AstraVerge Research

At the boundaries of foundational ontology, formal systems, and complex architectures.

Foundations of Complex Systems • Research Program • Foundational Models and Applied Constructs

AstraVerge Research is a long-term research initiative focused on the foundations of complex systems, combining foundational ontology, formal systems, and the development of applied constructs for structural analysis and architecture.

Fundamental Research

AstraVerge Research Program

Philosophy of Discrete Being (FDB)

A foundational zero-level ontology based on discrete localities, coherence acts, and sequential order as the primitive structure of Being.

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AstraVerge Research Program

Conceptual Architecture of Complex Systems (CACS)

A structural ontology of complex systems describing the forms, patterns, and organizational principles through which coherent multi-component structures emerge, interact, and degrade.

AstraVerge Research Program

Coherence Ontology Engine (COE)

A formal epistemic framework that models how observations are generated, aligned, and validated within multi-component systems through locality-based coherence rules.

AstraVerge Research Program

Ontological Theory of Uncertainty (OTU)

A foundational research program exploring the structural conditions under which uncertainty arises, propagates, and constrains coherent systems.

AstraVerge Research Program

Discrete Energetics & Flow Boundaries (DEF)

An exploratory program studying the structure and limits of energetic flows in discrete coherent systems.

AstraVerge Research Program

Fundamental Philosophy (FP)

Analytical studies on epistemology, systems theory, and philosophical foundations relevant to complex coherent structures.

Applied Research

AstraVerge Research Program

Unified Availability Model (UAM)

A universal quantitative framework for evaluating system and business-contour availability across heterogeneous IT architectures.

AstraVerge Research Program

LSEG — Segment-Based Protocol for Data Interpretation

A formal segmentation-based model for structuring mixed data flows, enabling deterministic interpretation, self-synchronization, and robustness under partial corruption.

Key Focus Areas

Foundational Models

Research on discrete structures, coherence boundaries, and the formal architecture of Being as a structured system.

Coherent Systems & Interactions

Multi-component systems, structural interactions, and formal verification through coherence-based dynamics.

Applied Structural Models

Availability metrics, risk models, and frameworks for complex socio-technical and ecological architectures.

Latest Publications

ZENODO • DOI: 10.5281/zenodo.17646288

Coherent Observational Epistemology (COE)

A formal framework for representing, verifying, and simulating multi-component systems via coherence conditions.

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ZENODO • DOI: 10.5281/zenodo.17572909

Philosophy of Discrete Being (Executive Overview)

An introductory overview of the discrete ontology, coherence acts, and the sequential architecture of Being.

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Research Roadmap 2026–2035

Foundational Frameworks

Development of the fundamental ontology of discrete systems, including the Philosophy of Discrete Being (FDB), axioms of coherence, actor-order, and formal definitions of locality, interaction, and structural invariants. This layer establishes the conceptual and formal ground on which all subsequent models are built.

Formal Models of Observation and Interaction

Construction of the Coherent Observational Epistemology (COE): formal models of how observations are produced, aligned, and validated across independent localities, including consistency criteria, coherence metrics, and verification procedures for multi-component systems.

Structural and Operational Metrics

Development of operational indices such as the p-index, Unified Availability Model (UAM), and related frameworks that quantify stability, reliability, and coherence in distributed, heterogeneous, and risk-exposed systems.

Applied Coherent Architectures

Application of the foundational and epistemic frameworks to real-world system design, including IT architectures, risk models, observability systems, and complex organizational and technological environments. This layer bridges formal theory and operational practice.

Integrated Theory of Discrete Systems

Synthesis of metaphysical, epistemic, and operational layers into a unified coherent theory of discrete systems, linking structure, interaction, uncertainty, and design within a single formal framework.

AstraVerge Research · Foundations beyond classical frameworks