Rejected for the following reason(s):
- We are sorry about this, but submissions from new users that are mostly just links to papers on open repositories (or similar) have usually indicated either crackpot-esque material, or AI-generated speculation.
- Difficult to evaluate, with potential yellow flags.
Read full explanation
1. Motivation
When reasoning systems (humans, organizations, or AI agents) make decisions, three pressures seem always present:
Much of the failure we see — both in humans and in artificial systems comes when one of these is overweighted while the others collapse. (E.g., high energy without truth → reckless harm; trust without truth → blind propagation; truth without energy → paralysis.)
This led me to ask: can we formalize a minimal framework where these three co-equal parameters act as stabilizers for decision networks?
2. Core Postulates (Sketch)
I call this the Trinity Model. It rests on five axioms (stated formally in the preprint, but here in words):
From these, theorems follow about branch stability, recursive trust bounds, and emergent order when stable subgraphs combine.
3. Why This Matters
4. Open Questions
I don’t claim this model is final. I’d be very interested in critique on:
5. Where to Read More
The full axioms, theorems, and proofs are in the preprint:
[https://doi.org/10.5281/zenodo.17058462]
Closing thought:
Time and again, we see that systems endure not by maximizing a single parameter, but by stabilizing across multiple. The Trinity Model is my attempt to formalize this intuition into a recursive, testable framework.
Feedback, critique, or pointers to related work would be hugely valuable.
— Praveen Shira