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Reference pattern

Multi-Agent Inventory Intelligence Reference Architecture

Supervisor, domain agents, graph database and topology canvas working together to deliver query, enrichment and change-detection across network inventory domains.

Multi-agentGraph DBInventoryRAGSupervisor pattern12 min

Reference patterns must be adapted to the customer environment, product versions, security policies and vendor architecture. This pattern does not constitute a production design without site-specific validation.

Architecture Overview — Supervisor → Domain Agents → Graph DB → Topology Canvas

Problem

Network inventory systems hold data across multiple domains — physical, logical, service, customer — and no single query model can efficiently traverse all of them. Traditional inventory queries rely on flat APIs that return incomplete relational context. When AI agents need to reason about network state, they require a query mechanism that respects domain boundaries while enabling cross-domain traversal.

Context and Assumptions

  • Source inventory systems are authoritative and expose TMF-aligned or proprietary APIs
  • A graph database (Neo4j or compatible) materialises inventory topology periodically or event-driven
  • Agent framework is LangGraph or equivalent with tool-use capability
  • Execution environment is OpenShift AI or equivalent Kubernetes-native ML platform
  • Human-in-the-loop is required for any write or remediation action

Reference Architecture

Architecture DiagramReplace with approved SVG

Multi-agent inventory architecture diagram

Supervisor agent orchestrating domain agents (Physical, Logical, Service, Customer) each backed by graph traversal. Replace with approved SVG diagram.

Component Responsibilities

Component Responsibilities
Supervisor Agent
Receives intent queries, decomposes into sub-tasks, routes to domain agents, aggregates responses, applies reasoning.
Physical Domain Agent
Queries physical resource topology — sites, shelves, cards, ports, fibres — using graph traversal.
Logical Domain Agent
Traverses logical connectivity — VLANs, tunnels, pseudowires, IP paths — and correlates with physical layer.
Service Domain Agent
Retrieves service instances, dependencies, SLA parameters and associated customer contracts.
Customer Domain Agent
Maps customer accounts, contracts, affected sites and commercial impact from service state.
Graph Database
Neo4j (or compatible). Stores normalised inventory graph. Populated by ETL from source systems via TMF APIs.
Topology Canvas
Read-only visualisation layer consuming graph queries. Renders affected topology for human review.
Audit Logger
Captures every agent query, tool call and reasoning step with timestamps and source context.

Data Flow

  • 1. User intent query arrives at Supervisor via API or operator interface
  • 2. Supervisor decomposes query into domain sub-tasks
  • 3. Domain agents invoke graph traversal tools against Neo4j
  • 4. Graph returns typed node and edge results with relationship attributes
  • 5. Domain agents format and return structured context to Supervisor
  • 6. Supervisor synthesises cross-domain response and populates topology canvas
  • 7. All interactions are logged to the audit store before returning to user

Security and Governance Controls

Security and Governance Controls
Read-only execution boundary
All agent queries are read-only. Write actions require separate approval workflow.
Source data trust boundary
Graph is populated only from authoritative inventory systems. No agent may write to the graph directly.
Query scope limiting
Each domain agent operates against a labelled subgraph. Cross-domain traversal is controlled at the Supervisor layer only.
Audit log integrity
Immutable append-only audit log. Every agent step, tool call and result is captured.
Human review gate
Any output that drives an action — remediation, change, notification — must pass through a human approval step.

Failure Modes

  • Stale graph data: ETL lag between source system and graph materialisation leads to outdated topology context
  • Domain agent timeout: individual domain agent fails to return within threshold — Supervisor applies partial-context reasoning or escalates
  • Graph query explosion: poorly scoped traversal returns excessive node sets — mitigate with depth limits and index-backed property filters
  • Hallucination on sparse data: agent generates plausible but unverifiable topology assertions — mitigate with citation requirements
  • Audit log gap: agent step executed without log entry — all agents must complete log write before returning result

What Is Deterministic vs. AI-Assisted

Deterministic vs. AI-Assisted
Deterministic
  • Graph traversal queries (Cypher / GQL)
  • ETL from source inventory systems
  • Audit log writes
  • Human approval gate logic
  • Topology canvas rendering
AI-Assisted
  • Query decomposition by Supervisor
  • Cross-domain synthesis and reasoning
  • Natural-language impact summaries
  • Anomaly pattern detection across graph state
  • Suggested remediation recommendations

Reference patterns must be adapted to the customer environment, product versions, security policies and vendor architecture. This pattern does not constitute a production design without site-specific validation.

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