MEC Universal Measurement Standard (Qu System)
Document ID: MEC-STD-0001
Status: Active Author: Dr. Kieth Harding
1. Overview
The Qu System is the official multiversal measurement standard adopted by the Multiversal Employee Council (MEC).
It replaces universe-specific systems (e.g., metric, imperial, local constructs) with a single causal substrate: the Qu.
Unlike primitive systems that fragment length, time, mass, and energy into unrelated bases, the Qu system unifies all measurable phenomena under one foundational quantity and expresses them through domain-specific derived units.
Exponents are retained internally for computation but are never exposed in operational documentation.
2. Fundamental Unit
Qu (Q) — Causal Displacement Unit
The Qu represents the minimum measurable displacement within a causal field.
All derived quantities are expressed as contextual interpretations of Qu.
The base Qu is not used directly outside of theoretical work.
3. Derived Units (Operational)
Length — Span (Qs)
Measures linear distance.
- 1 Qs ≈ 0.64 meters
Time — Flow (Qf)
Measures causal progression.
- 1 Qf ≈ 2.13 seconds
Area — Surface (Qa)
Measures two-dimensional extent.
- 1 Qa ≈ 0.41 m²
Volume / Mass — Bulk (Qb)
Measures occupied field volume. Mass is derived from Bulk under standard matter density.
- 1 Qb ≈ 0.26 m³ ≈ 260 kg
Energy — Charge (Qc)
Measures work applied to a field.
- 1 Qc ≈ 1.6 MJ
Force / Impact — Impulse (Qi)
Measures directed Charge over a Span.
Velocity — Drift (Qv)
Defined as Span per Flow.
- Qv = Qs / Qf
Field Resistance — Depth (Qd)
Measures separation or resistance between causal fields.
Conversion Table
| Qu Unit | Meaning | Metric |
|---|---|---|
| Qs | Length | 0.64 m |
| Qf | Time | 2.13 s |
| Qa | Area | 0.41 m² |
| Qb | Volume/Mass | 0.26 m³ / 260 kg |
| Qc | Energy | 1.6 MJ |
| Qv | Velocity | 0.30 m/s |
| Qd` | Field Depth | Field-relative |
4. Qu Prefixes (Magnitude Modifiers)
The MEC does not use metric prefixes. Instead, it employs causal-scale prefixes optimized for multiversal operations.
| Prefix | Symbol | Multiplier | Approx. Metric Analogue |
|---|---|---|---|
| Micro | μQ | 10⁻⁶ Q | Microscopic phenomena |
| Sub | sQ | 10⁻³ Q | Comparable to milli |
| Base | Q | 1 | Standard |
| Mark | mQ | 10³ Q | Comparable to kilo |
| Tier | tQ | 10⁶ Q | Large-scale structures |
| Order | oQ | 10⁹ Q | Planetary-class |
| Axis | aQ | 10¹² Q | Stellar-class |
| Crown | cQ | 10¹⁸ Q | Multiversal-scale |
Prefixes apply uniformly to all derived units.
Example:
-
3 mQs= 3,000 Spans -
0.2 μQc= micro-charge discharge
5. Display Conventions
Operational documents must:
-
Use derived units with prefixes
-
Avoid exponent notation
-
Avoid universe-local systems unless required
Human-Compatibility Overlay (Optional)
For certain scenarios, metric equivalents may be shown in parentheses:
Portal Diameter: 3.2 Qs (≈ 2.0 m)
Stability Duration: 14 Qf (≈ 30 s)
6. Example Record
Containment Chamber
- Radius: 6 Qs
- Floor Area: 113 Qa
- Wall Depth: 4 Qd
- Energy Capacity: 12 mQc
7. Rationale
The Qu system prioritizes:
-
Readability under stress
-
Consistency across universes
-
Compatibility with both sapient and non-sapient operators
-
Maximal Archival clarity
“We do not measure reality. We regulate it.”
— MEC Standards Division