AI RundownDaily
Topic

#multi-agent

17 articles — updated daily

Model Routing for AI Agents

Model Routing for AI Agents

Choose models by task requirements, policy, quality, latency, and cost instead of sending every step to one default.

Scaling AI Agent Systems

Scaling AI Agent Systems

Grow workload capacity safely by separating stateless runtimes from durable tasks and protecting constrained dependencies.

AI Agent Cost Optimization

AI Agent Cost Optimization

Control the cost of successful agent outcomes, not merely the price of one model call.

Observability for AI Agents

Observability for AI Agents

A production observability model for agent, model, retrieval, tool, sub-agent, and infrastructure signals—with privacy and redaction controls.

MCP + A2A Production Architecture

MCP + A2A Production Architecture

A production architecture for combining MCP capability access with A2A specialist delegation while preserving policy, identity, tracing, and failure boundaries.

LLM Evaluation vs Agent Evaluation

LLM Evaluation vs Agent Evaluation

LLM evaluation scores model outputs; agent evaluation measures the whole goal-directed system, including tools, state, constraints, reliability, latency, and cost.

Agent Traces and Trajectories

Agent Traces and Trajectories

Learn how traces and trajectories represent observable agent execution without requiring storage or exposure of private chain-of-thought.

A2A Agent Discovery and Agent Cards

A2A Agent Discovery and Agent Cards

Learn how A2A clients discover remote agents, read Agent Cards, match skills and interfaces, evaluate suitability, and begin an interaction.

Shared State and Context in Multi-Agent Systems

Shared State and Context in Multi-Agent Systems

Learn how multi-agent systems separate local context from shared workflow state, exchange artifacts, synchronize updates, persist checkpoints, and avoid state conflicts.

Sequential vs Parallel Agent Execution

Sequential vs Parallel Agent Execution

Compare sequential, parallel, and hybrid agent execution by dependencies, latency, cost, state transfer, synchronization, aggregation, and failure handling.

Multi-Agent Coordination Patterns Explained

Multi-Agent Coordination Patterns Explained

Learn seven practical multi-agent coordination patterns and how they manage roles, ownership, state, handoffs, aggregation, conflicts, and stopping.

Centralized vs Decentralized Multi-Agent Architectures

Centralized vs Decentralized Multi-Agent Architectures

Compare centralized, decentralized, and hybrid multi-agent architectures across control, state, coordination, scale, observability, governance, and resilience.

Agent Routing Patterns: How Agents Choose the Next Worker

Agent Routing Patterns: How Agents Choose the Next Worker

Learn seven agent-routing patterns, from deterministic rules and classifiers to semantic, capability-aware, hierarchical, and fallback routing.

Orchestrator vs Supervisor vs Router in Multi-Agent Systems

Orchestrator vs Supervisor vs Router in Multi-Agent Systems

Compare orchestrators, supervisor agents, and routers by purpose, decision ownership, state responsibility, delegation, routing, and workflow control.

Agent Workflows and Orchestration Explained

Agent Workflows and Orchestration Explained

Learn how agent workflows and orchestration coordinate steps, dependencies, branches, parallel work, retries, checkpoints, tools, agents, and humans.

Agent Handoffs, Delegation, and Sub-Agents

Agent Handoffs, Delegation, and Sub-Agents

Learn how delegation, handoffs, and sub-agents divide work while preserving task ownership, context, state, permissions, and reliable result contracts.

Single-Agent vs Multi-Agent Systems

Single-Agent vs Multi-Agent Systems

Learn how single-agent and multi-agent systems differ, what extra coordination costs, and how to choose the simplest architecture that works.