Memories are the brain’s map of time
Our brain doesn’t merely register time – it structures it, new research from the Kavli Institute for Systems Neuroscience shows.
Our brain doesn’t merely register time – it structures it, new research from the Kavli Institute for Systems Neuroscience shows.
The mechanisms in the brain that should reduce pain don’t work as well in people with migraine when they haven’t gotten enough sleep.
Rather than simply tracking an animal’s real-time location, grid cells coordinate to perform rapid, rhythmic sweeps into the space ahead of the animal.
It’s been 10 years since Norwegian neuroscientists May-Britt and Edvard Moser won the Nobel Prize in Physiology or Medicine with their former mentor and colleague John O’Keefe. Listen to the Mosers themselves tell the story of how they came to discover grid cells, the neurons that help form a GPS in the brain.
Winning the Nobel Prize was never the goal. Nor was solving the Alzheimer’s puzzle. May-Britt Moser and Edvard Moser have even loftier goals.
She raised cormorants in her back yard in a kid’s swimming pool and studied the psychology of nuclear war on a MacArthur grant. But Kavli Award winner and cognitive neuroscientist Nancy Kanwisher always found herself coming back to studying the workings of the human mind.
A new method that aims to help people develop grit looks promising.
Scientists at NTNU’s Kavli Institute for Systems Neuroscience in Norway have discovered a pattern of activity in the brain that serves as a template for building sequential experiences.
The use of stem cells now makes it possible for us to cultivate so-called organoids, such as tiny versions of a liver, heart or small intestine, in the lab. These micro-organs can then be connected to a microchip that simulates the body’s biological processes. This ‘organ-on-a-chip’ technology opens the door to previously undreamt-of research possibilities.
A radioactive tracer is being tested for the first time in Norway at St. Olavs Hospital and NTNU. The goal is to improve the detection of dementia diseases.
How can we explain to school students how our nervous system works? An NTNU researcher has created a building kit designed to make our brain’s activity easier to understand.
The Kavli Institute for Systems Neuroscience has won a grant to share its groundbreaking miniature brain microscope with researchers across the globe.
Over three hundred Norwegians experience temporary memory loss each year, but the cause has until now been difficult to discern with brain scans. A super magnet costing EUR 9.4 million gives hope that more people might be able to find out why they suddenly forgot everything.
Stroke patients who experience delirium during a stroke could be more prone to developing cognitive and psychiatric difficulties.
Things slow down for a lot of us as we get older. But your brain can stay healthy longer with a little effort.
Twice as many women as men suffer from headaches. Migraines are the leading cause of disability for people under the age of 50.
Many people who experience problems with memory after a stroke regain their memory within three months.
How can we get an artificial hand or foot to communicate with the brain? NTNU researchers want to use the fat layer just under our skin.
Meet Mini2P – a tiny brain explorer that allows us to discover completely new landscapes in the live and active brain.
More than half of the individuals who suffer a stroke subsequently struggle with concentration and problem solving. Cognitive impairment following a stroke doesn’t go away. The problem has been overlooked, according to a major research project.
Researchers have gained a first insight into how the brain structures higher-level information. By extracting and analysing data from a neural network of grid cells, they found that the collective neural activity is shaped like the surface of a doughnut. The study, from NTNU’s Kavli Institute for Systems Neuroscience and collaborators, is published in Nature.
New findings show how experiments with animals can provide helpful information to understand Alzheimer’s and learn how we can better fight the disease.
You may think that they’re random movements, but they’re not: The way you use your eyes when perceiving the world around you reveals something significant about you and how you engage with the world. It can even be a diagnostic of brain disease.
The University of Bergen and the Kavli Institute at NTNU are joining forces on brain research with support from the Trond Mohn Foundation.