Home / Docs-Technical WhitePaper / 36-EFT.WP.EDX.Current v1.0
Chapter 9 — Metrology Chain & Experimentally Measurable Quantities (M10-*)
EFT.WP.EDX.Current v1.0
Chapter 9 — Metrology Chain & Experimentally Measurable Quantities (M10-*)
I. Chapter Objectives & Structure
- Objective: Define the measurables and a unified metrology chain for EDX.Current, fixing traceability, synchronization, de-embedding, and path correction; establish the uncertainty budget and publication gates so that S20-* / S40-* / S50-* / I30-* / Chapter 8 close the loop under one metrological framework.
- Structure: M10-1 Traceability → M10-2 Synchronization & drift → M10-3 Uncertainty budget & gates → Data structure & records → Falsifiability → Compliance templates → Correspondence & degeneracy → Cross-chapter pointers & summary.
- Shared dialect (time-of-arrival; path/measure explicit; record delta_form):
- Constant-factored: T_arr = ( 1 / c_ref ) * ( ∫ n_eff d ell )
- General: T_arr = ( ∫ ( n_eff / c_ref ) d ell )
II. Measurables & Units (minimal list)
- I(t) (A), J(x,t) (A·m⁻²), V(t) (V), Z(omega) (Ω, complex), |Z(omega)| (Ω), arg Z(omega) (rad).
- T_arr (s), ΔT_arr (s, path differential), n_eff(x,t) (—), c_ref (m·s⁻¹).
- Energy & power: p = ( J · E ) (W·m⁻³), S (W·m⁻²), u (J·m⁻³).
- Sync-related: Δt_sync (s); environment variables (temperature/stress/bias) in SI.
- Constraints: All key equalities must pass check_dim; the linear phase–delay approximation is used only within the coherence window (see Chapter 8 and S20-5).
III. M10-1 Traceability Chain
- References & standards: Timebase (10 MHz / pulse trains), resistance/capacitance/coax/probe standards; include calibration certificates and traceability IDs in metadata.
- Fixtures & de-embedding: Apply deemb separately to measurement and simulation; fix baseline_id; align port definitions and order via anchors (see I30-3).
- Path correction: Using the layout ↔ gamma(ell) binding, map routing/return to {γ_p}, correct arg Z and T_arr, and record as in Chapter 8.
- n_eff calibration: Joint inversion of material/geometry/boundaries or comparison to reference fixtures; publish the interval and method summary for n_eff (mandatory).
- Consistency gates: Passivity (Re{Z} ≥ 0), K–K consistency, check_dim, and delta_form alignment.
IV. M10-2 Synchronization & Drift
- Timebase alignment: Record reference clock/trigger/sampling channels; estimate and compensate Δt_sync; phase equivalent: Δφ_sync(omega) = ( omega · Δt_sync ).
- Temperature/stress drift: Map environmental changes to smooth renormalization of n_eff and T_arr; exceeding the linear window triggers re-calibration.
- Alarms & gates: If |Δt_sync| > τ_gate or |d n_eff / dT| exceeds a threshold, mark the dataset as diagnostic-only; not eligible for publication.
V. M10-3 Uncertainty Budget & Publication Gates
- Contributors: u_inst (instrumentation), u_deemb (de-embedding), u_sync (timebase), u_neff, u_path (discretization/geometry), u_env (environment).
- Combination (examples):
- T_arr:
u^2(T_arr) ≈ Σ_i ( (Δell_i/c_ref)^2 · u^2(n_eff(i)) + ( n_eff(i)/c_ref )^2 · u^2(Δell_i) ) + u^2(Δt_sync) - arg Z:
u^2(arg Z) ≈ u^2(arg Z)_inst + ( omega^2 · u^2(T_arr) ) + u^2(K–K_fit)
- T_arr:
- Publication gates (suggested):
- u(T_arr) / T_arr ≤ 5% (engineering); ≤ 1% (benchmark/release).
- Re{Z} ≥ 0, K–K passed, check_dim = pass, delta_form recorded.
VI. Data Structure & Records (minimal template)
metrology:
baseline_id: "BLSN-2025-EDX-001"
instruments: [{type:"VNA", model:"—", cal:"2025-08-01"}, {type:"scope", bw_GHz:—}]
standards: [{type:"thru"}, {type:"open"}, {type:"load"}, {type:"short"}]
deemb: {method:"TRL", version:"1.2", file:"/path/deemb.json"}
timebase: {ref:"10MHz", sync_scheme:"shared_ref+trigger", dt_sync_s: 2.0e-12}
env: {temp_C: 25.0, humidity_pct: 40.0, stress:"none"}
binding_ref: "LAY2PATH-xxxx"
arrival:
form: "n_over_c" # or "one_over_c_times_n"
gamma: "explicit"
measure: "d_ell"
c_ref: 299792458.0
Tarr_s: 1.234e-09
u_Tarr_s: 6.0e-12
n_eff:
method: "inversion"
value: [ ... ] # per segment or effective
u_rel_pct: 3.5
qa_gates: {check_dim:"pass", passivity:"pass", KK:"pass"}
VII. Falsifiability Criteria (metrology side)
- Multi-path switching: With netlist/materials fixed, switch layout → gamma(ell); within the coherence window, Δarg Z(omega) must translate linearly with ΔT_arr. Otherwise, reject the path model or the sync hypothesis.
- Medium perturbation: Under small perturbations of n_eff (temperature/bias), T_arr must vary smoothly without non-causal spikes; otherwise reject the kernel/weighting model (see S40-* / S50-*).
- Dialect agreement: On the same dataset, the two T_arr dialects must agree within u(T_arr); otherwise check units, paths, and delta_form.
VIII. Compliance Snippets (copy-ready)
- Sync correction: phi_corr(omega) = arg Z_raw(omega) - ( omega · Δt_sync )
- Arrival discrete estimate:
T_arr = (1/c_ref) · Σ_i n_eff(i) Δell_i or T_arr = Σ_i (n_eff(i)/c_ref) Δell_i - Publication QA:
check_dim = pass ; Re{Z} ≥ 0 ; KK_consistency = pass ; delta_form ∈ {"n_over_c","one_over_c_times_n"} (recorded)
IX. Correspondence & Degeneracy to Classical Framework
With n_eff → constant, a single path, and Δt_sync → 0, T_arr reduces to a constant delay and arg Z(omega) ≈ ( omega · T_arr ), coinciding with the classical linear-phase approximation; the metrology chain reduces to conventional port calibration plus de-embedding.X. Cross-Chapter Guidance & Summary
- Upstream/parallel: I30-3 (alignment API), Chapter 8 (paths/measure), S20-5 (phase–delay), S40-* / S50-* (kernels & mapping).
- Downstream: M20-* (experimental design & falsification) adopts this chapter’s u(T_arr), u(n_eff), and QA gates as acceptance criteria.
- Summary: This chapter fixes measurables, traceability, sync correction, and the uncertainty budget as the M10-* execution dialect, ensuring that tension landscape, paths, and impedance data are reproducible, comparable, and falsifiable under unified metrological gates.
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/