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#motorcortex — Public Fediverse posts

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

  1. 🐭🎶 New paper by Isko et al, who study #Alston’s singing mouse, a rodent with loud, stereotyped songs.

    Using bulk tracing, serial #2P #tomography, & #MAPseq of >76,000 barcoded neurons, they find expanded projections from #orofacial #MotorCortex to #auditory #cortex & #PAG. This suggests that singing / #Vocalization may emerge not from entirely new circuits, but from selective strengthening of existing motor, auditory & vocal-control pathways.

    📝 doi.org/10.1038/s41586-026-104

    #Neuroscience #Evolution

  2. 🐭🎶 New paper by Isko et al, who study #Alston’s singing mouse, a rodent with loud, stereotyped songs.

    Using bulk tracing, serial #2P #tomography, & #MAPseq of >76,000 barcoded neurons, they find expanded projections from #orofacial #MotorCortex to #auditory #cortex & #PAG. This suggests that singing / #Vocalization may emerge not from entirely new circuits, but from selective strengthening of existing motor, auditory & vocal-control pathways.

    📝 doi.org/10.1038/s41586-026-104

    #Neuroscience #Evolution

  3. 🐭🎶 New paper by Isko et al, who study #Alston’s singing mouse, a rodent with loud, stereotyped songs.

    Using bulk tracing, serial #2P #tomography, & #MAPseq of >76,000 barcoded neurons, they find expanded projections from #orofacial #MotorCortex to #auditory #cortex & #PAG. This suggests that singing / #Vocalization may emerge not from entirely new circuits, but from selective strengthening of existing motor, auditory & vocal-control pathways.

    📝 doi.org/10.1038/s41586-026-104

    #Neuroscience #Evolution

  4. 🐭🎶 New paper by Isko et al, who study #Alston’s singing mouse, a rodent with loud, stereotyped songs.

    Using bulk tracing, serial #2P #tomography, & #MAPseq of >76,000 barcoded neurons, they find expanded projections from #orofacial #MotorCortex to #auditory #cortex & #PAG. This suggests that singing / #Vocalization may emerge not from entirely new circuits, but from selective strengthening of existing motor, auditory & vocal-control pathways.

    📝 doi.org/10.1038/s41586-026-104

    #Neuroscience #Evolution

  5. 🐭🎶 New paper by Isko et al, who study #Alston’s singing mouse, a rodent with loud, stereotyped songs.

    Using bulk tracing, serial #2P #tomography, & #MAPseq of >76,000 barcoded neurons, they find expanded projections from #orofacial #MotorCortex to #auditory #cortex & #PAG. This suggests that singing / #Vocalization may emerge not from entirely new circuits, but from selective strengthening of existing motor, auditory & vocal-control pathways.

    📝 doi.org/10.1038/s41586-026-104

    #Neuroscience #Evolution

  6. Enhanced motor cortical connections underlie vocal behavior in singing mice

    📰 Original title: Specific expansion of motor cortical projections in a singing mouse

    🤖 IA: It's not clickbait ✅
    👥 Usuarios: It's not clickbait ✅

    View full AI summary: killbait.com/en/enhanced-motor

    #neuroscience #motorcortex #voc...

  7. Enhanced motor cortical connections underlie vocal behavior in singing mice

    📰 Original title: Specific expansion of motor cortical projections in a singing mouse

    🤖 IA: It's not clickbait ✅
    👥 Usuarios: It's not clickbait ✅

    View full AI summary: killbait.com/en/enhanced-motor

    #neuroscience #motorcortex #voca...

  8. Enhanced motor cortical connections underlie vocal behavior in singing mice

    📰 Original title: Specific expansion of motor cortical projections in a singing mouse

    🤖 IA: It's not clickbait ✅
    👥 Usuarios: It's not clickbait ✅

    View full AI summary: killbait.com/en/enhanced-motor

    #neuroscience #motorcortex #voca...

  9. How does somatosensory input to the #MotorCortex contribute to limb movement? This study shows that loss of #somatosensory inputs disrupts voluntary forelimb movements & motor cortex neuronal dynamics, highlighting the role of somatosensory input in motor control @PLOSBiology plos.io/3QcbXph

  10. How does somatosensory input to the #MotorCortex contribute to limb movement? This study shows that loss of #somatosensory inputs disrupts voluntary forelimb movements & motor cortex neuronal dynamics, highlighting the role of somatosensory input in motor control @PLOSBiology plos.io/3QcbXph

  11. How does somatosensory input to the #MotorCortex contribute to limb movement? This study shows that loss of #somatosensory inputs disrupts voluntary forelimb movements & motor cortex neuronal dynamics, highlighting the role of somatosensory input in motor control @PLOSBiology plos.io/3QcbXph

  12. How does somatosensory input to the #MotorCortex contribute to limb movement? This study shows that loss of #somatosensory inputs disrupts voluntary forelimb movements & motor cortex neuronal dynamics, highlighting the role of somatosensory input in motor control @PLOSBiology plos.io/3QcbXph

  13. How does somatosensory input to the #MotorCortex contribute to limb movement? This study shows that loss of #somatosensory inputs disrupts voluntary forelimb movements & motor cortex neuronal dynamics, highlighting the role of somatosensory input in motor control @PLOSBiology plos.io/3QcbXph

  14. 🧠 New work by Codol et al. who show that #MotorCortex dynamics are remarkably conserved across #mice, #monkeys, and #humans. Despite very different #behaviors, #NeuralPopulation activity follows similar dynamical rules on low-dimensional #manifolds. Species differences arise mainly from the geometry of trajectories within this shared #DynamicalSystem.

    📄 doi.org/10.64898/2026.03.06.70

    #Neuroscience #CompNeuro #NeuralDynamics

  15. 🧠 New work by Codol et al. who show that #MotorCortex dynamics are remarkably conserved across #mice, #monkeys, and #humans. Despite very different #behaviors, #NeuralPopulation activity follows similar dynamical rules on low-dimensional #manifolds. Species differences arise mainly from the geometry of trajectories within this shared #DynamicalSystem.

    📄 doi.org/10.64898/2026.03.06.70

    #Neuroscience #CompNeuro #NeuralDynamics

  16. 🧠 New work by Codol et al. who show that #MotorCortex dynamics are remarkably conserved across #mice, #monkeys, and #humans. Despite very different #behaviors, #NeuralPopulation activity follows similar dynamical rules on low-dimensional #manifolds. Species differences arise mainly from the geometry of trajectories within this shared #DynamicalSystem.

    📄 doi.org/10.64898/2026.03.06.70

    #Neuroscience #CompNeuro #NeuralDynamics

  17. 🧠 New work by Codol et al. who show that #MotorCortex dynamics are remarkably conserved across #mice, #monkeys, and #humans. Despite very different #behaviors, #NeuralPopulation activity follows similar dynamical rules on low-dimensional #manifolds. Species differences arise mainly from the geometry of trajectories within this shared #DynamicalSystem.

    📄 doi.org/10.64898/2026.03.06.70

    #Neuroscience #CompNeuro #NeuralDynamics

  18. 🧠 New work by Codol et al. who show that #MotorCortex dynamics are remarkably conserved across #mice, #monkeys, and #humans. Despite very different #behaviors, #NeuralPopulation activity follows similar dynamical rules on low-dimensional #manifolds. Species differences arise mainly from the geometry of trajectories within this shared #DynamicalSystem.

    📄 doi.org/10.64898/2026.03.06.70

    #Neuroscience #CompNeuro #NeuralDynamics

  19. There's a great talk by Juan Gallego on how low-dimensional #NeuralManifolds arise from biological constraints, remain invariant across states and inputs, and support cross-animal alignment. Examples span #HeadDirection rings, #gridcell tori, #MotorCortex prep vs movement, striatal timing dynamics, and C. elegans #behavior loops. Cool talk as it shows how #manifold-level structure can generalize across tasks and organisms.

    🌍 youtube.com/watch?v=oxQyKByqDSU

    #CompNeuro #Neuroscience #PopulationDynamics

  20. There's a great talk by Juan Gallego on how low-dimensional #NeuralManifolds arise from biological constraints, remain invariant across states and inputs, and support cross-animal alignment. Examples span #HeadDirection rings, #gridcell tori, #MotorCortex prep vs movement, striatal timing dynamics, and C. elegans #behavior loops. Cool talk as it shows how #manifold-level structure can generalize across tasks and organisms.

    🌍 youtube.com/watch?v=oxQyKByqDSU

    #CompNeuro #Neuroscience #PopulationDynamics

  21. There's a great talk by Juan Gallego on how low-dimensional #NeuralManifolds arise from biological constraints, remain invariant across states and inputs, and support cross-animal alignment. Examples span #HeadDirection rings, #gridcell tori, #MotorCortex prep vs movement, striatal timing dynamics, and C. elegans #behavior loops. Cool talk as it shows how #manifold-level structure can generalize across tasks and organisms.

    🌍 youtube.com/watch?v=oxQyKByqDSU

    #CompNeuro #Neuroscience #PopulationDynamics

  22. There's a great talk by Juan Gallego on how low-dimensional #NeuralManifolds arise from biological constraints, remain invariant across states and inputs, and support cross-animal alignment. Examples span #HeadDirection rings, #gridcell tori, #MotorCortex prep vs movement, striatal timing dynamics, and C. elegans #behavior loops. Cool talk as it shows how #manifold-level structure can generalize across tasks and organisms.

    🌍 youtube.com/watch?v=oxQyKByqDSU

    #CompNeuro #Neuroscience #PopulationDynamics

  23. There's a great talk by Juan Gallego on how low-dimensional #NeuralManifolds arise from biological constraints, remain invariant across states and inputs, and support cross-animal alignment. Examples span #HeadDirection rings, #gridcell tori, #MotorCortex prep vs movement, striatal timing dynamics, and C. elegans #behavior loops. Cool talk as it shows how #manifold-level structure can generalize across tasks and organisms.

    🌍 youtube.com/watch?v=oxQyKByqDSU

    #CompNeuro #Neuroscience #PopulationDynamics

  24. 🧠 New preprint by Codol et al. (2025): Brain-like #NeuralDynamics for #behavioral control develop through #ReinforcementLearning. They show that only #RL, not #SupervisedLearning, yields neural activity geometries & dynamics matching monkey #MotorCortex recordings. RL-trained #RNNs operate at the edge of #chaos, reproduce adaptive reorganization under #visuomotor rotation, and require realistic limb #biomechanics to achieve brain-like control.

    🌍 doi.org/10.1101/2024.10.04.616

    #CompNeuro #Neuroscience

  25. 🧠 New preprint by Codol et al. (2025): Brain-like #NeuralDynamics for #behavioral control develop through #ReinforcementLearning. They show that only #RL, not #SupervisedLearning, yields neural activity geometries & dynamics matching monkey #MotorCortex recordings. RL-trained #RNNs operate at the edge of #chaos, reproduce adaptive reorganization under #visuomotor rotation, and require realistic limb #biomechanics to achieve brain-like control.

    🌍 doi.org/10.1101/2024.10.04.616

    #CompNeuro #Neuroscience

  26. 🧠 New preprint by Codol et al. (2025): Brain-like #NeuralDynamics for #behavioral control develop through #ReinforcementLearning. They show that only #RL, not #SupervisedLearning, yields neural activity geometries & dynamics matching monkey #MotorCortex recordings. RL-trained #RNNs operate at the edge of #chaos, reproduce adaptive reorganization under #visuomotor rotation, and require realistic limb #biomechanics to achieve brain-like control.

    🌍 doi.org/10.1101/2024.10.04.616

    #CompNeuro #Neuroscience

  27. 🧠 New preprint by Codol et al. (2025): Brain-like #NeuralDynamics for #behavioral control develop through #ReinforcementLearning. They show that only #RL, not #SupervisedLearning, yields neural activity geometries & dynamics matching monkey #MotorCortex recordings. RL-trained #RNNs operate at the edge of #chaos, reproduce adaptive reorganization under #visuomotor rotation, and require realistic limb #biomechanics to achieve brain-like control.

    🌍 doi.org/10.1101/2024.10.04.616

    #CompNeuro #Neuroscience

  28. 🧠 New preprint by Codol et al. (2025): Brain-like #NeuralDynamics for #behavioral control develop through #ReinforcementLearning. They show that only #RL, not #SupervisedLearning, yields neural activity geometries & dynamics matching monkey #MotorCortex recordings. RL-trained #RNNs operate at the edge of #chaos, reproduce adaptive reorganization under #visuomotor rotation, and require realistic limb #biomechanics to achieve brain-like control.

    🌍 doi.org/10.1101/2024.10.04.616

    #CompNeuro #Neuroscience

  29. 🧠 New preprint by Kashefi et al. (2025): High-density #Neuropixels recordings in monkeys reveal compositional #NeuralDynamics in #MotorCortex. A posture subspace anchors fixed points, rotational dynamics link them to generate movement, and a uniform shift tracks trial state. Recurrent models show this geometry emerges only when controlling a full arm, suggesting posture-dependent control as a core principle:

    🌍 biorxiv.org/content/10.1101/20

    #Neuroscience #MotorControl #CompNeuro

  30. 🧠 New preprint by Kashefi et al. (2025): High-density #Neuropixels recordings in monkeys reveal compositional #NeuralDynamics in #MotorCortex. A posture subspace anchors fixed points, rotational dynamics link them to generate movement, and a uniform shift tracks trial state. Recurrent models show this geometry emerges only when controlling a full arm, suggesting posture-dependent control as a core principle:

    🌍 biorxiv.org/content/10.1101/20

    #Neuroscience #MotorControl #CompNeuro

  31. 🧠 New preprint by Kashefi et al. (2025): High-density #Neuropixels recordings in monkeys reveal compositional #NeuralDynamics in #MotorCortex. A posture subspace anchors fixed points, rotational dynamics link them to generate movement, and a uniform shift tracks trial state. Recurrent models show this geometry emerges only when controlling a full arm, suggesting posture-dependent control as a core principle:

    🌍 biorxiv.org/content/10.1101/20

    #Neuroscience #MotorControl #CompNeuro

  32. 🧠 New preprint by Kashefi et al. (2025): High-density #Neuropixels recordings in monkeys reveal compositional #NeuralDynamics in #MotorCortex. A posture subspace anchors fixed points, rotational dynamics link them to generate movement, and a uniform shift tracks trial state. Recurrent models show this geometry emerges only when controlling a full arm, suggesting posture-dependent control as a core principle:

    🌍 biorxiv.org/content/10.1101/20

    #Neuroscience #MotorControl #CompNeuro

  33. 🧠 New preprint by Kashefi et al. (2025): High-density #Neuropixels recordings in monkeys reveal compositional #NeuralDynamics in #MotorCortex. A posture subspace anchors fixed points, rotational dynamics link them to generate movement, and a uniform shift tracks trial state. Recurrent models show this geometry emerges only when controlling a full arm, suggesting posture-dependent control as a core principle:

    🌍 biorxiv.org/content/10.1101/20

    #Neuroscience #MotorControl #CompNeuro

  34. Movements can be initiated before or when one becomes aware of the intention. This study shows that spiking activity in human primary #MotorCortex coincides with onset of subjective intention, extending prior work on pre-motor & parietal #brain areas @PLOSBiology plos.io/4ivhobk

  35. Movements can be initiated before or when one becomes aware of the intention. This study shows that spiking activity in human primary #MotorCortex coincides with onset of subjective intention, extending prior work on pre-motor & parietal #brain areas @PLOSBiology plos.io/4ivhobk

  36. Movements can be initiated before or when one becomes aware of the intention. This study shows that spiking activity in human primary #MotorCortex coincides with onset of subjective intention, extending prior work on pre-motor & parietal #brain areas @PLOSBiology plos.io/4ivhobk

  37. Movements can be initiated before or when one becomes aware of the intention. This study shows that spiking activity in human primary #MotorCortex coincides with onset of subjective intention, extending prior work on pre-motor & parietal #brain areas @PLOSBiology plos.io/4ivhobk

  38. Movements can be initiated before or when one becomes aware of the intention. This study shows that spiking activity in human primary #MotorCortex coincides with onset of subjective intention, extending prior work on pre-motor & parietal #brain areas @PLOSBiology plos.io/4ivhobk

  39. What are the neural correlates of the multiple processes occurring during #sensorimotor #learning? This study reveals 3 distinct connectivity patterns in #MotorCortex associated with implicit learning, explicit learning & performance-tracking #PLOSBiology plos.io/4inwSPz

  40. What are the neural correlates of the multiple processes occurring during #sensorimotor #learning? This study reveals 3 distinct connectivity patterns in #MotorCortex associated with implicit learning, explicit learning & performance-tracking #PLOSBiology plos.io/4inwSPz