Articles tagged with Brain Tissue
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Researchers at UTA are investigating smart protective helmets that can sense head and brain injuries, allowing for rapid medical treatment. The project aims to improve the well-being of soldiers in combat by detecting brain trauma and preventing further damage.
A University of Texas at Arlington researcher is studying the mechanics of blast-like events and their impact on brain cells. He aims to track bubble formation and its effects on brain tissue, with a goal of preventing traumatic brain injuries. The study will also explore the role of glial cells as shields against trauma.
Researchers at OHSU have developed a new method to quickly map single-cell genomes and clarify spatial cell positions within complex tissues. This technique has the potential to precisely identify and target cells in diseases like cancer or stroke, allowing for novel therapies.
Remote ischemic conditioning (RIC) treatment may improve recovery from intracerebral hemorrhage, the deadliest type of stroke. RIC reduces inflammation and promotes new blood vessel growth, accelerating functional recovery.
A new study identifies a potential link between blast exposure and Alzheimer's disease in soldiers. Researchers found that even healthy neurons with subtle synaptic pathology may be an early indicator of Alzheimer's-type pathogenesis.
Scientists used X-ray technology to compare brain tissues of schizophrenia patients with those of healthy individuals, revealing unique structural differences. The findings suggest a link between these differences and the onset of the disease, paving the way for potential new treatments.
Researchers at KAUST have developed custom polymer dots that emit ultrabright light in the shortwave infrared region, allowing for high-resolution imaging of structures deep within biological tissues. This breakthrough enables detection of nano-sized particles and single molecules with single-molecule sensitivity.
Scientists have developed a technology that allows pinpointing millions of RNA molecules mapped inside tissues with nanoscale resolution. This breakthrough enables researchers to advance treatment of complex diseases and Alzheimer's research by analyzing RNA molecules in 3D tissue samples.
Researchers find that using metformin can restore a healthier balance between immune cell subtypes, inhibiting chronic inflammation and improving outcomes in traumatic brain injury patients. The study suggests a potential new therapy approach to reduce TBI damage and promote recovery.
Researchers from Osaka University developed a new method for analyzing brain tissue with mass spectrometry imaging, enabling the identification of biochemicals at high spatial resolution. This technique may help diagnose brain diseases such as cancer by providing molecular information in high-resolution images.
Researchers discover new cog in the circadian clock - a genome-wide regulatory layer made up of small chains of non-coding nucleotides known as microRNAs. The study found that 110-120 miRNAs modulate circadian rhythms, with tissue-specific impacts on human health.
Researchers found microvascular blood vessel damage and inflammation in brains of patients who died from COVID-19, suggesting a non-infectious response. The study suggests that the body's inflammatory response to SARS-CoV-2 may cause brain damage.
A post-mortem analysis of brain tissue from people with PTSD reveals distinct differences in gene expression patterns between those with and without the disorder. These changes affect two cell types - interneurons and microglia - which may contribute to impaired stress response, particularly in women.
A team of researchers from Ruhr-Universität Bochum and Vrije Universiteit Amsterdam have determined the development stages of Aβ fibrils, which form the basis of Alzheimer's disease plaques. The study provides new insights into the formation of oligomers, potentially harmful structures that contribute to the toxic effect of Aβ.
Researchers used magnetoencephalography to study brain functioning in patients with minor strokes and found diminished neural processing, indicating a disruption of network dynamics. The study suggests that post-stroke acute dysexecutive syndrome is the result of global connectivity dysfunction.
A study by UC Santa Cruz professor Terrie Williams explores how marine mammals' physiological adaptations can help understand the effects of COVID-19. Marine mammals have evolved mechanisms to protect critical organs during low-oxygen conditions, which may inform strategies for humans to mitigate long-term damage from oxygen deprivation.
A new protein marker, neurofilament light protein (NFL), has been found to predict stroke severity and long-term outcomes. The levels of NFL in blood correlate with more severe brain damage and poorer survival rates after stroke.
Researchers observed that brain ventricles expanded in MS patients during inflammation, but then shrunk back to normal size after symptoms subsided. This finding suggests that ventricle volume fluctuations may be reversible and have clinical relevance for monitoring disease progression.
A new tissue screening assay for human cerebral organoids identified 25 additional candidate genes for microcephaly, nearly doubling the number of currently known genes linked to the rare neurological condition. The CRISPR-LICHT technology revealed these genes associated with both known and previously unknown microcephaly-driving pathw...
Researchers developed a new technique, CRISPR-LICHT, allowing for the analysis of hundreds of genes in human tissue using cerebral organoids. The method identified a specific mechanism controlling brain size and pinpointed microcephaly genes, shedding light on a genetic disorder.
Researchers at Ohio State and the University of Michigan discovered a new type of immune cell that rescues damaged nerve cells from death and partially reverses nerve fiber damage. The unique cell subset promotes nervous system repair and has been identified in human immune cells with similar characteristics.
Researchers at the University of Illinois Chicago discovered a protein called DUSP4 that may help prevent or treat epilepsy. Boosting levels of DUSP4 could potentially block the spread of epileptic centers in the brain and reduce seizure activity.
Researchers have created a stretchable conductive hydrogel that can help restore lost tissue in damaged nerves. The material, containing polyaniline and polyacrylamide, allows nerve cells to enter and adhere, helping to improve nerve conduction and recovery.
A new study reveals that nanoparticles can damage human cells when combined, even if individual types do not cause harm. Researchers call for more studies on the effects of lifelong exposure to nanoparticles, which are used in various products and manufacturing processes.
A team of researchers at Case Western Reserve University has identified new biomarkers in the blood that can indicate damage to brain tissue, which could help emergency clinicians quickly recognize minor strokes. The discovery has the potential to reduce delays in treatment and improve patient outcomes.
A team of researchers has created a patient-specific approach to customizing muscular and neural implants for restoring motor and autonomic functions. The NeuroPrint hybrid 3D printing technology allows for rapid production in just 24 hours, making it faster and cheaper than traditional methods.
Researchers have developed a new method that pairs functional mapping in live mice with distinguishing structural information, providing unprecedented insights into the coupling of visual areas in the mouse brain. This technique enables scientists to distinguish borders and contents of regions more precisely, shedding light on how stru...
A new study reveals that telomere length in whole blood cells can serve as a reliable proxy for other tissues, with 15 out of 23 tissues showing positive correlation. The findings help clarify conflicting results on relationships between individual traits and telomere length.
Researchers have discovered that pure prions do not exhibit neurotoxicity, but instead cause disease through a distinct species. Brain tissue from symptomatic prion-infected mice is found to be toxic to healthy neurons, highlighting the complexity of prion-induced neurodegeneration.
Researchers used magnetic resonance elastography to detect changes in the hippocampus of patients with mesial temporal lobe epilepsy, which is resistant to medication. The study found that MRE can improve early detection and characterization of the disease.
In adult fruit flies, accumulating extra genome copies in brain cells may help prevent cell death caused by DNA damage. This novel anti-aging defence could also shed light on human age-related brain diseases.
Researchers at West Virginia University discovered that blood substitution therapy can rescue the brains of mice from ischemic damage and improve outcomes. The study found that replacing 20% of the blood reduces damage to the brain, and the technique may be administered beyond the current three-hour window for stroke treatment.
A study found that reducing TET2 activity protects neurons from inflammatory insults and neurodegeneration in Parkinson's disease. The research suggests calming TET2 activity could be a powerful preventative measure to delay or prevent symptom onset.
Washington University researchers are developing a method to diagnose brain tumors without incisions, using ultrasonic energy to target tumors deep in the brain. The technique involves injecting microbubbles that rupture, releasing biomarkers from the tumor into the blood for testing with a blood draw, called a liquid biopsy.
Researchers developed a coaxial cable-inspired needle-electrode for multichannel and local-differential recordings of neuronal activity. This innovation achieved high-quality neuronal signal acquisition with a high signal-to-noise ratio, while reducing tissue damage compared to conventional electrodes.
A new study has uncovered 12 proteins linked to both tau and Alzheimer's disease, expanding understanding of the molecular interactions driving neurodegeneration. The research analyzed donated brain tissue samples from individuals with Alzheimer's, revealing dozens of other proteins associated with the disease.
Researchers at Iowa State University studied the impact of microbubbles on brain cells during traumatic brain injuries. They found that cavitation causes cell shrinkage, surface roughening, and increased inflammatory genes.
Researchers at UT Southwestern Medical Center have developed new MRI techniques to more precisely target brain structures linked to Parkinson's disease and essential tremor. These methods, including diffusion tractography, aim to reduce adverse effects associated with previous treatments.
Researchers at the University of Edinburgh discovered that synapse type shifts with age in unique patterns across different brain areas. This shift helps explain why genes cause synapse damage at set ages and in set brain areas.
Researchers at Medical University of South Carolina report that adding a compound to reduce inflammation improves learning, memory and motor recovery after stroke. The treatment may also extend the treatment window by reducing risk of hemorrhage.
Researchers developed a new technology to monitor cholesterol in brain tissue, revealing major locations of cholesterol and its metabolites. This breakthrough could lead to the discovery of new therapies for neurodegenerative diseases such as Alzheimer's, Parkinson's, and Huntington's disease.
A new method dubbed 'DEEP-Clear' allows researchers to visualize individual cells and their extensions in complex tissues like the brain. This approach enables scientists to capture 3D images of cells and tissues without sectioning, opening up new avenues for studying neural stem cell biology.
Researchers at the Beckman Institute developed a new technique to quantify lipids in rat brain tissue, providing more information than previous methods. The technique allows for the localization and amount of ceramides to be determined, which are important in learning and memory.
A team of MIT researchers has developed ELAST technology, which provides a fast way to fluorescently label cells, proteins, and molecules in brain and other large tissues. The technology enables fully reversible tissue shape transformation while preserving structural and molecular information.
A 3D brain-like tissue model has demonstrated a possible causal relationship between sporadic Alzheimer's disease and herpes simplex virus I infection. The model allowed researchers to observe the formation of amyloid plaques, neuronal loss, and neuroinflammation in response to HSV-1 infection.
Researchers at UMass Amherst have outlined high-priority goals and opportunities for advancing knowledge on cavitation science, which occurs in soft materials and tissues during traumatic brain injury. The team proposes using cavitation as a unique tool to understand soft tissues and develop new medical devices.
Researchers discover ursolic acid reduces further damage to neurons and helps rebuild protective sheaths in MS, reversing damage. The compound suppresses harmful immune cells while activating precursor cells to produce myelin-sheath-making cells.
Researchers recreated a three-dimensional image of brain connectivity using tissue scattering and biophysical models. The findings enhance scientists' ability to conceptualize the brain's architecture by allowing the creation of high-resolution images of nerve fiber arrangements.
Researchers at Stanford University have discovered the invisible pattern that growing neurons follow to form a brain using microscopy and mathematics. The technique could be used to coax stem cells to grow into replacement body parts, such as artificial organs.
A new compound has been discovered that targets a pathway causing brain swelling after stroke, potentially reducing cases of brain injury and death. The compound, called ZT-1a, was tested on mice and rats with stroke or hydrocephalus and showed promise in effectively reducing brain swelling.
A multidisciplinary study led by UB researchers has developed a new experimental tool to study how neuronal networks recover their function after neuron loss. The study shows that the network quickly activates self-regulation mechanisms that reinforce existing connections and restore circuit functionality.
Researchers discovered that shortly after a stroke, macrophages from the blood attack dead and adjacent healthy brain tissue. This process was hindered by inactivating the Cxcr4 gene, which acts like an antenna for inflammatory processes in the brain.
Researchers have discovered that the glymphatic system goes awry during a stroke, promoting brain cell drowning and swelling. This finding may lead to novel interventions to reduce stroke severity and improve outcomes.
Research in mice shows that the glymphatic system floods the brain during a stroke, triggering severe swelling and cell death. This discovery could lead to new treatment strategies focused on restoring blood flow and inhibiting the spread of depolarization.
Researchers at Northwestern University discovered that injecting nanoparticles into the bloodstream can significantly reduce brain swelling and damage after a traumatic brain injury. The treatment may provide new hope for individuals with significant traumatic brain injuries, including young athletes and soldiers.
Researchers have found that an exosome treatment can promote full recovery in swine with severe stroke, even in cases where brain cells are at risk of dying. The treatment works by interrupting the process of cell death and reducing damage signals throughout the brain network.
Research suggests that supplementing with short chain fatty acids can improve stroke recovery by reducing inflammation and promoting neuroinflammation. The study found that mice who drank water with added fatty acids experienced better stroke recovery, including reduced motor impairment and increased spine growth.
Researchers created living biohybrid nerve tissue using stem cells to develop 3D models of neural networks, enabling better understanding of brain function and disease development. The 3D models can be controlled with optogenetics and used for drug testing and studying complex behaviors.
Researchers at Johns Hopkins University created a lens-free, ultra-miniaturized endoscope that produces higher quality images while minimizing brain tissue damage. The microendoscope achieves this by using coded apertures and computational reconstruction to create a clearer image from a 'messy' projection.
Researchers at the University of Texas at San Antonio have developed a revolutionary nanodisk technology that uses magnetic fields to modulate brain cell functionality. This innovation has the potential to restore quality of life for individuals affected by Lou Gehrig's disease and other motor neuron disorders.