From Monogamous Excitons to Self-Induced Masing: Corridor-Tuned Tilt,- +-, and Falsifier-First Mapping Under a Shared P-Lane

Significant — This manuscript installs a bench-independent translation tool for two January 2026 condensed-matter/quantum-tech reports by treating exciton breakup under fermion crowding and self-induced superradiant masing in interacting spins as one control problem: an interaction-driven population-transfer “tilt” between a cooperative lane and a surrounding bath, where corridor-eligible tilt produces burst trains and sustained output while too-weak/too-strong tilt yields no macroscopic fingerprint or runaway breakup/depletion; the method is operationalized with shared tokens BBB (bulge latency), LLL (leakage), and 2f2f2f (curvature/oscillation), a ternary directive knob with a true null for disable-LLL, and a three-bench tokens-only contract that makes the regime replayable, falsifiable, and portable across platforms without importing platform-specific narratives; the deliverable is a protocol-level mapping a lab can implement using its own knobs and carriers, with explicit falsifiers (zeros-stay-zeros, parity-first, bench swap, dither, and ZFlip licensing) to prevent postselection and drift from masquerading as control.