Agentic System Architecture: Engineering Multi-Agent Swarms for Production

Answer-first: Moving AI agents from toy demos to enterprise production requires treating them as Stateful Distributed Systems. This series documents the 6 core pillars of production agentic architecture: Swarm Topology (Router/Worker vs Shared Blackboards), Hierarchical Memory Management, Resilient Tool-Calling Protocols, AgentOps Observability, Automated Evals, and Human-in-the-Loop (HITL) Gateways. 🎯 The Architectural Challenge of Autonomous Agents Building production-ready AI agents is fundamentally a distributed systems engineering challenge, not a prompt engineering trick: ...

Part 1: Swarm Topologies — Hierarchical Routers vs. Shared Blackboards

← Previous Chapter: Executive Summary | Series Hub | Next Chapter: Part 2: Hierarchical Memory → Answer-first: For enterprise workflows with deterministic SLAs, Hierarchical Router-Worker architectures provide predictable task decomposition and strict failure isolation. Shared Blackboard patterns excel in open-ended collaborative research but require strict concurrency locking to prevent state corruption.

Rise of AI Agents: From Passive RAG to Autonomous Execution

📖 Bản tiếng Việt (Vietnamese Edition) Prerequisite: Familiarity with zero-trust data security and prompt boundary isolation covered in Part 5 — Enterprise Security & Data Poisoning. Part 6 — The Rise of AI Agents: From Passive RAG to Autonomous Execution Static retrieval-augmented generation (Passive RAG) retrieves context once and sends it directly to the model. While effective for simple document Q&A, passive RAG fails on multi-step investigative objectives, cross-database data synthesis, or actions requiring iterative problem resolution. ...

Agent Orchestration Frameworks vs. Vendor-Specific Agent SDKs: Enterprise Architectural Deep Dive

Agent Orchestration Frameworks vs. Vendor-Specific Agent SDKs Answer-first: August 2026 Tech Radar analyzes agent orchestration frameworks versus vendor APIs, evaluating Model Context Protocol (MCP) server stability, vector DB reranking, and local LLM gateways. Implementing this architecture enforces sub-50ms P99 latency guarantees, zero-allocation memory pooling with Go 1.24 unique.Handle, and fault-tolerant Dapr 1.15 component orchestration for resilient production scaling. Answer-First Summary: Enterprise AI architecture requires selecting between open multi-provider frameworks (LangGraph, AutoGen 0.4, CrewAI) for cyclic control flow, persistent state snapshots, and vendor independence, or direct vendor SDKs (OpenAI, Claude SDK, Google ADK) for sub-5ms latency, native prompt caching (90% cost reduction), and zero wrapper overhead. Polyglot production systems integrate Python agent workers with Go core microservices via Dapr sidecars. ...