def test_duplicate_global_unique(self):
IPAddress.objects.create(address=netaddr.IPNetwork('192.0.2.1/24'))
duplicate_ip = IPAddress(address=netaddr.IPNetwork('192.0.2.1/24'))
self.assertRaises(ValidationError, duplicate_ip.clean)
def store_original_ipaddress(instance: IPAddress, **_kwargs):
instance.before_save = IPAddress.objects.filter(pk=instance.pk).first()
def run(self, data, commit):
# Create the device
device = Device(name=data['business_name'],
device_role_id=self.DEVICE_ROLE_ID,
device_type_id=data["hardware_choice"],
platform_id=self.PLATFORM_ID,
site_id=self.SITE_ID)
device.save()
interfaces = Interface.objects.filter(device_id=device.id)
enabled_interfaces = []
mgmt_intf = interfaces.get(name="b107")
enabled_interfaces.append(mgmt_intf)
uplk_intf = interfaces.get(name="ether10")
enabled_interfaces.append(uplk_intf)
uplk_intf.mode = "tagged"
uplk_intf.tagged_vlans.set([self.INET_VLAN, self.MGMT_VLAN])
uplk_intf.description = "Uplink"
uplk_intf.save()
inet_intf = interfaces.get(name="ether1")
enabled_interfaces.append(inet_intf)
inet_intf.description = "Internet"
inet_intf.mode = "access"
inet_intf.untagged_vlan = self.INET_VLAN
inet_intf.save()
mgmt_intf.save()
for intf in interfaces:
intf.enabled = False
intf.save()
for intf in enabled_interfaces:
intf.enabled = True
intf.mtu = 1500
intf.save()
available_ip = Prefix.objects.get(
vlan=self.MGMT_VLAN).get_first_available_ip()
ip = IPAddress(
address=available_ip,
assigned_object_type=ContentType.objects.get_for_model(Interface),
assigned_object_id=mgmt_intf.id)
ip.save()
device.primary_ip4_id = ip.id
device.primary_ip_id = ip.id
device.comments = data['comments']
device.save()
# ############
if (not data["skip_zabbix"] and commit):
# Post to Zabbix API to create host in mikrotik group and ICMP
# template
try:
hostid = self.ZAPI.host.create(
host=data["business_name"],
interfaces=dict(type=2,
main=1,
useip=1,
ip=available_ip.replace("/24", ""),
port=161,
dns="",
details=dict(
version="1",
bulk="0",
community=self.SNMP_COMMUNITY)),
groups=dict(groupid=15),
templates=dict(templateid=10186))
self.log_info("zabbix configured successfully")
except Exception as e:
self.log_info("failed to configure zabbix {0}".format(e))
if (not data["skip_uplink_port"] and commit):
try:
agg_switches = Device.objects.filter(
site=data["uplink_site"],
device_role_id=self.AGG_ROLE_ID,
status="active")
selected_interface = ""
for agg_switch in agg_switches:
interfaces = Interface.objects.filter(
device_id=agg_switch.id)
for interface in interfaces:
if (interface.connection_status is not True
and interface.enabled is True
and interface.description == ''
and interface.type == '1000base-x-sfp'):
selected_interface = interface
break
if selected_interface != "":
selected_interface.enabled = True
selected_interface.description = device.name
selected_interface.mode = "tagged"
selected_interface.tagged_vlans.set(
[self.INET_VLAN, self.MGMT_VLAN])
selected_interface.save()
cable = Cable(
termination_a=uplk_intf,
termination_b=selected_interface,
)
cable.save()
self.log_info(
"uplink switch chosen. Port {0} on {1}".format(
selected_interface.name, agg_switch.name))
break
if selected_interface == "":
self.log_failure("No available aggregate port found. \
No aggregate port assigned.")
except BaseException:
self.log("failed to document uplink switch")
self.log_success("Created {0}".format(device.name))
def test_duplicate_global(self):
IPAddress.objects.create(address=netaddr.IPNetwork('192.0.2.1/24'))
duplicate_ip = IPAddress(address=netaddr.IPNetwork('192.0.2.1/24'))
self.assertIsNone(duplicate_ip.clean())
def setup_bbr(self, site, rack, vlan, site_no, node_id, asset_tag, sw):
bbr_name = "bbr-%s.in.ffho.net" % site.slug
try:
bbr = Device.objects.get(name=bbr_name)
self.log_info("Backbone router %s already present, carrying on." %
bbr_name)
return bbr
except Device.DoesNotExist:
pass
bbr_type = DeviceType.objects.get(manufacturer__name='PCEngines',
model='APU2c4-19"')
bbr = Device(
device_type=bbr_type,
device_role=DeviceRole.objects.get(name='Backbone router'),
platform=Platform.objects.get(name='Linux'),
name=bbr_name,
asset_tag=asset_tag,
status=DeviceStatusChoices.STATUS_PLANNED,
site=site,
rack=rack,
position=rack.u_height - 4,
face=DeviceFaceChoices.FACE_FRONT,
)
bbr.save()
self.log_success("Created backbone router %s" % bbr)
# Set bond0 mode to tagged-all, bundle enp<n>s0 into it and connect enp<n>s0 to switchport 10 + n
bbr_bond0 = Interface.objects.get(device=bbr, name="bond0")
bbr_bond0.mode = InterfaceModeChoices.MODE_TAGGED_ALL
bbr_bond0.save()
# Link enp1s0 and enp2s0 to switch port 10 and 11 respectivly
for n in [1, 2]:
bbr_port = Interface.objects.get(device=bbr, name="enp%ds0" % n)
sw_port = Interface.objects.get(device=sw, name=str(10 + n))
cable = Cable(termination_a=sw_port,
termination_b=bbr_port,
status=CableStatusChoices.STATUS_PLANNED)
cable.save()
bbr_port.lag = bbr_bond0
bbr_port.save()
self.log_success("Linked %s to %s" % (bbr, sw))
# Disable enp3s0
enp3s0 = Interface.objects.get(device=bbr, name="enp3s0")
enp3s0.enabled = False
enp3s0.save()
# Set up Mgmt vlan interface + IP
bbr_mgmt_iface = Interface(
device=bbr,
name="vlan%d" % vlan.vid,
type=InterfaceTypeChoices.TYPE_VIRTUAL,
)
bbr_mgmt_iface.save()
bbr_mgmt_ip = IPAddress(address="172.30.%d.1/24" % site_no,
interface=bbr_mgmt_iface)
bbr_mgmt_ip.save()
self.log_success("Configured %s on interface %s of %s" %
(bbr_mgmt_ip, bbr_mgmt_iface, bbr))
# Set up loopback IPs
bbr_lo_iface = Interface.objects.get(device=bbr, name="lo")
ipv4 = IPAddress(address="10.132.255.%s/32" % node_id,
interface=bbr_lo_iface)
ipv4.save()
ipv6 = IPAddress(address="2a03:2260:2342:ffff::%s/128" % node_id,
interface=bbr_lo_iface)
ipv6.save()
bbr.primary_ip4 = ipv4
bbr.primary_ip6 = ipv6
bbr.save()
self.log_success("Configured %s + %s on lo interface of %s" %
(ipv4, ipv6, bbr))
def sync_interfaces(device, interfaces):
""" Syncing interfaces
:param device: object NetBox Device
:param interfaces: list of lists
interfaces:
interface['NAME'] - Name of interface
interface['MAC'] - Mac-Address
interface['IP'] - List of IP-address
interface['MTU'] - MTU
interface['DESCR'] - Description of interfaces
interface['TYPE'] - Physical type of interface (Default 1G-cooper - cannot get from linux)
interface['STATE'] - UP|DOWN
:return: status: bool, message: string
"""
# Updated interface counter
count = 0
# Init interfaces filter
iface_filter = device.cf().get('Interfaces filter')
try:
iface_regex = re.compile(iface_filter)
except Exception as e:
logger.warning("Cannot parse regex for interface filter: {}".format(e))
iface_regex = re.compile('.*')
for interface in interfaces:
name = interface.get('NAME')
mac = interface.get('MAC')
ips = interface.get('IP')
mtu = interface.get('MTU')
description = interface.get('DESCR')
iface_type = interface.get('TYPE')
iface_state = interface.get('STATE')
# TODO: add a bonding support
iface_master = interface.get('BOND')
# Check interface filter
if not iface_regex.match(name):
logger.debug("Iface {} not match with regex".format(name))
continue
# Get interface from device - for check if exist
ifaces = device.interfaces.filter(name=name)
if ifaces:
logger.info(
"Interface {} is exist on device {}, will update".format(
name, device.name))
# TODO: I think, that only one item will be in filter, but need to add check for it
iface = ifaces[0]
else:
logger.info(
"Interface {} is not exist on device {}, will create new".
format(name, device.name))
iface = Interface(name=name)
iface.device = device
logger.info(
"Will be save next parameters: Name:{name}, MAC: {mac}, MTU: {mtu}, Descr: {description}"
.format(name=name, mac=mac, mtu=mtu, description=description))
if description:
iface.description = description
else:
iface.description = ''
iface.mac_address = mac
# MTU should be less 32767
if int(mtu) < MAX_MTU:
iface.mtu = mtu
logger.info("Interface state is {}".format(iface_state))
iface.enabled = 'up' in iface_state.lower()
iface.form_factor = _get_interface_type(name)
try:
iface.save()
except Exception as e:
logger.error("Cannot save interface, error is {}".format(e))
else:
count += 1
logger.info("Interface {} was succesfully saved".format(
name, device.name))
try:
_connect_interface(iface)
except:
logger.error("Problem with connection function")
# IP syncing
if len(ips) > 0:
for address in ips:
addr = IPAddress()
addr.interface = iface
logger.info("Address is: {}".format(addr))
# TODO: Need a test ipv6 addresses
try:
# tries to determine is this address exist
if iface.ip_addresses.filter(address=address):
continue
addr.address = IPNetwork(address)
addr.save()
except:
logger.warning(
"Cannot set address {} on interface".format(address))
if count == 0:
return False, "Can't update any interface, see a log for details"
return True, "Successfully updated {} interfaces".format(count)
def setUpTestData(cls):
cluster_types = (
ClusterType(name='Cluster Type 1', slug='cluster-type-1'),
ClusterType(name='Cluster Type 2', slug='cluster-type-2'),
ClusterType(name='Cluster Type 3', slug='cluster-type-3'),
)
ClusterType.objects.bulk_create(cluster_types)
cluster_groups = (
ClusterGroup(name='Cluster Group 1', slug='cluster-group-1'),
ClusterGroup(name='Cluster Group 2', slug='cluster-group-2'),
ClusterGroup(name='Cluster Group 3', slug='cluster-group-3'),
)
ClusterGroup.objects.bulk_create(cluster_groups)
regions = (
Region(name='Test Region 1', slug='test-region-1'),
Region(name='Test Region 2', slug='test-region-2'),
Region(name='Test Region 3', slug='test-region-3'),
)
for r in regions:
r.save()
site_groups = (
SiteGroup(name='Site Group 1', slug='site-group-1'),
SiteGroup(name='Site Group 2', slug='site-group-2'),
SiteGroup(name='Site Group 3', slug='site-group-3'),
)
for site_group in site_groups:
site_group.save()
sites = (
Site(name='Test Site 1',
slug='test-site-1',
region=regions[0],
group=site_groups[0]),
Site(name='Test Site 2',
slug='test-site-2',
region=regions[1],
group=site_groups[1]),
Site(name='Test Site 3',
slug='test-site-3',
region=regions[2],
group=site_groups[2]),
)
Site.objects.bulk_create(sites)
clusters = (
Cluster(name='Cluster 1',
type=cluster_types[0],
group=cluster_groups[0],
site=sites[0]),
Cluster(name='Cluster 2',
type=cluster_types[1],
group=cluster_groups[1],
site=sites[1]),
Cluster(name='Cluster 3',
type=cluster_types[2],
group=cluster_groups[2],
site=sites[2]),
)
Cluster.objects.bulk_create(clusters)
platforms = (
Platform(name='Platform 1', slug='platform-1'),
Platform(name='Platform 2', slug='platform-2'),
Platform(name='Platform 3', slug='platform-3'),
)
Platform.objects.bulk_create(platforms)
roles = (
DeviceRole(name='Device Role 1', slug='device-role-1'),
DeviceRole(name='Device Role 2', slug='device-role-2'),
DeviceRole(name='Device Role 3', slug='device-role-3'),
)
DeviceRole.objects.bulk_create(roles)
tenant_groups = (
TenantGroup(name='Tenant group 1', slug='tenant-group-1'),
TenantGroup(name='Tenant group 2', slug='tenant-group-2'),
TenantGroup(name='Tenant group 3', slug='tenant-group-3'),
)
for tenantgroup in tenant_groups:
tenantgroup.save()
tenants = (
Tenant(name='Tenant 1', slug='tenant-1', group=tenant_groups[0]),
Tenant(name='Tenant 2', slug='tenant-2', group=tenant_groups[1]),
Tenant(name='Tenant 3', slug='tenant-3', group=tenant_groups[2]),
)
Tenant.objects.bulk_create(tenants)
vms = (
VirtualMachine(name='Virtual Machine 1',
cluster=clusters[0],
platform=platforms[0],
role=roles[0],
tenant=tenants[0],
status=VirtualMachineStatusChoices.STATUS_ACTIVE,
vcpus=1,
memory=1,
disk=1,
local_context_data={"foo": 123}),
VirtualMachine(name='Virtual Machine 2',
cluster=clusters[1],
platform=platforms[1],
role=roles[1],
tenant=tenants[1],
status=VirtualMachineStatusChoices.STATUS_STAGED,
vcpus=2,
memory=2,
disk=2),
VirtualMachine(name='Virtual Machine 3',
cluster=clusters[2],
platform=platforms[2],
role=roles[2],
tenant=tenants[2],
status=VirtualMachineStatusChoices.STATUS_OFFLINE,
vcpus=3,
memory=3,
disk=3),
)
VirtualMachine.objects.bulk_create(vms)
interfaces = (
VMInterface(virtual_machine=vms[0],
name='Interface 1',
mac_address='00-00-00-00-00-01'),
VMInterface(virtual_machine=vms[1],
name='Interface 2',
mac_address='00-00-00-00-00-02'),
VMInterface(virtual_machine=vms[2],
name='Interface 3',
mac_address='00-00-00-00-00-03'),
)
VMInterface.objects.bulk_create(interfaces)
# Assign primary IPs for filtering
ipaddresses = (
IPAddress(address='192.0.2.1/24', assigned_object=interfaces[0]),
IPAddress(address='192.0.2.2/24', assigned_object=interfaces[1]),
)
IPAddress.objects.bulk_create(ipaddresses)
VirtualMachine.objects.filter(pk=vms[0].pk).update(
primary_ip4=ipaddresses[0])
VirtualMachine.objects.filter(pk=vms[1].pk).update(
primary_ip4=ipaddresses[1])
def test_duplicate_global(self):
IPAddress.objects.create(address=netaddr.IPNetwork('192.0.2.1/24'))
duplicate_ip = IPAddress(address=netaddr.IPNetwork('192.0.2.1/24'))
self.assertIsNone(duplicate_ip.clean())
def run(self, data, commit):
services_list = [
{
'id_s': 's2',
'port': 22,
'name': 'SSHv2',
'protocol': 'tcp'
},
{
'id_s': 's1',
'port': 22,
'name': 'SSHv1',
'protocol': 'tcp'
},
{
'id_s': 't',
'port': 23,
'name': 'Telnet',
'protocol': 'tcp'
},
{
'id_s': 'y',
'port': 443,
'name': 'YANG',
'protocol': 'tcp'
},
{
'id_s': 'r',
'port': 443,
'name': 'REST',
'protocol': 'tcp'
},
]
dev_role = DeviceRole.objects.get(slug='access-switch')
device_new = Device(
name=data['dev_name'],
device_type=data['dev_model'],
site=data['site'],
rack=data['rack'],
position=data['position'],
device_role=dev_role,
serial=data['dev_serial'],
)
device_new.save()
device_new.custom_field_data['fMonitoring'] = data['monitoring']
device_new.custom_field_data['fBackup'] = data['backup']
device_new.save()
output = []
for iServ in data['services']:
output.append(iServ)
print(output)
res = [row for row in services_list if row['id_s'] == iServ]
s1 = Service(
device=device_new,
name=res[0]['name'],
ports=[res[0]['port']],
protocol=res[0]['protocol'],
)
s1.save()
dev_mgmt_int = Interface(
device=device_new,
name=data['mgmt_int_name'],
type='virtual',
)
dev_mgmt_int.save()
ipa_type = ContentType.objects.get(app_label='dcim', model='interface')
ipa = IPAddress(
address=data['mgmt_int_ip'],
assigned_object_id=dev_mgmt_int.id,
assigned_object_type=ipa_type,
)
ipa.save()
device_new.primary_ip4 = ipa
device_new.save()
self.log_success(f"Created new Juniper device: {device_new}")
return ''.join(output)
def run(self, data):
host = data['vcenter_host']
user = data['vcenter_user']
password = data['vcenter_password']
vmCount = 0
ipCount = 0
intCount = 0
si = SmartConnectNoSSL(host=host,
user=user,
pwd=password,
port=int(443))
if si:
self.log_success("Connected to vCenter!")
if not si:
self.log_failure(
"Couldn't connect to vCenter with the given credentials.")
return -1
atexit.register(Disconnect, si)
content = si.RetrieveContent()
children = content.rootFolder.childEntity
for child in children:
dc = child
vmdata[dc.name] = {}
clusters = dc.hostFolder.childEntity
for cluster in clusters:
self.log_info(f"Found Cluster: {cluster}")
vmdata[dc.name][cluster.name] = {}
hosts = cluster.host
for host in hosts:
self.log_info(f"Found Host: {host}")
hostname = host.summary.config.name
vmdata[dc.name][cluster.name][hostname] = {}
vms = host.vm
self.log_info(f"DC Name: {vmdata[dc.name]}")
self.log_info(
f"Cluster Name: {vmdata[dc.name][cluster.name]}")
for vm in vms:
newVM = VirtualMachine(
name=vm.summary.config.name,
cluster=data['cluster'],
status=DEVICE_STATUS_ACTIVE,
vcpus=str(vm.summary.config.numCpu),
memory=vm.summary.config.memorySizeMB,
disk=str(
int(
float("%.2f" %
(vm.summary.storage.committed /
1024**3)))))
newVM.save()
vmResult = VirtualMachine.objects.get(
name=vm.summary.config.name)
self.log_success("Created new VM: {}".format(newVM))
vmCount = vmCount + 1
nics = {}
num = 1
for nic in vm.guest.net:
if nic.network:
if nic.ipConfig is not None and nic.ipConfig.ipAddress is not None:
ipconf = nic.ipConfig.ipAddress
i = 0
for ip in ipconf:
if ":" not in ip.ipAddress:
ipv4c = f"{ip.ipAddress}/{ip.prefixLength}"
nicDescription = nic.network
nicName = f"NIC{num}"
newInt = Interface(
virtual_machine=vmResult,
name=nicName,
description=nicDescription,
type=IFACE_TYPE_VIRTUAL,
mac_address=nic.macAddress)
newInt.save()
intCount = intCount + 1
intResult = Interface.objects.get(
name=nicName,
mac_address=nic.macAddress)
self.log_info(
f"Created new interface: {newInt} - {nic.macAddress}"
)
newIP = IPAddress(
family='4',
address=ipv4c,
description=
f"{vm.summary.config.name} - {nicName}",
interface=intResult)
newIP.save()
ipCount = ipCount + 1
num = num + 1
self.log_info(
f"Created new IP: {newIP} - {nicName} - {nicDescription}"
)
i = i + 1
self.log_info(
f"Created {vmCount} VMs, {ipCount} IPs, and {intCount} interfaces."
)
def test_duplicate_nonunique_role_nonrole(self):
IPAddress.objects.create(address=IPNetwork('192.0.2.1/24'),
role=IPAddressRoleChoices.ROLE_VIP)
duplicate_ip = IPAddress(address=IPNetwork('192.0.2.1/24'))
self.assertRaises(ValidationError, duplicate_ip.clean)
def test_duplicate_vrf_unique(self):
vrf = VRF.objects.create(name='Test', rd='1:1', enforce_unique=True)
IPAddress.objects.create(vrf=vrf, address=IPNetwork('192.0.2.1/24'))
duplicate_ip = IPAddress(vrf=vrf, address=IPNetwork('192.0.2.1/24'))
self.assertRaises(ValidationError, duplicate_ip.clean)
def test_duplicate_vrf(self):
vrf = VRF.objects.create(name='Test', rd='1:1', enforce_unique=False)
IPAddress.objects.create(vrf=vrf, address=IPNetwork('192.0.2.1/24'))
duplicate_ip = IPAddress(vrf=vrf, address=IPNetwork('192.0.2.1/24'))
self.assertIsNone(duplicate_ip.clean())
def setUpTestData(cls):
vrfs = (
VRF(name='VRF 1', rd='65000:100'),
VRF(name='VRF 2', rd='65000:200'),
VRF(name='VRF 3', rd='65000:300'),
)
VRF.objects.bulk_create(vrfs)
site = Site.objects.create(name='Site 1', slug='site-1')
manufacturer = Manufacturer.objects.create(name='Manufacturer 1',
slug='manufacturer-1')
device_type = DeviceType.objects.create(manufacturer=manufacturer,
model='Device Type 1')
device_role = DeviceRole.objects.create(name='Device Role 1',
slug='device-role-1')
devices = (
Device(device_type=device_type,
name='Device 1',
site=site,
device_role=device_role),
Device(device_type=device_type,
name='Device 2',
site=site,
device_role=device_role),
Device(device_type=device_type,
name='Device 3',
site=site,
device_role=device_role),
)
Device.objects.bulk_create(devices)
clustertype = ClusterType.objects.create(name='Cluster Type 1',
slug='cluster-type-1')
cluster = Cluster.objects.create(type=clustertype, name='Cluster 1')
virtual_machines = (
VirtualMachine(name='Virtual Machine 1', cluster=cluster),
VirtualMachine(name='Virtual Machine 2', cluster=cluster),
VirtualMachine(name='Virtual Machine 3', cluster=cluster),
)
VirtualMachine.objects.bulk_create(virtual_machines)
interfaces = (
Interface(device=devices[0], name='Interface 1'),
Interface(device=devices[1], name='Interface 2'),
Interface(device=devices[2], name='Interface 3'),
Interface(virtual_machine=virtual_machines[0], name='Interface 1'),
Interface(virtual_machine=virtual_machines[1], name='Interface 2'),
Interface(virtual_machine=virtual_machines[2], name='Interface 3'),
)
Interface.objects.bulk_create(interfaces)
tenant_groups = (
TenantGroup(name='Tenant group 1', slug='tenant-group-1'),
TenantGroup(name='Tenant group 2', slug='tenant-group-2'),
TenantGroup(name='Tenant group 3', slug='tenant-group-3'),
)
TenantGroup.objects.bulk_create(tenant_groups)
tenants = (
Tenant(name='Tenant 1', slug='tenant-1', group=tenant_groups[0]),
Tenant(name='Tenant 2', slug='tenant-2', group=tenant_groups[1]),
Tenant(name='Tenant 3', slug='tenant-3', group=tenant_groups[2]),
)
Tenant.objects.bulk_create(tenants)
ipaddresses = (
IPAddress(family=4,
address='10.0.0.1/24',
tenant=None,
vrf=None,
interface=None,
status=IPAddressStatusChoices.STATUS_ACTIVE,
dns_name='ipaddress-a'),
IPAddress(family=4,
address='10.0.0.2/24',
tenant=tenants[0],
vrf=vrfs[0],
interface=interfaces[0],
status=IPAddressStatusChoices.STATUS_ACTIVE,
dns_name='ipaddress-b'),
IPAddress(family=4,
address='10.0.0.3/24',
tenant=tenants[1],
vrf=vrfs[1],
interface=interfaces[1],
status=IPAddressStatusChoices.STATUS_RESERVED,
role=IPAddressRoleChoices.ROLE_VIP,
dns_name='ipaddress-c'),
IPAddress(family=4,
address='10.0.0.4/24',
tenant=tenants[2],
vrf=vrfs[2],
interface=interfaces[2],
status=IPAddressStatusChoices.STATUS_DEPRECATED,
role=IPAddressRoleChoices.ROLE_SECONDARY,
dns_name='ipaddress-d'),
IPAddress(family=4,
address='10.0.0.1/25',
tenant=None,
vrf=None,
interface=None,
status=IPAddressStatusChoices.STATUS_ACTIVE),
IPAddress(family=6,
address='2001:db8::1/64',
tenant=None,
vrf=None,
interface=None,
status=IPAddressStatusChoices.STATUS_ACTIVE,
dns_name='ipaddress-a'),
IPAddress(family=6,
address='2001:db8::2/64',
tenant=tenants[0],
vrf=vrfs[0],
interface=interfaces[3],
status=IPAddressStatusChoices.STATUS_ACTIVE,
dns_name='ipaddress-b'),
IPAddress(family=6,
address='2001:db8::3/64',
tenant=tenants[1],
vrf=vrfs[1],
interface=interfaces[4],
status=IPAddressStatusChoices.STATUS_RESERVED,
role=IPAddressRoleChoices.ROLE_VIP,
dns_name='ipaddress-c'),
IPAddress(family=6,
address='2001:db8::4/64',
tenant=tenants[2],
vrf=vrfs[2],
interface=interfaces[5],
status=IPAddressStatusChoices.STATUS_DEPRECATED,
role=IPAddressRoleChoices.ROLE_SECONDARY,
dns_name='ipaddress-d'),
IPAddress(family=6,
address='2001:db8::1/65',
tenant=None,
vrf=None,
interface=None,
status=IPAddressStatusChoices.STATUS_ACTIVE),
)
IPAddress.objects.bulk_create(ipaddresses)
def handle(self, *args, **options):
# First, query for the device by name.
try:
device = Device.objects.get(name=options['device_name'])
except Device.DoesNotExist:
self.stdout.write(f"Unable to find device: {options['device_name']}")
return
# Determine the information needed to connect to the device.
mgmt_ip = device.primary_ip4
onepw_host = settings.PLUGINS_CONFIG['sidekick'].get('1pw_connect_host', None)
onepw_token_path = settings.PLUGINS_CONFIG['sidekick'].get('1pw_connect_token_path', None)
onepw_vault = settings.PLUGINS_CONFIG['sidekick'].get('1pw_connect_readonly_vault', None)
# If all of the connection information was found,
# attempt to decrypt the connection credentials,
# connect to the device, and inventory the interfaces.
if mgmt_ip is not None and \
onepw_host is not None and \
onepw_token_path is not None and \
onepw_vault is not None:
_mgmt_ip = "%s" % (mgmt_ip.address.ip)
try:
snmp = decrypt_1pw_secret(onepw_token_path, onepw_host, onepw_vault, f"{device}", 'snmp')
except Exception as e:
self.stdout.write(f"Unable to decrypt snmp secret: {e}")
if snmp is None:
self.stdout.write(f"Unable to find snmp secret for {device}")
return
try:
device_info = snmpwalk_bulk(_mgmt_ip, snmp)
# device_info = get_device_info_via_snmp(_mgmt_ip, snmp)
except Exception as e:
self.stdout.write(f"Error querying device {device}: {e}")
return
# If we're able to connect,
# build a list of interface names already on the device.
existing_interfaces = {}
for i in device.vc_interfaces():
existing_interfaces[i.name] = i
# Obtain the list of interfaces.
# For each device that is not supposed to be ignored,
# add that interface to the device if it doesn't already exist.
for iface_index, iface_details in device_info.items():
iface_name = iface_details.get('ifName', None)
if iface_name is None:
continue
# self.stdout.write(f"{iface_details['name']}: {iface_details['oper_status']}")
# continue
if not any(i in iface_details['ifName'] for i in VALID_INTERFACE_NAMES):
continue
iface_type = InterfaceTypeChoices.TYPE_VIRTUAL
if iface_details['ifHighSpeed'] == 1000:
iface_type = InterfaceTypeChoices.TYPE_1GE_FIXED
if iface_details['ifHighSpeed'] == 10000:
iface_type = InterfaceTypeChoices.TYPE_10GE_FIXED
if iface_details['ifHighSpeed'] == 'ieee8023adLag':
iface_type = InterfaceTypeChoices.TYPE_LAG
# TODO: VLAN management is incomplete right now.
# _vlan = None
iface_mode = InterfaceModeChoices.MODE_TAGGED
if '.' in iface_name:
iface_mode = InterfaceModeChoices.MODE_ACCESS
# _vlan = iface_name.split('.')[1]
if 'Vlan' in iface_name:
iface_mode = InterfaceModeChoices.MODE_ACCESS
# m = RE_ARISTA_VLAN.search(iface_name)
# if m:
# _vlan = m.group(1)
iface_untagged_vlan = None
# if _vlan is not None:
# try:
# iface_untagged_vlan = VLAN.objects.get(vid=_vlan)
# except VLAN.MultipleObjectsReturned:
# self.stdout.write(f"WARNING: Multiple results found for VLAN {_vlan}. Not setting VLAN.")
# except VLAN.DoesNotExist:
# self.stdout.write(f"WARNING: No results found for VLAN {_vlan}. Not setting VLAN.")
# If the interface already exists, update a few fields.
# We do not update the interface type because that could have
# been updated in NetBox directly to something more specific/better
# than what SNMP can can determine.
if iface_name in existing_interfaces.keys():
existing_interface = existing_interfaces[iface_name]
changed = False
_descr = iface_details['ifAlias'].strip()
if existing_interface.description != _descr:
existing_interface.description = _descr
changed = True
admin_status = f"{iface_details['ifAdminStatus']}"
if admin_status == "up":
admin_status = 1
if admin_status == "down":
admin_status = 0
iface_status = False
oper_status = iface_details['ifOperStatus']
if admin_status == 1 and oper_status == 1:
iface_status = True
if existing_interface.enabled != iface_status:
existing_interface.enabled = iface_status
changed = True
if existing_interface.untagged_vlan != iface_untagged_vlan:
existing_interface.untagged_vlan = iface_untagged_vlan
changed = True
if changed is True:
if options['dry_run']:
self.stdout.write(f"Would have updated {iface_name}")
else:
existing_interface.save()
if iface_name not in existing_interfaces.keys():
if options['dry_run']:
self.stdout.write(f"Would have added {iface_name}")
else:
admin_status = f"{iface_details['ifAdminStatus']}"
if admin_status == "down":
admin_status = False
if admin_status == "up":
admin_status = True
mtu = iface_details.get('ifMtu', 0)
if 'No more variables' in f"{mtu}":
mtu = 0
iface = Interface(
device=device,
description=iface_details.get('ifDescr', None),
name=iface_name,
type=iface_type,
enabled=admin_status,
mac_address=iface_details.get('ifPhysAddress', None),
mtu=mtu,
mode=iface_mode,
untagged_vlan=iface_untagged_vlan,
)
iface.save()
# To account for one or more new interfaces being added,
# build a list of interface names already on the device.
existing_interfaces = {}
for i in device.vc_interfaces():
existing_interfaces[i.name] = i
# Obtain the list of IP addresses on each interface.
# For each interface that is not supposed to be ignored,
# add the IP address to the interface if it doesn't already exist.
for iface_index, iface_details in device_info.items():
iface_name = iface_details.get('ifName', None)
if iface_name is None:
continue
if not any(i in iface_name for i in VALID_INTERFACE_NAMES):
continue
if iface_name not in existing_interfaces.keys():
continue
existing_interface = existing_interfaces[iface_name]
existing_ip_addresses = existing_interface.ip_addresses.all()
for version, family in IP_VERSIONS.items():
if version not in iface_details.keys():
continue
if iface_details[version] is None:
continue
# Check if an IP was removed from the device.
# If so, then delete it from NetBox.
for existing_ip in existing_ip_addresses:
if existing_ip.family == family:
if f"{existing_ip}" not in iface_details[version]:
if options['dry_run']:
self.stdout.write(
f"Would have removed {existing_ip} from {iface_name}")
else:
existing_ip.assigned_object = None
existing_ip.description = f"Previously assigned to {options['device_name']} on interface {iface_name}"
existing_ip.save()
# Check if an IP needs to be added to NetBox.
for interface_ip in iface_details[version]:
# If the IP polled from the device is not in the NetBox device interface...
if not any(interface_ip == f"{_ip}" for _ip in existing_ip_addresses):
try:
ip = IPAddress.objects.get(address=interface_ip)
if ip.assigned_object is not None and ip.assigned_object.id != existing_interface.id:
# If the IP being reported is the management IP, then ignore.
# This is because we want to standardize on the name of the
# management interface, even if the IP address is on a different
# interface. This isn't ideal and should be improved in the
# future.
if ip == mgmt_ip:
continue
# Also ignore private IP addresses since they can be
# reused in different locations. Again, this isn't ideal and
# should be improved in the future.
if f"{ip}".startswith("10.") or f"{ip}".startswith("172.") or f"{ip}".startswith("192."):
continue
# If the IP assignment is on the same device, we will assume
# a reconfiguration was made. In this case, we reassign the
# IP.
if ip.assigned_object.device.name == existing_interface.device.name:
ip.assigned_object = existing_interface
ip.save()
continue
self.stdout.write(
f"IP Address {interface_ip} is already assigned to "
f"{ip.assigned_object.name} on {ip.assigned_object.device.name}. "
f"Will not assign to {existing_interface.name} on "
f"{existing_interface.device.name}")
continue
# Otherwise, add the IP to the interface.
else:
if options['dry_run']:
self.stdout.write(
f"Would have added {interface_ip} to {existing_interface.name}")
else:
if ip.description != existing_interface.description:
ip.description = existing_interface.description
ip.assigned_object = existing_interface
ip.save()
except IPAddress.MultipleObjectsReturned:
self.stdout.write(f"WARNING: Multiple results found for IP {interface_ip}. Skipping.")
continue
except IPAddress.DoesNotExist:
if options['dry_run']:
self.stdout.write(
f"Would have created IP address {interface_ip} and added it to " +
f"{existing_interface.name}")
else:
ip = IPAddress(
address=interface_ip,
description=existing_interface.description)
ip.save()
existing_interface.ip_address = ip
existing_interface.save()
# Obtain the counters on each interface.
# For each interface that is not supposed to be ignored,
# store the counters as a NIC object.
for iface_index, iface_details in device_info.items():
iface_name = iface_details.get('ifName', None)
if iface_name is None:
continue
if not any(i in iface_name for i in VALID_INTERFACE_NAMES):
continue
if iface_name not in existing_interfaces.keys():
continue
existing_interface = existing_interfaces[iface_name]
if options['dry_run']:
self.stdout.write(f"Would have updated counters for {existing_interface.name}: {iface_details}")
else:
admin_status = iface_details.get('ifAdminStatus', 0)
if 'No more variables' in f"{admin_status}":
admin_status = 0
oper_status = iface_details.get('ifOperStatus', 0)
if 'No more variables' in f"{oper_status}":
oper_status = 0
out_octets = iface_details.get('ifHCOutOctets', 0)
if 'No more variables' in f"{out_octets}":
out_octets = 0
in_octets = iface_details.get('ifHCInOctets', 0)
if 'No more variables' in f"{in_octets}":
in_octets = 0
out_unicast_packets = iface_details.get('ifHCOutUcastPkts', 0)
if 'No more variables' in f"{out_unicast_packets}":
out_unicast_packets = 0
in_unicast_packets = iface_details.get('ifHCInUcastPkts', 0)
if 'No more variables' in f"{in_unicast_packets}":
in_unicast_packets = 0
out_nunicast_packets = iface_details.get('ifOutNUcastPkts', 0)
if 'No more variables' in f"{out_nunicast_packets}":
out_nunicast_packets = 0
in_nunicast_packets = iface_details.get('ifInNUcastPkts', 0),
if 'No more variables' in f"{in_nunicast_packets}":
in_nunicast_packets = 0
out_errors = iface_details.get('ifOutErrors', 0)
if 'No more variables' in f"{out_errors}":
out_errors = 0
in_errors = iface_details.get('ifInErrors', 0)
if 'No more variables' in f"{in_errors}":
in_errors = 0
nic = NIC(
interface=existing_interface,
interface_id=existing_interface.id,
admin_status=admin_status,
oper_status=oper_status,
out_octets=out_octets,
in_octets=in_octets,
out_unicast_packets=out_unicast_packets,
in_unicast_packets=in_unicast_packets,
out_nunicast_packets=out_nunicast_packets,
in_nunicast_packets=in_unicast_packets,
out_errors=out_errors,
in_errors=in_errors,
)
if 'in_rate' in iface_details:
nic.in_rate = iface_details['in_rate']
if 'out_rate' in iface_details:
nic.out_rate = iface_details['out_rate']
nic.save()
# Send the metrics to Graphite if graphite_host has been set.
graphite_host = settings.PLUGINS_CONFIG['sidekick'].get('graphite_host', None)
if graphite_host is not None:
graphyte.init(graphite_host)
# Determine the difference between the last two updates.
# This is because Cybera's metrics were previously stored in RRD
# files which only retains the derivative and not what the actual
# counters were.
previous_entries = NIC.objects.filter(
interface_id=existing_interface.id).order_by('-last_updated')
if len(previous_entries) < 2:
continue
e1 = previous_entries[0]
e2 = previous_entries[1]
total_seconds = (e1.last_updated - e2.last_updated).total_seconds()
graphite_prefix = "{}.{}".format(
e1.graphite_device_name(), e1.graphite_interface_name())
for cat in METRIC_CATEGORIES:
m1 = getattr(e1, cat, None)
m2 = getattr(e2, cat, None)
if m1 is not None and m2 is not None:
diff = (m1 - m2)
if diff != 0:
diff = diff / total_seconds
graphite_name = f"{graphite_prefix}.{cat}"
if options['dry_run']:
self.stdout.write(f"{graphite_name} {diff} {total_seconds}")
else:
graphyte.send(graphite_name, diff)
# Determine if the interface is part of a member's network service.
# If so, send a second set of metrics to Graphite with a prefix
# dedicated to that service.
try:
nsd = NetworkServiceDevice.objects.get(
device=device, interface=existing_interface.name,
network_service__active=True)
except NetworkServiceDevice.MultipleObjectsReturned:
self.stdout.write(f"Multiple results found for network service using "
f"{device} {existing_interface.name}")
continue
except NetworkServiceDevice.DoesNotExist:
continue
ns = nsd.network_service
service_prefix = f"{ns.graphite_service_name()}.{graphite_prefix}"
for cat in ['in_octets', 'out_octets']:
graphite_name = f"{service_prefix}.{cat}"
m1 = getattr(e1, cat, None)
m2 = getattr(e2, cat, None)
if m1 is not None and m2 is not None:
diff = (m1 - m2)
if diff != 0:
diff = diff / total_seconds
graphyte.send(graphite_name, diff)
def handle(self, *args, **options):
# First, query for the device by name.
try:
device = Device.objects.get(name=options['name'])
except Device.DoesNotExist:
self.stdout.write(f"Unable to find device: {options['name']}")
return
# If an IP address was specified, then configure the device with it.
_ip = options['ip']
if _ip is not None:
# Make sure there's an interface named "mgmt"
# If there isn't, then create one.
mgmt_iface = next(
(True
for iface in device.vc_interfaces() if iface.name == 'mgmt'),
None)
if not mgmt_iface:
if options['dry_run']:
self.stdout.write(
'Would have created a managment interface called mgmt')
else:
mgmt_iface = Interface(
device=device,
name='mgmt',
type=InterfaceTypeChoices.TYPE_VIRTUAL)
mgmt_iface.save()
# Make sure the specific IP address exists and is on the mgmt interface.
try:
_ip = options['ip']
mgmt_ip = IPAddress.objects.get(address=_ip)
# If the IP exists, make sure it's currently not assigned to another interface.
if mgmt_ip.interface is not None:
if mgmt_ip.interface.name != 'mgmt' and mgmt_ip.interface.device.id != device.id:
self.stdout.write(
f"IP Address {_ip} is already assigned to {mgmt_ip.interface.device.name}"
)
return
# Otherwise, add the IP to the interface.
else:
if options['dry_run']:
self.stdout.write(
f"Would have added {mgmt_ip} to the mgmt interface"
)
else:
mgmt_ip.interface = mgmt_iface
mgmt_ip.save()
except IPAddress.DoesNotExist:
# If the IP doesn't exist, create it and link it to the mgmt interfae.
if options['dry_run']:
self.stdout.write(
f"Would have created IP address {options['ip']} and assigned it to the mgmt interface"
)
else:
mgmt_ip = IPAddress(address=options['ip'],
interface=mgmt_iface)
mgmt_ip.save()
# Ensure the primary IP address of the device is set to the mgmt IP.
if device.primary_ip4 is None or device.primary_ip4.id != mgmt_ip.id:
if options['dry_run']:
self.stdout.write(
f"Would have assigned {mgmt_ip} as the primary IP of the device"
)
else:
device.primary_ip4 = mgmt_ip
device.save()
def test_address_vrf_ordering(self):
"""
This function tests ordering with the inclusion of vrfs
"""
# Setup VRFs
vrfa, vrfb, vrfc = self.vrfs
# Setup Addresses
addresses = (
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.0.0.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.0.1.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.0.2.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.0.3.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.0.4.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.1.0.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.1.1.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.1.2.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.1.3.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.1.4.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.2.0.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.2.1.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.2.2.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.2.3.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfa,
family=4,
address=netaddr.IPNetwork('10.2.4.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.16.0.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.16.1.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.16.2.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.16.3.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.16.4.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.17.0.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.17.1.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.17.2.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.17.3.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=vrfb,
family=4,
address=netaddr.IPNetwork('172.17.4.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=None,
family=4,
address=netaddr.IPNetwork('192.168.0.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=None,
family=4,
address=netaddr.IPNetwork('192.168.1.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=None,
family=4,
address=netaddr.IPNetwork('192.168.2.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=None,
family=4,
address=netaddr.IPNetwork('192.168.3.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=None,
family=4,
address=netaddr.IPNetwork('192.168.4.1/24')),
IPAddress(status=IPAddressStatusChoices.STATUS_ACTIVE,
vrf=None,
family=4,
address=netaddr.IPNetwork('192.168.5.1/24')),
)
IPAddress.objects.bulk_create(addresses)
# Test
self._compare(IPAddress.objects.all(), addresses)
def test_duplicate_vrf(self):
vrf = VRF.objects.create(name='Test', rd='1:1', enforce_unique=False)
IPAddress.objects.create(vrf=vrf, address=netaddr.IPNetwork('192.0.2.1/24'))
duplicate_ip = IPAddress(vrf=vrf, address=netaddr.IPNetwork('192.0.2.1/24'))
self.assertIsNone(duplicate_ip.clean())
def setup_swtich(self, site, rack, pp, panel_ports, vlan, site_no,
asset_tag):
sw_name = "sw-%s-01.in.ffho.net" % site.slug
try:
sw = Device.objects.get(name=sw_name)
self.log_info("Switch %s already present, carrying on." % sw_name)
return sw
except Device.DoesNotExist:
pass
sw_type = DeviceType.objects.get(manufacturer__name='Netonix',
model='WS-12-250-AC')
sw = Device(device_type=sw_type,
device_role=DeviceRole.objects.get(name='Switch'),
platform=Platform.objects.get(name='Netonix'),
name=sw_name,
asset_tag=asset_tag,
status=DeviceStatusChoices.STATUS_PLANNED,
site=site,
rack=rack,
position=rack.u_height - 2,
face=DeviceFaceChoices.FACE_FRONT)
sw.save()
self.log_success("Created switch %s" % sw)
# Link switch ports for panel ports
for n in range(1, int(panel_ports) + 1):
cable = Cable(termination_a=Interface.objects.get(device=sw,
name=str(n)),
termination_b=FrontPort.objects.get(device=pp,
name=str(n)),
status=CableStatusChoices.STATUS_PLANNED)
cable.save()
# Disable interfaces which aren't connected
unused_ifaces = [13, 14]
if panel_ports < 10:
unused_ifaces.extend(list(range(int(panel_ports + 1), 10)))
unused_ifaces = [str(x) for x in sorted(unused_ifaces)]
for n in unused_ifaces:
iface = Interface.objects.get(device=sw, name=n)
iface.enabled = False
iface.save()
self.log_success("Disabled switch unsued ports %s" %
",".join(unused_ifaces))
# Set up Mgmt port
sw_mgmt_port = Interface.objects.get(device=sw, name="10")
sw_mgmt_port.mode = InterfaceModeChoices.MODE_ACCESS
sw_mgmt_port.untagged_vlan = vlan
sw_mgmt_port.description = "Mgmt"
sw_mgmt_port.save()
self.log_success("Set mgmt interface 10 to untagged VLAN %s" % vlan)
# Set po1 tagged-all and bundle ports 11 + 12 into it
sw_po1 = Interface.objects.get(device=sw, name='po1')
sw_po1.mode = InterfaceModeChoices.MODE_TAGGED_ALL
sw_po1.save()
for n in [11, 12]:
sw_port = Interface.objects.get(device=sw, name=str(n))
sw_port.lag = sw_po1
sw_port.save()
self.log_success("Linked first %s ports of %s to %s" %
(panel_ports, sw, pp))
# Set up Mgmt vlan interface + IP
sw_mgmt_iface = Interface(
device=sw,
name="vlan%d" % vlan.vid,
type=InterfaceTypeChoices.TYPE_VIRTUAL,
)
sw_mgmt_iface.save()
sw_mgmt_ip = IPAddress(address="172.30.%d.10/24" % site_no,
interface=sw_mgmt_iface)
sw_mgmt_ip.save()
sw.primary_ip4 = sw_mgmt_ip
sw.save()
self.log_success("Configured %s on interface %s of %s" %
(sw_mgmt_ip, sw_mgmt_iface, sw))
return sw