Brain protein promotes maintenance of chronic pain
Study results illuminate the potential of novel approach for the treatment of chronic pain.
Read moreStudy results illuminate the potential of novel approach for the treatment of chronic pain.
Read moreThe researchers recruited healthy older participants to two groups according to their history of tea drinking frequency and investigated both functional and structural networks to reveal the role of tea drinking on brain organization.
Read moreFor the first time, scientists have identified a simple way that can effectively transport medication into the brain – which could lead to improved treatments for neurological and neurodegenerative diseases.
Read moreThe neural circuit basis for motor learning tasks when myelination is impaired has been illuminated for the first time. Researchers also succeeded in compensating for the impaired motor learning process by pairing appropriate actions with brain photo-simulation to promote synchronization of neuronal activities. This could contribute to future treatments for neurological and psychiatric diseases in which white matter function is impaired.
Read moreA study has found that microglia drive neurodegeneration in diseases, including Alzheimer's disease, that are linked to tau protein. Targeting microglia may help treat such diseases.
Read moreBecause pain is a complex condition, treating it efficiently continues to pose challenge for physicians. Past pain research typically has focused upon the spinal cord or the peripheral areas of the nervous system located outside the spinal cord and brain. However, a research team recently investigated how some mechanisms in the brain contribute to pain.
Read moreScientists described a novel mechanism through which astrocytes, the most abundant supporting cells in the brain, also promote cancer cell growth and metastasis in the brain.
Read moreUsing a fluorescent probe that lights up when brain cells are electrically active, researchers found they can image the activity of many neurons at once, in mice brains. The technique could allow neuroscientists to analyze circuits within the brain and link them to specific behaviors.
Read moreA blood test which could help to accelerate the diagnosis of brain cancer has been developed in new research.
Read moreNeurons are not randomly arranged in the human brain. In the cortex, they are organized in interconnected clusters with high intrinsic connectivity. This modular connectivity structure, in which clusters eventually serve as functional units, is formed in early phases of development. The underlying self-organization process is regulated by neuronal activity but the detailed mechanisms are still poorly understood. Based on in vitro studies and computational modeling, neuroscientists have now made an important contribution to the understanding of brain networks and their development: in their current study, they show how neuronal outgrowth and migration interact in shaping network architecture and the degree of modularity in mature networks.
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