We directly build on work by Walter Senn (https://t.co/O3UCrgoDpn) and ours (https://t.co/MfLPjmrfQY), which allows to implement predictive coding with spiking neurons - while it is not clear how this can be achieved in classical predictive coding. 5/6 https://t.co/yfzNg0Y7ow
Learning by the dendritic prediction of somatic spiking.
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Nov 2021 – Jul 2023Where it's discussed
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News3 articles
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X / Twitter2 posts
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YouTube2 videos
AI synopsis
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The discussions highlight their recognition of the article's connections to previous research, as seen in the mention of studies by Walter Senn and the emphasis on implementing predictive coding with spiking neurons. The tone reflects curiosity and acknowledgment of the model's potential, using words like 'builds on' and 'allows' to suggest constructive engagement without overstating immediate impact.
Most discussions recognize the value of building on prior work and see promise in the proposed model, reflecting a generally positive outlook.
Participants show moderate interest by referencing related studies and mechanisms, but do not delve deeply into technical details.
Comments suggest a basic level of engagement, with some addressing how the results could extend existing theories, though not all posts explore implications thoroughly.
While the discussions acknowledge potential advances, few emphasize a transformative impact, indicating a cautious optimism about practical applications.
Abstract in brief
- Recent research shows that spike-timing-dependent plasticity (STDP) is influenced not only by the timing of pre- and postsynaptic neurons but also by local dendritic potentials, which act as a third factor in plasticity.
- The authors propose a simple neuron model with a biologically plausible learning rule for dendritic synapses that aims to minimize the difference between the neuron's overall firing and the local dendritic potential, accounting for stochastic noise and direct soma input.
- Depending on the type of input, this learning rule can support supervised or unsupervised learning, and when combined with reward signals, it can also facilitate reinforcement learning, making it versatile for different learning contexts.]
Top posts
Most liked on X and BlueskyLearning by the Dendritic Prediction of Somatic Spiking https://t.co/5Nhf67IlQo
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Learning by the Dendritic Prediction of Somatic Spiking https://t.co/5Nhf67IlQo
We directly build on work by Walter Senn (https://t.co/O3UCrgoDpn) and ours (https://t.co/MfLPjmrfQY), which allows to implement predictive coding with spiking neurons - while it is not clear how this can be achieved in classical predictive coding. 5/6 https://t.co/yfzNg0Y7ow
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