TAG ARCHIVE
multi-agent
9 MARIA OS blog articles tagged multi-agent. Formal models for convergence, stability, game theory, graph dynamics, and multi-agent evaluation. This canonical topic archive supports search engines and LLM retrieval.
Judgment OS / Decision Intelligence OS
Core MARIA OS research on turning organizational judgment into executable decision systems.
Agentic Company Architecture
Research on human-agent organizations, delegation boundaries, role topology, and governed autonomy.
Responsibility Gates and AI Governance
Safety, accountability, fail-closed gates, auditability, and human-in-the-loop control for AI agents.
Multi-Agent Mathematics
Formal models for convergence, stability, game theory, graph dynamics, and multi-agent evaluation.
Evidence, RAG, and Knowledge Governance
Evidence bundles, retrieval architecture, Graph RAG, knowledge trust, and auditable reasoning pipelines.
Agentic R&D and Judgment Science
Research operations, simulation labs, judgment science, recursive improvement, and experimental AI governance.
Governance Load Testing: Where Does Governance Break in the 1000-Agent Era?
Stress-testing decision pipelines, approval queues, gate evaluation, and conflict detection under extreme agent concurrency to identify governance breaking points and mitigation architectures
Governance architectures designed for 10-agent teams do not survive contact with 1000 concurrent agents. Decision pipeline throughput saturates, approval queues grow unbounded, gate evaluation latency exceeds SLA windows, and conflict detection explodes as O(n^2) pairwise comparisons overwhelm detection infrastructure. This paper presents a rigorous load-testing methodology for AI governance systems, identifies precise breaking points across the MARIA OS decision pipeline, models governance bottlenecks using formal queueing theory (M/M/c and M/G/1 models), and proposes mitigation strategies including hierarchical delegation, batch approval, predictive gating, and zone-scoped conflict partitioning. We report benchmark results at 10, 100, 1000, and 10000 agent scales, demonstrating that naive governance collapses at approximately 340 concurrent agents under default configuration, while the optimized architecture sustains governance integrity up to 12000 agents with sub-second gate latency.
ガバナンス負荷テスト：1000エージェント時代にガバナンスはどこで崩壊するか？
極限的なエージェント同時実行下における意思決定パイプライン、承認キュー、ゲート評価、競合検出のストレステストを通じたガバナンス崩壊点の特定と緩和アーキテクチャの提案
10エージェント向けに設計されたガバナンスアーキテクチャは、1000エージェントの同時実行に耐えられない。意思決定パイプラインのスループットは飽和し、承認キューは無限成長し、ゲート評価レイテンシはSLAを超過し、競合検出はO(n^2)のペアワイズ比較でインフラを圧倒する。本論文はAIガバナンスシステムの体系的な負荷テスト手法を提示し、MARIA OS意思決定パイプラインにおける正確な崩壊点を特定する。待ち行列理論（M/M/cおよびM/G/1モデル）によるガバナンスボトルネックのモデル化、4つの緩和戦略（階層的委譲、バッチ承認、予測的ゲーティング、ゾーンスコープ競合分割）の提案を行い、デフォルト構成での約340エージェントから最適化構成での12,000エージェントへのガバナンス容量拡張を実証する。10、100、1000、10000エージェントの4つのスケールポイントでのベンチマーク結果を報告する。
The Complete Action Router: From Theory to Implementation to Scaling in MARIA OS
End-to-end architecture of the three-layer Action Router stack (Intent Parser, Action Resolver, Gate Controller), with recursive optimization and scaling patterns for 100+ agent deployments
The Action Router Intelligence Theory established that routing must control actions, not classify words. This paper presents the full implementation architecture: a three-layer stack of Intent Parser (context-aware goal extraction), Action Resolver (state-dependent action selection with precondition-effect semantics), and Gate Controller (risk-tiered execution envelopes integrated with MARIA OS governance). We detail a recursive optimization loop in which routing policies learn from execution outcomes, formalized as an online convex optimization problem with O(√T) regret. We then present a scaling architecture for 100+ concurrent agents using coordinate-based sharding, hierarchical action caches, and zone-local resolution. Integration with the MARIA OS Decision Pipeline state machine is formalized as a product automaton. Production benchmarks show sub-30ms P99 latency at 10,000 routing decisions per second, with first-attempt accuracy improving from 93.4% to 97.8% after 30 days of recursive learning.
Voice-Driven Agentic Avatars: A Recursive Self-Improvement Framework for Autonomous Intellectual Task Delegation
Formal convergence analysis, delegation-completeness theorems, and safety bounds for voice-mediated multi-agent governance systems
We present the Voice-Driven Agentic Avatar (VDAA) framework, a formal model of voice-mediated intellectual task delegation in multi-agent systems. The framework unifies full-duplex voice interaction, recursive self-improvement cycles, and hierarchical agent coordination under a single convergence analysis. We show that delegation loops converge to fixed-point task allocations under bounded cognitive-fidelity loss, establish delegation completeness for finite task algebras, and derive safety bounds through a three-gate Lyapunov formulation. Evaluation on MARIA VOICE reports 94.7% delegation accuracy, sub-200ms voice-to-action latency, and zero safety-gate violations across 12,000 delegated tasks.
Multi-Agent Societal Co-Evolution Model: Network Trust Dynamics and Phase Transitions in AI-Augmented Organizations
Extending dyadic human-AI co-evolution to societal-scale network dynamics with trust propagation, dependency contagion, phase transitions, and distributed social metacognition
Individual human-AI pair models miss emergent dynamics that appear when many agents interact on complex networks. This paper develops a societal co-evolution framework for trust cascades, dependency contagion, capability hollowing, and phase transitions in AI-augmented organizations, and introduces Social Metacognition as a distributed stabilization mechanism.
Planet 100 Agent Population Dynamics: Emergent Role Specialization in Large-Scale Multi-Agent Governance Systems
How 111 agents across 10 roles self-organize, specialize, and form emergent hierarchies in the AGORA-100 simulation
We analyze role-specialization dynamics in Planet 100 (AGORA-100), a 111-agent governance cluster operating under the MARIA OS coordinate system. Using entropy-based modeling of role allocation and empirical measurements of coordination-complexity scaling, we show that the population exhibits spontaneous hierarchy formation and role consolidation with power-law behavior (alpha = 1.73).
Transformer Architecture for Agentic Language Intelligence: Self-Attention as the Cognitive Layer of Enterprise Decision Systems
How self-attention enables multi-agent context fusion, decision-log comprehension, and hierarchical organizational reasoning
Transformer architectures are central to enterprise language understanding, but production decision systems require additional design constraints. This paper formalizes transformers as the Cognition Layer (Layer 1) of the agentic company stack, introduces cross-agent attention for organizational context fusion, adapts positional encoding to hierarchical coordinates, and outlines training objectives for decision logs, contracts, meeting notes, and specification documents. In evaluated MARIA OS workloads, coordinate-aware attention reduced cross-agent context fusion error by 34% versus standard multi-head attention, and hierarchical positional encoding improved organizational structure extraction F1 by 28%.
Quality Assurance in Multi-Agent Parallel Execution: A Game-Theoretic Framework for Zone Partitioning and Gate Design
How responsibility gates and zone architecture can shift multi-agent conflicts from defection-prone dynamics toward cooperative equilibria
Multi-agent systems executing tasks in parallel face a quality challenge: conflict rates can grow quadratically with agent count. This paper presents a game-theoretic framework showing how responsibility gates and zone partitioning reduce conflict pressure while retaining high task completion. In evaluated settings, the design reported over 91% conflict-rate reduction with 98.7% task completion.
Multi-Agent Quality Convergence: A Probabilistic Model of Boundary Violations and Merge Failures in Parallel Execution
Quality can scale when boundaries are explicit: a formal model showing architecture, not raw agent count, is the main bottleneck
Multi-agent parallelism can improve throughput but introduces two quality risks uncommon in sequential pipelines: boundary violations (overlapping scopes) and merge failures (integration errors). We derive a total-success model `P(total) = Π(p_i) · (1 - q_merge) · (1 - q_overlap)` and analyze conditions under which quality remains stable as scale increases. The framework highlights that quality depends primarily on architectural contracts (boundary isolation and gate-verified merge contracts), not only on agent count or model capability.