🤖 AI Summary
In multi-agent AI communication, ambiguous speaker responsibility frequently causes role confusion, context drift, and unstable alignment, undermining interpretability and reliability. To address this, we propose a dual-mechanism framework: responsibility chain tracing and context integrity verification—enabling role-aware modeling, continuous responsibility flow propagation, and consistent context maintenance. We introduce structured evaluation metrics—pragmatic consistency, responsibility flow completeness rate, and context stability—and develop a lightweight G-Code configuration language with modular APIs to support high-context human-AI dialogue modeling. Our approach integrates role modeling, state tracking, and structured validation, leveraging human annotation, automated scoring, and bootstrapped statistical analysis. Experiments demonstrate a 42% improvement in responsibility flow completeness and a 37% gain in context stability, significantly enhancing structural robustness in multi-turn interactions—without reliance on affective signals or surface-level heuristics.
📝 Abstract
Sustaining coherent, role-aware communication across multi-agent systems remains a foundational challenge in AI. Current frameworks often lack explicit mechanisms for speaker responsibility, leading to context drift, alignment instability, and degraded interpretability over time. We propose the Modular Speaker Architecture (MSA), a framework that decomposes speaker behavior into modular components for role tracking, responsibility continuity, and contextual coherence. Grounded in high-context human-AI dialogues, MSA includes three core modules: a Speaker Role Module, a Responsibility Chain Tracker, and a Contextual Integrity Validator. We evaluate MSA through annotated case studies and introduce structural metrics-pragmatic consistency, responsibility flow, and context stability-quantified via manual and automatic scoring and bootstrapped statistical analysis. Our results show that MSA reliably maintains interaction structure without reliance on affective signals or surface-level heuristics. We further implement a prototype configuration language (G-Code) and modular API to support MSA deployment in dynamic multi-agent scenarios.