DYNAMIC
BY DESIGN.
Two related research disciplines: independently defined photonic routing architectures and a governed operational digital twin. Neither substitutes for measured device qualification.
THE OPTICAL
ARCHITECTURE.
Dynamic Mirrored Photonix describes the proposed coupling of switchable photonic distribution with traceable routing laws, typed source ownership, and explicitly bounded physical interfaces.
Independent physical graphs
Each design retains its own switching primitives, ports, die boundaries, directional rules, and capacity constraints.
Deterministic candidate routing
Candidate destinations are derived from each design’s verified routing grammar; source-to-destination feasibility also depends on device states and occupied resources.
Protection with evidence
Fallback routing is admitted only when reservations, switch transfer mappings, optical budgets, and recovery timing satisfy their constraints.
Shared mathematics.No cross-family topology equivalence is presumed.
Separate hardware.
CONTROL
WITH A
WITNESS.
Native DTMOS is proposed as an authoritative digital-twin operational system that observes current optical resource state, evaluates safe transitions, reserves capacity and obtains physical evidence where required.
Live and forward maps
Authoritative present-state mapping, look-ahead scheduling and monitored resource health remain distinct data classes.
Guarded operations
A route command is not equal to a completed physical state change; modelled timing, readback and reservations are evaluated independently.
Domain separation
Independent die or wafer authorities may exchange controlled observations, without granting one domain unqualified actuator control over another.
REALITY
IS THE
TEST.
Device behavior, hardware timing and wafer-level integration remain subject to relevant PDK and laboratory evidence.
The proof discipline ↗