home.social

#oscillations — Public Fediverse posts

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

  1. Also the #iBehave seminar series continues. First speaker will be Prof. Dr. Veronica Egger (University of Regensburg), talking about "Rhythms in the #OlfactoryBulb: From #NeuronalNetwork #oscillations to heartbeat interoception"

    📅 Jan 12, 2026, 10:30 am
    👤 Host: Gaia Tavosanis
    💻 Zoom link via [email protected]

    #CompNeuro #neuroscience #olfaction

  2. Also the #iBehave seminar series continues. First speaker will be Prof. Dr. Veronica Egger (University of Regensburg), talking about "Rhythms in the #OlfactoryBulb: From #NeuronalNetwork #oscillations to heartbeat interoception"

    📅 Jan 12, 2026, 10:30 am
    👤 Host: Gaia Tavosanis
    💻 Zoom link via [email protected]

    #CompNeuro #neuroscience #olfaction

  3. Also the #iBehave seminar series continues. First speaker will be Prof. Dr. Veronica Egger (University of Regensburg), talking about "Rhythms in the #OlfactoryBulb: From #NeuronalNetwork #oscillations to heartbeat interoception"

    📅 Jan 12, 2026, 10:30 am
    👤 Host: Gaia Tavosanis
    💻 Zoom link via [email protected]

    #CompNeuro #neuroscience #olfaction

  4. Also the #iBehave seminar series continues. First speaker will be Prof. Dr. Veronica Egger (University of Regensburg), talking about "Rhythms in the #OlfactoryBulb: From #NeuronalNetwork #oscillations to heartbeat interoception"

    📅 Jan 12, 2026, 10:30 am
    👤 Host: Gaia Tavosanis
    💻 Zoom link via [email protected]

    #CompNeuro #neuroscience #olfaction

  5. Also the #iBehave seminar series continues. First speaker will be Prof. Dr. Veronica Egger (University of Regensburg), talking about "Rhythms in the #OlfactoryBulb: From #NeuronalNetwork #oscillations to heartbeat interoception"

    📅 Jan 12, 2026, 10:30 am
    👤 Host: Gaia Tavosanis
    💻 Zoom link via [email protected]

    #CompNeuro #neuroscience #olfaction

  6. Watch the fascinating behaviour of a mass-spring-damper system as it transitions from overdamped (where motion is slow and heavily resisted) to undamped (where it oscillates freely without energy loss). This animation beautifully demonstrates how varying levels of damping impact motion and energy dissipation in mechanical systems.

    #Physics #Engineering #MassSpringDamper #Damping #MechanicalSystems #Oscillations #Overdamped #Undamped #CriticalDamping #DynamicSystems #EnergyDissipation #MechanicalEngineering #STEM

  7. Watch the fascinating behaviour of a mass-spring-damper system as it transitions from overdamped (where motion is slow and heavily resisted) to undamped (where it oscillates freely without energy loss). This animation beautifully demonstrates how varying levels of damping impact motion and energy dissipation in mechanical systems.

    #Physics #Engineering #MassSpringDamper #Damping #MechanicalSystems #Oscillations #Overdamped #Undamped #CriticalDamping #DynamicSystems #EnergyDissipation #MechanicalEngineering #STEM

  8. Watch the fascinating behaviour of a mass-spring-damper system as it transitions from overdamped (where motion is slow and heavily resisted) to undamped (where it oscillates freely without energy loss). This animation beautifully demonstrates how varying levels of damping impact motion and energy dissipation in mechanical systems.

    #Physics #Engineering #MassSpringDamper #Damping #MechanicalSystems #Oscillations #Overdamped #Undamped #CriticalDamping #DynamicSystems #EnergyDissipation #MechanicalEngineering #STEM

  9. Watch the fascinating behavior of a mass-spring-damper system as it transitions from overdamped (where motion is slow and heavily resisted) to undamped (where it oscillates freely without energy loss). This animation beautifully demonstrates how varying levels of damping impact motion and energy dissipation in mechanical systems.

    #Physics #Engineering #MassSpringDamper #Damping #MechanicalSystems #Oscillations #Overdamped #Undamped #CriticalDamping #DynamicSystems #EnergyDissipation #MechanicalEngineering #STEM

  10. Watch the fascinating behavior of a mass-spring-damper system as it transitions from overdamped (where motion is slow and heavily resisted) to undamped (where it oscillates freely without energy loss). This animation beautifully demonstrates how varying levels of damping impact motion and energy dissipation in mechanical systems.

    #Physics #Engineering #MassSpringDamper #Damping #MechanicalSystems #Oscillations #Overdamped #Undamped #CriticalDamping #DynamicSystems #EnergyDissipation #MechanicalEngineering #STEM

  11. Great having Mark Schnitzer at today’s #iBehave lecture at the @dzne! Fascinating talk on cell-type specific #VoltageImaging 🧠⚡ of neural #spiking, #oscillations, #waves, and #MemoryDynamics. Showing that spike-resolution #imaging 🔬 in vivo is finally there 💪

    #Neuroscience 🧪 #DZNE

  12. Great having Mark Schnitzer at today’s #iBehave lecture at the @dzne.science! Fascinating talk on cell-type specific #VoltageImaging 🧠⚡ of neural #spiking, #oscillations, #waves, and #MemoryDynamics. Showing that spike-resolution #imaging 🔬 in vivo is finally there 💪 #Neuroscience 🧪 #DZNE

  13. I recently played around with #RateModels using #NESTsimulator. Compared to #SNN, RM focus on average firing rates of #NeuronPopulations, simplifying analysis of large networks. They effectively capture collective dynamics like #oscillations and #synchronization, though they miss precise spike timing details. Thus, both approaches have their merits. Here is a brief overview:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #PythonTutorial #SpikingNeuralNetwork

  14. I recently played around with #RateModels using #NESTsimulator. Compared to #SNN, RM focus on average firing rates of #NeuronPopulations, simplifying analysis of large networks. They effectively capture collective dynamics like #oscillations and #synchronization, though they miss precise spike timing details. Thus, both approaches have their merits. Here is a brief overview:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #PythonTutorial #SpikingNeuralNetwork

  15. I recently played around with #RateModels using #NESTsimulator. Compared to #SNN, RM focus on average firing rates of #NeuronPopulations, simplifying analysis of large networks. They effectively capture collective dynamics like #oscillations and #synchronization, though they miss precise spike timing details. Thus, both approaches have their merits. Here is a brief overview:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #PythonTutorial #SpikingNeuralNetwork

  16. I recently played around with #RateModels using #NESTsimulator. Compared to #SNN, RM focus on average firing rates of #NeuronPopulations, simplifying analysis of large networks. They effectively capture collective dynamics like #oscillations and #synchronization, though they miss precise spike timing details. Thus, both approaches have their merits. Here is a brief overview:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #PythonTutorial #SpikingNeuralNetwork

  17. I recently played around with #RateModels using #NESTsimulator. Compared to #SNN, RM focus on average firing rates of #NeuronPopulations, simplifying analysis of large networks. They effectively capture collective dynamics like #oscillations and #synchronization, though they miss precise spike timing details. Thus, both approaches have their merits. Here is a brief overview:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #PythonTutorial #SpikingNeuralNetwork

  18. Here is a direct follow-up on this, now showing how to implement #GapJunctions in a network of #spiking #neurons (#SNN) using the #NESTsimulator. We simulate a network of 500 inhibitory neurons with gap junctions and analyze the effects on #synchrony and #oscillations. The code is also available on GitHub. Feel free to modify and expand upon it 🤗

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience sigmoid.social/@pixeltracker/1

  19. Here is a direct follow-up on this, now showing how to implement #GapJunctions in a network of #spiking #neurons (#SNN) using the #NESTsimulator. We simulate a network of 500 inhibitory neurons with gap junctions and analyze the effects on #synchrony and #oscillations. The code is also available on GitHub. Feel free to modify and expand upon it 🤗

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience sigmoid.social/@pixeltracker/1

  20. Here is a direct follow-up on this, now showing how to implement #GapJunctions in a network of #spiking #neurons (#SNN) using the #NESTsimulator. We simulate a network of 500 inhibitory neurons with gap junctions and analyze the effects on #synchrony and #oscillations. The code is also available on GitHub. Feel free to modify and expand upon it 🤗

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience sigmoid.social/@pixeltracker/1

  21. Here is a direct follow-up on this, now showing how to implement #GapJunctions in a network of #spiking #neurons (#SNN) using the #NESTsimulator. We simulate a network of 500 inhibitory neurons with gap junctions and analyze the effects on #synchrony and #oscillations. The code is also available on GitHub. Feel free to modify and expand upon it 🤗

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience sigmoid.social/@pixeltracker/1

  22. Here is a direct follow-up on this, now showing how to implement #GapJunctions in a network of #spiking #neurons (#SNN) using the #NESTsimulator. We simulate a network of 500 inhibitory neurons with gap junctions and analyze the effects on #synchrony and #oscillations. The code is also available on GitHub. Feel free to modify and expand upon it 🤗

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience sigmoid.social/@pixeltracker/1

  23. 📝 New blog post: #GapJunctions (#ElectricalSynapses) enable direct electrical and chemical communication between #neurons, synchronizing activity and supporting rapid signal propagation. Their #modeling is crucial for understanding #NeuralNetworkDynamics, #oscillations, and #brain 🧠 function. Here is a brief summary including a small #PythonTutorial using the #NESTsimulator.

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #OpenSource

  24. 📝 New blog post: #GapJunctions (#ElectricalSynapses) enable direct electrical and chemical communication between #neurons, synchronizing activity and supporting rapid signal propagation. Their #modeling is crucial for understanding #NeuralNetworkDynamics, #oscillations, and #brain 🧠 function. Here is a brief summary including a small #PythonTutorial using the #NESTsimulator.

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #OpenSource

  25. 📝 New blog post: #GapJunctions (#ElectricalSynapses) enable direct electrical and chemical communication between #neurons, synchronizing activity and supporting rapid signal propagation. Their #modeling is crucial for understanding #NeuralNetworkDynamics, #oscillations, and #brain 🧠 function. Here is a brief summary including a small #PythonTutorial using the #NESTsimulator.

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #OpenSource

  26. 📝 New blog post: #GapJunctions (#ElectricalSynapses) enable direct electrical and chemical communication between #neurons, synchronizing activity and supporting rapid signal propagation. Their #modeling is crucial for understanding #NeuralNetworkDynamics, #oscillations, and #brain 🧠 function. Here is a brief summary including a small #PythonTutorial using the #NESTsimulator.

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #OpenSource

  27. 📝 New blog post: #GapJunctions (#ElectricalSynapses) enable direct electrical and chemical communication between #neurons, synchronizing activity and supporting rapid signal propagation. Their #modeling is crucial for understanding #NeuralNetworkDynamics, #oscillations, and #brain 🧠 function. Here is a brief summary including a small #PythonTutorial using the #NESTsimulator.

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #Python #OpenSource

  28. New preprint/model: the Rosa-Margin Hypothesis. When the vCA1 safety buffer shrinks (<~5 mV), everyday network transients trigger involuntary replay of emotional engrams → SZ/MDD/PTSD trajectories.
    Falsifiable endpoints: MEG γ-burst ↓ ≥35%, HRV rMSSD +≥5 ms.
    Code+DOI:
    doi.org/10.31219/osf.io/e4cwb_
    #NeuroFediverse #Neuroscience #Hippocampus #Schizophrenia #Depression #PTSD #Oscillations #KCC2 #PVInterneurons #MEG #HRV #Preprint #OpenScience #FediSci #Science #Psychiatry #Brain

  29. New preprint/model: the Rosa-Margin Hypothesis. When the vCA1 safety buffer shrinks (<~5 mV), everyday network transients trigger involuntary replay of emotional engrams → SZ/MDD/PTSD trajectories.
    Falsifiable endpoints: MEG γ-burst ↓ ≥35%, HRV rMSSD +≥5 ms.
    Code+DOI:
    doi.org/10.31219/osf.io/e4cwb_
    #NeuroFediverse #Neuroscience #Hippocampus #Schizophrenia #Depression #PTSD #Oscillations #KCC2 #PVInterneurons #MEG #HRV #Preprint #OpenScience #FediSci #Science #Psychiatry #Brain

  30. New preprint/model: the Rosa-Margin Hypothesis. When the vCA1 safety buffer shrinks (<~5 mV), everyday network transients trigger involuntary replay of emotional engrams → SZ/MDD/PTSD trajectories.
    Falsifiable endpoints: MEG γ-burst ↓ ≥35%, HRV rMSSD +≥5 ms.
    Code+DOI:
    doi.org/10.31219/osf.io/e4cwb_
    #NeuroFediverse #Neuroscience #Hippocampus #Schizophrenia #Depression #PTSD #Oscillations #KCC2 #PVInterneurons #MEG #HRV #Preprint #OpenScience #FediSci #Science #Psychiatry #Brain

  31. New preprint/model: the Rosa-Margin Hypothesis. When the vCA1 safety buffer shrinks (<~5 mV), everyday network transients trigger involuntary replay of emotional engrams → SZ/MDD/PTSD trajectories.
    Falsifiable endpoints: MEG γ-burst ↓ ≥35%, HRV rMSSD +≥5 ms.
    Code+DOI:
    doi.org/10.31219/osf.io/e4cwb_
    #NeuroFediverse #Neuroscience #Hippocampus #Schizophrenia #Depression #PTSD #Oscillations #KCC2 #PVInterneurons #MEG #HRV #Preprint #OpenScience #FediSci #Science #Psychiatry #Brain

  32. 📚 New article by Lopes-dos-Santos, Brizee & Dupret: Spatio-temporal organization of network activity patterns in the #hippocampus. They use a low-dimensional embedding of #CA1#DG #LFP in behaving mice to reveal layer-specific #GammaRhythms and distinct firing motifs aligned with hippocampal microcircuit architecture – offering a data-driven view of how #oscillations coordinate #InformationFlow across hippocampal layers.

    🌍 doi.org/10.1016/j.celrep.2025.

    #Neuroscience #GammaOscillations #CompNeuro

  33. 📚 New article by Lopes-dos-Santos, Brizee & Dupret: Spatio-temporal organization of network activity patterns in the #hippocampus. They use a low-dimensional embedding of #CA1#DG #LFP in behaving mice to reveal layer-specific #GammaRhythms and distinct firing motifs aligned with hippocampal microcircuit architecture – offering a data-driven view of how #oscillations coordinate #InformationFlow across hippocampal layers.

    🌍 doi.org/10.1016/j.celrep.2025.

    #Neuroscience #GammaOscillations #CompNeuro

  34. 📚 New article by Lopes-dos-Santos, Brizee & Dupret: Spatio-temporal organization of network activity patterns in the #hippocampus. They use a low-dimensional embedding of #CA1#DG #LFP in behaving mice to reveal layer-specific #GammaRhythms and distinct firing motifs aligned with hippocampal microcircuit architecture – offering a data-driven view of how #oscillations coordinate #InformationFlow across hippocampal layers.

    🌍 doi.org/10.1016/j.celrep.2025.

    #Neuroscience #GammaOscillations #CompNeuro

  35. 📚 New article by Lopes-dos-Santos, Brizee & Dupret: Spatio-temporal organization of network activity patterns in the #hippocampus. They use a low-dimensional embedding of #CA1#DG #LFP in behaving mice to reveal layer-specific #GammaRhythms and distinct firing motifs aligned with hippocampal microcircuit architecture – offering a data-driven view of how #oscillations coordinate #InformationFlow across hippocampal layers.

    🌍 doi.org/10.1016/j.celrep.2025.

    #Neuroscience #GammaOscillations #CompNeuro

  36. 📚 New article by Lopes-dos-Santos, Brizee & Dupret: Spatio-temporal organization of network activity patterns in the #hippocampus. They use a low-dimensional embedding of #CA1#DG #LFP in behaving mice to reveal layer-specific #GammaRhythms and distinct firing motifs aligned with hippocampal microcircuit architecture – offering a data-driven view of how #oscillations coordinate #InformationFlow across hippocampal layers.

    🌍 doi.org/10.1016/j.celrep.2025.

    #Neuroscience #GammaOscillations #CompNeuro

  37. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  38. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  39. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  40. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  41. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  42. The brain processes sensory information via gamma #oscillations, while top-down control is mediated via alpha/beta; how do these interact? This study provides a mechanistic account of the integration of these separate streams of information flow in visual attention @PLOSBiology plos.io/4iksxM3

  43. Quantum heat dynamics toggled by magnetic fields: Research team of @HZDR, #unibonn and #cnrs discovers unknown mechanism of #heat conduction which causes dramatically enhanced heat #oscillations in the #quantum material #ZrTe₅.

    ▶️ hzdr.de/presse/ZrTe5

    Image: B. Schröder/HZDR