home.social

#synapses — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #synapses, aggregated by home.social.

  1. 🧠 New paper from our neighboring Gründemann Lab @dzne 👋

    Chloé Maëlle Benoit and colleagues show that #axon initial segments in #mPFC #neurons undergo #learning-dependent #StructuralPlasticity during fear extinction, linking #AIS dynamics to #MemoryFormation in vivo. A very cool study that extends the concept of learning-related #plasticity beyond #synapses to intrinsic neuronal compartments.

    🌍 doi.org/10.1038/s41593-025-021

    #Neuroscience #DZNE

  2. 🧠 New paper from our neighboring Gründemann Lab @dzne 👋

    Chloé Maëlle Benoit and colleagues show that #axon initial segments in #mPFC #neurons undergo #learning-dependent #StructuralPlasticity during fear extinction, linking #AIS dynamics to #MemoryFormation in vivo. A very cool study that extends the concept of learning-related #plasticity beyond #synapses to intrinsic neuronal compartments.

    🌍 doi.org/10.1038/s41593-025-021

    #Neuroscience #DZNE

  3. 🧠 New paper from our neighboring Gründemann Lab @dzne 👋

    Chloé Maëlle Benoit and colleagues show that #axon initial segments in #mPFC #neurons undergo #learning-dependent #StructuralPlasticity during fear extinction, linking #AIS dynamics to #MemoryFormation in vivo. A very cool study that extends the concept of learning-related #plasticity beyond #synapses to intrinsic neuronal compartments.

    🌍 doi.org/10.1038/s41593-025-021

    #Neuroscience #DZNE

  4. 🧠 New paper from our neighboring Gründemann Lab @dzne 👋

    Chloé Maëlle Benoit and colleagues show that #axon initial segments in #mPFC #neurons undergo #learning-dependent #StructuralPlasticity during fear extinction, linking #AIS dynamics to #MemoryFormation in vivo. A very cool study that extends the concept of learning-related #plasticity beyond #synapses to intrinsic neuronal compartments.

    🌍 doi.org/10.1038/s41593-025-021

    #Neuroscience #DZNE

  5. 🧠 New paper from our neighboring Gründemann Lab @dzne 👋

    Chloé Maëlle Benoit and colleagues show that #axon initial segments in #mPFC #neurons undergo #learning-dependent #StructuralPlasticity during fear extinction, linking #AIS dynamics to #MemoryFormation in vivo. A very cool study that extends the concept of learning-related #plasticity beyond #synapses to intrinsic neuronal compartments.

    🌍 doi.org/10.1038/s41593-025-021

    #Neuroscience #DZNE

  6. 🧠 In gaps near a millionth of an inch, consciousness might be dancing. Between trillions of synapses, molecular bridges hold synaptic contacts and slowly remodel with activity, weaving patterns so complex we might wonder if they could experience themselves.

    ✨ Journey into the neural mystery: TPC8.short.gy/JS2DQjc8

    🔮 In the space between neurons, a universe of awareness may be unfolding.

    #Neuroscience #Consciousness #PhilosophyOfMind #NeuroPhilosophy #CognitiveScience #Synapses #SciComm #TPC8

  7. 🧠 In gaps near a millionth of an inch, consciousness might be dancing. Between trillions of synapses, molecular bridges hold synaptic contacts and slowly remodel with activity, weaving patterns so complex we might wonder if they could experience themselves.

    ✍️ Journey into the neural mystery: TPC8.short.gy/JS2DQjc8

    🔮 In the space between neurons, a universe of awareness may be unfolding.

    #Neuroscience #Consciousness #PhilosophyOfMind #NeuroPhilosophy #CognitiveScience #Synapses #SciComm #TPC8

  8. 🧠 In gaps near a millionth of an inch, consciousness might be dancing. Between trillions of synapses, molecular bridges hold synaptic contacts and slowly remodel with activity, weaving patterns so complex we might wonder if they could experience themselves.

    ✍️ Journey into the neural mystery: TPC8.short.gy/JS2DQjc8

    🔮 In the space between neurons, a universe of awareness may be unfolding.

    #Neuroscience #Consciousness #PhilosophyOfMind #NeuroPhilosophy #CognitiveScience #Synapses #SciComm #TPC8

  9. 🧠 In gaps near a millionth of an inch, consciousness might be dancing. Between trillions of synapses, molecular bridges hold synaptic contacts and slowly remodel with activity, weaving patterns so complex we might wonder if they could experience themselves.

    ✍️ Journey into the neural mystery: TPC8.short.gy/JS2DQjc8

    🔮 In the space between neurons, a universe of awareness may be unfolding.

    #Neuroscience #Consciousness #PhilosophyOfMind #NeuroPhilosophy #CognitiveScience #Synapses #SciComm #TPC8

  10. 🧠 In gaps near a millionth of an inch, consciousness might be dancing. Between trillions of synapses, molecular bridges hold synaptic contacts and slowly remodel with activity, weaving patterns so complex we might wonder if they could experience themselves.

    ✍️ Journey into the neural mystery: TPC8.short.gy/JS2DQjc8

    🔮 In the space between neurons, a universe of awareness may be unfolding.

    #Neuroscience #Consciousness #PhilosophyOfMind #NeuroPhilosophy #CognitiveScience #Synapses #SciComm #TPC8

  11. 🧠 #Neurons can communicate via a hidden network of #nanotubes, new study finds. Chang et al. (2025) show that dendritic nanotubes (DNTs) are #actin-based #dendrite-to-dendrite conduits transferring Ca²⁺ and molecular cargo (incl. #), rising before plaque deposition in mouse #cortex. This overlooked pathway may expand our view of neuronal communication beyond #synapses:

    🌍 science.org/doi/10.1126/scienc

    #Neuroscience

  12. 🧠 #Neurons can communicate via a hidden network of #nanotubes, new study finds. Chang et al. (2025) show that dendritic nanotubes (DNTs) are #actin-based #dendrite-to-dendrite conduits transferring Ca²⁺ and molecular cargo (incl. #), rising before plaque deposition in mouse #cortex. This overlooked pathway may expand our view of neuronal communication beyond #synapses:

    🌍 science.org/doi/10.1126/scienc

    #Neuroscience

  13. 🧠 #Neurons can communicate via a hidden network of #nanotubes, new study finds. Chang et al. (2025) show that dendritic nanotubes (DNTs) are #actin-based #dendrite-to-dendrite conduits transferring Ca²⁺ and molecular cargo (incl. #), rising before plaque deposition in mouse #cortex. This overlooked pathway may expand our view of neuronal communication beyond #synapses:

    🌍 science.org/doi/10.1126/scienc

    #Neuroscience

  14. 🧠 #Neurons can communicate via a hidden network of #nanotubes, new study finds. Chang et al. (2025) show that dendritic nanotubes (DNTs) are #actin-based #dendrite-to-dendrite conduits transferring Ca²⁺ and molecular cargo (incl. #), rising before plaque deposition in mouse #cortex. This overlooked pathway may expand our view of neuronal communication beyond #synapses:

    🌍 science.org/doi/10.1126/scienc

    #Neuroscience

  15. 🧠 #Neurons can communicate via a hidden network of #nanotubes, new study finds. Chang et al. (2025) show that dendritic nanotubes (DNTs) are #actin-based #dendrite-to-dendrite conduits transferring Ca²⁺ and molecular cargo (incl. #), rising before plaque deposition in mouse #cortex. This overlooked pathway may expand our view of neuronal communication beyond #synapses:

    🌍 science.org/doi/10.1126/scienc

    #Neuroscience

  16. 🧠Wie Synapsen zusammenhalten 🤝

    Diese Entdeckung hat ein Kölner Forschungsteam über die molekulare Architektur von Synapsen gemacht. Die Studie zeigt, dass das Protein Gephyrin im Gehirn flexible Filamente bildet und damit als wichtiger Baustein inhibitorischer Synapsen dient.

    Mehr dazu▶️ uni.koeln/YAZEK

    📰 nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  17. 🧠Wie Synapsen zusammenhalten 🤝

    Diese Entdeckung hat ein Kölner Forschungsteam über die molekulare Architektur von Synapsen gemacht. Die Studie zeigt, dass das Protein Gephyrin im Gehirn flexible Filamente bildet und damit als wichtiger Baustein inhibitorischer Synapsen dient.

    Mehr dazu▶️ uni.koeln/YAZEK

    📰 nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  18. 🧠Wie Synapsen zusammenhalten 🤝

    Diese Entdeckung hat ein Kölner Forschungsteam über die molekulare Architektur von Synapsen gemacht. Die Studie zeigt, dass das Protein Gephyrin im Gehirn flexible Filamente bildet und damit als wichtiger Baustein inhibitorischer Synapsen dient.

    Mehr dazu▶️ uni.koeln/YAZEK

    📰 nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  19. 🧠Wie Synapsen zusammenhalten 🤝

    Diese Entdeckung hat ein Kölner Forschungsteam über die molekulare Architektur von Synapsen gemacht. Die Studie zeigt, dass das Protein Gephyrin im Gehirn flexible Filamente bildet und damit als wichtiger Baustein inhibitorischer Synapsen dient.

    Mehr dazu▶️ uni.koeln/YAZEK

    📰 nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  20. 🧠Wie Synapsen zusammenhalten 🤝

    Diese Entdeckung hat ein Kölner Forschungsteam über die molekulare Architektur von Synapsen gemacht. Die Studie zeigt, dass das Protein Gephyrin im Gehirn flexible Filamente bildet und damit als wichtiger Baustein inhibitorischer Synapsen dient.

    Mehr dazu▶️ uni.koeln/YAZEK

    📰 nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  21. 🧠 How Synapses Hold Together 🤝

    This discovery was made by a Cologne-based research team studying the molecular architecture of synapses. The study shows that the protein gephrin forms flexible filaments in the brain, serving as an important building block of inhibitory synapses.

    Read more ▶️ uni.koeln/PSVRY

    📰The study was published in Nature Communications: nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  22. 🧠 How Synapses Hold Together 🤝

    This discovery was made by a Cologne-based research team studying the molecular architecture of synapses. The study shows that the protein gephrin forms flexible filaments in the brain, serving as an important building block of inhibitory synapses.

    Read more ▶️ uni.koeln/PSVRY

    📰The study was published in Nature Communications: nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  23. 🧠 How Synapses Hold Together 🤝

    This discovery was made by a Cologne-based research team studying the molecular architecture of synapses. The study shows that the protein gephrin forms flexible filaments in the brain, serving as an important building block of inhibitory synapses.

    Read more ▶️ uni.koeln/PSVRY

    📰The study was published in Nature Communications: nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  24. 🧠 How Synapses Hold Together 🤝

    This discovery was made by a Cologne-based research team studying the molecular architecture of synapses. The study shows that the protein gephrin forms flexible filaments in the brain, serving as an important building block of inhibitory synapses.

    Read more ▶️ uni.koeln/PSVRY

    📰The study was published in Nature Communications: nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  25. 🧠 How Synapses Hold Together 🤝

    This discovery was made by a Cologne-based research team studying the molecular architecture of synapses. The study shows that the protein gephrin forms flexible filaments in the brain, serving as an important building block of inhibitory synapses.

    Read more ▶️ uni.koeln/PSVRY

    📰The study was published in Nature Communications: nature.com/articles/s41467-025

    #uniköln #unicologne #Forschung #Synapsen #Gehirn #Neurologie #Research #Synapses #Brain #Neurology

  26. 🧠 New pre-print by Wiesner et al. (2025) shows non-#synaptic #exocytosis directly from the #axon shaft, regulated by the submembrane periodic skeleton. Using #superresolution #imaging and live assays (#HiLo (VAMP2-pHluorin), #SIM, and correlative two-color #SMLM/ #STORM) they reveal that #axons can release vesicles outside classical #synapses, expanding how we understand #neuronal communication and #AxonalSignaling.

    🌍 doi.org/10.1101/2025.09.17.676

    #Neuroscience

  27. 🧠 New pre-print by Wiesner et al. (2025) shows non-#synaptic #exocytosis directly from the #axon shaft, regulated by the submembrane periodic skeleton. Using #superresolution #imaging and live assays (#HiLo (VAMP2-pHluorin), #SIM, and correlative two-color #SMLM/ #STORM) they reveal that #axons can release vesicles outside classical #synapses, expanding how we understand #neuronal communication and #AxonalSignaling.

    🌍 doi.org/10.1101/2025.09.17.676

    #Neuroscience

  28. 🧠 New pre-print by Wiesner et al. (2025) shows non-#synaptic #exocytosis directly from the #axon shaft, regulated by the submembrane periodic skeleton. Using #superresolution #imaging and live assays (#HiLo (VAMP2-pHluorin), #SIM, and correlative two-color #SMLM/ #STORM) they reveal that #axons can release vesicles outside classical #synapses, expanding how we understand #neuronal communication and #AxonalSignaling.

    🌍 doi.org/10.1101/2025.09.17.676

    #Neuroscience

  29. 🧠 New pre-print by Wiesner et al. (2025) shows non-#synaptic #exocytosis directly from the #axon shaft, regulated by the submembrane periodic skeleton. Using #superresolution #imaging and live assays (#HiLo (VAMP2-pHluorin), #SIM, and correlative two-color #SMLM/ #STORM) they reveal that #axons can release vesicles outside classical #synapses, expanding how we understand #neuronal communication and #AxonalSignaling.

    🌍 doi.org/10.1101/2025.09.17.676

    #Neuroscience

  30. 🧠 New pre-print by Wiesner et al. (2025) shows non-#synaptic #exocytosis directly from the #axon shaft, regulated by the submembrane periodic skeleton. Using #superresolution #imaging and live assays (#HiLo (VAMP2-pHluorin), #SIM, and correlative two-color #SMLM/ #STORM) they reveal that #axons can release vesicles outside classical #synapses, expanding how we understand #neuronal communication and #AxonalSignaling.

    🌍 doi.org/10.1101/2025.09.17.676

    #Neuroscience

  31. Ah, the riveting tale of psychiatry's #metaphorical #brain babble, where #neurons are poets and #synapses sing 🎤. #Nature.com suggests upgrading your #browser because, apparently, without the latest CSS, you can't truly grasp the profound wisdom of metaphorical mush 💻🔍.
    nature.com/articles/s41380-025 #psychiatry #upgrade #HackerNews #ngated

  32. The #Brain stores #Memories primarily by strengthening or weakening the connections between neurons, called #Synapses.

    This process, known as synaptic plasticity, allows neural circuits to be physically reshaped, forming robust pathways that encode learned information.

    knowledgezone.co.in/posts/How-

  33. Synaptic transmission is modulated by #neuropeptides in sensory systems & interneurons. This study shows that motor #synapses are also modulated by neuropeptidergic signaling, where lower ACh levels are compensated by upregulation of postsynaptic Ca2+ channels @PLOSBiology plos.io/4d6Ecgg

  34. How do diverse synapses in the brain organize their nanoarchitecture? This study uses #nanobodies & STED imaging to study the nanoarchitecture of thalamocortical & corticocortical #synapses, revealing distinct principles of synaptic nano-organization in the brain @PLOSBiology plos.io/3FY4vcd

  35. Role of axo-axonic synapses among olfactory receptor neurons (ORNs) in odor decorrelation, mediated by metabotropic acetylcholine receptors:

    "Nonlinear high-activity neuronal excitation enhances odor discrimination", Julia E. Manoim-Wolkovitz et al. 2025
    cell.com/current-biology/fullt

    #neuroscience #Drosophila #AxoAxonicSynapses #synapses #olfaction