QUANTUM SYNCHRONIZATION STACK

Synchronization that holds
when GPS doesn't.

Synquanta is a software-defined clock synchronization platform engineered for high-phase-noise, GNSS-contested, and RF-hostile environments. Where conventional timing stacks fail, our adaptive lattice protocol delivers coherent phase alignment across distributed nodes.

<10ps Timing resolution
0.1 rad+ Phase noise floor
ZC×2π Quantum lattice anchor
THE CORE MECHANISM

Quantization is a filter,
not a failure mode.

Most synchronization systems treat quantization noise as an enemy. Synquanta treats it as an information structure. When phase noise exceeds a threshold (~0.1 rad std), the ZC-derived quantum step (13.36°) becomes a coarse filter — clustering outputs into a discrete lattice that downstream consensus filters converge on faster than floating-point averaging.

Input Phase Random Float
ZC Quantizer 13.36° Lattice
Consensus Filter N-node convergence
Regime 1 — High Noise
Quantized residual approaches quantization noise floor. Unquantized stays bounded by input noise. Quantized wins.
Regime 3 — PLL Mode
ZC acts as loop-gain coefficient (0.0371 damping) in continuous PLL architecture. DAC resolution handles quantization downstream.
SYNQUANTA STACK

Adaptive Lattice Protocol

Dynamic quantization scale that switches between coarse (ZC×2π) and fine (ZC²×2π) lattice layers based on measured phase noise. Adapts in real-time as signal conditions change.

Consensus Filter Engine

Raft/PBFT-derived consensus layer operating over the quantized lattice. Network of N nodes converges in fewer rounds than floating-point voting. Scales to Byzantine fault tolerance.

PLL Damping Module

Software PLL with ZC-derived loop-gain (0.0371 scalar). Operates as a continuous damping layer on top of existing clock hardware. Validated against GNSS reference with configurable holdout windows.

Multi-Scale Orchestrator

Hierarchical synchronization across coarse and fine lattice layers. Coarse steps handle large phase drifts; fine steps track residual noise. Designed for adaptive timing systems and multi-rate clock networks.

OPERATIONAL DOMAINS

Built for environments where
conventional timing collapses.

Defense & GNSS-Contested

Radar sites, naval operations, electronic warfare environments where GPS is jammed or spoofed. Synquanta runs on existing oscillator hardware — no new clocks required.

Critical Infrastructure

Power grid substations, telecom backbone nodes, financial trading floors — anywhere that needs sovereign, GPS-independent timing with audit-level traceability.

Distributed Sensor Networks

Multi-sensor fusion arrays, seismic monitoring, environmental sensing — where quantization aids vote convergence across N distributed nodes running consensus filters.

Quantum Computing Infrastructure

Picosecond-level clock alignment across distributed qubit control systems. Zurich Instruments ZQCS-compatible stack. Syncs multi-FPGA boards in quantum control racks.

Synquanta does not replace your clocks.
It makes them coherent.

The world's most precise timing infrastructure is being built right now — Toptica, Vector Atomic, QuantX, Infleqtion are all shipping hardware. Synquanta is the software layer that makes those clocks work together in configurations the hardware makers never optimized for.

Actively validating ZC-OmegaClock across three operational regimes