Html code here! Replace this with any non empty raw html code and that's it.

Brain waves may help reconnect movement after paralysis

Date:

Share this article:

Del denne artikel:

Even after paralysis, the brain continues to send movement signals, and researchers are learning how to detect them.

Losing the ability to move changes far more than the body. For many people with spinal cord injuries, the most difficult part is knowing that the mind is still trying to move, even when the body no longer responds. New research suggests those attempts may still be readable.

A study reported by the American Institute of Physics explores whether brain activity could be used to reconnect intention and movement in people with paralysis.

When the brain keeps sending signals

In spinal cord injuries, movement is often lost because signals from the brain cannot pass the damaged section of the spine.

The brain itself, however, often continues to produce the same activity linked to movement.

Also read: Low vitamin D levels linked to a higher risk of respiratory infections

Researchers from universities in Italy and Switzerland investigated whether electroencephalography, known as EEG, could detect these signals when patients attempted to move paralyzed legs.

EEG records electrical brain activity using sensors placed on the scalp, avoiding surgery.

A noninvasive approach

Earlier research has relied heavily on implanted electrodes placed directly in the brain. While effective, those systems involve surgical risks.

The new study focused on whether an external EEG cap could provide enough information to work with spinal stimulators that activate nerves below the injury.

Also read: How to find the healthiest bread in the supermarket

The results showed that EEG could reliably detect when a patient was trying to move, even if the body could not respond.

Limits and next steps

The system struggled to identify specific movements, such as different leg actions. Signals for lower-limb movement originate deeper in the brain and are harder to detect. Machine learning helped improve accuracy, but fine control remains a challenge.

The researchers describe the work as an early step. With further refinement, they believe brain signals could eventually be translated into meaningful movement without invasive procedures.

Sources: ScienceDaily and AIP

Also read: Trump’s public schedule expands after health criticism

Also read: Study reports complete tumor elimination in pancreatic cancer mouse models

Other articles

Experts point to an overlooked effect of early morning screen time

For many people, checking a smartphone is part of their morning routine. However, experts say that immediately diving...

Why a healthy diet may not be enough for your heart

New research suggests that even people who eat plenty of fruits and vegetables may not be getting enough of a compound that could play an important role in heart health.

Want bigger arms? New research points to a simple approach

A new study looked at whether beginners need more exercises or extra training sets to gain muscle. The findings point to a surprisingly simple approach.

Can the damage caused by alcohol be reversed? New study provides answers

New research shows that alcohol can increase the risk of a wide range of diseases, but can the damage be reduced?

Experts point to an overlooked effect of early morning screen time

For many people, checking a smartphone is part of their morning routine. However, experts say that immediately diving...

Why a healthy diet may not be enough for your heart

New research suggests that even people who eat plenty of fruits and vegetables may not be getting enough of a compound that could play an important role in heart health.

Want bigger arms? New research points to a simple approach

A new study looked at whether beginners need more exercises or extra training sets to gain muscle. The findings point to a surprisingly simple approach.