Study Offers Hope For Healing From Spinal Cord Injuries
Press Release – University of Auckland
Spinal cord injuries are currently incurable with devastating effects on peoples lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment.Spinal cord injuries shatter the signal between the brain …
Spinal cord injuries are currently incurable, with devastating effects on people's lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment.
Spinal cord injuries are currently incurable with devastating effects on people's lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment.
Spinal cord injuries shatter the signal between the brain and body, often resulting in a loss of function.
'Unlike a cut on the skin, which typically heals on its own, the spinal cord does not regenerate effectively, making these injuries devastating and currently incurable,' says lead researcher Dr Bruce Harland, a senior research fellow in the School of Pharmacy at Waipapa Taumata Rau, University of Auckland.
Before birth, and to a lesser extent afterwards, naturally occurring electric fields play a vital role in early nervous system development, encouraging and guiding the growth of nerve tissue along the spinal cord.
Scientists are now harnessing this same electrical guidance system in the lab.
An implantable electronic device has restored movement following spinal cord injury in an animal study, raising hopes for an effective treatment for humans and even their pets.
'We developed an ultra-thin implant designed to sit directly on the spinal cord, precisely positioned over the injury site in rats,' Dr Harland says.
The device delivers a carefully controlled electrical current across the injury site.
'The aim is to stimulate healing so people can recover functions lost through spinal-cord injury,' Professor Darren Svirskis, director of the CatWalk Cure Programme at the University's School of Pharmacy says, 'Unlike humans, rats have a greater capacity for spontaneous recovery after spinal cord injury, which allowed researchers to compare natural healing with healing supported by electrical stimulation.
After four weeks, animals that received daily electric field treatment showed improved movement compared with those who did not.
Throughout the 12-week study, they responded more quickly to gentle touch.
'This indicates that the treatment supported recovery of both movement and sensation,' Harland says.
'Just as importantly, our analysis confirmed that the treatment did not cause inflammation or other damage to the spinal cord, demonstrating that it was not only effective but also safe.'
This new study, published in a leading journal, has come out of a partnership between the University of Auckland and Chalmers University of Technology in Sweden. See Nature Communications [live 9pm 26 June].
'Long term, the goal is to transform this technology into a medical device that could benefit people living with these life-changing spinal-cord injuries,' says Professor Maria Asplund of Chalmers University of Technology.
'This study offers an exciting proof of concept showing that electric field treatment can support recovery after spinal cord injury,' says doctoral student Lukas Matter, also from Chalmers University.
The next step is to explore how different doses, including the strength, frequency, and duration of the treatment, affect recovery, to discover the most effective recipe for spinal-cord repair.
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Study Offers Hope For Healing From Spinal Cord Injuries
Press Release – University of Auckland Spinal cord injuries are currently incurable with devastating effects on peoples lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective cord injuries shatter the signal between the brain … Spinal cord injuries are currently incurable, with devastating effects on people's lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment. Spinal cord injuries are currently incurable with devastating effects on people's lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment. Spinal cord injuries shatter the signal between the brain and body, often resulting in a loss of function. 'Unlike a cut on the skin, which typically heals on its own, the spinal cord does not regenerate effectively, making these injuries devastating and currently incurable,' says lead researcher Dr Bruce Harland, a senior research fellow in the School of Pharmacy at Waipapa Taumata Rau, University of Auckland. Before birth, and to a lesser extent afterwards, naturally occurring electric fields play a vital role in early nervous system development, encouraging and guiding the growth of nerve tissue along the spinal cord. Scientists are now harnessing this same electrical guidance system in the lab. An implantable electronic device has restored movement following spinal cord injury in an animal study, raising hopes for an effective treatment for humans and even their pets. 'We developed an ultra-thin implant designed to sit directly on the spinal cord, precisely positioned over the injury site in rats,' Dr Harland says. The device delivers a carefully controlled electrical current across the injury site. 'The aim is to stimulate healing so people can recover functions lost through spinal-cord injury,' Professor Darren Svirskis, director of the CatWalk Cure Programme at the University's School of Pharmacy says, 'Unlike humans, rats have a greater capacity for spontaneous recovery after spinal cord injury, which allowed researchers to compare natural healing with healing supported by electrical stimulation. After four weeks, animals that received daily electric field treatment showed improved movement compared with those who did not. Throughout the 12-week study, they responded more quickly to gentle touch. 'This indicates that the treatment supported recovery of both movement and sensation,' Harland says. 'Just as importantly, our analysis confirmed that the treatment did not cause inflammation or other damage to the spinal cord, demonstrating that it was not only effective but also safe.' This new study, published in a leading journal, has come out of a partnership between the University of Auckland and Chalmers University of Technology in Sweden. See Nature Communications [live 9pm 26 June]. 'Long term, the goal is to transform this technology into a medical device that could benefit people living with these life-changing spinal-cord injuries,' says Professor Maria Asplund of Chalmers University of Technology. 'This study offers an exciting proof of concept showing that electric field treatment can support recovery after spinal cord injury,' says doctoral student Lukas Matter, also from Chalmers University. The next step is to explore how different doses, including the strength, frequency, and duration of the treatment, affect recovery, to discover the most effective recipe for spinal-cord repair.
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a day ago
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Study Offers Hope For Healing From Spinal Cord Injuries
Spinal cord injuries are currently incurable, with devastating effects on people's lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment. Spinal cord injuries are currently incurable with devastating effects on people's lives, but now a trial at Waipapa Taumata Rau, University of Auckland offers hope for an effective treatment. Spinal cord injuries shatter the signal between the brain and body, often resulting in a loss of function. 'Unlike a cut on the skin, which typically heals on its own, the spinal cord does not regenerate effectively, making these injuries devastating and currently incurable,' says lead researcher Dr Bruce Harland, a senior research fellow in the School of Pharmacy at Waipapa Taumata Rau, University of Auckland. Before birth, and to a lesser extent afterwards, naturally occurring electric fields play a vital role in early nervous system development, encouraging and guiding the growth of nerve tissue along the spinal cord. Scientists are now harnessing this same electrical guidance system in the lab. An implantable electronic device has restored movement following spinal cord injury in an animal study, raising hopes for an effective treatment for humans and even their pets. 'We developed an ultra-thin implant designed to sit directly on the spinal cord, precisely positioned over the injury site in rats,' Dr Harland says. The device delivers a carefully controlled electrical current across the injury site. 'The aim is to stimulate healing so people can recover functions lost through spinal-cord injury,' Professor Darren Svirskis, director of the CatWalk Cure Programme at the University's School of Pharmacy says, "Unlike humans, rats have a greater capacity for spontaneous recovery after spinal cord injury, which allowed researchers to compare natural healing with healing supported by electrical stimulation. After four weeks, animals that received daily electric field treatment showed improved movement compared with those who did not. Throughout the 12-week study, they responded more quickly to gentle touch. 'This indicates that the treatment supported recovery of both movement and sensation,' Harland says. 'Just as importantly, our analysis confirmed that the treatment did not cause inflammation or other damage to the spinal cord, demonstrating that it was not only effective but also safe.' This new study, published in a leading journal, has come out of a partnership between the University of Auckland and Chalmers University of Technology in Sweden. See Nature Communications [live 9pm 26 June]. 'Long term, the goal is to transform this technology into a medical device that could benefit people living with these life-changing spinal-cord injuries,' says Professor Maria Asplund of Chalmers University of Technology. 'This study offers an exciting proof of concept showing that electric field treatment can support recovery after spinal cord injury,' says doctoral student Lukas Matter, also from Chalmers University. The next step is to explore how different doses, including the strength, frequency, and duration of the treatment, affect recovery, to discover the most effective recipe for spinal-cord repair.
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