Articles tagged with Spinal Cord
A new radioactive bone cement has been developed as an alternative to conventional radiation therapy for treating spinal tumors. The cement can be injected into the spine to directly irradiate tumors without harming the spinal cord, promising to eliminate side effects and limit treatment options.
Researchers at UCalgary and Swiss institutions discovered a new method to regulate blood pressure in people with spinal cord injuries using targeted epidural electrical stimulation. The study's findings show that this technique can stabilize hemodynamics, allowing vital organs to maintain an appropriate supply of blood without medication.
A mouse study found that gabapentin can prevent harmful structural changes in the injured spinal cords of mice, block cardiovascular changes and immune suppression. This could lead to improved quality of life for individuals living with spinal cord injuries.
A team of researchers from Ruhr-University Bochum has developed a novel approach to treat spinal cord injuries by stimulating nerve cell regeneration with a designer cytokine. In a groundbreaking study, they successfully restored walking ability in paralyzed mice, paving the way for future human trials.
A research team led by Prof. Gong Chen has developed a novel gene therapy approach to regenerate functional new neurons using local glial cells in the injured spinal cord. This method uses internal glial cells and directly converts them into neurons, offering a promising therapeutic intervention for patients with spinal cord injury.
Researchers at the Salk Institute have mapped the physical organization of cells in the spinal cord that help mediate critical sensorimotor reflexes. The study found that different neurons in the same space had the same function, while more similar neurons located in different areas were responsible for different reflexes.
Researchers at FEFU Medical Center propose a new treatment protocol for severe spasticity after spinal cord injury, exploring the use of spinal cord stimulation and Intrathecal Baclofen infusion pumps. The study showed improved motor functions in patients with implanted Baclofen pumps, suggesting a promising approach for rehabilitation.
Researchers developed a non-invasive cuff to monitor neuronal activity in babies, revealing 'extreme synchronisation' in spinal cord neurons that generate kicks. This discovery could help spot early signs of motor disorders like cerebral palsy and monitor development in babies.
Researchers at Okayama University found a non-synaptic mode of oxytocin transport across the central nervous system, which activates oxytocin receptors to control penile erection and ejaculation in male rats. Oxytocin causes increased sexual activity and neuronal activity in injected animals.
Researchers discovered that different types of injury activate distinct spinal circuits, explaining why pain medications don't alleviate mechanical allodynia in all patients. The study may lead to new treatment strategies for pain management by targeting specific neural pathways in the spinal cord.
Researchers found that targeting the heart to increase blood flow can deliver more oxygen and nutrients to the injured spinal cord, potentially reducing damage and improving function. This new approach could lead to a change in how newly injured patients are managed, with improved chances of retaining motor function.
Scientists have discovered that spinal modules in macaques can independently control forelimb force direction and magnitude, offering new insights into movement disorders and potential recovery methods. This finding, known as the 'spinal motor module hypothesis,' has significant implications for robotics and clinical medicine.
Researchers at Karolinska Institutet discovered that stem cells in the mouse spinal cord can form new oligodendrocytes, essential for neuronal signal transmission, to help repair damaged tissue. This finding indicates a conceptually new strategy for stimulating repair after nervous system damage.
Researchers found that spinal cord stimulation decreased pain and reduced motor symptoms in Parkinson's disease patients by an average of 59% and 12%, respectively. The therapy also showed promise in improving functional mobility and balance.
Researchers created a synthetic 'molecular bridge' to restore lost connections in the spinal cord and brain of mice with neurological disorders. The molecule, called CPTX, has shown promise in repairing neuronal connections and improving motor performance in animal models.
Scientists have used tailored fMRI protocols to observe the human spinal cord in action for the first time, revealing a richly organized network of signals even at rest. This discovery has significant implications for understanding human motor control and developing targeted therapies for spinal cord injuries.
A recent study published in JNeurosci found that stroking skin triggers an anti-itch neural pathway in the spinal cord, reducing itchiness. The researchers discovered that sensory neurons under the skin activate anti-itch interneurons, leading to reduced neural activity and relief from itching.
Dr. Hon's article explores the risk of deep vein thrombosis in individuals with spinal cord injury, suggesting screening on admission may be advisable to identify at-risk patients. The Bors Award recognizes her contributions to advancing spinal cord injury care and research.
A team of researchers has developed an osmotic therapy device that removes fluid from the spinal cord to reduce swelling and prevent further damage. The device showed promising results in rats, reducing swelling and improving neurological outcomes.
Researchers have identified a specific type of neuron that plays an important role in gait recovery in mice, using machine learning to pinpoint the cells involved. This breakthrough could lead to more effective treatments for paralysis and advance biomedical research.
Research from McMaster University suggests that high-intensity interval training can improve cardiorespiratory fitness in people with spinal cord injuries, matching the benefits of longer bouts of moderate intensity exercise. The study also found that HIIT is generally tolerable and poses few risks for this population.
A new study in mice reveals that a specific group of neurons in the brainstem control the direction of walking movements by applying the 'brake' to one side of the body. This discovery has significant implications for understanding motor disorders and could lead to new treatments.
Researchers discovered that inhibiting heat shock protein 90 in the spinal cord enhances opioid efficacy and decreases side effects. Hsp90 inhibitors could enable dose-reduction strategies for patients while maintaining pain relief.
Researchers successfully combined rat spinal cords with tissue-engineered muscles, creating a biohybrid system that produces electrical activity causing contraction. This innovation could lead to breakthroughs in understanding diseases like Lou Gehrig's and developing new surgical training tools.
Researchers at the University of Illinois at Urbana-Champaign developed spinobots that can walk using a rat muscle and spinal cord tissue. The integration of the spinal cord gives them a natural walking rhythm, which could have implications for neurocomputing and restorative medicine.
Researchers discovered that TBK1 mutations in mice with ALS-like symptoms initially slow disease progression but later accelerate it. The study sheds light on the complex relationship between ALS genetics and its mechanisms, highlighting challenges in developing safe treatments.
Researchers have developed new frameworks and recommendations for managing neurogenic bowel and bladder dysfunction after spinal cord injury. These guidelines aim to improve independence, self-efficacy, and quality of life among individuals with spinal cord injuries.
A new clinical trial led by Keck Medicine of USC is investigating the effectiveness of Transcutaneous Electrical Spinal Cord Neuromodulation (TESCoN) in treating overactive bladder due to neurological conditions. The trial aims to improve patients' sense of well-being by enhancing bladder control and reducing symptoms.
A UBCO professor has developed an online platform to help people living with spinal cord injury lead a more active life. The new guideline provides clear and accessible information on the amount and type of activity needed to achieve health benefits, helping to overcome a major barrier to physical activity.
Researchers at University of Notre Dame have identified a strategy to support nerve regeneration after brachial plexus injury. The study found that chemotherapy treatment can help stabilize axon invasion, allowing severed sensory axons to penetrate the spinal cord barrier.
Researchers have identified a potential new treatment for chronic pain caused by burns, targeting PAK1 molecule. The discovery of Romidepsin, an existing cancer drug, provides a promising avenue for re-purposing to treat long-lasting complications.
A novel therapeutic target for promoting neuroprotection has been identified in the lumbar circuit below a spinal cord injury, suggesting potential hope for restoring motor function. The discovery uses animal models to show that neuromodulation of interrupted lumbar motor circuits with neurotrophic therapy improves locomotor performance.
Dr. Jeanne Zanca, a senior research scientist at Kessler Foundation, was named Fellow of the ACRM for her outstanding record of professional service and national significance in spinal cord injury rehabilitation research. Her work focuses on prevention and management of secondary complications of SCI.
Researchers at the University of Alberta have made a breakthrough in restoring lower-body function after severe spinal injuries using tiny spinal implants. The implants use hair-like electrical wires to trigger the networks that already know how to do the hard work, and have shown remarkable consistency across the animal spectrum.
Researchers at Ben-Gurion University of the Negev and the Salk Institute will explore how spinal networks control movement, developing new treatments for neurological diseases and spinal cord injuries. They aim to create a high-resolution atlas of mouse brain movements and develop testable models of neural interactions.
The study's innovative approach uses a multi-electrode interface to deliver variable targeted stimuli to the spinal cord, increasing the effectiveness of neurorehabilitation and potentially treating a wider range of individuals. The technology has also shown promise in diagnostics, allowing for the assessment of residual activity in th...
Researchers at Rensselaer Polytechnic Institute have developed a biomaterial that polymerizes estrogen to protect and potentially regenerate nervous system cells damaged by spinal cord injuries. The slow-releasing biomaterial targets injured tissue, reducing further damage and promoting regeneration.
A study by TTUHSC researchers suggests that activating certain brain receptors can reduce pain and anxiety associated with arthritis. The compound LY379268 has been shown to produce pain-relieving effects and relieve anxiety, offering potential as a new pain medication.
A team of researchers led by Brown University will develop and test an 'intelligent spinal interface' to help restore limb movement and bladder control for people with spinal cord injuries. The device aims to record signals from above the injury site and use them to drive electrical stimulation below the lesion.
Researchers at UCLA have identified a molecular process controlling nerve growth, which could inform therapies accelerating peripheral nerve recovery. The study shows that manipulating this process can increase nerve regeneration rate by 15% in mice.
Dr. Kristin L. Garlanger has been awarded the Ernest Bors, MD Award for Scientific Development by the Journal of Spinal Cord Medicine. Her research explores functional outcomes in patients with co-occurring traumatic brain injury and spinal cord injury, shedding light on ways to tailor rehabilitation protocols to improve outcomes.
Researchers have identified a specialized pathway in the spinal cord that transmits mechanical itch signals to the brain. The study, published in Cell Reports, reveals that a specific population of neurons, known as Y1 spinal neurons, play a key role in transmitting these signals.
Researchers have designed a simple and efficient platform to discover new drugs treating spinal cord lesions using zebrafish, accelerating the translation period from discovery to clinics. The platform has identified a molecule with motor recovery properties in zebrafish larvae and showed efficacy in spinal cord injury models in rodents.
Researchers have identified unique populations of neurons and associated cells in the spinal cords of patients with ALS, which could serve as useful biomarkers for earlier diagnosis. The study found different types of motor neurons and microglia present in less affected regions of patients with focal-onset ALS.
A new study has found that HIV can be detected in the central nervous system of patients on long-term antiretroviral therapy, linked to poorer cognitive performance. The discovery highlights the need to address viral mechanisms of cognitive decline in cART-treated patients.
Scientists at NCATS and NIDCR report a new strategy to alleviate chronic itch by blocking a receptor found on spinal cord neurons. They identified approximately 1,400 compounds worth examining more closely, with 15 showing promise in halting both human and mouse versions of the receptor.
Researchers discovered that overexpressing macrophage migration inhibitory factor (MIF) in mice with SOD1 mutations slows down disease progression and extends lifespan. MIF may play a potential therapeutic role in ALS treatment.
Researchers at Oregon State University have discovered a copper compound that improves the condition of mice with damaged motor neurons, potentially slowing ALS progression. The study builds on previous findings and suggests a broader neuroprotective role for copper-ATSM beyond mutant SOD models of ALS.
Kessler Foundation is launching groundbreaking research at its Center for Spinal Stimulation to explore two novel treatments: transcutaneous and epidural spinal stimulation. Preliminary studies show promising results in individuals with paralysis, enabling them to stand during stimulation and regain voluntary movement.
Researchers aim to identify cognitive deficits in individuals with spinal cord injury, enabling them to receive necessary care and achieve maximal independence. A multi-site study will develop and test an abbreviated cognitive screening tool using portions of well-regarded neuropsychological tests.
Neuronal feedback from sites below the spinal cord injury plays a crucial role in early recovery and maintaining regained motor functions. Incomplete injuries can recover spontaneously with activating specific sensory feedback pathways promoting detour circuits.
Researchers analyzed over 76,000 gene expression measurements from mouse and human spinal cord tissue samples to gain new insights into ALS progression. The study found that microglia exhibit dysfunction before symptom onset and that certain genes are expressed at higher levels in affected regions.
Researchers have created a new gene expression atlas for ALS, providing unparalleled detail on disease progression. The atlas uncovers early changes in the disease and reveals disease-driven changes in signaling pathways across all cell types in the central nervous system.
Researchers found that transplanting human bone marrow-derived endothelial progenitor cells into mice with ALS-like symptoms improved motor function and slowed disease progression. The treatment repaired damage to the blood-spinal cord barrier, leading to increased motor neuron survival and reduced capillary leakage.
Researchers have created a tiny, flexible sensor that can capture the rapid spike in brain chemical glutamate after spinal cord injury or traumatic brain disease. The sensor, implanted on the spinal cord, helps study how these injuries and diseases develop.
Researchers have successfully transplanted adult spinal cord grafts into spinal cord transected rats to improve locomotor function, promoting the recovery of motor function and survival of neural cells.
A recent study published in Nature Communications found that axons use a 'battering ram' approach to enter the spinal cord wall during early development, contradicting a widely-held hypothesis. This discovery could lead to new strategies for repairing brachial plexus injuries and regenerative therapies.
New research from Western University reveals that the spinal cord plays a crucial role in processing and controlling complex functions like hand positioning, challenging previous beliefs about its limitations. The study demonstrates that the spinal cord can generate responses to bumps, enabling precise hand control.
Scientists discover lampreys can fully regenerate their spinal cord even after two complete injuries, a phenomenon with potential implications for human spinal cord injury treatment. The study reveals that central nervous system regeneration in lampreys is resilient and robust after multiple injuries.
Researchers discovered that a muscle protein called LIM protein (MLP) can promote nerve healing by stabilizing structures in growth cones. Blocking or suppressing MLP's function reduces nerve cells' ability to grow axons.