My work typically includes:
I do not optimize isolated workflows.
I redesign the structural conditions under which coherent decisions become possible.
A high-resolution examination of where your system’s decision logic, behavior, structure, and internal coherence begin to diverge — even if everything still appears to work.
Real-world examples of cognitive system design — where structure, logic, and human behavior align into a coherent operating model.
These projects are not disconnected ideas. They are applied examples of the same structural logic across service operations, developmental systems, logistics, and AI-integrated environments.
A cognitive operating system that:
– measures expertise instead of availability
– models true human capacity and workflow stress
– distributes work by relevance, not empty slots
– stabilises environments where mastery actually matters
Designed to make complex, expert-led services flow with precision — automatically.
A controlled experiment where I train a model using self-reflection loops, causal networks, and deep behavioural patterns.
The aim is to understand how independent, stable decision-making begins to form.
CBSA — Cognitive Behaviour System Architecture
Preprint · DOI · Zenodo
A decision-coherence framework for AI systems that must remain interpretable, stable, and human-aligned under uncertainty.
→ Read the paper
CFT — Constitutional Framing Theory
Preprint · DOI · Zenodo
A framework for governing how AI systems frame uncertainty, define decision space, and determine what can be treated as a valid response.
→ Read the paper
Weighted Coherence Model: A State-Based Alternative to Priority-Driven Cognition
Preprint · DOI · Zenodo
A model of cognition in which decisions emerge through coherence stabilization across competing internal weights, rather than through isolated choice alone.
→ Read the paper
Error Is Not the Problem: A Coherence-Based Reframing of Failure in Complex Human–AI Systems
Preprint · DOI · Zenodo
A framework showing that error is often not a discrete failure, but the result of how systems frame, interpret, and classify deviation.
→ Read the paper
A Self-Reflective Cognitive Architecture for Human–AI Systems
Preprint · DOI · Zenodo
An architecture for AI systems that can recognize interpretive limits, preserve uncertainty, and refrain from action when coherence is not yet established.
→ Read the paper
Coherence Thinking – AI Stabilization of Unstable Human Meaning Space and the Structure of Self-Reinforcing Loops
Preprint · DOI · Zenodo
A framework for understanding how, in the human–AI interaction space, partial or unstable human meaning can become coherently stabilized into self-reinforcing loops.
→ Read the paper
If your system appears functional but becomes unstable under scale, automation, or coordination pressure, that is rarely a performance issue. Let’s look at the structure underneath it.
For collaboration, advisory, or project inquiries — reach out directly: hello@gyulajaradi.hu
Or send me a quick message