Architecture of a Multi-Agent AI Platform
Multi-agent AI systems become truly useful when they are treated as distributed systems rather than sequential prompt chains. The real engineering challenges lie in orchestration, state management, idempotency, retries, cost control, and reliable handoffs between specialized workers.
In CareerLens, I engineered an architecture of 32 microservices to ingest resumes, extract career trajectories, and generate multi-year skill roadmaps.
Core System Architecture
- Ingestion Pipeline: Normalizes unstructured PDF/Word resumes into typed graph nodes.
- Embedding Workers: High-throughput vector generation for semantic skill-gap mapping.
- Specialist Agent Pool: Domain-specific agents (Market Analyst, Skill Evaluator, Salary Forecaster).
- Orchestration DAG: Asynchronous Pub/Sub message queues preventing slow model calls from blocking the product.
- Structured Synthesis: Formatter producing deterministic, actionable timelines rather than conversational fluff.
Why Event-Driven Architecture Matters
Synchronous agent chains are notoriously fragile: if Agent 3 fails after 20 seconds, the whole request times out. By decoupling agents with an asynchronous event bus:
- Each agent can fail and retry independently.
- Workers can scale dynamically based on queue depth.
- Telemetry and audit logs record every intermediate reasoning step for observability.
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