A TrinityLabo Framework for Room-Temperature Quantum Computational Windows

This work presents a unified TrinityLabo framework for room-temperature quantum computational windows by integrating four layers that are usually treated separately: foundational ontology, stabilization theory, hardware-control architecture, and verification methodology. Rather than taking the present local quantum state as primitive, the paper begins from a history-first formalism in which admissible histories, realization maps, and compression-derived local structure form the core descriptive layer. Within this framework, local states and local effective laws are interpreted not as ultimate primitives, but as realized compressions of deeper history-sensitive structure. On this basis, the paper introduces a room-temperature stabilization theory centered on three main quantities: the history stabilization gain, the effective room-temperature error, and the physical computational capacity. These quantities are used to define a room-temperature quantum computational window as a task-relevant regime in which structured historical stabilization suppresses the net effective burden strongly enough for nontrivial quantum survivability. A key original concept in the paper is history-consistent recovery, a recovery primitive that acts not only on the current realized state but also on historically relevant supervisory context, thereby extending the framework beyond purely memoryless correction schemes. The work then maps these theoretical ideas into a hybrid photonic-electronic architecture consisting of encoded quantum resources, a photonic forward-computation fabric, an electronic supervisory plane, layered decoding, and history-aware recovery. It further develops a verification doctrine based on matched-branch comparison, benchmark ratios, task survivability measures, history-contraction diagnostics, and explicit falsification criteria. In this sense, the paper is not only a conceptual proposal but also a structured research program specifying how the framework should be numerically tested, comparatively evaluated, and potentially contradicted. This work does not claim that universal room-temperature quantum computing has already been realized. Instead, it provides a formal TrinityLabo research framework in which room-temperature quantum viability is reformulated as a problem of realized history stability, effective error suppression, recovery-aware architecture, and benchmarked computational survivability. The main contribution is therefore not a product announcement, but a unified theoretical and methodological foundation for investigating whether nontrivial room-temperature quantum computational windows can exist in physically meaningful architectures.