By Katherine Gombay
The transition from being sea creatures to living on land, even if it happened over 300 million years ago, seems to have left its traces on the way we keep our balance today.
“It’s a discovery that is likely to be controversial,” says Kathy Cullen, the senior researcher on a paper on the subject that was published recently in Nature Communications. She has been working on this problem for over a decade with her colleague Maurice Chacron who also teaches in McGill’s Department of Physiology.
McGill Newsroom
Neuron cell death may be caused by overactive immune system
A team of scientists led by Dr. Michel Desjardins from the University of Montreal and Dr. Heidi McBride from the Montreal Neurological Institute and Hospital (MNI) at McGill University have discovered that two genes associated with Parkinson's disease (PD) are key regulators of the immune system, providing direct evidence linking Parkinson's to autoimmune disease.
By Julie Robert, McGill University Health Centre
A research team, led by the Research Institute of the McGill University Health Centre (RI-MUHC) in Montreal, has broken new ground in our understanding of the complex functioning of the brain.
By Katherine Gombay, McGill Newsroom
New technique offers potential to reconnect neurons of people with central nervous system damage
A new study published in the journal Molecular Psychiatry by a team led by Salah El Mestikawy, Ph.D., researcher at the Douglas Mental Health University Institute (CIUSSS de l’Ouest-de-l’île-de-Montréal), professor at McGill University and head of research at CNRS INSERM UPMC in Paris, opens the field to new understanding of the molecular mechanism underlying addiction in humans.
An international study led by scientists at McGill University reports, for the first time, that drugs that selectively target the melatonin MT2 receptor represent a novel class of analgesic drugs that could be used to treat patients with neuropathic pain.
An international research team led by scientists at McGill University has found that excessive salt intake “reprograms” the brain, interfering with a natural safety mechanism that normally prevents the body’s arterial blood pressure from rising.
Mechanism meant to maintain efficiency of brain network involved in neurodegenerative disease