Theorem T-086

SIR Executor Sovereignty: Intelligent Lane Routing

The Routing Problem

Heterogeneous compute requires intelligent routing. A CPU excels at sequential logic. An integrated GPU offers unified memory bandwidth. A discrete GPU provides raw compute density. Naive parallelization—sending any operation to any available hardware—creates friction, thermal imbalance, and wasted cycles.

THE SOVEREIGNTY INSIGHT

Operations have affinity. Memory-intensive work flows to hardware with bandwidth. Compute-intensive work routes to hardware with cores. Control-flow remains on the CPU. This is not load balancing—it is computational topology.

The Three Lanes

SIR Executor defines three computational lanes, each with distinct hardware affinity:

Lane Hardware Affinity Operations
TimeLane CPU (Ryzen 5) Control-flow, sequencing Tokenization, routing decisions
DensityLane iGPU (Vega 7) Memory bandwidth Dequantization, embedding lookup
SpaceLane dGPU (GTX 1650) Compute density Attention, matrix multiplication

Lane Routing in Practice

When SIR encounters an operation, it routes based on computational characteristics:

Provenance Tracking

Every routed operation leaves a trace in lane_ledger.jsonl:

This provenance chain enables complete auditability. Every result can be traced back through its execution path, verified against the hardware that produced it.

What Remains Hidden

The exact routing algorithms—the decision thresholds, the thermal integration, the fallback mechanisms when lanes are saturated—remain within the protected core. We present the architecture: three lanes, distinct affinities, provenance tracking. The routing intelligence itself is the sauce.