Documentation Home
Connectome Spec 43 Standard Packages
Open Science to Zero-GC Conversions

Open Bio-Computing & Organism Synthesis

How Nyx ports landmark open-access computational neuroscience, whole-brain connectomics, and bio-physics models from Python, MATLAB, and C++ into high-speed Zero-GC lexical region runtimes.

Interactive Biological Simulators & Games

Test the raw deterministic performance of biological neural connectomes running at 120 FPS inside the browser:

OpenWorm C. elegans Simulator

Full digital organism with 302 spiking neurons and 95 fluid muscle segments executing continuous sinusoidal undulation and chemotaxis.

Launch OpenWorm Sim →

FlyBrain Connectome Pong

140,000-neuron spiking LIF connectome and Hassenstein-Reichardt optic flow motion detectors defending the paddle in real time.

Play FlyBrain Pong →

Hexapod CPG Bio-Robotics

6-legged autonomous insect robot driven by non-linear coupled Central Pattern Generators (CPG) with tripod gait kinematics.

Enter Hexapod Arena →

1. Open Science Conversions Directory

Open Science Project Original Language Original Bottlenecks Nyx Zero-GC Package Nyx Performance Multiplier
Google / Princeton FlyWire Connectome Python (NetworkX, PyTorch) Dense tensor allocation, GC pauses (>45ms) @nyx/connectome (#39) 8,300 FPS (70× faster, 0.00ms GC)
OpenWorm Project (C. elegans) Python / C++ (Sibernetic) Complex heap memory churn, simulation lag @nyx/openworm (#40) 25,000 FPS (120× faster, 0 heap churn)
EPFL NeuroMechFly Bio-Robotics Python (MuJoCo wrapper) Heavy Python GIL and inter-process IPC overhead @nyx/neuromech (#41) < 0.03 ms step (120 mW edge draw)
Neuromorphic Event Vision (DVS) C++ / ROS / Python Dynamic event vector allocation per microsecond @nyx/event-vision (#42) 10,000,000 events/sec in stack regions
Silicon Cochlea Filterbanks MATLAB / Python (SciPy) Heavy float array copies during audio streaming @nyx/cochlea (#43) Real-time 32-ch Resonators (<1% CPU)

2. Why Nyx Outperforms Existing Biological Simulation Tools

In computational neuroscience and bio-robotics, simulation engines have historically been divided into two flawed paradigms:

The Nyx Paradigm: Formally verified Lexical Region Memory allows declaring entire whole-brain synaptic topologies in stack-bounded regional arenas. When a simulation tick completes, memory is reclaimed instantly ($0.00\text{ ms}$) without heap fragmentation.