Can training memory and attention on a home computer-task reduce spatial awareness problems after stroke?
The aim of this research programme is to develop a human brain bank to support biomedical research into the pathophysiology of human SVD that may be used nationally and internationally.
Amazing Brains: Research to Recovery. Previously known as our Keynote Lecture, our event took taking place on Wednesday, 15 May 2019, at the Science Museum in central London.
Magnetic resonance imaging (MRI) scans provide lots of data on the health of a person’s brain, not all of which is routinely used in clinical practice. This project will continue the development of tools to assess the brain scans of people with stroke.
Stroke survivors and their relatives consistently ask for information about how much recovery can be expected. This study will look at how well a patient can use their arm after stroke, and at their brain images recorded within 72-hours after stroke. The hope is that brain images can improve our prediction of patient arm movement recovery at six months after stroke.
The effect of blood pigments on brain inflammation and survival of nerve cells
Around 15% of strokes are haemorrhagic (due to bleeding in or around the brain). This guide explains the two different types of stroke caused by a bleed, intracerebral and subarachnoid haemorrhage, and how they are diagnosed and treated.
Torpor is a natural state of reduced energy use and body temperature. This research will look at the effect of torpor on brain activity and function, and the amount of brain damage caused by ischaemic stroke.
The CROMIS-2 study investigated whether signs of small brain bleeds on routine brain scans can help us understand which ischaemic stroke patients with atrial fibrillation are at increased risk of a bleed in the brain when on anticoagulant ‘blood thinning’ drugs.