EST Technical Notes 116A, 116B, 124, 136: Consistency Hurdles for Elastic Spacetime Theory

Overview This collection (TN-116A, 116B, 124, 136) consolidates the main consistency checks for Elastic Spacetime Theory (EST) across four critical domains. The goal is to show that EST survives the major observational hurdles that have eliminated most alternative theories of gravity and particle physics. What this bundle does The notes form a modular sequence: TN-116A — Strong Equivalence Principle (Nordtvedt) Derives the kill condition for SEP violations — bound-body energies must respond only to external strain/tension, not absolute background offset — and shows ηSEP = 0 under EST's infrared assumptions. TN-116B — Binary Pulsar Dipole SuppressionIsolates the dipole-radiation trap that kills most scalar-tensor theories. States the survival condition: compact bodies must have universal long-range sensitivity (QA = 𝒞 mA), which eliminates dipole flux and leaves the GR quadrupole law. TN-124 — LEP Z-Pole ConsistencyShows that with the weak mixing angle calibrated from leptonic asymmetry data, EST's effective electroweak sector reproduces the main Z-pole observables (ΓZ, R_ℓ⁰, σₕad⁰) at sub-percent level. TN-136 — CMB and BAO ConsistencyArgues that EST's distinctive void-pressure sector activates only at late times, preserving the standard acoustic sound horizon while adding new large-scale structure signatures: a preferred void separation scale (dᵥoid ∼ 110±5 Mpc) and repulsive void lensing (κ ∼ -0. 03). Key result (scope-limited) Together, these notes demonstrate that EST passes the four major hurdles that have killed most alternative theories: PPN / SEP (TN-116A) Binary pulsar dipole suppression (TN-116B) LEP electroweak precision (TN-124) CMB/BAO acoustic structure (TN-136) This does not claim that EST has been proven correct. It claims that EST is conditionally viable and ready for experimental testing by DUNE, Euclid, LSST, and future gravitational-wave observatories. Status and falsifiability These are precision consistency notes, not full first-principles derivations from the microscopic EST field equations. The framework remains testable: inverted neutrino ordering (SP-002) must be confirmed, repulsive void lensing (SP-001) must be observed, the void lattice scale (SP-001) must appear. Failure of any of these predictions would falsify EST. Authorship note Conceptual framework: Jonathan E. Wilson Mathematical derivation support and LaTeX: LLM-assisted (OpenAI, Google, DeepSeek) The author takes full responsibility for all physical claims.