Prosopagnosia, or "face-blindness", involves an entire network, not just one area of the brain. The findings may shed light on poor facial processing abilities associated with autism.
Study identifies a different set of individual neurons in the medial frontal cortex that is responsible for memory-based decision making. The findings have implications for the treatment of Alzheimer's disease, schizophrenia, and other disorders associated with problems in cognitive flexibility.
Mouse study reveals slow-wave brain activity, which is indicative of sleep and resting states, is controlled by the claustrum. The synchronization of active and silent states across the brain via the slow waves contributes to consciousness.
Using optical neuroimaging, researchers gain a better understanding of visual working memory in young children.
Heart insufficiency has a negative impact on gray matter in the brain. Weak heart function was linked to decreased gray matter in areas of the brain associated with memory and learning, including the hippocampus and parietal medial cortex. This may increase the risk of Alzheimer's disease.
According to a new study, a genetic variation in the FOXP2 gene is associated with the ability for adults to learn new languages.
Researchers have found significant changes in the brain make up of fetuses and newborn rats exposed to allergens during pregnancy.
Early-life exposure to antibiotics may impact brain signaling pathways associated with social behavior and pain regulation. Young mice treated with antibiotics had reduced expression of receptors that mediate endorphin, oxytocin, and vasopressin signaling in the frontal cortex.
Researchers discover a gene already associated with longevity also improves memory and learning. The findings could help develop new treatments for cognitive decline.
Researchers report on why some people experience aphantasia, the inability to imagine in images.
Study reveals a surprising level of similarity in brain structure and development between humans and other primates.
Researchers may have solved one of the great mysteries of neuroscience; namely, why neurons in the temporal lobe are the first to die in Alzheimer's disease, and why dopaminergic neurons are damaged first in Parkinson's.
