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838 public concepts

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1. Penrose Relational Branch-Incompatibility Candidate — Registers a boundary-independent Stage-0 Penrose-inspired theory object and a fail-closed completeness preflight without pretending that the missing branch correspondence or reduction dynamics has been solved.
2. Penrose Relational Correspondence Stage-0.1 — Tests one branch-blind apparatus-landmark convention for comparing weak-field laboratory branches before any incompatibility functional or collapse law is admitted.
3. Positive-Result Composition and Internal-Energy Successor — Registers a future material, isotope, and internal-energy universality comparison that remains blocked until a powered independent replication of the parent coherence residual exists.
4. Casimir / DP Quantum-Foam Study Claim Boundary — Keeps the study diagnostic until the material, branch-provenance, bounds, observable-bridge, sensitivity, and reproduction gates close.
5. Yamashita finite-Yukawa Jeans-moment proxy — A converged Maxwell-distribution proxy averages the exact attractive finite-range p-wave Yukawa kernel at the Stenhouse Milky Way and dwarf RMS speeds. The dwarf-to-halo rate ratio is 0.08886, compared with 0.02355 for the Cassel-Hulthen approximation and 0.02407 at Yamashita's representative speeds; the halo-anchored dwarf rate is 2.40e-25 cubic centimeters per second.
6. Stenhouse pure-law velocity cross-check — A public pure-p-wave and unsaturated Coulomb 1/v conversion replay gives halo-comparable dwarf limits of 2.54e-23 and 1.73e-26 cubic centimeters per second at 550 GeV. The scale ordering is consistent with the paper's approximate ratios, but this is not the finite-mass Yukawa model or a joint fit.
7. Bosonic dark-sector and xenon compatibility screen — The current scale screen separates an ultralight boson-star benchmark from GeV-to-TeV xenon and gamma-ray candidates. The illustrative 1e-17 eV free-field constituent can support an Sgr A*-scale mass benchmark but cannot supply ordinary elastic xenon recoils; heavier candidates can reach recoil energies in some cases but do not inherit that star solution. A multicomponent sector is a construction option, not an established connection.
8. Shared scattering normalization bridge gate — For one weak-scattering channel with a common multiplicative strength, the xenon expected count and interferometer decoherence exponent can be written as lambda_Xe=A K_Xe and D=A K_coh, so D/lambda_Xe=K_coh/K_Xe when the xenon kernel is nonzero. The identity is a normalization strategy; the target and coherence kernels have not yet been evaluated for the same microscopic interaction.
9. Yb-171 Terrestrial Clock Redshift Prediction — Predicts the differential optical-clock frequency and phase from an independently surveyed potential difference.
10. Opposite Energy–Spin Clock Preparations — Defines two distributed single-excitation states with reversed association between optical energy and nuclear spin.
11. Clock Correlation Dimensionless Response Test — Compares the classical redshift coefficient with the mean and half-difference of two quantum-encoding responses.
12. One-dimensional advection–diffusion model — A concentration field is transported at fixed velocity and diffuses with a nonnegative scalar diffusivity on a periodic one-dimensional domain.
13. Zero-gradient diffusive-flux contract — For the enrolled constitutive definition, a zero spatial gradient produces zero diffusive flux for every diffusivity value.
14. Diffusivity-intervention evidence closure — Compare the enrolled Dxx = 0.01 baseline with the permitted Dxx = 0.02 intervention through a pinned formal contract and two distinct numerical solvers.
15. Orch-OR Coherence Window — Compares an exploratory DP timescale with a measured or hypothesized microtubule coherence lifetime.
16. Microtubule Mode Frequency — Reference node for measured or modeled microtubule vibrational and transport-mode spectra.
17. Gamma Synchrony Band — Represents neural gamma synchrony as a classical neural oscillation context, commonly around 30-100 Hz.
18. Cross-Scale Frequency Locking — Compares candidate fast and slow frequencies through a dimensionless locking ratio.
19. Time-Crystal Subharmonic Test — Checks whether a response frequency is subharmonically locked to a drive frequency.
20. Time-Crystal Robustness Window — Reference gate for robustness, persistence, and driven-dissipative context required by time-crystal claims.
21. Orch-OR Exploratory Boundary — Keeps Orch-OR, gamma synchrony, microtubule coherence, and time-crystal rows in exploratory comparison scope.
22. Big Bang Light-Element Nucleosynthesis — Represents early-universe production context for the lightest nuclei.
23. Hydrogen Burning Helium Production — Represents proton-proton and CNO-cycle hydrogen burning as helium-production context.
24. Triple-Alpha Carbon Production — Represents helium-burning carbon synthesis through the triple-alpha channel.
25. Alpha-Capture Oxygen-Neon-Magnesium Context — Represents alpha-capture pathways that populate oxygen and neighboring alpha elements.
26. Advanced Stellar Burning Iron-Peak Context — Represents late stellar burning stages that populate iron-peak context.
27. Explosive Nucleosynthesis Supernova Yields — Represents explosive stellar-event yields as element-origin context.
28. Cosmic-Ray Spallation Li-Be-B Context — Represents cosmic-ray spallation production context for lithium, beryllium, and boron.
29. Slow Neutron-Capture Process — Represents s-process neutron capture in AGB and massive-star environments.
30. Rapid Neutron-Capture Process — Represents rapid neutron-capture context for many heavy elements from iron-group seeds toward uranium.
31. p-Process Photodisintegration Context — Represents p-process or photodisintegration context for proton-rich isotope families.
32. Radioactive Decay-Chain Inheritance — Represents radioactive inheritance and decay-chain context for unstable heavy elements.
33. Synthetic Superheavy Laboratory Context — Represents laboratory synthesis context for superheavy elements.
34. Nuclear Binding Mass-Energy — Represents nuclear binding energy as mass defect converted through mass-energy equivalence.
35. Nuclear Coulomb Barrier — Represents electromagnetic repulsion between positively charged nuclei before close approach.
36. Quantum Tunneling Fusion Entrance — Represents tunneling through a charged-particle barrier as bounded fusion-entrance context.
37. Short-Range Nuclear Binding Force — Represents residual strong nuclear binding as short-range nuclear context after nucleons get close enough.
38. Atomic Quantum Bound-State Structure — Represents atoms as quantum bound states governed by eigenvalue structure, not classical orbits.
39. Electron Cloud Uncertainty Floor — Represents the position-momentum uncertainty lower bound as electron-cloud structure context.
40. Pauli Shell Structure Context — Pauli exclusion bars identical fermions from the same complete quantum state, not from every overlapping spatial region. Two electrons can share a spatial orbital when their spin states differ; a fermion and a boson are different particle types, so Pauli exclusion does not bar their spatial overlap. Mass alone does not decide these statistics.
41. Electromagnetic Molecular Binding Context — Represents molecular binding as electron-nucleus attraction and electron-electron/nucleus-nucleus repulsion under quantum structure.
42. Molecular Cloud Elemental Inheritance Context — Represents molecular clouds as inheriting element and isotope inventories from prior stellar and galactic chemical evolution.
43. Dust-Grain Surface Reaction Context — Represents dust-grain and ice-surface chemistry as local context for molecular formation in cold interstellar environments.
44. Water H-O Binding Context — Represents water as a molecular-cloud chemistry context requiring hydrogen, oxygen, and local formation/destruction routes.
45. H hydrogen Element-Origin Context — Represents hydrogen (H, Z=1) as a periodic-table element with bounded origin-family context.
46. He helium Element-Origin Context — Represents helium (He, Z=2) as a periodic-table element with bounded origin-family context.
47. Li lithium Element-Origin Context — Represents lithium (Li, Z=3) as a periodic-table element with bounded origin-family context.
48. Be beryllium Element-Origin Context — Represents beryllium (Be, Z=4) as a periodic-table element with bounded origin-family context.
49. B boron Element-Origin Context — Represents boron (B, Z=5) as a periodic-table element with bounded origin-family context.
50. C carbon Element-Origin Context — Represents carbon (C, Z=6) as a periodic-table element with bounded origin-family context.

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