push generator

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darnodo
2025-11-14 18:31:31 +01:00
parent edc40dede6
commit 1df82d4f32
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infrahub/.infrahub.yml Normal file
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# yaml-language-server: $schema=https://schema.infrahub.app/python-sdk/repository-config/latest.json
---
# Infrahub Repository Configuration
# This file defines generators and queries for datacenter automation
generator_definitions:
- name: datacenter_generator
file_path: "generators/datacenter_generator.py"
class_name: DatacenterGenerator
query: datacenter_query
targets: datacenters
convert_query_response: true
parameters:
datacenter_id: "id"
queries:
- name: datacenter_query
file_path: "generators/datacenter_query.gql"

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"""
Datacenter Generator for Infrahub
==================================
This generator creates a complete datacenter fabric topology including:
- Spine switches (Layer 3 core)
- Leaf switches (Aggregation with VXLAN)
- Border leaf switches (DCI gateway capable)
- Access switches (Rack ToR)
- MLAG domains for leaf and border pairs
- IP prefixes and addresses
- BGP configuration
- Interfaces with proper connectivity
Architecture:
- Spine-Leaf topology with MLAG leaf pairs
- eBGP underlay (spine ASN vs leaf pair ASNs)
- VXLAN/EVPN overlay on leafs
- Optional DCI connectivity via border leafs (eth12 shutdown by default)
"""
import math
from typing import Any, Dict, List
from infrahub_sdk.generator import InfrahubGenerator
class DatacenterGenerator(InfrahubGenerator):
"""
Generates complete datacenter fabric topology from InfraDatacenter object.
"""
async def generate(self, data: dict) -> None:
"""
Main generator entry point.
Args:
data: GraphQL query response with datacenter details
"""
# Get datacenter object from query response
dc = self.nodes[0]
self.log.info(f"🚀 Starting datacenter generation for: {dc.name.value}")
self.log.info(f" DC ID: {dc.dc_id.value}")
self.log.info(f" Number of bays: {dc.number_of_bays.value}")
self.log.info(f" Spine count: {dc.spine_count.value}")
# Step 1: Calculate derived values
self.log.info("📊 Calculating topology parameters...")
topology = self._calculate_topology(dc)
# Step 2: Create IP prefixes
self.log.info("🌐 Creating IP prefixes...")
await self._create_ip_prefixes(dc, topology)
# Step 3: Create spine switches
self.log.info("🔴 Creating spine switches...")
spines = await self._create_spines(dc, topology)
# Step 4: Create leaf switches and MLAG pairs
self.log.info("🔵 Creating leaf switches and MLAG pairs...")
leaf_pairs = await self._create_leaf_pairs(dc, topology)
# Step 5: Create border leaf switches (if enabled)
border_pair = None
if dc.has_border_leafs.value:
self.log.info("🟣 Creating border leaf switches...")
border_pair = await self._create_border_pair(dc, topology)
# Step 6: Create access switches
self.log.info("🟡 Creating access switches...")
access_switches = await self._create_access_switches(dc, topology, leaf_pairs)
# Step 7: Create spine-to-leaf interfaces and BGP sessions
self.log.info("🔗 Creating spine-to-leaf connectivity...")
await self._create_spine_leaf_connectivity(
dc, spines, leaf_pairs, border_pair, topology
)
# Step 8: Create leaf-to-access connectivity
self.log.info("🔗 Creating leaf-to-access connectivity...")
await self._create_leaf_access_connectivity(
dc, leaf_pairs, access_switches, topology
)
# Step 9: Update datacenter computed attributes
self.log.info("✍️ Updating datacenter computed attributes...")
await self._update_datacenter_computed_fields(dc, topology)
# Summary
total_devices = (
len(spines)
+ sum(len(pair["devices"]) for pair in leaf_pairs)
+ len(access_switches)
)
if border_pair:
total_devices += len(border_pair["devices"])
self.log.info("=" * 60)
self.log.info(f"✅ Datacenter '{dc.name.value}' generation complete!")
self.log.info(f" Total devices: {total_devices}")
self.log.info(f" - Spines: {len(spines)}")
self.log.info(
f" - Leaf pairs: {len(leaf_pairs)} ({sum(len(pair['devices']) for pair in leaf_pairs)} devices)"
)
if border_pair:
self.log.info(f" - Border leafs: {len(border_pair['devices'])}")
self.log.info(f" - Access switches: {len(access_switches)}")
self.log.info("=" * 60)
def _calculate_topology(self, dc) -> Dict[str, Any]:
"""
Calculate topology parameters based on datacenter configuration.
Returns:
Dictionary with calculated values:
- leaf_pair_count: Number of MLAG leaf pairs needed
- total_leaf_count: Total number of leaf switches
- total_access_count: Total number of access switches
- spine_asn: ASN for spine switches
- base_leaf_asn: Starting ASN for leaf pairs
"""
dc_id = dc.dc_id.value
number_of_bays = dc.number_of_bays.value
bgp_base_asn = dc.bgp_base_asn.value
# Calculate leaf pairs: ceil(bays / 2)
# Each pair serves 2 bays
leaf_pair_count = math.ceil(number_of_bays / 2)
total_leaf_count = leaf_pair_count * 2
total_access_count = number_of_bays
# Calculate ASNs
# Spine ASN: base + (dc_id * 100)
# Example: DC1 → 65000 + 100 = 65100
spine_asn = (
dc.spine_asn.value if dc.spine_asn.value else bgp_base_asn + (dc_id * 100)
)
# Leaf pair ASNs: spine_asn + pair_number
# Example: DC1 Pair 1 → 65100 + 1 = 65101
base_leaf_asn = spine_asn + 1
# Border leaf ASN: base_leaf_asn + leaf_pair_count
border_asn = base_leaf_asn + leaf_pair_count
topology = {
"leaf_pair_count": leaf_pair_count,
"total_leaf_count": total_leaf_count,
"total_access_count": total_access_count,
"spine_asn": spine_asn,
"base_leaf_asn": base_leaf_asn,
"border_asn": border_asn,
}
self.log.debug(f"Topology calculated: {topology}")
return topology
async def _create_ip_prefixes(self, dc, topology: Dict[str, Any]) -> None:
"""
Create IP prefixes for the datacenter.
Prefix allocation scheme:
- 10.{dc_id}.0.0/24 - Loopback0 (router IDs)
- 10.{dc_id}.1.0/24 - Loopback1 (VTEP addresses)
- 10.{dc_id}.10.0/24 - Spine-Leaf P2P links
- 10.{dc_id}.20.0/24 - Leaf-Access P2P links
- 10.{dc_id}.255.0/24 - MLAG peer links
- 10.255.0.0/24 - Management IPs
"""
dc_id = dc.dc_id.value
dc_name = dc.name.value
# TODO: Get or create namespace
# For now, assume default namespace
prefixes = [
{
"prefix": f"10.{dc_id}.0.0/24",
"description": f"Loopback0 addresses for {dc_name}",
"prefix_type": "loopback",
},
{
"prefix": f"10.{dc_id}.1.0/24",
"description": f"VTEP Loopback1 addresses for {dc_name}",
"prefix_type": "vtep",
},
{
"prefix": f"10.{dc_id}.10.0/24",
"description": f"Spine-Leaf P2P links for {dc_name}",
"prefix_type": "p2p",
},
{
"prefix": f"10.{dc_id}.20.0/24",
"description": f"Leaf-Access P2P links for {dc_name}",
"prefix_type": "p2p",
},
{
"prefix": f"10.{dc_id}.255.0/24",
"description": f"MLAG peer links for {dc_name}",
"prefix_type": "mlag",
},
]
for prefix_data in prefixes:
prefix_obj = await self.client.create(
kind="IpamIPPrefix",
data={
"prefix": prefix_data["prefix"],
"description": prefix_data["description"],
"prefix_type": prefix_data["prefix_type"],
"status": "active",
"datacenter": dc.id,
},
)
await prefix_obj.save(allow_upsert=True)
self.log.debug(
f" Created prefix: {prefix_data['prefix']} ({prefix_data['prefix_type']})"
)
async def _create_spines(self, dc, topology: Dict[str, Any]) -> List[Any]:
"""
Create spine switches.
Naming: spine{1..N}-{DC_NAME}
IPs: 10.{dc_id}.0.{10+spine_num}/32
"""
dc_id = dc.dc_id.value
dc_name = dc.name.value
spine_count = dc.spine_count.value
spine_asn = topology["spine_asn"]
spines = []
for spine_num in range(1, spine_count + 1):
hostname = f"spine{spine_num}-{dc_name}"
loopback0_ip = f"10.{dc_id}.0.{10 + spine_num}"
mgmt_ip = f"10.255.0.{10 + spine_num}"
# Create device
device = await self.client.create(
kind="NetworkDevice",
data={
"hostname": hostname,
"description": f"Spine switch {spine_num} in {dc_name}",
"role": "spine",
"platform": "cEOS",
"datacenter": dc.id,
"site": dc.site.node.id,
"status": "active",
"spine_id": spine_num,
"management_ip_template": mgmt_ip,
},
)
await device.save(allow_upsert=True)
# Create Loopback0 interface
lo0 = await self.client.create(
kind="NetworkInterface",
data={
"name": "Loopback0",
"description": f"Router ID for {hostname}",
"interface_type": "loopback",
"enabled": True,
"device": device.id,
"loopback_id": 0,
"loopback_purpose": "router_id",
},
)
await lo0.save(allow_upsert=True)
# Create IP address for Loopback0
lo0_ip = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{loopback0_ip}/32",
"description": f"Loopback0 for {hostname}",
"status": "active",
"interface": lo0.id,
},
)
await lo0_ip.save(allow_upsert=True)
# Create BGP configuration
bgp_config = await self.client.create(
kind="NetworkBGPConfig",
data={
"asn": spine_asn,
"router_id": loopback0_ip,
"maximum_paths": 64,
"distance_external": 20,
"distance_internal": 200,
"ebgp_admin_distance": 200,
"default_ipv4_unicast": False,
"device": device.id,
},
)
await bgp_config.save(allow_upsert=True)
spines.append(
{
"device": device,
"loopback0": lo0,
"loopback0_ip": loopback0_ip,
"bgp_config": bgp_config,
}
)
self.log.info(
f" ✅ Created spine: {hostname} (ASN: {spine_asn}, Loopback0: {loopback0_ip})"
)
return spines
async def _create_leaf_pairs(
self, dc, topology: Dict[str, Any]
) -> List[Dict[str, Any]]:
"""
Create leaf switch pairs with MLAG configuration.
Naming: leaf{1..N}-{DC_NAME}
IPs:
- Loopback0: 10.{dc_id}.0.{20+leaf_num}/32
- Loopback1: 10.{dc_id}.1.{20+pair_num}/32 (shared)
"""
dc_id = dc.dc_id.value
dc_name = dc.name.value
leaf_pair_count = topology["leaf_pair_count"]
base_leaf_asn = topology["base_leaf_asn"]
leaf_pairs = []
for pair_num in range(1, leaf_pair_count + 1):
pair_asn = base_leaf_asn + (pair_num - 1)
vtep_ip = f"10.{dc_id}.1.{20 + pair_num}"
# Create MLAG domain
mlag_domain = await self.client.create(
kind="NetworkMLAGDomain",
data={
"domain_id": f"MLAG-leaf{pair_num * 2 - 1}-{pair_num * 2}-{dc_name}",
"local_interface": "Vlan4094",
"peer_interface": "Vlan4094",
"peer_address": f"10.{dc_id}.255.{pair_num * 4 - 2}", # Will be set properly per device
"status": "active",
},
)
await mlag_domain.save(allow_upsert=True)
pair_devices = []
# Create 2 leafs in the pair (odd and even)
for side_num in range(2):
leaf_num = pair_num * 2 - 1 + side_num # 1, 2, 3, 4...
hostname = f"leaf{leaf_num}-{dc_name}"
loopback0_ip = f"10.{dc_id}.0.{20 + leaf_num}"
mgmt_ip = f"10.255.0.{20 + leaf_num}"
mlag_side = "left" if side_num == 0 else "right"
# Create device
device = await self.client.create(
kind="NetworkDevice",
data={
"hostname": hostname,
"description": f"Leaf switch {leaf_num} in {dc_name} (Pair {pair_num})",
"role": "leaf",
"platform": "cEOS",
"datacenter": dc.id,
"site": dc.site.node.id,
"status": "active",
"leaf_id": leaf_num,
"mlag_side": mlag_side,
"mlag_domain": mlag_domain.id,
"management_ip_template": mgmt_ip,
},
)
await device.save(allow_upsert=True)
# Create Loopback0
lo0 = await self.client.create(
kind="NetworkInterface",
data={
"name": "Loopback0",
"description": f"Router ID for {hostname}",
"interface_type": "loopback",
"enabled": True,
"device": device.id,
"loopback_id": 0,
"loopback_purpose": "router_id",
},
)
await lo0.save(allow_upsert=True)
lo0_ip = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{loopback0_ip}/32",
"description": f"Loopback0 for {hostname}",
"status": "active",
"interface": lo0.id,
},
)
await lo0_ip.save(allow_upsert=True)
# Create Loopback1 (VTEP) - shared IP
lo1 = await self.client.create(
kind="NetworkInterface",
data={
"name": "Loopback1",
"description": f"VTEP for {hostname} (shared with pair)",
"interface_type": "loopback",
"enabled": True,
"device": device.id,
"loopback_id": 1,
"loopback_purpose": "vtep",
},
)
await lo1.save(allow_upsert=True)
lo1_ip = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{vtep_ip}/32",
"description": f"VTEP shared for leaf pair {pair_num}",
"status": "active",
"interface": lo1.id,
},
)
await lo1_ip.save(allow_upsert=True)
# Create BGP configuration
bgp_config = await self.client.create(
kind="NetworkBGPConfig",
data={
"asn": pair_asn,
"router_id": loopback0_ip,
"maximum_paths": 64,
"distance_external": 20,
"distance_internal": 200,
"ebgp_admin_distance": 200,
"default_ipv4_unicast": False,
"device": device.id,
},
)
await bgp_config.save(allow_upsert=True)
# Create VXLAN interface
vxlan1 = await self.client.create(
kind="NetworkVXLANTunnel",
data={
"name": "Vxlan1",
"source_ip": vtep_ip,
"udp_port": 4789,
"device": device.id,
},
)
await vxlan1.save(allow_upsert=True)
# Create EVPN config
evpn = await self.client.create(
kind="NetworkEVPNConfig",
data={
"vni_auto": True,
"device": device.id,
},
)
await evpn.save(allow_upsert=True)
pair_devices.append(
{
"device": device,
"loopback0": lo0,
"loopback0_ip": loopback0_ip,
"loopback1": lo1,
"vtep_ip": vtep_ip,
"bgp_config": bgp_config,
}
)
self.log.info(
f" ✅ Created leaf: {hostname} (ASN: {pair_asn}, VTEP: {vtep_ip})"
)
leaf_pairs.append(
{
"pair_num": pair_num,
"asn": pair_asn,
"mlag_domain": mlag_domain,
"devices": pair_devices,
"vtep_ip": vtep_ip,
}
)
return leaf_pairs
async def _create_border_pair(self, dc, topology: Dict[str, Any]) -> Dict[str, Any]:
"""
Create border leaf pair for DCI connectivity.
Naming: borderleaf{1,2}-{DC_NAME}
IPs: 10.{dc_id}.0.{30+num}/32
eth12: Created but shutdown by default
"""
dc_id = dc.dc_id.value
dc_name = dc.name.value
border_asn = topology["border_asn"]
border_count = dc.border_leaf_count.value
# Create MLAG domain
mlag_domain = await self.client.create(
kind="NetworkMLAGDomain",
data={
"domain_id": f"MLAG-border-{dc_name}",
"local_interface": "Vlan4094",
"peer_interface": "Vlan4094",
"peer_address": f"10.{dc_id}.255.254",
"status": "active",
},
)
await mlag_domain.save(allow_upsert=True)
border_devices = []
for border_num in range(1, border_count + 1):
hostname = f"borderleaf{border_num}-{dc_name}"
loopback0_ip = f"10.{dc_id}.0.{30 + border_num}"
mgmt_ip = f"10.255.0.{30 + border_num}"
mlag_side = "left" if border_num == 1 else "right"
# Create device
device = await self.client.create(
kind="NetworkDevice",
data={
"hostname": hostname,
"description": f"Border leaf {border_num} in {dc_name} (DCI capable)",
"role": "borderleaf",
"platform": "cEOS",
"datacenter": dc.id,
"site": dc.site.node.id,
"status": "active",
"mlag_side": mlag_side,
"mlag_domain": mlag_domain.id,
"management_ip_template": mgmt_ip,
},
)
await device.save(allow_upsert=True)
# Create Loopback0
lo0 = await self.client.create(
kind="NetworkInterface",
data={
"name": "Loopback0",
"description": f"Router ID for {hostname}",
"interface_type": "loopback",
"enabled": True,
"device": device.id,
"loopback_id": 0,
"loopback_purpose": "router_id",
},
)
await lo0.save(allow_upsert=True)
lo0_ip = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{loopback0_ip}/32",
"description": f"Loopback0 for {hostname}",
"status": "active",
"interface": lo0.id,
},
)
await lo0_ip.save(allow_upsert=True)
# Create eth12 for DCI (shutdown by default)
eth12 = await self.client.create(
kind="NetworkInterface",
data={
"name": "Ethernet12",
"description": "DCI interface to DCI switch (shutdown unless dci_enabled=true)",
"interface_type": "ethernet",
"enabled": dc.dci_enabled.value if dc.dci_enabled.value else False,
"mtu": dc.mtu.value,
"device": device.id,
},
)
await eth12.save(allow_upsert=True)
# Create BGP configuration
bgp_config = await self.client.create(
kind="NetworkBGPConfig",
data={
"asn": border_asn,
"router_id": loopback0_ip,
"maximum_paths": 64,
"distance_external": 20,
"distance_internal": 200,
"ebgp_admin_distance": 200,
"default_ipv4_unicast": False,
"device": device.id,
},
)
await bgp_config.save(allow_upsert=True)
border_devices.append(
{
"device": device,
"loopback0": lo0,
"loopback0_ip": loopback0_ip,
"bgp_config": bgp_config,
"eth12": eth12,
}
)
self.log.info(
f" ✅ Created border leaf: {hostname} (ASN: {border_asn}, eth12: {'enabled' if dc.dci_enabled.value else 'shutdown'})"
)
return {
"asn": border_asn,
"mlag_domain": mlag_domain,
"devices": border_devices,
}
async def _create_access_switches(
self, dc, topology: Dict[str, Any], leaf_pairs: List[Dict[str, Any]]
) -> List[Any]:
"""
Create access switches and assign to leaf pairs.
Assignment: Round-robin to leaf pairs (2 access per pair)
Naming: access{bay_num}-{DC_NAME}
"""
dc_name = dc.name.value
number_of_bays = dc.number_of_bays.value
access_switches = []
for bay_num in range(1, number_of_bays + 1):
hostname = f"access{bay_num}-{dc_name}"
mgmt_ip = f"10.255.0.{100 + bay_num}"
# Assign to leaf pair (round-robin)
assigned_pair_idx = (bay_num - 1) // 2
assigned_pair = leaf_pairs[assigned_pair_idx]
# Create device
device = await self.client.create(
kind="NetworkDevice",
data={
"hostname": hostname,
"description": f"Access switch for Bay {bay_num} in {dc_name}",
"role": "access",
"platform": "cEOS",
"datacenter": dc.id,
"site": dc.site.node.id,
"status": "active",
"management_ip_template": mgmt_ip,
},
)
await device.save(allow_upsert=True)
access_switches.append(
{
"device": device,
"bay_num": bay_num,
"assigned_pair": assigned_pair,
}
)
self.log.info(
f" ✅ Created access: {hostname} (Bay {bay_num} → Leaf Pair {assigned_pair['pair_num']})"
)
return access_switches
async def _create_spine_leaf_connectivity(
self,
dc,
spines: List[Any],
leaf_pairs: List[Dict[str, Any]],
border_pair: Dict[str, Any],
topology: Dict[str, Any],
) -> None:
"""
Create interfaces and BGP sessions between spines and leafs (including borders).
Each leaf connects to ALL spines.
Interface assignment:
- Spine side: Ethernet{1..N} per leaf
- Leaf side: Ethernet{1..3} for 3 spines
"""
dc_id = dc.dc_id.value
# P2P IP allocator (starting from 10.{dc_id}.10.0/31)
p2p_counter = 0
# Collect all leaf devices (regular + border)
all_leaf_devices = []
for pair in leaf_pairs:
all_leaf_devices.extend(pair["devices"])
if border_pair:
all_leaf_devices.extend(border_pair["devices"])
# For each spine
for spine_idx, spine in enumerate(spines):
spine_device = spine["device"]
# Connect to each leaf
for leaf_idx, leaf in enumerate(all_leaf_devices):
leaf_device = leaf["device"]
# Allocate P2P subnet
spine_ip = f"10.{dc_id}.10.{p2p_counter * 2}"
leaf_ip = f"10.{dc_id}.10.{p2p_counter * 2 + 1}"
p2p_counter += 1
# Spine interface
spine_eth = f"Ethernet{leaf_idx + 1}"
spine_int = await self.client.create(
kind="NetworkInterface",
data={
"name": spine_eth,
"description": f"To {leaf_device.hostname.value}",
"interface_type": "ethernet",
"enabled": True,
"mtu": dc.mtu.value,
"device": spine_device.id,
},
)
await spine_int.save(allow_upsert=True)
spine_ip_obj = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{spine_ip}/31",
"description": f"{spine_device.hostname.value} to {leaf_device.hostname.value}",
"status": "active",
"interface": spine_int.id,
},
)
await spine_ip_obj.save(allow_upsert=True)
# Leaf interface
leaf_eth = f"Ethernet{spine_idx + 1}"
leaf_int = await self.client.create(
kind="NetworkInterface",
data={
"name": leaf_eth,
"description": f"To {spine_device.hostname.value}",
"interface_type": "ethernet",
"enabled": True,
"mtu": dc.mtu.value,
"device": leaf_device.id,
},
)
await leaf_int.save(allow_upsert=True)
leaf_ip_obj = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{leaf_ip}/31",
"description": f"{leaf_device.hostname.value} to {spine_device.hostname.value}",
"status": "active",
"interface": leaf_int.id,
},
)
await leaf_ip_obj.save(allow_upsert=True)
# Create BGP neighbor on spine
spine_bgp = spine["bgp_config"]
spine_neighbor = await self.client.create(
kind="NetworkBGPNeighbor",
data={
"neighbor_ip": leaf_ip,
"description": f"To {leaf_device.hostname.value}",
"enabled": True,
"peer_type": "ebgp",
"bgp_config": spine_bgp.id,
"local_interface": spine_int.id,
"remote_device": leaf_device.id,
},
)
await spine_neighbor.save(allow_upsert=True)
# Create BGP neighbor on leaf
leaf_bgp = leaf["bgp_config"]
leaf_neighbor = await self.client.create(
kind="NetworkBGPNeighbor",
data={
"neighbor_ip": spine_ip,
"description": f"To {spine_device.hostname.value}",
"enabled": True,
"peer_type": "ebgp",
"bgp_config": leaf_bgp.id,
"local_interface": leaf_int.id,
"remote_device": spine_device.id,
},
)
await leaf_neighbor.save(allow_upsert=True)
self.log.debug(f" Created {p2p_counter} spine-leaf P2P links")
async def _create_leaf_access_connectivity(
self,
dc,
leaf_pairs: List[Dict[str, Any]],
access_switches: List[Any],
topology: Dict[str, Any],
) -> None:
"""
Create dual-homed connectivity from access switches to leaf pairs.
Each access connects to both leafs in assigned pair:
- access eth1 → leaf_left eth7
- access eth2 → leaf_right eth7
"""
dc_id = dc.dc_id.value
# P2P IP allocator (starting from 10.{dc_id}.20.0/31)
p2p_counter = 0
for access in access_switches:
access_device = access["device"]
assigned_pair = access["assigned_pair"]
# Connect to both leafs in the pair
for link_num, leaf_data in enumerate(assigned_pair["devices"], start=1):
leaf_device = leaf_data["device"]
# Allocate P2P subnet
leaf_ip = f"10.{dc_id}.20.{p2p_counter * 2}"
access_ip = f"10.{dc_id}.20.{p2p_counter * 2 + 1}"
p2p_counter += 1
# Leaf interface (eth7 for access connectivity)
leaf_int = await self.client.create(
kind="NetworkInterface",
data={
"name": "Ethernet7",
"description": f"To {access_device.hostname.value}",
"interface_type": "ethernet",
"enabled": True,
"mtu": dc.mtu.value,
"device": leaf_device.id,
},
)
await leaf_int.save(allow_upsert=True)
leaf_ip_obj = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{leaf_ip}/31",
"description": f"{leaf_device.hostname.value} to {access_device.hostname.value}",
"status": "active",
"interface": leaf_int.id,
},
)
await leaf_ip_obj.save(allow_upsert=True)
# Access interface
access_eth = f"Ethernet{link_num}"
access_int = await self.client.create(
kind="NetworkInterface",
data={
"name": access_eth,
"description": f"To {leaf_device.hostname.value}",
"interface_type": "ethernet",
"enabled": True,
"mtu": dc.mtu.value,
"device": access_device.id,
},
)
await access_int.save(allow_upsert=True)
access_ip_obj = await self.client.create(
kind="IpamIPAddress",
data={
"address": f"{access_ip}/31",
"description": f"{access_device.hostname.value} to {leaf_device.hostname.value}",
"status": "active",
"interface": access_int.id,
},
)
await access_ip_obj.save(allow_upsert=True)
self.log.debug(f" Created {p2p_counter} leaf-access P2P links")
async def _update_datacenter_computed_fields(
self, dc, topology: Dict[str, Any]
) -> None:
"""
Update the datacenter object with computed values.
"""
# Update computed attributes
dc.leaf_pair_count.value = topology["leaf_pair_count"]
dc.total_leaf_count.value = topology["total_leaf_count"]
dc.total_access_count.value = topology["total_access_count"]
await dc.save()
self.log.debug(
f" Updated computed fields: leaf_pair_count={topology['leaf_pair_count']}, "
f"total_leaf_count={topology['total_leaf_count']}, "
f"total_access_count={topology['total_access_count']}"
)

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@@ -0,0 +1,55 @@
# GraphQL query to fetch InfraDatacenter with all required attributes
# This query retrieves all necessary data for the datacenter generator
query DatacenterQuery($datacenter_id: String!) {
InfraDatacenter(ids: [$datacenter_id]) {
edges {
node {
id
__typename
# Basic attributes
name { value }
dc_id { value }
description { value }
# Topology configuration
number_of_bays { value }
spine_count { value }
border_leaf_count { value }
# Network configuration
parent_subnet { value }
bgp_base_asn { value }
spine_asn { value }
mlag_domain_id { value }
mtu { value }
# DCI configuration
dci_enabled { value }
dci_remote_dc_id { value }
has_border_leafs { value }
# Status
status { value }
# Relationships
site {
node {
id
__typename
name { value }
organization {
node {
id
__typename
name { value }
asn_base { value }
}
}
}
}
}
}
}
}