Spinal muscular atrophy (SMA) is a severe neurological disease for which there is presently no cure, although current therapies can alleviate symptoms. In the search for better treatment options, scientists are now drawing attention to previously unnoticed abnormalities in embryonic development. They base their argument on studies of so-called organoids: Laboratory-grown tissue cultures that can
Scientists have successfully created mechanical force sensors directly in the developing brains and spinal cords of chicken embryos, which they hope will improve understanding and prevention of birth malformations such as spina bifida. A group of scientists at UCL have successfully created mechanical force sensors directly in the developing brains and spinal cords of chicken
Spinal muscular atrophy (SMA) is a severe neurological disease for which there is presently no cure, although current therapies can alleviate symptoms. In the search for better treatment options, scientists are now drawing attention to previously unnoticed abnormalities in embryonic development. They base their argument on studies of so-called organoids: Laboratory-grown tissue cultures that can
Spinal muscular atrophy (SMA) is a severe neurological disease for which there is presently no cure, although current therapies can alleviate symptoms. In the search for better treatment options, scientists are now drawing attention to previously unnoticed abnormalities in embryonic development. They base their argument on studies of so-called organoids: Laboratory-grown tissue cultures that can
Neuroscientists have used a nanosized sensor to record spinal cord neurons in free-moving mice, a feat that could lead to the development of better treatments for spinal cord disease and injury. Implantable technologies have significantly improved our ability to study and even modulate the activity of neurons in the brain, but neurons in the spinal
Scientists have successfully created mechanical force sensors directly in the developing brains and spinal cords of chicken embryos, which they hope will improve understanding and prevention of birth malformations such as spina bifida. A group of scientists at UCL have successfully created mechanical force sensors directly in the developing brains and spinal cords of chicken
The limbs. This innovative technology has the potential to revolutionize spinal injury treatment by restoring movement and function to paralyzed individuals. Its unique design and ability to interface with the nervous system set it apart and make it a promising solution for those suffering from spinal cord injuries
The "Types of E.coli Responsible for Neonatal Meningitis" post sheds light on groundbreaking research identifying the specific strains of E.coli behind this dangerous infection. With a focus on two predominant types of the bacteria, this study is the largest of its kind, spanning four continents. Additionally, the research uncovers the reasons behind recurrent infections despite antibiotic treatment. This post offers invaluable insights into the pivotal features and distinctive qualities of these E.coli strains, providing a comprehensive understanding of their impact on neonatal health
The drug target and therefore become resistant to the treatment. This groundbreaking discovery sheds light on potential new strategies for overcoming drug resistance in melanoma and offers hope for more effective treatments in the future
(TBI) can have devastating long-term effects, including an increased risk for developing dementia and neurodegenerative diseases. However, a new study utilizing lab-grown human brain structures, or organoids, is shedding light on the underlying mechanisms and potential preventive measures. This research offers hope for better understanding and ultimately reducing the impact of TBIs on brain health