To make sense of complex environments, brain waves constantly adapt, compensating for drastically different sound and vision processing speeds
Every high-school physics student learns that sound and light travel at very different speeds. If the brain did not account for this difference, it would be much harder for us to tell where sounds came from, and how they are related to what we see.
The power of artificial intelligence (AI) in medicine lies in its ability to find important statistical patterns in large datasets. A study published today is an important proof of concept for how AI can help doctors and brain tumour patients make better treatment decisions.
Open source app helps predict brain tumour malignancy and patient survival
The power of artificial intelligence (AI) in medicine lies in its ability to find important statistical patterns in large datasets. A study published today is an important proof of concept for how AI can help doctors and brain tumour patients make better treatment decisions.
Sylvain Baillet, chercheur à l'Institut neurologique de Montréal, étudie la mémoire de travail auditive, cette mémoire qui nous permet de retenir les derniers sons entendus pendant quelques secondes - une faculté importante qui nous permet entre autres de suivre une conversation. Il a noté que la stimulation magnétique a amélioré cette forme de mémoire chez ses sujets.
Whether it is dancing or just tapping one foot to the beat, we all experience how auditory signals like music can induce movement. Now new research suggests that motor signals in the brain actually sharpen sound perception, and this effect is increased when we move in rhythm with the sound.
Brain diseases and disorders are the leading cause of disability, directly affecting one in three Canadians as well as millions of family members, friends, colleagues and caregivers. The Government of Canada recognizes the significant impact on the health of Canadians, and supports Canadian research on the brain and related diseases and disorders
The ability to remember sounds, and manipulate them in our minds, is incredibly important to our daily lives — without it we would not be able to understand a sentence, or do simple arithmetic. New research is shedding light on how sound memory works in the brain, and is even demonstrating a means to improve it.
In an article published in Nature on Feb. 15, 2017, researchers, including principal investigators from the Montreal Neurological Institute’s McConnell Brain Imaging Centre (BIC), used magnetic resonance imaging (MRI) to predict the development of autism in babies.
Scientists at the Montreal Neurological Institute and Hospital at McGill University have made an important discovery about the human auditory system and how to study it, findings that could lead to better testing and diagnosis of hearing-related disorders.
The researchers detected frequency-following responses (FFR) coming from a part of the brain not previously known to emit them. FFRs are neural signals generated in the brain when people hear sounds.
The Neuro’s McConnell Brain Imaging Centre reaches a milestone
How does the brain grow and develop in childhood and aging? How does brain activity shape and unfold within milliseconds? How does our brain respond to objects, faces, food, and music? How is the brain affected in drug abuse, multiple sclerosis, depression? How can we better prepare for neurosurgeries?
A new brain-imaging technique for a true brain workout
