# Universe Model Orbit-Zoom Protocol Status: `DRAFT_RECEIPT_PROTOCOL` Claim boundary: this is a navigation and receipt protocol for mapping a local problem into the nearest mathematical continent. It does not claim that the universe model uniquely proves the target math. It only defines how to zoom from coarse structure to checkable local laws without losing the distinction between assigned constants and derived consequences. ## Orbit View Use the unified equation as the orbital map: ```text Omega(n, theta, alpha) = Psi [ B(theta) tensor C(n, alpha) ] plus Delta(n, theta, alpha) ``` At orbit height, do not solve the problem. Classify it. | Signal seen from orbit | Likely continent | First local tool | |---|---|---| | Symmetric basis, no residual | fixed point / equilibrium | invariant check | | Basis mismatch | torsional stress / gradient flow | beta-step correction | | Context changes faster than basis | dynamical systems | velocity / damping law | | Residual grows | instability / turbulence / FAMM | recovery gate | | Residual shrinks | Lyapunov descent | energy monotonicity witness | | Repeated structures preserve shape | algebra / topology | isomorphism witness | | Many small states fold into receipts | Merkle/MMR/AMMR | replay proof | ## Zoom Ladder Every descent layer must answer one question before the next zoom is trusted. ```text L0 Orbit: What continent of math is this? L1 Region: Which local law family applies? L2 State: What variables are assigned? L3 Derivation: What follows from the state? L4 Receipt: What can be replayed or refuted? L5 Gate: ADMIT, HOLD, or QUARANTINE ``` The most important distinction is: ```text assigned value != derived value ``` Assigned values are initial conditions, coefficients, capacities, or declared measurement scales. Derived values are consequences of the local law. ## Torsional Fluid Baseline Current repo anchors: ```text 2-Search-Space/PIST/TorsionalPIST.lean 2-Search-Space/simulations/Newtonian-Superfluid-Simulation/custom_stack/superfluid_semantic_adapter.py ``` Assigned initial values: ```text q1 = 1 q2 = 1 q3 = 1 eta = 1.0 Q16.16 = 0x00010000 energy = 0 velocity = 0 ``` Derived local values: ```text target = 0.5 * (q1 + q2) = 1 error = target - q3 = 0 attractForce = q2 - q1 = 0 correctionTorque = eta * error = 0 dimensionalTorque = eta * attractForce = 0 nextEnergy = norm(q1 - q2) + norm(error) = 0 ``` So the correct baseline statement is: ```text E0 = 0 assigned v0 = 0 assigned eta0 = 1 assigned tau0 = 0 derived from symmetry DeltaE0 = 0 derived from the beta-step law ``` ## Continent Map For The Baseline The torsional-fluid baseline lands in: ```text fixed point / equilibrium + zero-torque manifold + Lyapunov candidate surface + dynamical-systems stability check ``` It does not land in turbulence, shock, or FAMM recovery until symmetry breaks. ## Pre-Fuzz Resolution Before fuzz, the stack has two relevant resolution floors. The arithmetic floor is the fixed-point lattice: ```text Q16.16 epsilon = 1 raw unit = 1 / 65536 ≈ 0.0000152587890625 Q16.16 one = 0x00010000 = 65536 raw units ``` That is the smallest representable Q16.16 perturbation. Any claimed change smaller than one raw unit is below the deterministic lattice and must be treated as fuzz, interpolation, or an external measurement prior. The torsional convergence floor currently used by `TorsionalPIST_rgFlow` is: ```text energy threshold = 0x00000100 = 256 raw units = 256 / 65536 = 1 / 256 ≈ 0.00390625 ``` So the pre-fuzz resolution is: ```text numeric resolution: 1 / 65536 torsional settle gate: 1 / 256 ``` Interpretation: ```text 0 exact symmetric baseline 1 raw unit smallest deterministic Q16.16 nudge 256 raw units current torsional settle / no-more-zoom gate anything below 1 raw unit fuzz-only anything between 1 and 255 raw units deterministic but below current settle gate anything at/above 256 raw units visible to the current torsional RG gate ``` This keeps fuzz honest. Fuzz is not allowed to invent a new baseline; it can only probe below, around, or above a declared resolution gate. ## First Break Conditions Use these as the first zoom-in tests: | Condition | Meaning | Next math continent | |---|---|---| | `q1 != q2` | basis split | torsional stress | | `q3 != 0.5 * (q1 + q2)` | product/residual mismatch | beta-step correction | | `velocity != 0` | state is moving | dynamics / damping | | `energy > 0` | stored deformation exists | Lyapunov descent or instability | | `energy grows over steps` | correction is not settling | FAMM / turbulence recovery | | `receipt missing` | cannot replay claim | HOLD | ## Receipt Shape Minimum orbit-zoom receipt: ```json { "protocol": "universe_model_orbit_zoom_v0", "orbit_class": "fixed_point_equilibrium", "local_law": "TorsionalPIST_torsionalBetaStep", "assigned": { "q1": "Quaternion.one", "q2": "Quaternion.one", "q3": "Quaternion.one", "eta_q16": "0x00010000", "energy_q16": "0", "velocity": "zero" }, "derived": { "error": "0", "attractForce": "0", "correctionTorque": "0", "dimensionalTorque": "0", "nextEnergy": "0" }, "decision": "ADMIT_BASELINE" } ``` ## Working Rule The universe model is successful at orbit height if it can say: ```text this belongs to this continent of math, these are the assigned constants, these values are derived, these receipts are missing, and this is the next local law to test. ``` It is not successful if it skips directly from metaphor to claimed theorem.