Symbolic Electrical Quantities Without Units — Zero-Centric, Auditable Electrical Truth
⚡ Deterministic Electricity. Unitless. Vendor-Neutral.
From
“Is this 230 V or 0.23 kV?”
to
“Is this electrical state structurally consistent and safe?”
Modern electrical systems measure everything —
but understand very little across vendors, voltages, and grids.
SSMEQ asks a deeper question:
Can electrical truth travel cleanly, without units, assumptions, or hidden context?
SSMEQ says yes.
🧠 What SSMEQ Really Does
SSMEQ (Shunyaya Symbolic Mathematical Electrical Quantities) does not change physics.
It does not modify Ohm’s law, Kirchhoff’s laws, protection curves, or metering hardware.
Instead, SSMEQ adds a symbolic layer that rides beside existing telemetry and converts raw electrical quantities into:
- zero-centric contrasts
- bounded health dials
- explicit consistency residuals
Once symbolized, all electrical data speaks the same language —
across devices, sites, voltages, and vendors.
🔄 The Core Idea — Zero-Centric Representation
Each electrical quantity Q is expressed in three lanes:
- m_Q — the original measured value (unchanged)
- e_Q — a zero-centric, unitless contrast
- a_Q — an optional bounded health or proximity dial
Typical symbolic contrasts:
- Voltage:
e_V := ln( V_rms / V_ref ) - Current:
e_I := ln( I_rms / I_ref ) - Frequency:
e_f := ln( f / f_ref ) - Power (signed):
e_P := asinh( P / P_scale )
At nominal values → e_Q = 0
Above nominal → positive
Below nominal → negative
Units disappear.
Structure remains.
🧪 Built-In Electrical Self-Consistency
Electrical quantities are related — but traditional telemetry treats them as independent columns.
SSMEQ makes the relationship explicit.
Example power consistency residual:
r_P := e_P_meas - ( e_V + e_I + ln( pf / pf_ref ) )
- Small
|r_P|→ voltage, current, power, and pf agree - Large or drifting
r_P→ CT/PT errors, sign flips, bad pf estimation, wiring issues
Errors surface immediately.
Nothing is hidden. Nothing is auto-corrected.
🎛️ Bounded Health Dials (Safe by Design)
Some electrical qualities are naturally bounded and should behave safely near limits.
SSMEQ encodes these as bounded dials in (-1, +1):
- Power factor:
a_pf := clamp( pf, -1 + eps, +1 - eps ) - Harmonics:
a_THD := tanh( c_THD * ln( 1 + THD / THD_ref ) ) - Proximity to limits:
a_upper := tanh( k * ( e_Q - e_Q_limit ) )
Why bounded?
- Easy to average, pool, alarm
- Resistant to outliers
- Stable across batch and streaming systems
📜 Manifest-First, Not Vendor-First
Every SSMEQ deployment declares its rules once, in a manifest:
- Nominal anchors (
V_ref,I_ref,f_ref) - Lens formulas (log, linear, hybrid, asinh)
- Power sign conventions
- Clamp limits and thresholds
- Residual definitions
- Band logic (GREEN / AMBER / RED)
Each SSMEQ record carries a manifest_id.
Anyone can recompute and verify the symbolic fields independently.
No black boxes. No hidden semantics.
🏭 Where SSMEQ Fits
SSMEQ sits between raw telemetry and everything else:
- SCADA
- Historians
- Protection logic
- Dashboards
- Analytics
- Machine learning
Human interfaces may still show volts and amps.
Downstream logic operates on symbolic representations.
🌍 Where SSMEQ Is Useful
- Multi-vendor electrical fleets
- Substations and DER plants
- AC / DC mixed systems
- Power quality monitoring
- Electrical audits and forensics
- AI and analytics pipelines
- Any system where unit confusion causes risk
SSMEQ is especially powerful when data must travel, combine, and be trusted.
🧩 How SSMEQ Fits the Shunyaya Stack
- SSMEQ — are electrical quantities structurally aligned?
- SSMT — how does thermal stress interact with electrical stress?
- SSM-Clock / Stamp — can records be trusted over time?
- SSM-DE — can electrical truth travel intact?
These are orthogonal layers, not competing standards.
🚫 What SSMEQ Is — and Is Not
✔ preserves original measurements
✔ unitless and portable
✔ deterministic and reproducible
✔ explicit about assumptions
✔ safe for pooling and AI
✖ does not replace meters
✖ does not redefine physics
✖ does not predict failures
✖ does not optimize control
SSMEQ is representation, not regulation.
📜 License
Open Standard License
Optional Attribution:
Shunyaya Symbolic Mathematical Electrical Quantities (SSMEQ)
You may use, study, modify, fork, and redistribute this standard for commercial or non-commercial purposes.
No registration. No fees. No restrictions.
Provided “as is”, without warranty of any kind.
🔗 Official Repository and Links
SSMEQ — Shunyaya Symbolic Mathematical Electrical Quantities (Open Standard)
Full Specification, Executive Briefs, Reference Documents, and Examples
https://github.com/OMPSHUNYAYA/Symbolic-Mathematical-Electrical-Quantities
Shunyaya Symbolic Mathematics — Project Index
Complete index of all Shunyaya symbolic frameworks and standards
https://github.com/OMPSHUNYAYA/Shunyaya-Symbolic-Mathematics-Master-Docs
🌱 Closing Thought
Electrical systems already obey physics.
SSMEQ simply asks:
Can our measurements obey structure too?
No enforcement.
No prediction.
No authority.
Just zero-centric electrical truth — made portable.
OMP