01
Linear-scaling direction
Traditional transformer attention becomes the bottleneck as context length grows,
because every token must compare against every other token, creating an O(n²) cost
in memory and compute. Our architecture replaces that quadratic attention pattern
with a linear-scaling mechanism, allowing long-context learning models to process
more information efficiently without attention costs exploding as sequence length
increases.
02
Multi-witness consensus
Standard models resolve every pairwise interaction through a single dense attention matrix, which
grows quadratically with context and can wash out structured long-range signals. Our architecture
distributes relational processing across a committee of structurally distinct internal pathways and
reconciles their outputs hierarchically. Across our benchmark series, strengthening that internal
structure is the dominant quality axis — at zero additional parameters and zero added latency.
03
Deployment on real hardware
The architecture is built for settings where memory and latency budgets are real constraints:
edge sensors, embedded controllers, and consumer GPUs. In our measurements it holds flat batch-1
inference latency as sequence length grows, sustains million-token forward passes on a single
consumer GPU, and degrades gracefully under sensor faults behind standard driver filters —
the properties that decide whether long-context models actually ship.