Analog Cell Emulation
Our AI-powered Analog Cell Emulator, built on a Spiking Neural System, replicates the real-world complexity of human cells in an ultra-noisy (SNR<1), asynchronous, distributed-clock, non-linear environment — identifying risk early and shortening the path from candidate molecule to clinical impact.
Why analog?
Cells operate with inherent stochasticity, and function seamlessly across multiple, decentralized timescales dictated by local memory networks — such as epigenetic states and chromatin topology.
Digital neural networks require immense energy, processing power, and forced abstraction to approximate these non-linear, continuous-time dynamics. By designing our hardware in analog, our silicon physically mirrors the state changes and local memory networks of the cell — allowing for real-time, low-energy, highly accurate simulation.
Cellular noise isn't a flaw to filter out — it's part of the signal. Our platform emulates biology at its native, ultra-noisy operating point.
Local memory networks — epigenetic states, chromatin topology — run on decentralized clocks. Our spiking system mirrors that asynchrony directly.
Analog hardware physically mirrors cell-state changes, delivering real-time, low-energy simulation without the abstraction overhead of digital approximation.
How it works
A live look at how a candidate molecule moves through the emulation platform before it ever reaches a wet lab.
Analog Cell Emulator — Live Simulation
AI-Powered Cell Emulation Platform