The Premise
If the Glue Program's phase law — Δθ = Δmax · tanh(2M/H) — describes something physically real in a high-Q oscillator coupled to a structured bath, then a machine could be built to test it. Not to claim free energy. To build a machine capable of falsifying or supporting the law in hardware.
The GVTE-X Reactor is the engineering package for that machine.
The Design Thesis
Useful behavior arises only when three things couple tightly: a high-Q oscillator, a phase-dependent hazard process, and a phase-kick map. If those three elements can produce a measurable angular bias in the stationary event-phase distribution, that bias can in principle be rectified into electrical output.
Whether that output exceeds all control and hidden inputs is the decisive experimental question. The reactor framing differs from speculative concept notes in one critical way: every subsystem is specified against a hard criterion of energetic accountability. A beautiful phase effect that disappears under calorimetry is rejected.
The Stack
Seven layers, from the outside in. A structured bath shapes the spectral environment. A primary high-Q resonator defines the phase variable. A hazard engine imposes phase-dependent event statistics. A kick engine applies state updates at event times. A rectifier bus converts angular bias into measurable output. A calorimetry shell closes the energy accounting. An adaptive controller targets a chosen R = M/H regime.
Each layer has candidate hardware specified, and each has its key risk identified. The hazard engine risks feedback latency distorting the inferred statistics. The kick engine risks control energy dominating the apparent output. The calorimetry shell risks unseen dissipation channels.
The Anti-Self-Deception Protocol
This is the core design philosophy. The most dangerous failure mode is interpretive, not electrical. A reactor claim can be manufactured accidentally by phase-coherent leakage, measurement back-action, stored control energy, RF standing waves, thermal gradients, or parasitic junction rectification.
The reactor is built with explicit countermeasures: directional couplers on every injected line, calibrated attenuators at temperature stages, dummy loads that can replace the active core without disturbing line topology, and a blind data mode where operators don't know if the kick engine is real or emulated.
Any net-output claim requires agreement among three independent views of the same run: electrical load power, calorimetric heat balance, and state-space inference from event statistics.
Success Tiers
Tier 1 is dynamical: ξ remains close to 0.5 over controlled sweeps. The reactor law works as an engineering control variable. Tier 2 is transductive: a monotone output channel tracks the inferred phase bias and survives substitution tests. Tier 3 is extraordinary: positive net power after full accounting and independent replication.
The document also states the inverse. If ξ fails, the Glue mapping is wrong for this hardware. If ξ holds but output fails, the architecture is a sensor platform, not a reactor. If output appears but vanishes under calorimetry, the result is an artifact.
The Build Program
Four phases with hard gates. Phase I is a room-temperature logic mockup. Phase II moves to cryogenic resonators. Phase III adds the structured bath and enhanced calorimetry. Phase IV explores broken detailed balance.
The non-negotiable rule: each phase must be publishable as a null result.
Why It's Here
Because this is what honest speculative engineering looks like. The reactor may never produce net power. But the design discipline — skepticism as part of the machine — is transferable to any experimental program. The debunking protocol is the most valuable thing in the document.