New understanding of stroke damage may aid recovery
Stroke can lead to a wide range of problems such as depression and difficulty moving, speaking and paying attention. A new study led by Maurizio Corbetta, MD, at the School of Medicine has found evidence that stroke damage to “cables” buried inside the brain plays an important role in these impairments.
Damage to brain networks affects stroke recovery
Initial results of an innovative study may significantly change how some patients are evaluated after a stroke, according to School of Medicine researchers. Shown is the study’s senior author, Maurizio Corbetta, MD.
Brain regions ‘tune’ activity to enable attention
The brain appears to synchronize the activity of different brain regions to make it possible for a person to pay attention or concentrate on a task, scientists at the School of Medicine have learned. Pictured is the study’s first author, graduate student researcher Amy Daitch.
Speedier scans reveal new distinctions in resting and active brain
A boost in the speed of brain scans is unveiling new
insights into how brain regions work with each other in cooperative
groups called networks. Shown is the study’s senior researcher, Maurizio Corbetta, MD.
Daydreaming simulated by computer model
Scientists have created a virtual model of the brain that daydreams like humans do. They hope the model will help them understand why
certain portions of the brain work together when a person daydreams or
is mentally idle. Shown is the study’s senior author, Maurizio Corbetta, MD.
Multiple sclerosis research links brain activity to sharper cognitive decline
When it comes to communication in the brain, more is usually better. But now scientists, including Maurizio Corbetta, MD, have linked increased communication in a network of brain regions to more severe mental impairment in patients with early-stage multiple sclerosis (MS).
Scans of brain networks may help predict injury’s effects
Clinicians may be able to better predict the effects of strokes and other brain injuries by adapting a scanning approach originally developed for the study of brain organization, neurologists at Washington University School of Medicine in St. Louis have found.