MeshOptixIQ Network Discovery

Vendor-agnostic network discovery and graph ingestion pipeline. Collects CLI output from network devices via Netmiko over SSH, parses it into canonical Pydantic models, normalizes and deduplicates the data, and ingests it into Neo4j or PostgreSQL.

┌─────────────┐     ┌──────────────┐     ┌────────────┐     ┌───────────────┐     ┌──────────┐
│  Inventory   │────▶│  Netmiko     │────▶│  Vendor    │────▶│ Normalization │────▶│ Neo4j /  │
│  (YAML)      │     │  Collector   │     │  Parsers   │     │ & Dedup       │     │ Postgres │
└─────────────┘     └──────────────┘     └────────────┘     └───────────────┘     └──────────┘
                          │                     │                    │
                          ▼                     ▼                    ▼
                    Raw CLI Output       Canonical Models     Validated Facts
                    (JSON files)         (Pydantic v2)        (Schema v1)

---

Table of Contents

1. Installation
2. Configuration
3. CLI Usage
4. API Server
5. Query Library
6. Docker Deployment
7. Cluster Mode
8. Kubernetes / Helm
9. Database Backends
10. Supported Vendors
11. Data Model
12. Enterprise Features
13. MCP Server
14. Development
15. Licensing

---

Installation

From PyPI (CLI + MCP server)

Wheels are published for CPython 3.10–3.12 on Linux (x86_64, aarch64), macOS (x86_64, arm64) and Windows (x86_64).

# Isolated CLI install (recommended); pick a 3.10-3.12 interpreter if your default is newer
pipx install --python python3.12 "meshoptixiq-network-discovery==0.26.0"

# CLI + bundled MCP server (meshq-mcp)
pipx install --python python3.12 "meshoptixiq-network-discovery[mcp]==0.26.0"

# Or with pip, inside a Python 3.10-3.12 virtualenv (add extras as needed:
# postgres, cluster, mcp, enterprise, ai, grpc, graphql, ...)
pip install "meshoptixiq-network-discovery==0.26.0"

The CLI and MCP server take their license plan from your MeshOptixIQ API server — point them at it with MESHOPTIXIQ_API_URL (and MESHOPTIXIQ_API_KEY). Run the API itself from the container image meshoptixiq/meshoptixiq:0.26.0 (see Docker Deployment) or the Helm chart (see Kubernetes / Helm).

Local (development, from a source checkout)

cd network_discovery

# Core install (Neo4j backend)
pip install -e ".[dev]"

# With PostgreSQL support
pip install -e ".[dev,postgres]"

# With cluster (Redis) support
pip install -e ".[dev,cluster]"

# With MCP server support
pip install -e ".[dev,mcp]"

# All enterprise features
pip install -e ".[dev,enterprise]"

After installation the meshq CLI is available on your PATH.

Docker

Published images: meshoptixiq/meshoptixiq:<version> and meshoptixiq/meshoptixiq:enterprise-<version> on Docker Hub. To build locally from a source checkout:

# From the repo root
docker build --target runtime -t meshoptixiq/meshoptixiq:local .
docker build --target enterprise -t meshoptixiq/meshoptixiq:enterprise-local .

---

Configuration

Core Environment Variables

Variable	Default	Description
API_KEY	(required)	API key — server refuses to start without it
GRAPH_BACKEND	neo4j	neo4j or postgres
MESHOPTIXIQ_LICENSE_KEY	(required by API server)	License key; CLI and MCP no longer need this — they query the local API
MESHOPTIXIQ_API_URL	http://localhost:8000	Local API server URL used by CLI + MCP for plan resolution
MESHQ_INSTALL_ID	(unset)	Stable licensed-device identity shared by all replicas of one install; if unset a UUID is persisted in <data dir>/install_id
MESHQ_DATA_DIR	./data	Directory holding install_id (falls back to ~/.meshoptixiq when ./data is absent)
MESHQ_LICENSE_REVALIDATE_SECONDS	3600	Periodic license re-validation interval (min 300, 0 disables)
DEVICE_PASSWORD	(none)	Default SSH password for collection
CORS_ORIGINS	(empty — denied)	Comma-separated allowed CORS origins

Neo4j

Variable	Default	Description
NEO4J_URI	bolt://localhost:7687	Bolt connection URI
NEO4J_USER	neo4j	Username
NEO4J_PASSWORD	(empty)	Password (required in production)

PostgreSQL

Variable	Default	Description
POSTGRES_DSN	postgresql://postgres:postgres@localhost:5432/network_discovery	Connection string
POSTGRES_POOL_MIN	2	Minimum pool connections
POSTGRES_POOL_MAX	10	Maximum pool connections

Transport Security (v0.26 — see network_discovery/docs/security.md)

Variable	Default	Description
MESHQ_SSH_HOST_KEY_POLICY	tofu	SSH/NETCONF host keys: tofu pins on first connect and refuses changed keys, strict only contacts hosts in the known_hosts file, insecure disables checks (warns). Manage pins with meshq hostkeys list|forget <host>
MESHQ_SSH_KNOWN_HOSTS	<data dir>/ssh_known_hosts	Pinned host-key file (OpenSSH format)
GNMI_INSECURE	false	gNMI uses TLS; true opts out (warns). GNMI_TLS_CA / GNMI_TLS_CERT / GNMI_TLS_KEY / GNMI_TLS_SERVER_NAME configure verification and mTLS
MESHQ_GRPC_TLS_CERT / MESHQ_GRPC_TLS_KEY	(unset → plaintext)	Serve the gRPC QueryService over TLS (MESHQ_GRPC_TLS_CLIENT_CA for mTLS; MESHQ_GRPC_HOST bind address)

Clustering (Redis)

Variable	Default	Description
REDIS_URL	(none)	Activates cluster mode when set

Authentication & RBAC

Variable	Default	Description
AUTH_MODE	api_key	api_key, oidc, or both
OIDC_DISCOVERY_URL	(none)	OIDC provider discovery URL
OIDC_CLIENT_ID	(none)	OIDC client ID
RBAC_POLICY_FILE	(none)	Path to YAML RBAC policy file (hot-reloaded every 30 s)
RBAC_POLICY	(none)	Inline YAML RBAC policy string
RBAC_RELOAD_INTERVAL	30	Seconds between RBAC file mtime checks

Inventory File

# inventory.yaml
devices:
  - hostname: core-sw-01
    host: 192.168.1.1
    vendor: cisco_ios
    username: admin
    password_env: DEVICE_PASSWORD   # reads from environment variable

  - hostname: fw-01
    host: 10.0.0.1
    vendor: paloalto_panos
    username: netops
    key_file: ~/.ssh/id_rsa         # SSH key auth

---

CLI Usage

meshq ingest — Full pipeline

meshq ingest --source inventory.yaml [--output-dir ./output] [--dry-run] [--workers N] [-v]

Flag	Description
--source PATH	Inventory YAML file (required)
--output-dir DIR	Directory for raw JSON output (default: output/)
--dry-run	Collect, parse, normalize but skip database writes
--workers N	Concurrent SSH threads (default: 10)
-v	Debug logging

Pipeline stages: API license check → collect → parse → normalize → ingest.

meshq collect — Collection modes

# Standard: collect all devices in inventory
meshq collect --source inventory.yaml

# Dispatch: push device list to Redis queue, then exit
meshq collect --source inventory.yaml --dispatch

# Worker: pop devices from queue, collect, ingest, repeat
meshq collect --worker [--poll-interval 5]

Flag	Description
--source PATH	Inventory YAML (required for standard + dispatch)
--dispatch	Push all devices to Redis queue and exit
--worker	Pop-collect-ingest loop (requires REDIS_URL)
--poll-interval N	Idle seconds between pops in --worker mode (default: 5)

meshq parse — Parse existing raw files

meshq parse --raw-dir output/raw/

meshq export — Export Ansible inventory

meshq export --format ansible [--output inventory.json]
meshq export --format ansible --output inventory.ini   # legacy INI format

meshq sync — NetBox sync

meshq sync --target netbox [--direction push|pull|both] [--dry-run]

meshq status / meshq version

meshq status    # Check backend connectivity
meshq version   # Print version (no license required)

---

API Server

Starting the server

# Local
uvicorn network_discovery.api.main:app --host 0.0.0.0 --port 8000

# Docker
docker run -d -p 8000:8000 \
  -e NEO4J_URI=bolt://host.docker.internal:7687 \
  -e NEO4J_PASSWORD=secret \
  -e API_KEY=changeme \
  meshoptixiq/meshoptixiq:latest

Interactive Swagger docs: http://localhost:8000/docs

Endpoints

Health

Method	Path	Auth	Description
GET	/health	No	Process alive check
GET	/health/ready	No	Backend reachability; includes pool_available for postgres
GET	/health/redis	No	Redis cluster connectivity
GET	/health/license	No	License plan tier, expiry date, and days remaining

Queries

Method	Path	Auth	Description
GET	/queries/	Yes	List all 25 queries with metadata
GET	/queries/{name}	Yes	Query details
POST	/queries/{name}/execute	Yes	Execute with parameters

Collection Queue (cluster mode)

Method	Path	Auth	Description
GET	/collect/status	Yes	Queue depth + in-flight count
POST	/collect/dispatch	Yes	Push device list to queue
POST	/collect/recover	Yes	Re-queue stale in-flight devices

Admin

Method	Path	Auth	Description
GET	/admin/config	Yes	Sanitized runtime config (admin role)
POST	/admin/rbac/reload	Yes	Force RBAC policy reload + broadcast

Other

Method	Path	Auth	Description
GET	/auth/me	Yes	Current user context
GET	/events	Yes	SSE stream (30 s keepalive)
GET	/history/snapshots	Yes	Historical metric snapshots
GET	/history/diff	Yes	Compare two snapshots by timestamp (?from_ts=…&to_ts=…)
POST	/graph/whatif	Yes	Simulate proposed NetworkFacts against current state (pro+ only)
GET	/inventory/ansible	Yes	Ansible dynamic inventory (?format=ini)

Authentication

API_KEY is required. Pass via X-API-Key header or ?api_key= query parameter (for SSE EventSource):

curl -H "X-API-Key: $API_KEY" http://localhost:8000/queries/

---

Query Library

25 queries across 7 categories, each with Cypher (Neo4j) and SQL (PostgreSQL) implementations.

Topology

Query	Parameters	Description
device_neighbors	device_name	Devices directly connected to a given device
interface_neighbors	device_a, device_b	Interfaces connecting two devices
topology_edges	(none)	All edges in the topology graph
topology_summary	(none)	Device and link count summary
all_devices	(none)	All known devices
topology_neighborhood	device, depth	N-hop neighborhood subgraph around a focal device

Endpoints

Query	Parameters	Description
locate_endpoint_by_ip	ip, vrf (optional)	Find endpoint by IP address; filter by VRF
locate_endpoint_by_mac	mac	Find endpoint by MAC address
endpoints_on_interface	device, interface	Endpoints on a specific interface

Blast Radius

Query	Parameters	Description
blast_radius_interface	device, interface	Endpoints impacted by interface failure
blast_radius_device	device	Endpoints impacted by device failure
blast_radius_vlan	vlan	Endpoints in a VLAN
blast_radius_subnet	cidr	Endpoints in a subnet

Addressing

Query	Parameters	Description
ips_in_subnet	cidr, vrf (optional)	IPs allocated in a subnet; filter by VRF
subnets_on_device	device	Subnets present on a device
orphaned_ips	(none)	IPs with no known subnet

Hygiene

Query	Parameters	Description
devices_without_neighbors	(none)	Isolated devices
interfaces_without_ips	(none)	Interfaces missing IP assignments
endpoints_without_location	(none)	Endpoints with no physical port

Firewall

Query	Parameters	Description
firewall_rules_by_device	device_name	All rules for a firewall, ordered by precedence
firewall_rules_by_zone_pair	src_zone, dst_zone	Rules between a source/destination zone pair
path_analysis	src_ip, dst_ip	Rules matching traffic between two IPs
all_firewall_devices	(none)	All devices with collected firewall rules
deny_rules_summary	(none)	All deny/drop/reject rules across every firewall

Inventory

Query	Parameters	Description
update_device_metadata	(none)	Pull nb_site/tenant/rack from NetBox onto Device nodes

Example:

curl -X POST http://localhost:8000/queries/blast_radius_device/execute \
  -H "Content-Type: application/json" \
  -H "X-API-Key: changeme" \
  -d '{"parameters": {"device": "core-sw-01"}}'

---

Docker Deployment

# API + Neo4j
docker run -d -p 8000:8000 \
  -e NEO4J_URI=bolt://host.docker.internal:7687 \
  -e NEO4J_PASSWORD=secret \
  -e API_KEY=changeme \
  -e MESHQ_TOKEN_SALT=$(python3 -c "import secrets; print(secrets.token_hex(32))") \
  -e MESHOPTIXIQ_LICENSE_KEY=your-key \
  -v meshq_data:/app/data \
  meshoptixiq/meshoptixiq:0.26.0

# Collection job (API server must be running; CLI resolves plan from it)
docker run --rm \
  -e NEO4J_URI=bolt://host.docker.internal:7687 \
  -e NEO4J_PASSWORD=secret \
  -e MESHOPTIXIQ_API_URL=http://host.docker.internal:8000 \
  -e MESHOPTIXIQ_API_KEY=changeme \
  -v $(pwd)/configs:/app/configs \
  meshoptixiq/meshoptixiq:0.26.0 \
  meshq ingest --source /app/configs/inventory.yaml

The image contains every entry point — override the command to run one, e.g. docker run --rm meshoptixiq/meshoptixiq:0.26.0 meshq --help or docker run --rm -i ... meshq-mcp.

---

Cluster Mode

Multiple API pods share state via Redis. Set REDIS_URL to enable:

export API_KEY=secret
docker compose -f docker-compose.cluster.yml up --build

The cluster stack runs 3 API instances, 2 collection workers, a dispatcher, Redis, Neo4j, and nginx.

How device distribution works

meshq collect --dispatch     →   meshq:collect_queue (Redis List)
                                          │ LPOP (atomic)
                          ┌───────────────┼───────────────┐
                       worker-1        worker-2        worker-N
                       (SSH → parse → ingest)

Each device is claimed by exactly one worker per collection cycle via LPOP. Stale in-flight items are re-queued automatically via POST /collect/recover.

Queue Redis keys

Key	Type	Purpose
meshq:collect_queue	List	Pending device JSON blobs
meshq:collect_processing	Hash	hostname → {device_json, started_at}
meshq:collect_results	Sorted Set	hostname → unix-ms of last success
meshq:collect_lock	String (NX TTL=60s)	One dispatcher at a time

---

Kubernetes / Helm

helm install meshoptixiq oci://registry-1.docker.io/meshoptixiq/meshoptixiq-helm \
  --version 0.26.0 \
  --set api.key=secret \
  --set license.key=your-key \
  --set neo4j.uri=bolt://neo4j:7687 \
  --set neo4j.password=secret \
  --set redis.url=redis://redis:6379 \
  --set collector.inventoryConfigMap=my-inventory

Chart version = application version; every pod runs meshoptixiq/meshoptixiq:<chart version> unless image.tag is set. The release shares one generated MESHQ_INSTALL_ID, so it counts as one licensed device (set license.installId and api.tokenSalt explicitly with helm template / GitOps).

The chart deploys:

• API Deployment + HPA (CPU 70%, min 2 / max 10)
• ingest / graph / collect (and optional AI) service Deployments — same image, license-validated at startup
• Collector worker Deployment (2 replicas, meshq collect --worker)
• Dispatcher CronJob (concurrencyPolicy: Forbid)
• SSE-safe nginx Ingress
• ConfigMap + Secret (no inline secrets in Deployment)

---

Database Backends

Neo4j (default)

Set GRAPH_BACKEND=neo4j. Uses MERGE for idempotent ingestion and native graph relationships.

PostgreSQL

Set GRAPH_BACKEND=postgres. Install the extra:

pip install "meshoptixiq-network-discovery[postgres]==0.26.0"   # source checkout: pip install -e ".[postgres]"

The provider uses a ConnectionPool (psycopg-pool) with configurable min/max size:

POSTGRES_POOL_MIN=2   # default
POSTGRES_POOL_MAX=10  # default

Tables are auto-created from graph/postgres/schema.sql on first connection. All writes use INSERT ... ON CONFLICT upserts inside explicit transactions.

---

Supported Vendors

Vendor	Key	Topology	Firewall Policies
Cisco IOS	cisco_ios	Interfaces, ARP, CDP, VLANs, MACs	—
Juniper JunOS	juniper_junos	Interfaces, ARP, LLDP	Security policies, address book
Arista EOS	arista_eos	Interfaces, ARP, LLDP	—
Aruba OS	aruba_os	Interfaces, ARP	—
Palo Alto PAN-OS	paloalto_panos	—	Security policies, address objects, service objects
Fortinet FortiGate	fortinet	—	Firewall policies, address objects
Cisco ASA	cisco_asa	—	ACLs, object groups
Cisco FTD	cisco_ftd	—	Policies
CheckPoint GAIA	checkpoint_gaia	—	Policies

Adding a New Vendor

1. Create vendors/<vendor_key>/commands.yaml with CLI commands.
2. Create parser classes under parsers/<vendor_key>/ inheriting from BaseParser.
3. Decorate with @register for auto-registration.
4. Import in parsers/<vendor_key>/__init__.py.

---

Data Model

Core Entities

Model	Key Fields	Description
DeviceModel	hostname	Network device
InterfaceModel	device_hostname + name	Physical or logical interface
IPAddressModel	address + vrf	IPv4/IPv6 address on an interface; vrf=None treated as global routing table
SubnetModel	network_address + vrf	IP subnet; supports M&A multi-tenant isolation via vrf + tenant fields
VLANModel	device_hostname + vlan_id	VLAN membership
MACModel	address	Layer-2 MAC address
EndpointModel	mac_address + ip_address	Host inferred from ARP + MAC tables

Firewall Entities

Model	Key Fields	Description
FirewallRuleModel	device_hostname + rule_id	Security policy rule
AddressObjectModel	device_hostname + name	Named address object
ServiceObjectModel	device_hostname + name	Named service/port object

Graph Relationships

Relationship	From → To	Description
HAS_INTERFACE	Device → Interface	Device owns this interface
HAS_IP	Interface → IPAddress	IP assigned to interface
IN_SUBNET	IPAddress → Subnet	IP belongs to subnet
TAGGED_IN	Interface → VLAN	Interface participates in VLAN
CONNECTED_TO	Interface → Interface	Physical link (CDP/LLDP)
LEARNED_ON	MAC → Interface	MAC seen on this port
USES_IP	Endpoint → IPAddress	Endpoint uses this IP
USES_MAC	Endpoint → MAC	Endpoint uses this MAC
HAS_FIREWALL_RULE	Device → FirewallRule	Device owns this rule
HAS_ADDRESS_OBJECT	Device → AddressObject	Device owns this address object
HAS_SERVICE_OBJECT	Device → ServiceObject	Device owns this service object

---

Enterprise Features

Install the enterprise extras:

pip install "meshoptixiq-network-discovery[enterprise]==0.26.0"

Feature	Config
OIDC authentication	AUTH_MODE=oidc, OIDC_DISCOVERY_URL, OIDC_CLIENT_ID
RBAC policy	RBAC_POLICY_FILE or RBAC_POLICY (hot-reloaded every 30 s; instant cross-pod via Redis Pub/Sub)
Audit logging	AUDIT_LOG_ENABLED=true → Splunk, Elasticsearch, OpenSearch, webhook
Secrets management	SECRETS_PROVIDER=vault|aws|azure|gcp
Distributed tracing	Auto-detected: Datadog → New Relic → OTLP
NetBox sync	meshq sync --target netbox
SOAR webhooks	SOAR_RULES JSON + SOAR_WEBHOOK_URL
Ansible inventory	GET /inventory/ansible or meshq export --format ansible

---

MCP Server

Exposes the network graph to AI assistants (Claude Desktop, Claude Code, any MCP client) over stdio. The server is bundled with this package as meshq-mcp:

pipx install --python python3.12 "meshoptixiq-network-discovery[mcp]==0.26.0"

It needs a running MeshOptixIQ API (Pro+ plan, resolved via GET /health/license) and refuses to start under the root/admin key — create a scoped Personal Access Token for it:

curl -X POST http://localhost:8000/admin/users -H "X-API-Key: $API_KEY" \
  -H 'Content-Type: application/json' -d '{"username": "mcp", "role": "network"}'
curl -X POST http://localhost:8000/admin/users/mcp/tokens -H "X-API-Key: $API_KEY" \
  -H 'Content-Type: application/json' -d '{"description": "Claude Desktop", "expires_in_days": 90}'

Claude Desktop config (claude_desktop_config.json; use the absolute path printed by which meshq-mcp):

{
  "mcpServers": {
    "meshoptixiq": {
      "command": "/home/you/.local/bin/meshq-mcp",
      "env": {
        "MESHOPTIXIQ_API_URL": "http://localhost:8000",
        "MESHOPTIXIQ_API_KEY": "mq_live_...",
        "GRAPH_BACKEND": "neo4j",
        "NEO4J_URI": "bolt://localhost:7687",
        "NEO4J_USER": "neo4j",
        "NEO4J_PASSWORD": "your-password"
      }
    }
  }
}

Claude Code: claude mcp add meshoptixiq -e MESHOPTIXIQ_API_URL=http://localhost:8000 -e MESHOPTIXIQ_API_KEY=mq_live_... -e GRAPH_BACKEND=neo4j -e NEO4J_URI=bolt://localhost:7687 -e NEO4J_PASSWORD=your-password -- meshq-mcp

No local Python? The container image runs the same server: docker run --rm -i -e MESHOPTIXIQ_API_URL -e MESHOPTIXIQ_API_KEY -e GRAPH_BACKEND -e NEO4J_URI -e NEO4J_PASSWORD meshoptixiq/meshoptixiq:0.26.0 meshq-mcp.

A standalone, hosted-connector edition of the MeshOptixIQ MCP server is coming soon and will be listed in the Claude connectors directory; until then, use the bundled meshq-mcp.

---

Development

Running Tests

cd network_discovery
pytest tests/ -v
# 2,500+ tests — unit, integration, e2e

Neither psycopg/psycopg_pool nor a real database are required for the test suite — all database interactions are mocked.

Backend parity tests (real Neo4j / PostgreSQL)

The unit suite only exercises the InMemory backend. tests/integration/test_backend_parity.py ingests the demo fixtures into live backends and runs every registry query through provider.execute_query with the query file text (the same path as POST /queries/{name}/execute), asserting that every query executes, that core queries (topology, blast radius, BGP, inventory, firewall, hygiene) return rows with non-null key columns, and that row counts match InMemory. It is skipped unless the backends are configured, and wipes the target databases:

docker run -d --rm --name parity-neo4j -p 17687:7687 -e NEO4J_AUTH=neo4j/paritypass123 neo4j:5
docker run -d --rm --name parity-pg -p 15432:5432 -e POSTGRES_PASSWORD=paritypass123 postgres:16
pip install 'psycopg[binary]' psycopg_pool
NEO4J_TEST_URI=bolt://localhost:17687 NEO4J_TEST_PASSWORD=paritypass123 \
POSTGRES_TEST_DSN=postgresql://postgres:paritypass123@localhost:15432/postgres \
  pytest tests/integration -m integration -v

CI runs it in the backend-parity job of .github/workflows/docker-publish.yml with neo4j:5 and postgres:16 service containers.

Project Structure

network_discovery/
├── network_discovery/
│   ├── api/
│   │   ├── main.py                 # FastAPI app, lifespan, middleware
│   │   ├── auth.py                 # API key + OIDC authentication
│   │   ├── cluster.py              # Redis client factory
│   │   ├── collect_queue.py        # Redis work queue (dispatch/pop/complete)
│   │   ├── dependencies.py         # DB provider injection
│   │   ├── snapshot_store.py       # Metric ring buffer (local + Redis)
│   │   └── routes/
│   │       ├── queries.py          # /queries/* endpoints
│   │       ├── health.py           # /health/* endpoints
│   │       ├── admin.py            # /admin/* endpoints
│   │       ├── collect.py          # /collect/* endpoints
│   │       ├── events.py           # SSE /events endpoint
│   │       ├── history.py          # /history/snapshots + /history/diff endpoints
│   │       ├── whatif.py           # /graph/whatif endpoint (what-if impact analysis)
│   │       └── inventory.py        # /inventory/ansible endpoint
│   ├── collectors/
│   │   └── netmiko_collector.py    # SSH collection + --worker loop
│   ├── enterprise/
│   │   ├── auth/
│   │   │   ├── oidc.py             # OIDC JWT validation
│   │   │   └── rbac.py             # RBAC policy loader (mtime + pub/sub)
│   │   ├── audit/logger.py         # Splunk/ES/webhook audit
│   │   ├── integrations/
│   │   │   ├── netbox.py           # NetBox sync
│   │   │   └── soar.py             # SOAR webhook dispatcher
│   │   ├── observability/tracing.py  # DD/NR/OTLP tracing
│   │   └── secrets/resolver.py     # Vault/AWS/Azure/GCP secrets
│   ├── graph/
│   │   ├── provider.py             # Abstract GraphProvider interface
│   │   ├── neo4j_provider.py       # Neo4j MERGE-based ingestion
│   │   └── postgres_provider.py    # PostgreSQL pool + ON CONFLICT
│   ├── mcp/
│   │   └── server.py               # MCP server (23 tools)
│   ├── parsers/
│   │   ├── base.py                 # BaseParser ABC
│   │   ├── registry.py             # @register decorator + dispatch
│   │   ├── cisco_ios/
│   │   ├── juniper_junos/
│   │   ├── arista_eos/
│   │   ├── paloalto_panos/         # security policies, address/service objects
│   │   ├── fortinet/               # firewall policies, address objects
│   │   ├── cisco_asa/              # ACLs, object groups
│   │   ├── cisco_ftd/
│   │   └── checkpoint_gaia/
│   ├── normalization/
│   │   ├── models.py               # Canonical Pydantic models (incl. firewall)
│   │   └── normalize.py            # Dedup, subnet derivation, integrity
│   ├── queries/
│   │   ├── registry.yaml           # 25 query definitions
│   │   └── v1/                     # Cypher + SQL per query
│   ├── licensing/
│   │   ├── verifier.py             # License client (Cython-compiled)
│   │   └── gates.py                # Plan feature gating (Cython-compiled)
│   ├── local_api_client.py         # get_license_status() — CLI + MCP license helper
│   ├── cli.py                      # meshq entry point
│   ├── ingest.py                   # Ingestion orchestrator
│   └── scanner.py                  # CIDR TCP scanner
├── tests/                          # 2,500+ tests (unit + integration + e2e)
├── pyproject.toml
└── README.md

Code Quality

ruff check .
mypy network_discovery/

---

Licensing

Only the server side needs the license key: the API and, in split deployments, the ingest / graph / collect / AI services (network_discovery.*_app), which validate it at startup and re-validate periodically exactly like the API. Give every server process the same key and the same MESHQ_INSTALL_ID. The CLI and MCP resolve their plan tier by calling GET /health/license on the API (root key or a PAT), so a single key covers all tools.

# Set on the API server
export MESHOPTIXIQ_LICENSE_KEY=your-key

# Persistent file on the API server host
mkdir -p ~/.meshoptixiq
echo "your-key" > ~/.meshoptixiq/license.key
chmod 600 ~/.meshoptixiq/license.key

"Devices" counts API installs, not pods. Each install is identified by MESHQ_INSTALL_ID (set it to the same value on every replica) or a UUID persisted in <data dir>/install_id (MESHQ_DATA_DIR, default ./data — /app/data in the Docker image; keep it on a persistent volume). Plan changes made in the customer portal apply within MESHQ_LICENSE_REVALIDATE_SECONDS (default 3600) without a restart.

Point the CLI and MCP at the API server if it is not running locally:

export MESHOPTIXIQ_API_URL=http://api-server:8000

Tier	Devices	Network Devices	API Queries	Firewall Queries	MCP Server
Community	1	5	Core (REST / web UI)	—	—
Starter	1	100	Core (REST, gRPC, GraphQL)	—	—
Pro / Trial	5	750	✅	✅	✅
Enterprise	Unlimited	Unlimited	✅	✅	✅

Check the current plan and expiry at any time:

meshq license           # shows plan, expiry, feature flags
curl http://localhost:8000/health/license