Trusted Execution. Persistent Intelligence.

Qognetix Presents Breakthrough Hodgkin–Huxley Research at SNUFA 2025

Digital artwork showing a glowing neuron merging with a circuit network, representing Qognetix’s SNUFA 2025 presentation on Hodgkin–Huxley computation and universal approximation.

Birmingham, UK – November 2025

Qognetix has been selected to present at the Spiking Neural Universal Function Approximation (SNUFA) 2025 meeting — a leading international forum on spiking neural computation and biologically grounded learning systems.

The presentation, titled “Demonstrating Universal Approximation with a Biophysically Faithful Hodgkin–Huxley Engine,” demonstrates how Qognetix’s biophysically faithful Engine achieves real-time Hodgkin–Huxley computation on standard hardware — bringing the power of detailed neural models out of supercomputing labs and into accessible environments.

“Most neuromorphic and AI systems simplify neurons to make them scale,” said Nic Windley, co-founder of Qognetix. “Our work shows you can have both — full biological fidelity and computational efficiency — proving that physics itself can compute.”

The session highlights include:

  • Benchmarks against major simulation platforms such as NEURON, NEST, and Brian2.
  • Demonstrations of universal function approximation and temporal learning using full Hodgkin–Huxley neurons.
  • A preview of BioSynapStudio, Qognetix’s integrated environment for designing and training HH-class experiments without low-level coding.
  • An introduction to the Synthetic Endocrine Controller (SEC) Layer, a hormone-inspired feedback system for adaptive stability and emotion-modulated learning.

SNUFA 2025 is hosted virtually by an international programme committee including Dr Julijana Gjorgjieva, Dr David Kappel, Dr Dan Goodman, and Dr Friedemann Zenke. Qognetix was selected for a poster presentation among a highly competitive group of computational neuroscience researchers.

“We see this as an important milestone for Qognetix — recognition that our approach bridges neuroscience and computation,” added Windley. “It validates our core thesis: real intelligence starts with real neurons.”

For more information on the research or to view the presentation abstract, visit: Demonstrating Universal Approximation with a Biophysically Faithful Hodgkin–Huxley Engine | SNUFA.

Missed our presentation ? Catch up with it here > SNUFA 2025 – Qognetix

About Qognetix

Qognetix is a UK-based deep-tech venture developing biologically grounded Synthetic Intelligence. Its flagship platform, BioSynapStudio, combines biophysical accuracy with computational efficiency, enabling realistic spiking neural simulation and emotion-modulated learning on commodity hardware.

Leave a Reply

Your email address will not be published. Required fields are marked *

More Articles:
Diagram showing the execution gap in AI and how runtime governance, bounded autonomy, replayability, and operational trust interact within operational intelligent systems.
Insights
Nic Windley

The Decision To Execution Gap in AI

The execution gap in AI is the structural gap between generating intelligent decisions and governing execution behaviour in real-world operational systems. As AI systems become more persistent, autonomous, and infrastructure-coupled, runtime governance, bounded autonomy, replayability, intervention capability, and operational trust become increasingly important infrastructure layers. This article explains why inference

Read More »
Diagram comparing traditional model retraining pipelines with a persistent intelligent substrate that adapts through runtime state transitions.
Insights
Nic Windley

Enterprise AI Architecture and the Retraining Problem Revealed by Doom-on-a-Chip

The experiment showing human neurons learning to play Doom attracted attention for its biological novelty. Its deeper significance lies elsewhere. The system adapted continuously while running, without a retraining phase. This exposes a structural difference between biological substrates and most enterprise AI architectures. Today’s AI systems typically separate training from

Read More »