Repetitive transcranial magnetic stimulation (rTMS) applied to the left prefrontal cortex can improve episodic memory performance by reducing the power of low frequency of brain waves during memory formation.
A transcranial magnetic stimulation study revealed the motor cortex may play a role in translating foreign language words into one's native tongue.
When people witness an act they find offensive, the brain inhibits neurons that control tongue movement in the same way as it does when a person tastes something bad.
Interaction between auditory areas of the brain and the reward system drive pleasure when we listen to music.
Study identifies a neural pathway associated with error monitoring and attention function in some psychiatric disorders such as ADHD, ASD, and schizophrenia. Researchers say the pathway could be modulated with the help of transcranial magnetic stimulation or transcranial direct current stimulation.
Applying transcranial magnetic stimulation to brain networks responsible for memory helped improve memories of complex and realistic events.
Repetitive transcranial magnetic stimulation significantly decreases post-stroke depression by increasing brain activity.
Obesity isn't just bad for physical health. Being overweight can have a significant impact on neurological health too. Researchers identified a link between obesity and reduced brain plasticity. Brain plasticity impairment could lead to cognitive and learning deficits in those suffering from obesity.
The application of synchronized transcranial magnetic stimulation (TMS) and peripheral nerve stimulation (PNS) restored the ability to walk in a patient with spinal cord injury.
The occipital cortex plays a causal role in piloting our attention to manage the intake of images.
New neurostimulation technology works safely and non-invasively to modify brain activity. The findings may provide some foundational knowledge for the development of future technologies that could expedite cognitive processes.
The strength of a person's mental imagery is associated with excitability in the prefrontal cortex and visual cortex. Highly excitable neurons in the visual cortex may reduce a person's ability to imagine mental images. The findings shed light on how aphantasia, a condition where a person can not imaging mental images, may occur.
