Articles tagged with Brain Tissue
Researchers at the University of Oxford have identified a natural biological mechanism that allows brain cells to survive during a stroke, enabling the development of potential neuroprotective drugs. The 'endogenous neuroprotection' discovered in rats has shown to increase cell survival by stimulating production of hamartin protein.
Researchers discovered a novel use of a fish oil component that reduced brain trauma in newborn mice by about 50%. The study found that injecting docosahexaenoic acid (DHA) within two hours of ischemic stroke significantly decreased neonatal brain damage. DHA provided protection while other omega-3 fatty acids did not.
Researchers found that removing blood clots in the brain from patients experiencing severe strokes delivered no better outcomes than non-invasive standard medications. Imaging techniques were also not helpful in identifying patients who potentially would benefit most from clot removal.
A minimally invasive surgical procedure to remove blood clots in brain tissue after hemorrhagic stroke appears safe and effective in improving long-term disability and reducing hospital time. The study found that patients treated with the surgery had less disability, spent less time in the hospital, and were less likely to be in a long...
Researchers discovered nitric oxide inhibits ERK1/2 signaling pathway, shutting down brain's ability to self-repair after stroke. The study found that excessive nitric oxide production contributes to the severity of stroke and other neurological disorders.
Researchers at Washington State University have made a breakthrough in repairing damaged brain cells using the active compound of chili peppers. The discovery has potential to provide relief for concussions and other health effects seen in athletes and head-injury victims.
A study using rodents found that binge-like drinking can cause damage to the hippocampus after 24 hours, indicated by increased expression of vimentin brain protein. Chronic drinking is known to have detrimental health effects, and this research provides new insights into the threshold for alcohol-induced brain damage.
A new tool has been developed to help brain surgeons diagnose cancer and detect tumor boundaries more accurately. The tool uses mass spectrometry analysis to analyze brain tissue and produces a color-coded image revealing the nature and concentration of tumor cells.
Researchers at Johns Hopkins Medicine have developed a new way of analyzing standard MRI scans to accurately measure blood-brain barrier damage in stroke victims. This could lead to better treatment outcomes and reduced risk of complications from clot-dissolving drugs, known as tPA.
A new study found that even small strokes can harm neural tissue and alter behavior in rats. Blocking tiny blood vessels in the brain can lead to micro-lesions reminiscent of those seen in dementia patients. The FDA-approved drug memantine showed promise in mitigating these effects.
A new study on mice suggests that common anesthetic agents like Nitrous Oxide and isoflurane can cause neuronal cell death and changes in gene expression in developing brains. The findings have implications for the use of anesthesia during pregnancy and childbirth.
Researchers at Gladstone Institutes have identified a key underlying process implicated in MS, offering new hope for therapies to treat the disease. The discovery reveals that a protein called fibrinogen sets off an immune response in the brain, leading to nerve cell damage and debilitating symptoms.
Researchers use microfabrication techniques to create 3D brain tissues with precise control and manipulation, enabling the study of neuron connections and predicting cell responses to drugs. The new technique paves the way for developing bioengineered implants for organ systems and personalized medicine.
Researchers discovered that microRNA-223 regulates the brain's response to oxygen deprivation and glutamate signals, offering a potential protective mechanism against stroke-induced brain damage. The molecule's broad regulatory effects raise questions about its therapeutic application.
Researchers use supercomputer simulations and clinical studies to identify threshold levels of stress for better helmet designs. The sensors could alert sufferers to potential problems, helping military and civilian populations.
Scientists at Max Planck Institute for Medical Research in Heidelberg have developed a method to prepare the whole mouse brain for
Researchers found that brain volume recovery can occur within the first two weeks of abstinence, but at different rates for various brain regions. This study suggests that a minimum of two-week recovery program is necessary to help recovering addicts overcome addiction and achieve abstinence.
Researchers have identified potential therapies for managing spinal cord injury aftereffects, including deep brain stimulation, electric pulses, and social contact. Studies suggest these methods can repair nervous system damage and reduce chronic health conditions, offering new hope for those affected by SCI.
Researchers have detected male DNA in female brain tissue, a phenomenon known as microchimerism, which is common and affects multiple brain regions. The findings suggest that this long-lasting fetal DNA may be associated with altered risk of Alzheimer's disease.
Common sporadic Parkinson's disease arises from excess alpha-synuclein protein in dopamine neurons, which can be treated with drugs targeting elongated transcript forms. A blood test for alpha-synuclein may serve as a biomarker for the disease.
The Blue Brain Project has accurately predicted the locations of synapses in a cortical microcircuit, demonstrating key principles that govern brain structure and function. This breakthrough enables the creation of near-perfect models of the nervous system, shedding light on how brains are constructed from diverse populations of neurons.
A new blood test has been developed to measure levels of the toxic protein that causes Huntington's disease, which builds up gradually in blood cells over time. The research found that levels of mutant huntingtin protein corresponded to brain shrinkage, and may help explain how damage accumulates, eventually causing symptoms.
Researchers at Newcastle University have found that brain cells follow the same molecular pathway as senescent fibroblasts, leading to cell damage and age-related diseases. This discovery opens new possibilities for understanding and treating conditions like dementia and motor neuron disease.
Researchers have discovered a way to store diverse forms of artificial short-term memories in isolated brain tissue. They demonstrated that neural circuits in the hippocampus can maintain memories for more than 10 seconds and recognize specific contexts, such as sequences of stimuli. This breakthrough has significant implications for u...
New research reveals professional football players are three times more likely to die from brain-damaging diseases compared to the general population. The study found a significant increase in deaths from Alzheimer's disease and ALS among speed position players, highlighting potential risks of chronic traumatic encephalopathy (CTE).
Researchers at the University of Gothenburg discovered how astrocytes control the formation of new neurons in the brain. By secreting specific molecules and cell-cell interactions, astrocytes regulate the birth rate of new neurons and their integration into existing neuronal networks.
Researchers study a person with extensive brain damage to regions believed critical for self-awareness, finding he remains self-aware despite damaged areas. The study suggests that self-awareness emerges from distributed interactions among networks of brain regions, not confined to specific areas.
Researchers identify ventromedial prefrontal cortex as key area controlling belief and doubt, explaining why elderly are more prone to scams. Damage to this region, particularly after age 60, can lead to increased credulity and decreased ability to distinguish misleading information.
Researchers have developed a protein-based coating that can help rehabilitate long-term brain function and prevent the brain's immune response from rejecting brain-computer interface electrodes. The coating, using an interleukin-1 receptor antagonist, has shown promising results in pre-clinical studies with animal models.
Researchers have identified a potential new treatment for stroke by demonstrating the effectiveness of Anakinra (IL-1Ra) in reducing brain damage. The drug blocks inflammation and microglia cell activation, which contribute to brain injury following a stroke.
Researchers at BUSM found increased expression of FOXO1 gene in Parkinson's disease brain tissue samples. Two single-nucleotide polymorphisms associated with age at onset were also discovered, providing new insights into the genetic mechanisms of Parkinson's.
Researchers demonstrate blindsight in monkeys in everyday environments, finding they turn eyes to conspicuous portions of motion, brightness, or color. This discovery may indicate hidden visual function recovery for patients with hemianopia.
Researchers at Newcastle University have identified a unique brain wave pattern, called glissando, that can predict epileptic seizures. The study found that this pattern is highly indicative of human epilepsy and cannot be easily reproduced in non-epileptic brain tissue.
Researchers have developed a new therapy that targets a specific enzyme to stop the spread of brain bleeds and protect brain cells from further damage after a stroke. The compound has potential for use in both ischemic and hemorrhagic strokes, offering a longer window of treatment for patients.
A new study has found evidence of chronic traumatic encephalopathy (CTE) in brain tissue from blast-exposed military service personnel. Exposure to a single blast equivalent to an IED results in CTE and long-term brain impairments, similar to those seen in athletes with repetitive concussion injuries.
Researchers at UCLA have mapped the damaged connections in Phineas Gage's brain, revealing widespread damage to white matter pathways. The study, published in PLoS ONE, suggests that the disruption of these connections had a significant impact on Gage's personality and behavior.
Researchers used CT images and MRI data to reconstruct Phineas Gage's brain injury, finding widespread white matter damage. This study provides new insight into the neural network connectivity of Gage's brain, shedding light on his reported behavioral changes after the accident.
Researchers have found evidence of chronic traumatic encephalopathy (CTE) in brain tissue from blast-exposed military service personnel. The study discovered that exposure to a single blast equivalent to an IED results in CTE and long-term brain impairments, with the blast wind leading to traumatic brain injury.
Researchers found that a genetic risk factor for Alzheimer's disease triggers a cascade of signaling that leads to leaky blood vessels and toxic substance entry into brain tissue. Blocking cyclophilin A or using the drug cyclosporine A reversed damage in mice, restoring blood flow and reducing toxic substance leakage.
Researchers at Rush University Medical Center have discovered alpha-synuclein protein in the intestinal wall of patients with early Parkinson's disease, but not healthy subjects. This finding may lead to pre-motor diagnosis and accurate biomarkers for tracking its progress.
Researchers have discovered that NKCC1 protein facilitates the movement of glioblastoma cells, which are notoriously aggressive and deadly. The study also suggests that a cheap FDA-approved drug, bumetanide, could slow cell migration and contain tumor spread.
Researchers developed nano-devices that successfully crossed the blood-brain barrier and delivered a drug to tame brain-damaging inflammation in rabbits with cerebral palsy. The treatment improved motor skills and reduced neuro-inflammation, holding promise for treating a range of neurologic disorders.
A study of Swedish boxers found elevated protein levels in brain fluid after bouts, indicating nerve cell damage. The study suggests that Olympic boxing may cause similar brain injury to Alzheimer's disease.
A 'brain-only' mutation has been discovered that causes hemimegalencephaly (HMG), a condition characterized by an enlarged and dysfunctional half of the brain. This mutation is limited to brain tissue and contributes to overgrowth, intellectual disability, and severe epilepsy.
A recent study published in PloS ONE suggests that immediate skull reconstruction following traumatic brain injury can exacerbate brain damage. In contrast, delaying surgical repair for two days resulted in reduced secondary brain swelling and damage in animal models.
A new study has shed light on glaucoma prevention by highlighting the impact of X-ray treatment on monocyte entry into the optic nerve. Researchers found that mice treated with a single X-ray treatment prior to glaucoma onset were protected from developing the disease, even with other risk factors.
Researchers have developed a method to deliver nanoparticle radiation directly to brain tumors, reducing side effects by sparing surrounding healthy tissue. The treatment uses fat-enclosed nanoparticles to irradiate the tumor with up to 20 times the current dose of radiation therapy.
A study published in Neurology found that women with mild retinopathy had lower scores on cognitive tests and more brain damage than those without the condition. The researchers suggest that eye screening could be a simple way to identify people at risk of brain health issues.
A new EU project, TargetBraIn, is investigating the potential of the immune system to aid in stroke recovery. The research seeks to balance the positive and negative effects of inflammation, with the goal of developing more effective treatments for this growing health issue.
Researchers found that mild hypothermia (34C) can offset the damage caused by tPA treatment in rats, reducing swelling and damaged tissue after a stroke. The therapy may also increase the time window for tPA treatment, potentially benefiting patients who experience significant brain function loss.
Cedars-Sinai neurology researchers present research updates at the International Stroke Conference, including the use of therapeutic cooling to reduce neurological damage after stroke. Thrombin leaks into healthy brain cells after ischemic stroke, but injecting a drug to counter its effects can improve symptoms.
A new study in mice reveals that limiting oxygen supply can alleviate cognitive impairment caused by radiation therapy. Mice exposed to radiation showed significant improvement in spatial learning after undergoing chronic hypoxia treatment.
A recent study published in Neurology reveals a sophisticated link between the Epstein-Barr virus (EBV) and multiple sclerosis (MS), potentially leading to new treatments and prevention strategies. Researchers found that EBV triggers inflammation and nerve cell damage in the brain, which is known to cause MS symptoms.
Research in songbirds reveals glial cells and synapses can produce estrogen, a hormone linked to neurodegenerative diseases. This discovery could provide new insights into the prevention and treatment of conditions like Alzheimer's and Parkinson's.
Researchers at KIT biologists identified key factors controlling thalamus development, enabling potential tissue replacement therapy for stroke patients. They are now developing 2D cell culture systems and 3D cultivation projects to activate these factors in undifferentiated cells.
Studies highlight brain's resiliency to damage from stroke and premature birth, proposing ways to prevent or limit harm with new treatments on the horizon.
A study characterizes epigenetic signatures of autism in brain tissue, finding hundreds of genomic loci affected by altered histone methylation. The research provides new insights into the genetic and epigenetic risk maps of developmental brain disorders.
Researchers at Case Western Reserve University have developed a brain probe that softens after insertion, inducing less scarring and enabling the brain to heal faster. The nanocomposite probe, inspired by the skin of the sea cucumber, changes its mechanical properties in response to water, reducing damage to surrounding brain tissue.
A new study by Rutgers neuroscientist Bonnie Firestein suggests that increased production of protein cypin may prevent long-term brain damage after a stroke. Cypin helps nerve cells survive, while excessive PSD-95 accelerates cell destruction and inhibits recovery.
Researchers identified genes responsible for thousands of tiny changes in brain tissue DNA, finding they were active in areas linked to cell renewal. The study provides new insights into how the brain works and may link retrotransposon activity to brain diseases such as Alzheimer's.