Young Entrepreneurs in Science’s Post

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

As we age, our capacity for learning naturally wanes, but a recent study published in Cell Reports reveals the neurochemical gatekeeper to learning and the key to unlocking it. The brain’s ability to change and adapt throughout life is driven by its plasticity, the ability for neurons to form new connections or alter existing ones. In infants, it is a constantly shifting network, shaped by the environment. As we age, our priorities shift, we learn and interact with our environment. Stanislav Zakharenko, MD, PhD, and his colleagues demonstrated in 2017 in Science the release of adenosine reduces plasticity in neuronal cells, impeding both the strengthening and weakening of connections crucial for learning. However, juvenile-like plasticity can be restored through genetic disruption of adenosine production, or inhibition of its target, the A1–adenosine receptor. “Plasticity happens if you remove adenosine from the equation. You can achieve this if you pair sound with activation of neuro-modulatory systems,” Zakharenko explained. “When a sound becomes significant, which is telegraphed by neuro-modulatory systems, the representation of how the sound is understood expands.” Understanding the interplay of sound-evoked adenosine release (SEAR) and neuromodulator activation offers insights into maintaining cortical plasticity throughout life. By establishing these findings, we are one step closer towards further insights on the development of our cognitive functions. Learn more at https://ow.ly/2vKj50Rlq1Y #Neuroscience #Neuroscience #Research

Educational Content "Ever wondered how cutting-edge lab technologies are transforming neuroscience research? Here’s a deep dive into three pivotal techniques: 1. Electrophysiology: By measuring electrical activity in neurons, electrophysiology helps us understand neural communication and brain function in real time. 2. MRI and fMRI: Magnetic Resonance Imaging (MRI) provides high-resolution images of brain structures, while functional MRI (fMRI) tracks brain activity by measuring changes in blood flow, offering insights into brain function and connectivity. 3. Optogenetics: This revolutionary technique involves using light to control neurons that have been genetically modified to express light-sensitive proteins. It's enabling precise manipulation of neural circuits, advancing our understanding of brain functions and behaviors. These technologies are not just advancing our understanding of the brain but also paving the way for new treatments for neurological disorders. #Neuroscience #LabTech #Education"

🚀 Exciting Breakthrough in Neuroscience Imaging! 🧠🔬 At MIT, a collaboration of engineers and neuroscientists has unveiled a groundbreaking microscopy system that tracks brain changes faster and with greater clarity than ever before. This new system allows researchers to observe the brain’s plasticity—the process by which neurons remodel synaptic connections—at high resolution across entire cells, a feat that was previously hindered by the slow pace of traditional microscopes and the light-scattering nature of brain tissue. 📝 As detailed in their latest publication in Scientific Reports, this innovative technology overcomes these challenges, paving the way for deeper insights into brain function and learning. The team is already working on the next generation system, incorporating advanced detectors like hybrid photomultipliers and avalanche photodiode arrays to further enhance speed and sensitivity. Join us in celebrating this leap forward in neuroscience research! #Neuroscience #BrainResearch #Microscopy #Innovation #MIT #ScientificReports #Plasticity #Synapses #Neurotechnology #ScientificBreakthrough

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

🚨 Exciting News in the World of Neuroscience! 🚨 Neuralink’s groundbreaking CAN-PRIME Study has just been approved for its first clinical trial in Canada! 🇨🇦 This marks a significant milestone in the company's mission to revolutionize brain-computer interface technology. The CAN-PRIME Study aims to explore the potential of Neuralink’s innovative technology to help people with severe neurological conditions regain control over their bodies and improve their quality of life. 🧠💪 By connecting the human brain to computers in real-time, Neuralink hopes to unlock new possibilities for treating conditions like paralysis, memory loss, and beyond. This approval is a pivotal moment for the field of neuroscience and opens the door to the future of brain-computer communication. 🙌 We are on the verge of an exciting new era where technology and the human brain work together to create life-changing solutions. Stay tuned as we follow the journey of Neuralink’s clinical trials in Canada, and how this breakthrough could change the way we approach neurological diseases. The future is here! 🚀 #Neuralink #BrainComputerInterface #Innovation #Neuroscience #MedicalBreakthrough #TechnologyForGood #CANPRIME #Canada #ClinicalTrials #FutureOfMedicine #NeuroTech

#NeuroScience | 𝗛𝗼𝘄 𝘁𝗵𝗲 𝗕𝗿𝗮𝗶𝗻 𝗣𝗿𝗶𝗼𝗿𝗶𝘁𝗶𝘇𝗲𝘀 𝗜𝗺𝗺𝗲𝗱𝗶𝗮𝘁𝗲 𝗚𝗼𝗮𝗹𝘀 | Researchers led by Prof. Dr. Alison Montagrin from the University of Geneva and the Icahn School of Medicine at Mount Sinai Hospital have made an exciting discovery about the brain's processes. Their study unveils how the brain distinguishes and prioritizes goals to be achieved in the past, present, or future. Through observing individual reaction times and using very high-resolution MRI imaging, the researchers were able to investigate cerebral activity in great detail. They found that the brain recognizes immediate goals more quickly than distant ones. This breakthrough is crucial for understanding psychiatric disorders like depression, which can impede goal formulation. Insights from this research could lead to new treatments and approaches for these conditions. 👉 Learn more >> https://lnkd.in/dGR5Va7c 👉 Original publication >> https://lnkd.in/eKN6qtZ8 Image: Thomas Grand / Atelier XL 🇨🇭 Follow #ScienceSwitzerland for the latest news and emerging trends on Swiss science, technology, education, and innovation >> swissinnovation.org Follow us >> Science-Switzerland #Science | #Education | #Research | #Innovation

🔬 Revolutionizing Neuroscience: Ultra-Light Microscope for Dynamic Brain Mapping in Mice 🐭 A groundbreaking study in Nature Biomedical Engineering unveils a microscope as light as a US penny, yet powerful enough to capture extensive brain activity with exceptional resolution, enabling the observation of natural behaviors in mice. Led by Alipasha Vaziri at Rockefeller University, the innovative technology utilizes diffractive optical elements, making it ideal for dynamic and naturalistic studies, providing unprecedented insights into brain-wide neuroactivity. #Neuroscience #Innovation #Research #Microscopy #BrainHealth #ScienceAdvancement 🧠✨ Learn more: https://lnkd.in/e3_9yFps

Pioneering Discoveries in Brain Navigation and Their Implications for Alzheimer’s Research This Alzheimer’s and Brain Awareness Month, we celebrate groundbreaking achievements in neuroscience that are transforming our understanding of the brain and paving the way for innovative treatments for Alzheimer’s disease. In 2014, John O’Keefe, May-Britt Moser, and Edvard Moser were awarded the Nobel Prize in Physiology or Medicine for their discovery of ‘place cells’ and ‘grid cells’. These specialized neurons, located in the hippocampus and entorhinal cortex, form the brain’s intricate navigation system. Their discoveries have provided a crucial link between cellular activity and higher cognitive functions, such as memory and spatial navigation. (The attached picture is one of the groundbreaking publications by the Nobel laureates in the Euretos Platform). Why is this important for Alzheimer’s research? The hippocampus, a region critical for memory, is one of the first areas affected by Alzheimer’s. By understanding how place cells and grid cells work, scientists can better understand the mechanisms underlying memory loss and disorientation in Alzheimer’s patients. At Euretos, we recognize the importance of data-driven science in advancing fundamental research. Leveraging big data and advanced analytics, we empower translational scientists to uncover novel insights and accelerate the development of treatments for complex diseases like Alzheimer’s. Find out more at www.euretos.com #AlzheimersAwareness #BrainAwareness #Neuroscience #TranslationalResearch #DrugDiscovery #NobelPrize