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Chapter 11 Applications & Benchmarks
I. Abstract & Scope
This chapter presents cross-domain application cases and benchmark suites for Oriented Tension: polymers/liquid crystals, fiber-reinforced composites, plasma shear, and astrophysical magnetic structures. Using the geometry–constitutive–coupling–energy (EDX) conventions defined earlier in this volume, it specifies reproducible experiments and numerical benchmarks, metrics and gates, and a unified procedure for evidence and closure auditing. All symbols use English notation in backticks; SI units apply. No ToA terms appear here.
II. Dependencies & References
- Geometry & orientation: Chapter 3 S80-1/2.
- Constitutive & dynamics: Chapter 4 S80-3/4, axioms P80-2/3/9/10.
- Metrology & calibration: Chapter 5 M80-1…4.
- Couplings & media: Chapter 6 S80-5/6.
- Energy accounting & power partition: Chapter 7 S80-7/8.
- Numerical methods & simulation: Chapter 10 (SimStack-OT). Implementation & APIs: Chapter 12 (I80-*).
III. Normative Anchors (added in this chapter)
- P80-16 (Benchmark Reproducibility Axiom): every case and benchmark must be one-click replayable under fixed seed, locked environment, and Unit/Dim closure; artifacts must carry {code_hash, data_hash, rng_state}.
- M80-39 (Case Modeling & Cardization): standardize case geometry/material/loading/observation into GeometryCard/ModelCard/MetrologyCard/PipelineCard.
- M80-40 (Benchmark Suites & Scale Tiers): define S/M/L tiers with task lists, input distributions, and acceptance gates.
- M80-41 (Acceptance & Evidence Evaluation): compute {metrics, posterior, evidence} and EDX closure residuals with a unified pass/fail procedure.
- M80-42 (Regression & Comparison): cross-version/method regression matrix and diffs, issuing compatibility reports.
IV. Body Structure
I. Background & Problem Statement
- Application domains with strong orientation coupling include:
- Polymers/Liquid crystals: Q_ij governs optical birefringence and viscoelastic response.
- Fiber composites: interlayer anchoring and anisotropic acoustic/elastic propagation.
- Plasma shear: coupling of Q_ij with B_vec alters transport tensors.
- Astrophysical magnetism: large-scale Q_ij maps to phase speed/polarization observables.
- Objective: with unified cards and metrics, place heterogeneous data and models into a single auditable workflow for parameter identification, model selection, and engineering prediction.
II. Key Equations & Derivations (S-series)
(No new minimal equations in this chapter; we invoke S80-* from Chapters 4–7 and the couplings of Chapter 6, giving only case-level constraints and mappings.)
- Optical birefringence (weak coupling): Δn(ê) ≈ (α_E/2) ( ê_i Q_ij ê_j ).
- Anisotropic diffusion: D_eff(ê) = D0 + D1 ( ê_i Q_ij ê_j ).
- Mechanical power: 𝒫_mech = T_fil_ij D_{ij}; energy closure per Chapter 7.
III. Methods & Flows (M-series)
- M80-39 Case Modeling & Cardization
- Input cards:
- GeometryCard.json: domain, mesh, boundaries (incl. interfaces/defects; see Chapter 8).
- ModelCard.json: W_orient, Λ_{ijkl}, A,K,tau_relax,D_Q, coupling params {χ_E,χ_B,χ_u,α_E,α_B,κ_s}.
- MetrologyCard.json: R_inst, noise, covariances, units.
- PipelineCard.json: DAG, thresholds, and exports.
- Harmonization: audit Unit/Dim and see: anchors; emit CaseBundle.tar.
- Input cards:
- M80-40 Benchmark Suites & Scale Tiers
- S-tier (minimal): single-physics channel, low-dim grid, analytic/semi-analytic checks.
- M-tier (medium): two-channel coupling (e.g., EM+mechanics), moderate grids, realistic instrument kernels.
- L-tier (comprehensive): multi-channel coupling, interfaces/defects, full chain (SimStack-OT → R_inst → synthetic observations).
- Gates (examples, to be audited in metrics.json):
- SpecMAE ≤ 3%, EDX-closure ≤ 1σ;
- AnisoMap-PSNR ≥ 30 dB;
- Evidence: ΔlogZ ≥ 5 (coupled model over decoupled).
- M80-41 Acceptance & Evidence
- Run the PipelineCard to obtain {posterior, evidence, products, metrics}.
- Compute EDX closure residual r_EDX with confidence bands.
- Decide pass/fail and produce AcceptanceReport.md.
- M80-42 Regression & Comparison
- Fix seed and version hashes; run regression vs previous versions/baselines.
- Emit DiffReport.md with compatibility status (bc/brk).
- Update benchmark registry and index.
IV. Scenario Library & Benchmark Tasks (examples)
- Case A | Polymers/Liquid Crystals (Optics + Viscoelasticity): fit α_E, tau_relax from Δn(ê) and small-amplitude G*(ω).
- Case B | Fiber Composites (Acoustic/Elastic + Interfaces): invert κ_s, κ_a/κ_b from c_s(ê) and reflection/transmission coefficients.
- Case C | Plasma Shear (Transport + EM): constrain {D1, α_E, α_B} via D_eff(ê) and ray-traced phase speeds.
- Case D | Astrophysical Magnetic Structures (Polarimetry + Propagation): constrain large-scale Q_ij and couplings from polarization angle/amplitude over direction–frequency maps.
V. Validation, Criteria & Counterexamples
- Positive criteria:
- Across cases, “coupled/anisotropic” models achieve ΔlogZ ≥ 5 over simplified controls and pass metric gates.
- EDX ledger closure improves; r_EDX mean near zero.
- Strong correlations between ê_i Q_ij ê_j and directional observables.
- Negative criteria:
- Removing key terms (χ_*, D1, or Λ_{ijkl}) does not degrade fits/evidence.
- Unit/Dim audits fail or anisotropy maps disagree with observations.
- Systematic regression degradation without stabilization/explanation.
- Contrasts:
- Evidence/metrics across {isotropic-only, single-channel-only, full model}.
- Impacts of {no interface/defect, with interface/defect} on propagation/transport.
- Residual structures for {analytic kernel, realistic instrument kernel}.
VI. Deliverables & Figure List
- Deliverables:
- CaseBundle.tar (four cards & inputs).
- Products/ (Q_ij, T_fil_ij, AnisotropyMaps, PowerTerms, Ledgers, synthetic/observed-aligned artifacts).
- Posterior.zarr, Evidence.txt, metrics.json.
- AcceptanceReport.md, DiffReport.md.
- Figures/Tables (suggested):
- Tab. 11-1 Scenario–channel–observable–parameter mapping.
- Tab. 11-2 S/M/L benchmarks and gates.
- Fig. 11-1 Direction/frequency anisotropy maps vs model.
- Tab. 11-3 Evidence and EDX-closure statistics.
- Fig. 11-2 Regression diffs and pass/fail matrix.
Copyright & License (CC BY 4.0)
Copyright: Unless otherwise noted, the copyright of “Energy Filament Theory” (text, charts, illustrations, symbols, and formulas) belongs to the author “Guanglin Tu”.
License: This work is licensed under the Creative Commons Attribution 4.0 International (CC BY 4.0). You may copy, redistribute, excerpt, adapt, and share for commercial or non‑commercial purposes with proper attribution.
Suggested attribution: Author: “Guanglin Tu”; Work: “Energy Filament Theory”; Source: energyfilament.org; License: CC BY 4.0.
First published: 2025-11-11|Current version:v5.1
License link:https://creativecommons.org/licenses/by/4.0/