A Fruit Fly Connectome.
A Quantum Leap for Web3.
Nature achieved the ultimate ultra-low-power computing engine in the fruit fly brain: 141,781 biological neurons coordinating complex real-time dynamics with sub-milliwatt energy. SynaFly marks a pioneering leap uniting computational neuroscience with Web3 decentralized infrastructure.
By mapping biological sparse graph topology into decentralized state coordination, SynaFly transforms rigid network bottlenecks into adaptive, bio-sparse edge intelligence. Experience the live proof below, and explore our progressive open-source architecture.
01 / BIOLOGICAL CONNECTOMENature’s sparse topology
Official MaleCNS v1.0 data anchors this architecture with 141,781 verified soma coordinates. Biology coordinates vast information not through brute-force centralization, but through sparse, high-efficiency synaptic pathways refined across millions of years.
Explore the source data ↗
02 / BROAD APPLICATIONSBio-sparse Web3 routing
Transferring biological graph topology to decentralized networks unlocks expansive applications: Bio-Sparse Synaptic Relay (BSSR) for low-latency transaction routing, edge RPC cache coalescing, and scalable state compression across high-throughput chains.
03 / PROGRESSIVE OPEN SOURCEOpen science & code
We believe verifiable breakthroughs must be transparent. From connectome graph extraction to neural state execution and edge daemons, core technical principles and code are being progressively and fully open-sourced for the global research community.
BSC is an ecosystem direction, not a claim of affiliation with BNB Chain. BSC uses PoSA consensus. This experience does not replace validators or RPC services. Read about BSC validation ↗