A new suite of laboratories aimed at improving outcomes for patients with brain injuries and brain tumours opens today at the University of Cambridge.
The next generation of imaging technology, newly installed at the University of Cambridge, will give researchers an unprecedented view of the human body – in particular of the myriad connections within our brains and of tumours as they grow and respond to treatment – and could pave the way for development of treatments personalised for individual patients.
From middle-age, the brains of obese individuals display differences in white matter similar to those in lean individuals ten years their senior, according to new research led by the University of Cambridge. White matter is the tissue that connects areas of the brain and allows for information to be communicated between regions.
A tree the height of 20 London double-decker buses has been discovered in Malaysia by conservation scientists monitoring the impact of human activity on the biodiversity of a pristine rainforest. The tree, a Yellow Meranti, is one of the species that can be grown in the computer game Minecraft.
Observation of the point at which proteins associated with Parkinson’s disease become toxic to brain cells could help identify how and why people develop the disease, and aid in the search for potential treatments.
People diagnosed with schizophrenia who are prone to hallucinations are likely to have structural differences in a key region of the brain compared to both healthy individuals and people diagnosed with schizophrenia who do not hallucinate, according to research published today.
Scientists at the Cambridge Institute for Medical Research at the University of Cambridge and the Medical Research Council Laboratory of Molecular Biology have taken advantage of revolutionary developments in microscopic imaging to reveal the origins of leukaemia.
An international team of astronomers led by the University of Cambridge have detected the most distant clouds of star-forming gas yet found in normal galaxies in the early Universe – less than one billion years after the Big Bang. The new observations will allow astronomers to start to see how the first galaxies were built up and how they cleared the cosmic fog during the era of reionisation. This is the first time that such galaxies have been seen as more than just faint blobs.
Researchers at the University of Cambridge, in collaboration with the University of Edinburgh, have shown how a radioactive agent developed in the 1960s to detect bone cancer can be re-purposed to highlight the build-up of unstable calcium deposits in arteries, a process that can cause heart attack and stroke.