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Imagine being middle aged and starting to feel that you are off balance a lot and that you are having a hard time coordinating your movements. Those are among the symptoms of Spinocerebellar ataxia type 6, known as SCA6, a rare neurodegenerative disease which typically appears in adulthood and worsens over time. Over time, other problems such as slurred speech and difficulty seeing or seeing double, may also appear. It is estimated that fewer than 5,000 people in the US have the condition, which is the result of genetic mutations in the cerebellum.

Classified as: disease, cell biology, ataxia, Alanna Watt, Biology Department
Published on: 5 Apr 2024

Researchers from ±«ÓãÖ±²¥, led by Professor Alanna Watt of the Department of Biology, have identified previously unknown changes in brain cells affected by a neurological disease. Their , published in eLife, could pave the way to future treatments for the disease.

Classified as: Alanna Watt, Department of Biology, Faculty of Science
Category:
Published on: 10 Jan 2024

Spinal cerebellar ataxia 6 (SCA6) is an inherited neurological condition which has a debilitating impact on motor coordination. Affecting around 1 in 100,000 people, the rarity of SCA6 has seen it attract only limited attention from medical researchers. To date, there is no known cure and only limited treatment options exist.

Now, a team of ±«ÓãÖ±²¥ researchers specializing in SCA6 and other forms of ataxia, have published findings that not only offer hope for SCA6 sufferers but may also open the way to developing treatments for other movement disorders.

Classified as: Alanna Watt, Department of Biology, ataxia
Published on: 16 Sep 2022

Researchers at ±«ÓãÖ±²¥ have shown that a brain cell structure previously thought to be pathological in fact enhances cells’ ability to transmit information and correlates with better learning on certain tasks.

In a study published in Nature Communications, the team investigated swellings that occur in the axons of Purkinje cells in the cerebellum. In results that contradict established expectations, they found that axons with swellings did a better job of conducting electrical signals than those without.

Classified as: mcgill research, brain cell, Department of Biology, Alanna Watt, Faculty of Science, behavioural analysis, brain cell structure
Published on: 8 Jul 2021
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