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yang

@yang-chu.bsky.social
19 followers 78 following 0 posts

minds and machines, computational neuroscience, machine learning, computer architecture

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Gabriel Béna 🌻 @solarpunkgabs.bsky.social · 19/08/2026
🤖 🧠 🧪 New paper! I'm presenting it TOMORROW at #ALIFE2026! What if a chip could heal itself the way a brain does: not with a spare part, but by rewiring around the wound? Meet Self-Organising Digital Circuits. 👉 self-organising-circuits.github.io/ (go murder some logic gates, I'll explain) 🧵⬇️
self-organising-circuits.github.io
Self-Organising Digital Circuits
Extending the Neural Cellular Automata paradigm from pattern formation on grids to functional logic generation and self-repair on arbitrary graphs.
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Marcus Ghosh @marcusghosh.bsky.social · 14/08/2026
Now published @commsaicomp.nature.com with @neural-reckoning.org We: 🤖 Define a taxonomy of neural network architectures (here 128 unique structures) 🦾 Train > 25,000 models on different navigation tasks #RL 🧠 Link each architecture's behaviour to its memory dynamics doi.org/10.1038/s444...
A taxonomy of recurrence. We defined a family of neural networks for exploring questions in neuroscience and machine learning. Here each network is represented by three circles joined by different connections (short, coloured lines). Networks are joined by longer, pale grey lines if they differ by one connection. Moving from left to right takes us from the simplest to the most complex network.
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Dan Goodman @neural-reckoning.org · 16/07/2026
New preprint (well, very updated). 🤖🧠🧪 We find that an abstract model of neuromodulation lets spiking neural networks perform much better, particularly in challenging noisy environments, using less energy. Relevant to #neuroscience and #neuromorphic computing. 🧵👇 www.biorxiv.org/content/10.1...
biorxiv.org
Neuromodulation enhances the capability and efficiency of spiking neural networks
Spiking neurons underlie the brain’s extreme energy efficiency, and therefore have great potential in neuromorphic computing, although realising this efficiency in practice has proven challenging. We ...
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Dan Goodman @neural-reckoning.org · 13/11/2025
Psst - neuromorphic folks. Did you know that you can solve the SHD dataset with 90% accuracy using only 22 kb of parameter memory by quantising weights and delays? Check out our preprint with @pengfei-sun.bsky.social and @danakarca.bsky.social, or read the TLDR below. 👇🤖🧠🧪 arxiv.org/abs/2510.27434
arxiv.org
Exploiting heterogeneous delays for efficient computation in low-bit neural networks
Neural networks rely on learning synaptic weights. However, this overlooks other neural parameters that can also be learned and may be utilized by the brain. One such parameter is the delay: the brain...
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Dan Goodman @neural-reckoning.org · 18/09/2025
New preprint! What happens if you add neuromodulation to spiking neural networks and let them go wild with it? TLDR: it can improve performance especially in challenging sensory processing tasks. Explainer thread below. 🤖🧠🧪 www.biorxiv.org/content/10.1...
biorxiv.org
Neuromodulation enhances dynamic sensory processing in spiking neural network models
Neuromodulators allow circuits to dynamically change their biophysical properties in a context-sensitive way. In addition to their role in learning, neuromodulators have been suggested to play a role ...
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Marcus Ghosh @marcusghosh.bsky.social · 01/08/2025
How does the structure of a neural circuit shape its function? @neuralreckoning.bsky.social & I explore this in our new preprint: doi.org/10.1101/2025... 🤖🧠🧪 🧵1/9
A diagram showing 128 neural network architectures.
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Marcus Ghosh @marcusghosh.bsky.social · 25/07/2025
How can we best use AI in science? Myself and 9 other research fellows from @imperial-ix.bsky.social use AI methods in domains from plant biology (🌱) to neuroscience (🧠) and particle physics (🎇). Together we suggest 10 simple rules @plos.org 🧵 doi.org/10.1371/jour...
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Dan Goodman @neural-reckoning.org · 24/07/2025
New preprint for #neuromorphic and #SpikingNeuralNetwork folk (with @pengfei-sun.bsky.social). arxiv.org/abs/2507.16043 Surrogate gradients are popular for training SNNs, but some worry whether they really learn complex temporal spike codes. TLDR: we tested this, and yes they can! 🧵👇 🤖🧠🧪
arxiv.org
Beyond Rate Coding: Surrogate Gradients Enable Spike Timing Learning in Spiking Neural Networks
We investigate the extent to which Spiking Neural Networks (SNNs) trained with Surrogate Gradient Descent (Surrogate GD), with and without delay learning, can learn from precise spike timing beyond fi...
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Gabriel Béna 🌻 @solarpunkgabs.bsky.social · 05/06/2025
The REAL question on everyone's lips though... Blog: gabrielbena.github.io/blog/2025/be... Thread: bsky.app/profile/sola...
BUT CAN IT RUN DOOOOOOM ??
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Gabriel Béna 🌻 @solarpunkgabs.bsky.social · 04/06/2025
New #Preprint Alert!! 🤖 🧠 🧪 What if we could train neural cellular automata to develop continuous universal computation through gradient descent ?! We have started to chart a path toward this goal in our new preprint: arXiv: arxiv.org/abs/2505.13058 Blog: gabrielbena.github.io/blog/2025/be... 🧵⬇️
gabrielbena.github.io
A Path to Universal Neural Cellular Automata | Gabriel Béna
Exploring how neural cellular automata can develop continuous universal computation through training by gradient descent
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Dan Goodman @neural-reckoning.org · 24/04/2025
How do babies and blind people learn to localise sound without labelled data? We propose that innate mechanisms can provide coarse-grained error signals to boostrap learning. New preprint from @yang-chu.bsky.social. 🤖🧠🧪 arxiv.org/abs/2001.10605
arxiv.org
Learning spatial hearing via innate mechanisms
The acoustic cues used by humans and other animals to localise sounds are subtle, and change during and after development. This means that we need to constantly relearn or recalibrate the auditory spa...
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