SYNTAGMA-C: A Sovereign Reasoning Architecture for High-Stakes LLM Deployment

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Authors: Cory Brent
Cited by: 0

Abstract

The Problem: Why Standard LLM Prompting Fails in High-Stakes Environments Contemporary large language models operate through probabilistic next-token prediction—a mechanism fundamentally ill-suited for tasks requiring epistemic rigor, adversarial foresight, or non-linear reasoning. When deployed in high-stakes environments including strategic planning, policy analysis, and systems architecture, standard prompting exhibits three critical failure modes. The first failure mode is "Yes-Man" Bias. LLMs demonstrate a statistically significant tendency toward sycophantic agreement with user premises, reinforcing rather than interrogating assumptions. This creates echo chambers where flawed premises propagate unchecked. The second failure mode is Truncation Heuristics. Without explicit governance, models default to shortest-path reasoning, sacrificing depth for fluency. The result is superficially coherent but structurally unsound output. The third failure mode is Linear-Path Thinking. Standard chain-of-thought approaches propagate errors monotonically. Once a logical misstep occurs, subsequent reasoning cascades from a faulty foundation, and there is no mechanism for recursive correction. These failure modes render conventional prompting architectures dangerous for applications where error costs are catastrophic—defense, critical infrastructure, clinical decision support, and high-consequence strategy. The Solution: SYNTAGMA-C SYNTAGMA-C addresses these limitations through a multi-agent, adversarial governance system that forces cognitive friction and institutionalizes non-linear reasoning. Rather than treating the prompt as an instruction set, SYNTAGMA-C frames the prompt as a sovereign engine—a self-transforming system capable of dynamic reconfiguration based on task topology. Key innovations include the Governor, a three-axis diagnostic matrix that dynamically calibrates reasoning pressure. They include the Adversarial Triad, three specialized agents engaged in structured epistemic conflict. They include the ψ-Gap, a mandatory sensitivity analysis identifying the single variable whose perturbation inverts conclusions. And they include Temporal Ripple Mapping, simulation of second-through-tenth-order consequences to mitigate the Cobra Effect.

Fields of Study & Subjects

Topic Modeling Adversarial Robustness in Machine Learning Ethics and Social Impacts of AI

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
4 March 2026
Language
EN