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#neuralplasticity — Public Fediverse posts

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

  1. Just came across an elegant new #SNN framework called #nervos by Maskeen and Lashkare, which implements a two layer SNN w/ local #STDP #learning to classify, e.g., #MNIST digits. Here is an example, where I apply it to a 6-class subset of MNIST. The model reaches around 85% accuracy & the learned synapses show digit-like patterns. Quite impressive in my view, given the simplicity of the architecture & the local learning rule:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #NeuralPlasticity

  2. Just came across an elegant new #SNN framework called #nervos by Maskeen and Lashkare, which implements a two layer SNN w/ local #STDP #learning to classify, e.g., #MNIST digits. Here is an example, where I apply it to a 6-class subset of MNIST. The model reaches around 85% accuracy & the learned synapses show digit-like patterns. Quite impressive in my view, given the simplicity of the architecture & the local learning rule:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #NeuralPlasticity

  3. Just came across an elegant new #SNN framework called #nervos by Maskeen and Lashkare, which implements a two layer SNN w/ local #STDP #learning to classify, e.g., #MNIST digits. Here is an example, where I apply it to a 6-class subset of MNIST. The model reaches around 85% accuracy & the learned synapses show digit-like patterns. Quite impressive in my view, given the simplicity of the architecture & the local learning rule:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #NeuralPlasticity

  4. Just came across an elegant new #SNN framework called #nervos by Maskeen and Lashkare, which implements a two layer SNN w/ local #STDP #learning to classify, e.g., #MNIST digits. Here is an example, where I apply it to a 6-class subset of MNIST. The model reaches around 85% accuracy & the learned synapses show digit-like patterns. Quite impressive in my view, given the simplicity of the architecture & the local learning rule:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #NeuralPlasticity

  5. Just came across an elegant new #SNN framework called #nervos by Maskeen and Lashkare, which implements a two layer SNN w/ local #STDP #learning to classify, e.g., #MNIST digits. Here is an example, where I apply it to a 6-class subset of MNIST. The model reaches around 85% accuracy & the learned synapses show digit-like patterns. Quite impressive in my view, given the simplicity of the architecture & the local learning rule:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #NeuralPlasticity

  6. Spike-timing-dependent #plasticity (#STDP) is a core rule in #ComputationalNeuroscience that adjusts #synaptic strength based on precise pre- vs. postsynaptic #spike timing, enabling #TemporalCoding and #learning in #SNN. In this post, I summarize its mathematical formulation, functional consequences for learning and #memory along with a simple #Python example:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #SNN #NeuralDynamics #NeuralPlasticity

  7. Spike-timing-dependent #plasticity (#STDP) is a core rule in #ComputationalNeuroscience that adjusts #synaptic strength based on precise pre- vs. postsynaptic #spike timing, enabling #TemporalCoding and #learning in #SNN. In this post, I summarize its mathematical formulation, functional consequences for learning and #memory along with a simple #Python example:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #SNN #NeuralDynamics #NeuralPlasticity

  8. Spike-timing-dependent #plasticity (#STDP) is a core rule in #ComputationalNeuroscience that adjusts #synaptic strength based on precise pre- vs. postsynaptic #spike timing, enabling #TemporalCoding and #learning in #SNN. In this post, I summarize its mathematical formulation, functional consequences for learning and #memory along with a simple #Python example:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #SNN #NeuralDynamics #NeuralPlasticity

  9. Spike-timing-dependent #plasticity (#STDP) is a core rule in #ComputationalNeuroscience that adjusts #synaptic strength based on precise pre- vs. postsynaptic #spike timing, enabling #TemporalCoding and #learning in #SNN. In this post, I summarize its mathematical formulation, functional consequences for learning and #memory along with a simple #Python example:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #SNN #NeuralDynamics #NeuralPlasticity

  10. Spike-timing-dependent #plasticity (#STDP) is a core rule in #ComputationalNeuroscience that adjusts #synaptic strength based on precise pre- vs. postsynaptic #spike timing, enabling #TemporalCoding and #learning in #SNN. In this post, I summarize its mathematical formulation, functional consequences for learning and #memory along with a simple #Python example:

    🌍 fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience #SNN #NeuralDynamics #NeuralPlasticity

  11. #NeuralPlasticity & #learning are distinct but interrelated processes. #Plasticity denotes biological change in #NeuralSystems, while learning is its functional expression in #NetworkDynamics & #behavior. Learning arises from coordinated plastic processes, reshaping #NeuralStateSpace & #attractors to support stable yet flexible representations. Here's a new post on these concepts & their implications for #ComputationalNeuroscience:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience

  12. #NeuralPlasticity & #learning are distinct but interrelated processes. #Plasticity denotes biological change in #NeuralSystems, while learning is its functional expression in #NetworkDynamics & #behavior. Learning arises from coordinated plastic processes, reshaping #NeuralStateSpace & #attractors to support stable yet flexible representations. Here's a new post on these concepts & their implications for #ComputationalNeuroscience:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience

  13. #NeuralPlasticity & #learning are distinct but interrelated processes. #Plasticity denotes biological change in #NeuralSystems, while learning is its functional expression in #NetworkDynamics & #behavior. Learning arises from coordinated plastic processes, reshaping #NeuralStateSpace & #attractors to support stable yet flexible representations. Here's a new post on these concepts & their implications for #ComputationalNeuroscience:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience

  14. #NeuralPlasticity & #learning are distinct but interrelated processes. #Plasticity denotes biological change in #NeuralSystems, while learning is its functional expression in #NetworkDynamics & #behavior. Learning arises from coordinated plastic processes, reshaping #NeuralStateSpace & #attractors to support stable yet flexible representations. Here's a new post on these concepts & their implications for #ComputationalNeuroscience:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience

  15. #NeuralPlasticity & #learning are distinct but interrelated processes. #Plasticity denotes biological change in #NeuralSystems, while learning is its functional expression in #NetworkDynamics & #behavior. Learning arises from coordinated plastic processes, reshaping #NeuralStateSpace & #attractors to support stable yet flexible representations. Here's a new post on these concepts & their implications for #ComputationalNeuroscience:

    🌍fabriziomusacchio.com/blog/202

    #CompNeuro #Neuroscience

  16. 🧠💦 Swimming boosts brain health! 🏊‍♀️🧠 A growing body of research shows that regular swimming can improve memory, cognitive function, mood, and even reverse brain aging. 🧠🏊‍♂️ Swimming stimulates neurogenesis, increases BDNF levels, and enhances neural plasticity. 🧠💪 It's the closest thing to a fountain of youth! 🏊‍♀️🧠 #SwimForYourBrain #BrainHealth #CognitiveBoost #NeuralPlasticity #BDNF #FountainOfYouth

    🔗 ideas.ted.com/swimming-brain-b

  17. 🧠💦 Swimming boosts brain health! 🏊‍♀️🧠 A growing body of research shows that regular swimming can improve memory, cognitive function, mood, and even reverse brain aging. 🧠🏊‍♂️ Swimming stimulates neurogenesis, increases BDNF levels, and enhances neural plasticity. 🧠💪 It's the closest thing to a fountain of youth! 🏊‍♀️🧠 #SwimForYourBrain #BrainHealth #CognitiveBoost #NeuralPlasticity #BDNF #FountainOfYouth

    🔗 ideas.ted.com/swimming-brain-b

  18. 🧠💦 Swimming boosts brain health! 🏊‍♀️🧠 A growing body of research shows that regular swimming can improve memory, cognitive function, mood, and even reverse brain aging. 🧠🏊‍♂️ Swimming stimulates neurogenesis, increases BDNF levels, and enhances neural plasticity. 🧠💪 It's the closest thing to a fountain of youth! 🏊‍♀️🧠 #SwimForYourBrain #BrainHealth #CognitiveBoost #NeuralPlasticity #BDNF #FountainOfYouth

    🔗 ideas.ted.com/swimming-brain-b

  19. 🧠💦 Swimming boosts brain health! 🏊‍♀️🧠 A growing body of research shows that regular swimming can improve memory, cognitive function, mood, and even reverse brain aging. 🧠🏊‍♂️ Swimming stimulates neurogenesis, increases BDNF levels, and enhances neural plasticity. 🧠💪 It's the closest thing to a fountain of youth! 🏊‍♀️🧠

    🔗 ideas.ted.com/swimming-brain-b

  20. 🧠💦 Swimming boosts brain health! 🏊‍♀️🧠 A growing body of research shows that regular swimming can improve memory, cognitive function, mood, and even reverse brain aging. 🧠🏊‍♂️ Swimming stimulates neurogenesis, increases BDNF levels, and enhances neural plasticity. 🧠💪 It's the closest thing to a fountain of youth! 🏊‍♀️🧠 #SwimForYourBrain #BrainHealth #CognitiveBoost #NeuralPlasticity #BDNF #FountainOfYouth

    🔗 ideas.ted.com/swimming-brain-b