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#ResearchMatters! Scientists identify neurons that restore walking after paralysis.🧠 A new study by scientists at the .NeuroRestore research center, led by Grégoire Courtine, a neuroscience professor at EPFL, and Jocelyne Bloch, a neurosurgeon at CHUV | Lausanne university hospital (CHUV), has identified the type of neuron that is activated and remodeled by spinal cord stimulation, allowing patients who had been paralyzed by a spinal cord injury to stand up, walk and rebuild their muscles – thus improving their quality of life. 💪🚶♀️ 📄Read the full story here 👉 https://lnkd.in/dgaiHrsN #ResearchMatters #EPFL #Neuroscience #Innovation #Healthcare #QualityOfLife

🧠Unveiling the Mouse Brain Cell-by-Cell ✨ Scientists from Allen Institute for Brain Science have achieved a groundbreaking milestone in neuroscience: a comprehensive, cell-by-cell map of the entire mouse brain! This vibrant mosaic not only highlights the diverse positions and roles of cells but also provides unprecedented insights into the functional complexities of the brain. This intricate map is more than a scientific achievement; it's a window into understanding how various brain regions interact, communicate, and contribute to the behavior and health of mice. By deciphering this complex network, researchers are paving the way for advancements in treating neurological disorders and unlocking the mysteries of the human brain. Why This Matters: 🔀 Offers a colorful, detailed view of the brain's cellular makeup 🧬 Enhances our understanding of brain function and complexity 🏥Opens new avenues for medical research and neurological therapies Dive into the fascinating world of neuroscience and explore what this means for future research by reading more about it in this article from The Scientist - https://hubs.ly/Q02swH1s0 #Neuroscience #MouseBrain #BrainResearch #ScientificDiscovery#MERFISH #MERSCOPE #Vizgen

Research & Innovation at Georgetown 🔬 A Brain Fingerprint 🧠: Unique Brain Plasticity in People Born Blind Uncovered at Georgetown University   A study led by Georgetown University Medical Center neuroscientists, described on July 30, 2024, in PNAS, reveals that the visual cortex in people born blind develops a unique connectivity pattern, much like a fingerprint. This discovery, led by Dr. Lenia Amaral and Dr. Ella Striem-Amit, can potentially improve personalized rehabilitation and sight restoration strategies. The researchers suggest that understanding individual brain connectivity is key to tailoring rehabilitation and sight restoration solutions for people with blindness. Read more: [https://lnkd.in/d8kDWh2g] [https://lnkd.in/ewBnKUt4] #GeorgetownInnovation #Neuroscience #BrainPlasticity #ResearchExcellence

🧠 Discovering the Brain's Secret to Detecting Patterns Automatically A fascinating study recently published in Nature reveals how our brains detect patterns in everyday experiences without us even realizing it. Researchers have identified specific neurons in the hippocampus and entorhinal cortex—areas critical for memory and navigation—that can integrate 'what' happens and 'when' it happens to recognize patterns in real-time. 🔍 Study Insights: ◾ Neurons can predict upcoming events by understanding the sequence of past events, enhancing our ability to navigate through daily life efficiently. ◾ This pattern recognition occurs without conscious awareness, highlighting the brain's complex underlying processes that operate beneath our conscious experience. The study involved participants with electrodes implanted for medical reasons, providing a unique glimpse into the neuronal activity underlying cognitive processes. 💡 Why It Matters: Understanding these mechanisms opens new avenues for developing therapies to enhance memory and cognitive function, particularly in neurological conditions. 🔗 https://lnkd.in/ee_T9QDY #Neuroscience #CognitiveScience #HealthcareInnovation #BrainResearch

It's common knowledge that our brains- specifically, our brain cells—store memories. However, a team of scientists has discovered that cells from other parts of the body also perform a memory function, opening new pathways for understanding how memory works and creating the potential to enhance learning and treat memory-related afflictions. A breakthrough study from New York University reveals that cells from the kidney and nerve tissue can form memories, similar to brain cells. The researchers add that the findings not only offer new ways to study memory but also point to potential health-related gains. New York University World Health Organization Indian Council of Medical Research (ICMR) #MedicalResearch #Neuroscience #Science

Two is better than one! We have developed a hybrid EEG+fNIRS system that integrates an EEG electrode with fNIRS emitters/detectors into a single pod. Functional Near-Infrared Spectroscopy (fNIRS) is a non-invasive brain imaging technique that utilizes light to measure brain activity by observing changes in blood oxygenation. Leveraging fNIRS along with EEG empowers researchers with colocalized measurements of neural activity and blood flow. This combination significantly enhances research in neurovascular coupling, providing valuable insights into the interplay between neural activity and vascular functions, enabling a more comprehensive view of brain activity. Our goal is to empower the neuroscience community with the most effective tools, therefore contributing to a deeper understanding of neural functioning. We hope this system will support researchers in their quest to uncover new knowledge about the brain 🧠 #EEG #fNIRS #Neurotech #NeurovascularCoupling #Neuroscience

Tomas Cizmar, a researcher at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) and professor at Friedrich Schiller University Jena has recently been awarded the Czech Minister of Education, Youth and Sports Prize for pioneering work in holographic endoscopy. Cizmar's work allows neuroscientists to observe blood flow dynamics and neuronal activity, deep within the brain in extraordinary detail. "We have provided the tool to monitor the onset and progression of [neuronal] diseases, and even test the efficiency of a combat strategy (for example, a new drug),” he said.  Red the full story here: https://lnkd.in/ee4ue9eM #HolographicEndoscope #BrainResearch #MedicalInnovation #PhotonicsInMedicine #CzechScience #MedicalTechnology #Neuroscience #EndoscopeTechnology #HealthcareInnovation

Scientists Control Mice Minds with Magnets – A Breakthrough in Neuroscience South Korean researchers have developed Nano-MIND, an innovative technology that uses magnetic fields and nanoparticles to remotely control specific brain regions in mice. This groundbreaking approach allows for wireless manipulation of neural circuits, enabling modulation of behaviours such as appetite, social interactions, and maternal instincts. Developed by the Institute for Basic Science and Yonsei University, Nano-MIND combines genetics, nanoparticles, and magnetic fields to achieve non-invasive control over specific neurons. This technology represents a significant advancement in understanding complex brain functions and has potential applications in treating neurological and psychiatric disorders. The ability to precisely modulate brain circuits opens new avenues for research and therapeutic interventions, making Nano-MIND a promising tool for the future of neuroscience. #Neuroscience #Innovation #Technology #Research #BrainHealth

A new computer simulation developed by scientists at the University of Surrey is helping unravel the complexities of neuron growth in the brain, with promising implications for neurodegenerative disease research. The model, built with BioDynaMo software, simulates neuron development in the hippocampus, a region critical to memory retention. Dr. Roman Bauer, who co-developed the simulation, explains, “We’re getting closer to understanding how neurons grow and communicate, which could lead to better treatments for diseases like Alzheimer’s.” This simulation leverages Approximate Bayesian Computation (ABC) to closely mirror real neuron growth patterns, making it an exciting tool for future research in brain development and potential therapeutic advancements. https://lnkd.in/em-WJd-h #Neuroscience #NeuronGrowth #Neurodegeneration #MentalHealthResearch #Alzheimers #BrainScience #InnovationInHealthcare #MentalHealthProfessionals