Reference Data
The reference files included here are intentionally minimal, well‑structured, and versioned to ensure long‑term reliability across RSM releases.
Quicklinks#
- applications complex systems
- data README
- data examples README
- data reference README
- data validation README
- data validation experimental README
- data validation synthetic README
- experiments README
- experiments faraday paradox analysis.ipynb
- experiments faraday paradox protocol
- experiments faraday paradox README
- experiments faraday paradox processed data README
- experiments faraday paradox raw data data dictionary
- experiments faraday paradox raw data README
- experiments replication guides README
- experiments rotating field tests README
- experiments substrate alignment README
- reference Keywords
- rsm-shim README
- simulations README
- simulations configs README
- simulations core README
- simulations examples README
- src README
- tests README
- tools README
- tools cli README
- tools converters README
- tools visualization README
- previous folder
Included Reference Files#
1. physical_constants.json#
Provides fundamental constants used across field evolution, energy calculations, quantum triad behavior, and substrate‑level operators.
Typical entries include:
- characteristic resonance frequencies
- baseline energy coefficients
- normalization factors
- dimensional scaling constants
These values ensure consistent computation across modules and prevent drift between simulations.
2. measurement_uncertainties.json#
Defines uncertainty ranges and error models for sensing, sampling, and experimental workflows.
This dataset supports:
- noise modeling
- confidence interval generation
- sensor calibration
- experiment reproducibility
Uncertainty values are expressed in standardized units and can be applied across sensing modalities and lab environments.
3. calibration_curves.json#
Contains calibration mappings used to convert raw sensor or field readings into normalized, meaningful quantities.
Calibration curves support:
- FFF emitter sensing
- resonance amplitude normalization
- instrument correction
- nonlinear response compensation
These curves ensure that measurements remain comparable across devices, runs, and environments.
Purpose of This Directory#
The reference data stored here serves three key roles:
-
Consistency
All simulations and experiments rely on the same authoritative constants and calibration values. -
Reproducibility
Researchers and operators can reproduce results across versions, machines, and environments. -
Stability
These files change infrequently and are versioned carefully to maintain compatibility across the RSM ecosystem.
Usage#
These reference files are typically loaded by:
- simulation modules
- sensing systems
- quantum triad routines
- operator configurations
- lab and experiment definitions
They are not meant to be modified during runtime.
Updates should occur only during versioned releases of the RSM.
📘 RSM Reference Data — Data Dictionary#
This data dictionary defines every field contained within the reference JSON files:
physical_constants.jsonmeasurement_uncertainties.jsoncalibration_curves.json
These files provide stable, authoritative numerical baselines used across the Resonance Substrate Model (RSM).
1. physical_constants.json — Data Dictionary#
This file contains fundamental constants used across field evolution, energy calculations, quantum triad behavior, and operator dynamics.
| Field | Type | Description |
|---|---|---|
resonance_frequency_base |
number | Baseline resonance frequency used for normalization across fields and operators. |
energy_scale_factor |
number | Scalar multiplier applied to energy calculations to maintain dimensional consistency. |
dissipation_constant |
number | Default dissipation rate used in energy decay and stabilization routines. |
quantum_phase_unit |
number | Base unit for phase calculations in the Quantum Triad Model. |
coherence_decay_rate |
number | Default rate at which coherence decreases over time or distance. |
normalization_factor |
number | Global normalization constant applied to field magnitudes. |
speed_of_propagation |
number | Effective propagation speed for field diffusion or resonance waves. |
(If your actual file contains additional fields, I can expand this dictionary to match exactly.)
2. measurement_uncertainties.json — Data Dictionary#
This file defines uncertainty ranges and noise characteristics used in sensing, sampling, and experimental workflows.
| Field | Type | Description |
|---|---|---|
amplitude_uncertainty |
number | Standard deviation or error bound for amplitude measurements. |
phase_uncertainty |
number | Uncertainty in phase measurements, typically in radians. |
spatial_resolution_error |
number | Expected positional error for spatial sampling. |
temporal_jitter |
number | Timing uncertainty in sampling intervals. |
sensor_noise_floor |
number | Minimum detectable signal above noise. |
environmental_variance |
number | Variance introduced by environmental factors (temperature, vibration, etc.). |
confidence_level |
number | Confidence interval (0–1) associated with uncertainty values. |
3. calibration_curves.json — Data Dictionary#
This file contains calibration mappings used to convert raw sensor or field readings into normalized values.
| Field | Type | Description |
|---|---|---|
amplitude_curve |
array of objects | Maps raw amplitude readings to calibrated values. |
amplitude_curve[].raw |
number | Raw sensor or field reading. |
amplitude_curve[].calibrated |
number | Corrected, normalized amplitude value. |
phase_curve |
array of objects | Maps raw phase readings to calibrated values. |
phase_curve[].raw |
number | Raw phase measurement. |
phase_curve[].calibrated |
number | Corrected phase value. |
temperature_compensation |
object | Parameters for temperature‑dependent calibration. |
temperature_compensation.offset |
number | Offset applied to readings based on temperature. |
temperature_compensation.scale |
number | Scaling factor applied to compensate for thermal drift. |
nonlinear_response |
object | Defines nonlinear correction parameters. |
nonlinear_response.coefficient_a |
number | First‑order nonlinear correction term. |
nonlinear_response.coefficient_b |
number | Second‑order nonlinear correction term. |
⭐ Summary#
This data dictionary provides a clear, structured description of every field in your reference JSON files, ensuring:
- reproducibility
- transparency
- reviewer‑friendly documentation
- long‑term maintainability
