sheds light on the structural organization of the brain and may help solve the mystery of cortical columns' function.

SourceMax-Planck-Gesellschaft·JournalNature·DateFeb 27, 2025

Brain development: extracellular vesicles facilitate cellular communication

Research led by Silvia Cappello reveals that extracellular vesicles play a crucial role in the development of the brain, facilitating communication between different cell types. The study found that these vesicles can transport specific molecular signals to the nucleus of recipient cells, inducing rapid transcriptional changes and infl...

SourceLudwig-Maximilians-Universität München·JournalCell Reports·TypeExperimental study·DateSep 25, 2024

Sport or snack? How our brain decides

Studies in mice reveal that orexin plays a key role in deciding between physical activity and consuming food, particularly when both options are available. By understanding this process, scientists aim to develop strategies to overcome exercise barriers and address the global obesity epidemic.

SourceETH Zurich·JournalNature Neuroscience·TypeExperimental study·DateAug 6, 2024

Neuroscience research leverages stem cells to understand how neurons connect and communicate in the brain

Researchers at Colorado State University used human stem cells to study synaptic connections in the brain, focusing on GABAergic synapses. They found that Gephyrin promotes autonomous assembly of these synapses, which can develop independently of neuronal communication. This understanding could lead to new treatments for neurological d...

SourceColorado State University·JournalProceedings of the National Academy of Sciences·DateJun 26, 2024

Scientists solve chemical mystery at the interface of biology and technology

Researchers discovered a two-step process behind the lagging behavior of organic electrochemical transistors (OECTs), which can be customized to improve data processing speed. The study's findings may help design better materials for next-generation applications in biosensing and brain-inspired computation.

Researchers uncover a potential method for interrupting the misfolding of tau protein that underlies neurodegenerative disease

A team of researchers found potential ways to interrupt the misfolding of tau proteins by targeting sticky sites along the long form of mutated tau, preventing neurofibrillary tangles. This breakthrough could lead to therapeutic interventions capable of disaggregating or preventing tau aggregation.

SourceUniversity of California - Santa Barbara·JournalProceedings of the National Academy of Sciences·DateApr 3, 2024

Vlasov and Bashir groups develop nanoscale device for brain chemistry analysis

The University of Illinois has developed a new nanoscale sensor that can monitor areas 1,000 times smaller than traditional technology, tracking subtle changes in brain chemistry with sub-second resolution. The device takes advantage of silicon-based manufacturing techniques to achieve 100% efficiency and high spatial resolution.

UMass Chan researchers identify molecular link between gut bacteria and excitatory brain signaling in C. elegans

Researchers established a molecular link between specific B12-producing gut bacteria and acetylcholine production in C. elegans, a neurotransmitter important to memory and cognitive function. A diet rich in these bacteria reduced seizure-like behavior in mutant worms by restoring excitatory/inhibitory balance.

SourceUMass Chan Medical School·JournalNature Cell Biology·TypeExperimental study·DateJan 4, 2024

Sahmyook University researchers identify genes associated with addiction to psychostimulant drugs

Sahmyook University researchers discovered a correlation between methamphetamine-induced behavior and the expression of specific genes in mice models lacking Period 2 gene. They identified 19 genes that were activated only in response to repeated doses of methamphetamine.

SourceSahmyook University·JournalProgress in Neuro-Psychopharmacology and Biological Psychiatry·TypeExperimental study·DateSep 7, 2023

Uncovering the role of somatostatin signaling in the brain

A Penn State-led research team discovered that somatostatin signaling acts to dampen communication among cell types in the prefrontal cortex, promoting exploratory and risk-taking-like behavior. The findings suggest that somatostatin fine-tunes circuits to promote certain behaviors, including decision making.

SourcePenn State·JournalCell Reports·TypeExperimental study·DateAug 17, 2023

Preying on hungry, anxious worms

In a new study, Salk Institute scientists discovered that dopamine regulates anxious worm behavior in the presence of nipping predators. The findings illuminate how this dopamine-regulated brain pathway may be related to anxiety and could provide insight into human conditions like PTSD.

SourceSalk Institute·JournaleLife·TypeExperimental study·DateJul 11, 2023

Novel nomogram based on routine clinical indicators for Wilson's disease detection

Researchers in China have created a simple nomogram using easily accessible and automatable detected routine clinical indicators to reduce missed diagnosis and misdiagnosis of Wilson's disease. The study identified six independent predictors of the disease, including serum copper and direct bilirubin.

SourceKeAi Communications Co., Ltd.·JournalLiver Research·TypeRandomized controlled/clinical trial·DateMay 9, 2023

Shedding light on the happy hormone

A novel fluorescent sensor has been developed to visualize the release of oxytocin, also known as the 'happy hormone', in living animals. The sensor, called MTRIA OT, allows for real-time measurement of extracellular oxytocin dynamics in the brain, revealing variability in OT levels dependent on behavioral and physical conditions.

SourceOsaka University·JournalNature Methods·TypeImaging analysis·DateSep 22, 2022

Advancing dynamic brain imaging with AI

A new AI-based dynamic brain imaging technology has been introduced by Carnegie Mellon University, which can map out rapidly changing electrical activity in the brain with high precision and speed. The technology uses deep learning approaches to translate scalp EEG signals back to neural circuit activity without human intervention.

SourceCollege of Engineering, Carnegie Mellon University·JournalProceedings of the National Academy of Sciences·DateJul 28, 2022