ASTELD: A Six-Axis Classification Framework for Autonomous AI Agents - Design, Evaluation, and an OpenClaw Case Study

📅 2026-08-05
📈 Citations: 0
Influential: 0
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🤖 AI Summary
Current autonomous AI agent platforms exhibit significant heterogeneity in architecture, security, and tool integration, yet lack a unified taxonomy to enable systematic comparison and design analysis. This work proposes ASTELD, a six-dimensional classification framework that establishes, for the first time, a rule-based multi-axis taxonomy encompassing architectural patterns, security postures, tool integration models, execution paradigms, levels of autonomy, and deployment topologies. By synthesizing existing taxonomies, analyzing platform attributes, mapping multiple platforms, and conducting a case study on OpenClaw, the framework successfully differentiates eight major platforms, identifies three cross-platform design patterns, classifies over fifty derivative systems, and reveals a critical design gap—namely, the absence of platforms combining local-first deployment with enterprise-grade security—thereby providing a reproducible methodological foundation for future agent platform comparison and research.
📝 Abstract
Autonomous AI agent platforms differ substantially in architecture, security, tool integration, execution, autonomy, and deployment, yet the field lacks a common classification scheme for comparing these design choices. We propose ASTELD, an operational six-axis classification framework for autonomous AI agents: Architecture pattern, Security posture, Tool integration model, Execution paradigm, Level of autonomy and human control, and Deployment topology. ASTELD is constructed by synthesizing prior agent taxonomies with observable platform properties and explicit category-assignment rules. We evaluate its discriminative and explanatory utility by mapping eight representative frameworks and by using OpenClaw as an in-depth case study. The resulting profiles separate all eight platforms under their dominant configurations and reveal three cross-platform patterns: a security-accessibility diagonal, strong execution-architecture coupling, and capability convergence with persistent architectural differentiation. We further classify 50+ OpenClaw derivatives and find that innovation concentrates on the Security, Execution, and Deployment axes, indicating that ASTELD can explain where ecosystem fragmentation occurs. The OpenClaw case study also supplies a six-category vulnerability taxonomy, evidence from five institutional assessments, and adoption and governance analyses that connect platform coordinates to observed risks. These results position ASTELD as a reproducible method for comparing agent platforms, identifying unoccupied design regions, guiding framework selection, and organizing future empirical research. The analysis also exposes a consequential empty region: none of the evaluated systems combines local-first deployment with enterprise-grade security.
Problem

Research questions and friction points this paper is trying to address.

autonomous AI agents
classification framework
platform comparison
design taxonomy
ecosystem fragmentation
Innovation

Methods, ideas, or system contributions that make the work stand out.

ASTELD
autonomous AI agents
classification framework
security posture
deployment topology
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