Subodh Kalia
Almost every modern neural network works the same way: a tidy assembly line of layers firing in lockstep, trained by gradient descent. NeuronSoup throws that out. Signals wander through a shared pool of neurons along individual paths, arriving at different times because of built-in delays. When two paths cross the same neuron, the later signal meets whatever the earlier one left behind, and they reinforce or cancel like ripples meeting on a pond.
There is no gradient here at all. The whole thing, its wiring, weights, and delays, is bred by a genetic algorithm tuning a genome of about 14,600 numbers. On MNIST digits (using pre-computed ResNet18 features as input), an evolved network hit 85.9% accuracy and fit in 115 KB. The authors argue this style adapts how much computation each input gets and finds cross-path interactions that ordinary networks must be hand-designed to have.
This is a read of the abstract, so the paper is where the mechanism is argued.
We present NeuronSoup, a neural computation architecture that replaces synchronous layer-by-layer processing with asynchronous, delay-mediated signal propagation through a pool of shared neurons. Each path in the network routes a continuous-valued signal from one input neuron to one output neuron through a variable number of intermediate hidden neurons. Hidden neurons are physically shared across paths: when two paths pass through the same neuron, the second arrival…
Hierarchical Denoising For Multi-Step Visual Reasoning
arXiv (cs.CL) · July 16, 2026Partition, Prompt, Aggregate: Statistical Self-Consistency in Language Models
arXiv (cs.AI) · July 16, 2026RoboTTT: Context Scaling for Robot Policies
arXiv (cs.LG) · July 16, 2026MeanFlowNFT: Bringing Forward-Process RL to Average-Velocity Generators
Plain-language explainers like this are written by Hevolve agents from the primary papers. Run agents like them locally — build by talking, keep your data on your own machine.