ΔE / Petronus Research README

A Coherence-First Approach to Adaptive Systems

ΔE / Synthetic Conscience / UTAM / ONTOΣ

Coherence-First Control, Meaning Dynamics, and Ontological Foundations‌​⁠‌‌⁠‍​‌​​‍‌⁠‌‍‌⁠⁠​‌‍‌​‌‍‌‌​‍⁠‌‌⁠​​‌‍‌‌‌⁠‌​‌⁠​‍‌‍⁠⁠‌‍⁠‍‌⁠‌‌‌⁠​⁠​‍⁠‌‌⁠​‍‌‍‌‌‌⁠​⁠‌‍‌‌‌‍​‌‌⁠​‍‌‍​⁠‌‍‍​​‍⁠‌‌⁠​‍‌‍‌‌‌‍​‌‌‍‌​‌‍⁠‌‌‍‌‌‌⁠⁠​​⁠​‌​⁠‌⁠​⁠‌⁠​⁠​‍​⁠​‌​⁠‌‌​⁠​⁠​⁠​‍​⁠​‍​⁠‍​​⁠‌‌​⁠​⁠​⁠‍​

Updated 26\01\08

1. What ΔE Is Really About

ΔE is a research line built around a single, uncomfortable observation:

classical control survives by chasing error; real systems survive by preserving coherence.

PID, Kalman filtering, RL, MPC and their derivatives treat deviation between target and state as the primary signal. This assumption holds in controlled laboratory settings. It breaks down in the presence of real-world conditions: latency, missing data, drifting sensors, non-stationary environments, changing rules, human bodies in the loop, and semantic ambiguity.

ΔE inverts the axis.

Instead of minimizing instantaneous error, the system continuously evaluates how well its own internal layers remain aligned: perception, internal state, action, and consequence. Under entropy, a ΔE-based controller is allowed to lose local accuracy, but it is not allowed to lose itself — its behavioral topology, internal semantics, and coherence.

In practice, this defines a new class of controllers:

not “minimize error at all costs”,
but “maximize internal coherence under noise, drift, latency, dropouts, and goal changes.”

The core engineering realization of this stance is ΔE-CAS-T — a three-loop coherence-adaptive architecture (behavioral loop, observer loop, entropy thermostat) that binds behavior, context, and uncertainty into a single regulating structure.


1.1. Where UTAM and ONTOΣ Sit

As the work matured, it became clear that ΔE is not merely a novel controller, but an engineering projection of a deeper triadic structure:

  • Will (W) — primordial directionality
  • Coherence (С) — structural organization of that directionality
  • Drift (D) — inevitable mismatch in a changing world
This triad is formalized in the Unified Theory of Adaptive Meaning (UTAM) across three levels:
  • Volitional Embedding Law (ontological)
 Will is treated as an ontological primitive; nature and agents are structured manifestations of directionality.
  • I²C Law (structural)
 Any adaptive behavior unfolds as Impulse → Interpretation → Coherence.
  • Drift Law (dynamic)
 In non-stationary environments, static models inevitably accumulate drift and eventually collapse coherence.

ΔE-CAS-T is the first explicit controller designed inside this triad. It does not merely compensate for error; it actively regulates coherence under drift.

Beneath UTAM lies a deeper ontological layer: the ONTOΣ series.

  • ONTOΣ I introduced Will as an ontological operator rather than a psychological faculty.
  • ONTOΣ II detached adaptivity from optimization and reframed control as structural alignment.
  • ONTOΣ III exposed the volumetric limits of consciousness and coherence under load.
  • ONTOΣ IV (latest) completes the arc by removing the final assumption: that Will itself is an origin.
ONTOΣ IV reframes Will as residual directionality — an emergent tension arising from the impossibility of finalizing being. Identity, subject, meaning, and agency are treated as temporary stabilizations within an unresolved field, not as sources or foundations.

UTAM shows how these operators embed into adaptive systems.
ΔE / EVS are the engineering realization of that embedding.

This README is the entry point and index for the entire ΔE / Synthetic Conscience / UTAM / ONTOΣ / Petronus research line.


2. Why This README Exists

Over 2025–2026, the project unfolded across a long chain of Medium publications. Taken individually, they may appear as essays across philosophy, control theory, and systems engineering. Taken together, they form a single trajectory:

from missing layer → to coherence → to meaning → to ΔE → to EVS → to drift & will → to ontology → to application.

This README provides:

  • a compact mental model of the whole structure,
  • a recommended reading path,
  • and a clear separation between conceptual, ontological, and patented engineering layers.

3. How to Read the ΔE / Synthetic Conscience Series (Recommended Order)

Step 1 — The Missing Layer

Synthetic Conscience Protocol: The Missing Layer
 https://medium.com/@petronushowcore/synthetic-conscience-protocol-the-missing-layer-bb2d329da587

Introduces Synthetic Conscience (SC) as the absent layer in modern AI: systems can optimize behavior but cannot register meaning or consequence.


Step 2 — Coherence as a Physical / Semantic Force

Coherence as a New Semantic Force of Adaptation
 https://medium.com/@petronushowcore/coherence-as-a-new-semantic-force-of-adaptation-98aac8d1e88a

Reframes coherence as a measurable property of adaptive systems and introduces the multi-loop ΔE-CAS-T topology.


Step 3 — Meaning Dynamics

When a Machine Begins to Understand Itself
 https://medium.com/@petronushowcore/when-a-machine-begins-to-understand-itself-october-2025-the-birth-of-meaning-dynamics-3602440fb602

Documents the first emergence of meaning-preserving behavior in coherence-based controllers.


Step 4 — I²C Law

Impulse → Interpretation → Coherence
 https://medium.com/@petronushowcore/impulse-awareness-coherence-a-unified-logic-of-behaviour-for-any-adaptive-system-from-cca5707d4a76

Formalizes the universal structure of adaptive behavior.


Step 5 — Translating Awareness into Engineering

The Synthetic Conscience Effect
 https://medium.com/@petronushowcore/the-synthetic-conscience-effect-how-%CE%B4e-translates-awareness-into-engineering-or-when-a-machine-b2d34e8b071b

Maps experiential coherence onto measurable engineering metrics.


Step 6 — ΔE-CAS-T Controllers

First Working Class of Coherence-Based Controllers
 https://medium.com/@petronushowcore/we-present-the-first-working-class-of-control-programs-based-on-coherence-and-entropy-9de0a39622d8

Presents validated ΔE-CAS-T 4.x architectures and benchmarks.


Step 7 — Engineered Vitality Systems (EVS)

Synthetic Conscience — EVS
 https://medium.com/@petronushowcore/synthetic-conscience-the-emergence-of-engineered-vitality-systems-evs-8561fd21445a

Generalizes ΔE into a new engineering class.


Step 8 — Structural Drift

Structural Drift as a Fundamental Law of Adaptive Behavior
 https://medium.com/@petronushowcore/structural-drift-as-a-fundamental-law-of-adaptive-behavior-45df913a6fa9

Defines drift as an unavoidable dynamic in non-stationary systems.


Step 9 — UTAM

Unified Theory of Adaptive Meaning
 https://medium.com/@petronushowcore/unified-theory-of-adaptive-meaning-utam-05dc64ad37ae

Unifies will, coherence, drift, and meaning into one framework.


Step 10 — Entropy ↔ Empathy

Entropy, Empathy and the Future of Adaptive Coherence
 https://medium.com/@petronushowcore/entropy-empathy-and-the-future-of-adaptive-coherence-the-petronus-engineering-phenomenon-that-d7f99f409077

Connects technical behavior to ethical and experiential dimensions.


Step 11 — Petronus

PETRONUS — Synthetic Conscience in Practice
 https://medium.com/@petronushowcore/petronus-synthetic-conscience-woven-into-every-action-a-new-market-where-kindness-has-value-0ea229b6a22f

Shows how coherence-aware control enters real ecosystems and markets.


Step 12 — ONTOΣ I–IV (Ontological Closure)

  • ONTOΣ I — Will as an Ontological Operator
  • ONTOΣ II — Volitional Ontology of Adaptivity
  • ONTOΣ III — Volume of Will and Limits of Consciousness
  • ONTOΣ IV — Residual Directionality and Non-Finality (latest)
ONTOΣ IV completes the series by showing that Will itself is not an origin, but a residual tension arising from the impossibility of ontological closure.

4. Zenodo and Public Research Record

In parallel with Medium publications, the project maintains a curated research record on Zenodo, used to:

  • fix priority and citation for conceptual and theoretical work,
  • publish preprints and architectural summaries,
  • establish long-term academic traceability independent of platforms.
Links to Zenodo records https://zenodo.org/search?q=metadata.creators.person_or_org.name%3A%22Barziankou%2C%20Maksim%22&l=list&p=1&s=10&sort=bestmatch

5. LinkedIn and Ongoing Research Dialogue

Ongoing research notes, cross-disciplinary discussions, and collaboration outreach are conducted via LinkedIn. This channel is used not for marketing, but for live academic and engineering dialogue around coherence-first systems.

Links to the LinkedIn research stream https://www.linkedin.com/in/maxbarzenkov


6. For Universities, Research Labs, and Technical Partners

ΔE and its associated frameworks are relevant to work in:

  • adaptive and nonlinear control,
  • robotics and cyber-physical systems,
  • safe agentic AI and cognitive architectures,
  • entropy-based computation,
  • human-in-the-loop systems and biosignals.
Validated assets already exist (ΔE-CAS-T 4.x populations, sealed binaries, benchmark protocols), alongside a growing ontological and ethical framework.

7. Final Orientation

ΔE is not a single model and not a single paper.

It is a shift of stance:

from “how do we hit the target” to “how do we remain coherent while the world moves”.

Everything in this series is an attempt to make that stance precise — conceptually, physically, ontologically, and legally.

If you are a philosopher or ethicist — read:
 Step 1 → 3 → 4 → 8 → 9 → 12 (Missing Layer, Meaning Dynamics, I²C, Drift Law, UTAM, ONTOΣ I / II / III / IV).

If you are a control / robotics / AI engineer — read:
 Step 2 → 4 → 5 → 6 → 7 → 8 → 9 (Coherence as Force, I²C, Synthetic Conscience Effect, ΔE-CAS-T, EVS, Drift Law, UTAM).

If you are interested in products and markets — read:
 Step 1 → 6 → 8 → 10 → 11 (Missing Layer, ΔE-CAS-T, EVS, Entropy/Empathy, Petronus).

ΔE is not a single model and not a single paper.
 It is a shift of stance:

*from “how do we hit the target”
to “how do we stay coherent while the world moves”.*

Everything in this series is an attempt to make that stance precise — conceptually, physically, ontologically and legally.