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============
iDRAC driver
============
Overview
========
The integrated Dell Remote Access Controller (iDRAC_) is an out-of-band
management platform on Dell EMC servers, and is supported directly by
the ``idrac`` hardware type. This driver uses the Dell Web Services for
Management (WSMAN) protocol and the standard Distributed Management Task
Force (DMTF) Redfish protocol to perform all of its functions.
iDRAC_ hardware is also supported by the generic ``ipmi`` and ``redfish``
hardware types, though with smaller feature sets.
Key features of the Dell iDRAC driver include:
* Out-of-band node inspection
* Boot device management and firmware management
* Power management
* RAID controller management and RAID volume configuration
* BIOS settings configuration
Ironic Features
---------------
The ``idrac`` hardware type supports the following Ironic interfaces:
* `BIOS Interface`_: BIOS management
* `Inspect Interface`_: Hardware inspection
* `Management Interface`_: Boot device and firmware management
* Power Interface: Power management
* `RAID Interface`_: RAID controller and disk management
* `Vendor Interface`_: BIOS management (WSMAN) and eject virtual media
(Redfish)
Prerequisites
-------------
The ``idrac`` hardware type requires the ``python-dracclient`` library
to be installed on the ironic conductor node(s) if an Ironic node is
configured to use an ``idrac-wsman`` interface implementation, for example::
sudo pip install 'python-dracclient>=3.1.0'
Additionally, the ``idrac`` hardware type requires the ``sushy`` library
to be installed on the ironic conductor node(s) if an Ironic node is
configured to use an ``idrac-redfish`` interface implementation, for example::
sudo pip install 'python-dracclient>=3.1.0' 'sushy>=2.0.0'
Enabling
--------
The iDRAC driver supports WSMAN for the bios, inspect, management, power,
raid, and vendor interfaces. In addition, it supports Redfish for
the bios, inspect, management, power, and raid interfaces. The iDRAC driver
allows you to mix and match WSMAN and Redfish interfaces.
The ``idrac-wsman`` implementation must be enabled to use WSMAN for
an interface. The ``idrac-redfish`` implementation must be enabled
to use Redfish for an interface.
To enable the ``idrac`` hardware type with the minimum interfaces,
all using WSMAN, add the following to your ``/etc/ironic/ironic.conf``:
.. code-block:: ini
[DEFAULT]
enabled_hardware_types=idrac
enabled_management_interfaces=idrac-wsman
enabled_power_interfaces=idrac-wsman
To enable all optional features (BIOS, inspection, RAID, and vendor passthru)
using Redfish where it is supported and WSMAN where not, use the
following configuration:
.. code-block:: ini
[DEFAULT]
enabled_hardware_types=idrac
enabled_bios_interfaces=idrac-redfish
enabled_inspect_interfaces=idrac-redfish
enabled_management_interfaces=idrac-redfish
enabled_power_interfaces=idrac-redfish
enabled_raid_interfaces=idrac-redfish
enabled_vendor_interfaces=idrac-redfish
Below is the list of supported interface implementations in priority
order:
================ ===================================================
Interface Supported Implementations
================ ===================================================
``bios`` ``idrac-wsman``, ``idrac-redfish``, ``no-bios``
``boot`` ``ipxe``, ``pxe``, ``idrac-redfish-virtual-media``
``console`` ``no-console``
``deploy`` ``direct``, ``ansible``, ``ramdisk``
``inspect`` ``idrac-wsman``, ``idrac``, ``idrac-redfish``,
``inspector``, ``no-inspect``
``management`` ``idrac-wsman``, ``idrac``, ``idrac-redfish``
``network`` ``flat``, ``neutron``, ``noop``
``power`` ``idrac-wsman``, ``idrac``, ``idrac-redfish``
``raid`` ``idrac-wsman``, ``idrac``, ``idrac-redfish``, ``no-raid``
``rescue`` ``no-rescue``, ``agent``
``storage`` ``noop``, ``cinder``, ``external``
``vendor`` ``idrac-wsman``, ``idrac``, ``idrac-redfish``,
``no-vendor``
================ ===================================================
.. NOTE::
``idrac`` is the legacy name of the WSMAN interface. It has been
deprecated in favor of ``idrac-wsman`` and may be removed in a
future release.
Protocol-specific Properties
----------------------------
The WSMAN and Redfish protocols require different properties to be specified
in the Ironic node's ``driver_info`` field to communicate with the bare
metal system's iDRAC.
The WSMAN protocol requires the following properties:
* ``drac_username``: The WSMAN user name to use when communicating
with the iDRAC. Usually ``root``.
* ``drac_password``: The password for the WSMAN user to use when
communicating with the iDRAC.
* ``drac_address``: The IP address of the iDRAC.
The Redfish protocol requires the following properties:
* ``redfish_username``: The Redfish user name to use when
communicating with the iDRAC. Usually ``root``.
* ``redfish_password``: The password for the Redfish user to use
when communicating with the iDRAC.
* ``redfish_address``: The URL address of the iDRAC. It must include the
authority portion of the URL, and can optionally include the scheme. If
the scheme is missing, https is assumed.
* ``redfish_system_id``: The Redfish ID of the server to be
managed. This should always be: ``/redfish/v1/Systems/System.Embedded.1``.
For other Redfish protocol parameters see :doc:`/admin/drivers/redfish`.
If using only interfaces which use WSMAN (``idrac-wsman``), then only
the WSMAN properties must be supplied. If using only interfaces which
use Redfish (``idrac-redfish``), then only the Redfish properties must be
supplied. If using a mix of interfaces, where some use WSMAN and others
use Redfish, both the WSMAN and Redfish properties must be supplied.
Enrolling
---------
The following command enrolls a bare metal node with the ``idrac``
hardware type using WSMAN for all interfaces:
.. code-block:: bash
baremetal node create --driver idrac \
--driver-info drac_username=user \
--driver-info drac_password=pa$$w0rd \
--driver-info drac_address=drac.host
The following command enrolls a bare metal node with the ``idrac``
hardware type using Redfish for all interfaces:
.. code-block:: bash
baremetal node create --driver idrac \
--driver-info redfish_username=user \
--driver-info redfish_password=pa$$w0rd \
--driver-info redfish_address=drac.host \
--driver-info redfish_system_id=/redfish/v1/Systems/System.Embedded.1 \
--bios-interface idrac-redfish \
--inspect-interface idrac-redfish \
--management-interface idrac-redfish \
--power-interface idrac-redfish \
--raid-interface idrac-redfish \
--vendor-interface idrac-redfish
The following command enrolls a bare metal node with the ``idrac``
hardware type assuming a mix of Redfish and WSMAN interfaces are used:
.. code-block:: bash
baremetal node create --driver idrac \
--driver-info drac_username=user \
--driver-info drac_password=pa$$w0rd
--driver-info drac_address=drac.host \
--driver-info redfish_username=user \
--driver-info redfish_password=pa$$w0rd \
--driver-info redfish_address=drac.host \
--driver-info redfish_system_id=/redfish/v1/Systems/System.Embedded.1 \
--bios-interface idrac-redfish \
--inspect-interface idrac-redfish \
--management-interface idrac-redfish \
--power-interface idrac-redfish
.. NOTE::
If using WSMAN for the management interface, then WSMAN must be used
for the power interface. The same applies to Redfish. It is currently not
possible to use Redfish for one and WSMAN for the other.
BIOS Interface
==============
The BIOS interface implementations supported by the ``idrac`` hardware type
allows BIOS to be configured with the standard clean/deploy step approach.
Example
-------
A clean step to enable ``Virtualization`` and ``SRIOV`` in BIOS of an iDRAC
BMC would be as follows::
{
"target":"clean",
"clean_steps": [
{
"interface": "bios",
"step": "apply_configuration",
"args": {
"settings": [
{
"name": "ProcVirtualization",
"value": "Enabled"
},
{
"name": "SriovGlobalEnable",
"value": "Enabled"
}
]
}
}
]
}
See the `Known Issues`_ for a known issue with ``factory_reset`` clean step.
For additional details of BIOS configuration, see :doc:`/admin/bios`.
Inspect Interface
=================
The Dell iDRAC out-of-band inspection process catalogs all the same
attributes of the server as the IPMI driver. Unlike IPMI, it does this
without requiring the system to be rebooted, or even to be powered on.
Inspection is performed using the Dell WSMAN or Redfish protocol directly
without affecting the operation of the system being inspected.
The inspection discovers the following properties:
* ``cpu_arch``: cpu architecture
* ``cpus``: number of cpus
* ``local_gb``: disk size in gigabytes
* ``memory_mb``: memory size in megabytes
Extra capabilities:
* ``boot_mode``: UEFI or BIOS boot mode.
* ``pci_gpu_devices``: number of GPU devices connected to the bare metal.
It also creates baremetal ports for each NIC port detected in the system.
The ``idrac-wsman`` inspect interface discovers which NIC ports are
configured to PXE boot and sets ``pxe_enabled`` to ``True`` on those ports.
The ``idrac-redfish`` inspect interface does not currently set ``pxe_enabled``
on the ports. The user should ensure that ``pxe_enabled`` is set correctly on
the ports following inspection with the ``idrac-redfish`` inspect interface.
Management Interface
====================
The management interface for ``idrac-redfish`` supports:
* updating firmware on nodes using a manual cleaning step. See
:doc:`/admin/drivers/redfish` for more information on firmware update
support.
* updating system and getting its inventory using configuration molds. For more
information see `Import and export configuration`_.
Import and export configuration
-------------------------------
The clean and deploy steps provided in this section allow to configure the
system and collect the system inventory using configuration mold files.
The introduction of this feature in the Wallaby release is experimental.
These steps are:
* ``export_configuration`` with the ``export_configuration_location`` input
parameter to export the configuration from the existing system.
* ``import_configuration`` with the ``import_configuration_location`` input
parameter to import the existing configuration mold into the system.
* ``import_export_configuration`` with the ``export_configuration_location``
and ``import_configuration_location`` input parameters. This step combines
the previous two steps into one step that first imports existing
configuration mold into system, then exports the resulting configuration.
The input parameters provided include the URL where the configuration mold is
to be stored after the export, or the reference location for an import. For
more information on setting up storage and available options see
`Storage setup`_.
Configuration molds are JSON files that contain three top-level sections:
``bios``, ``raid`` and ``oem``. The following is an example of a configuration
mold:
.. code-block::
{
"bios": {
"reset": false,
"settings": [
{
"name": "ProcVirtualization",
"value": "Enabled"
},
{
"name": "MemTest",
"value": "Disabled"
}
]
}
"raid": {
"create_nonroot_volumes": true,
"create_root_volume": true,
"delete_existing": false,
"target_raid_config": {
"logical_disks": [
{
"size_gb": 50,
"raid_level": "1+0",
"controller": "RAID.Integrated.1-1",
"volume_name": "root_volume",
"is_root_volume": true,
"physical_disks": [
"Disk.Bay.0:Encl.Int.0-1:RAID.Integrated.1-1",
"Disk.Bay.1:Encl.Int.0-1:RAID.Integrated.1-1"
]
},
{
"size_gb": 100,
"raid_level": "5",
"controller": "RAID.Integrated.1-1",
"volume_name": "data_volume",
"physical_disks": [
"Disk.Bay.2:Encl.Int.0-1:RAID.Integrated.1-1",
"Disk.Bay.3:Encl.Int.0-1:RAID.Integrated.1-1",
"Disk.Bay.4:Encl.Int.0-1:RAID.Integrated.1-1"
]
}
]
}
}
"oem": {
"interface": "idrac-redfish",
"data": {
"SystemConfiguration": {
"Model": "PowerEdge R640",
"ServiceTag": "8CY9Z99",
"TimeStamp": "Fri Jun 26 08:43:15 2020",
"Components": [
{
[...]
"FQDD": "NIC.Slot.1-1-1",
"Attributes": [
{
"Name": "BlnkLeds",
"Value": "15",
"Set On Import": "True",
"Comment": "Read and Write"
},
{
"Name": "VirtMacAddr",
"Value": "00:00:00:00:00:00",
"Set On Import": "False",
"Comment": "Read and Write"
},
{
"Name": "VirtualizationMode",
"Value": "NONE",
"Set On Import": "True",
"Comment": "Read and Write"
},
[...]
]
}
]
}
}
}
Currently, the OEM section is the only section that is supported. The OEM
section uses the iDRAC Server Configuration Profile (SCP) and can be edited as
necessary if it complies with the SCP. For more information about SCP and its
capabilities, see SCP_Reference_Guide_.
To replicate the system configuration to that of a similar system, perform the
following steps:
#. Configure a golden, or one to many, system.
#. Use the ``export_configuration`` step to export the configuration to the
wanted location.
#. Adjust the exported configuration mold for other systems to replicate. For
example, remove sections that do not need to be replicated such as iDRAC
connection settings. The configuration mold can be accessed directly from
the storage location.
#. Import the selected configuration mold into the other systems using the
``import_configuration`` step.
It is not mandatory to use ``export_configuration`` step to create a
configuration mold. Upload the file to a designated storage location without
using Ironic if it has been created manually or by other means.
Storage setup
^^^^^^^^^^^^^
To start using these steps, configure the storage location. The settings can be
found in the ``[molds]`` section. Configure the storage type from the
``[molds]storage`` setting. Currently, ``swift``, which is enabled by default,
and ``http`` are supported.
In the setup input parameters, the complete HTTP URL is used. This requires
that the containers (for ``swift``) and the directories (for ``http``) are
created beforehand, and that read/write access is configured accordingly.
.. NOTE::
Use of TLS is strongly advised.
This setup configuration allows a user to access these locations outside of
Ironic to list, create, update, and delete the configuration molds.
For more information see `Swift configuration`_ and `HTTP configuration`_.
Swift configuration
~~~~~~~~~~~~~~~~~~~
To use Swift with configuration molds,
#. Create the containers to be used for configuration mold storage.
#. For Ironic Swift user that is configured in the ``[swift]`` section add
read/write access to these containers.
HTTP configuration
~~~~~~~~~~~~~~~~~~
To use HTTP server with configuration molds,
#. Enable HTTP PUT support.
#. Create the directory to be used for the configuration mold storage.
#. Configure read/write access for HTTP Basic access authentication and provide
user credentials in ``[molds]user`` and ``[molds]password`` fields.
The HTTP web server does not support multitenancy and is intended to be used in
a stand-alone Ironic, or single-tenant OpenStack environment.
RAID Interface
==============
See :doc:`/admin/raid` for more information on Ironic RAID support.
The following properties are supported by the iDRAC WSMAN and Redfish RAID
interface implementation:
.. NOTE::
When using ``idrac-redfish`` for RAID interface iDRAC firmware greater than
4.40.00.00 is required.
Mandatory properties
--------------------
* ``size_gb``: Size in gigabytes (integer) for the logical disk. Use ``MAX`` as
``size_gb`` if this logical disk is supposed to use the rest of the space available.
* ``raid_level``: RAID level for the logical disk. Valid values are
``0``, ``1``, ``5``, ``6``, ``1+0``, ``5+0`` and ``6+0``.
.. NOTE::
``JBOD`` and ``2`` are not supported, and will fail with reason: 'Cannot
calculate spans for RAID level.'
Optional properties
-------------------
* ``is_root_volume``: Optional. Specifies whether this disk is a root volume.
By default, this is ``False``.
* ``volume_name``: Optional. Name of the volume to be created. If this is not
specified, it will be auto-generated.
Backing physical disk hints
---------------------------
See :doc:`/admin/raid` for more information on backing disk hints.
These are machine-independent information. The hints are specified for each
logical disk to help Ironic find the desired disks for RAID configuration.
* ``disk_type``
* ``interface_type``
* ``share_physical_disks``
* ``number_of_physical_disks``
Backing physical disks
----------------------
These are Dell RAID controller-specific values and must match the
names provided by the iDRAC.
* ``controller``: Mandatory. The name of the controller to use.
* ``physical_disks``: Optional. The names of the physical disks to use.
.. NOTE::
``physical_disks`` is a mandatory parameter if the property ``size_gb`` is set to ``MAX``.
Examples
--------
Creation of RAID ``1+0`` logical disk with six disks on one controller:
.. code-block:: json
{ "logical_disks":
[ { "controller": "RAID.Integrated.1-1",
"is_root_volume": "True",
"physical_disks": [
"Disk.Bay.0:Enclosure.Internal.0-1:RAID.Integrated.1-1",
"Disk.Bay.1:Enclosure.Internal.0-1:RAID.Integrated.1-1",
"Disk.Bay.2:Enclosure.Internal.0-1:RAID.Integrated.1-1",
"Disk.Bay.3:Enclosure.Internal.0-1:RAID.Integrated.1-1",
"Disk.Bay.4:Enclosure.Internal.0-1:RAID.Integrated.1-1",
"Disk.Bay.5:Enclosure.Internal.0-1:RAID.Integrated.1-1"],
"raid_level": "1+0",
"size_gb": "MAX"}]}
Manual RAID Invocation
----------------------
The following command can be used to delete any existing RAID configuration.
It deletes all virtual disks/RAID volumes, unassigns all global and dedicated
hot spare physical disks, and clears foreign configuration:
.. code-block:: bash
baremetal node clean --clean-steps \
'[{"interface": "raid", "step": "delete_configuration"}]' ${node_uuid}
The following command shows an example of how to set the target RAID
configuration:
.. code-block:: bash
baremetal node set --target-raid-config '{ "logical_disks":
[ { "controller": "RAID.Integrated.1-1",
"is_root_volume": true,
"physical_disks": [
"Disk.Bay.0:Enclosure.Internal.0-1:RAID.Integrated.1-1",
"Disk.Bay.1:Enclosure.Internal.0-1:RAID.Integrated.1-1"],
"raid_level": "0",
"size_gb": "MAX"}]}' ${node_uuid}
The following command can be used to create a RAID configuration:
.. code-block:: bash
baremetal node clean --clean-steps \
'[{"interface": "raid", "step": "create_configuration"}]' <node>
When the physical disk names or controller names are not known, the
following Python code example shows how the ``python-dracclient`` can
be used to fetch the information directly from the Dell bare metal:
.. code-block:: python
import dracclient.client
client = dracclient.client.DRACClient(
host="192.168.1.1",
username="root",
password="calvin")
controllers = client.list_raid_controllers()
print(controllers)
physical_disks = client.list_physical_disks()
print(physical_disks)
Or using ``sushy`` with Redfish:
.. code-block:: python
import sushy
client = sushy.Sushy('https://192.168.1.1', username='root', password='calvin', verify=False)
for s in client.get_system_collection().get_members():
print("System: %(id)s" % {'id': s.identity})
for c in system1.storage.get_members():
print("\tController: %(id)s" % {'id': c.identity})
for d in c.drives:
print("\t\tDrive: %(id)s" % {'id': d.identity})
Vendor Interface
================
idrac-wsman
-----------
Dell iDRAC BIOS management is available through the Ironic WSMAN vendor
passthru interface.
======================== ============ ======================================
Method Name HTTP Method Description
======================== ============ ======================================
``abandon_bios_config`` ``DELETE`` Abandon a BIOS configuration job.
``commit_bios_config`` ``POST`` Commit a BIOS configuration job
submitted through ``set_bios_config``.
Required argument: ``reboot`` -
indicates whether a reboot job
should be automatically created
with the config job. Returns a
dictionary containing the ``job_id``
key with the ID of the newly created
config job, and the
``reboot_required`` key indicating
whether the node needs to be rebooted
to execute the config job.
``get_bios_config`` ``GET`` Returns a dictionary containing the
node's BIOS settings.
``list_unfinished_jobs`` ``GET`` Returns a dictionary containing
the key ``unfinished_jobs``; its value
is a list of dictionaries. Each
dictionary represents an unfinished
config job object.
``set_bios_config`` ``POST`` Change the BIOS configuration on
a node. Required argument: a
dictionary of {``AttributeName``:
``NewValue``}. Returns a dictionary
containing the ``is_commit_required``
key indicating whether
``commit_bios_config`` needs to be
called to apply the changes and the
``is_reboot_required`` value
indicating whether the server must
also be rebooted. Possible values are
``true`` and ``false``.
======================== ============ ======================================
Examples
^^^^^^^^
Get BIOS Config
~~~~~~~~~~~~~~~
.. code-block:: bash
baremetal node passthru call --http-method GET <node> get_bios_config
Snippet of output showing virtualization enabled:
.. code-block:: json
{"ProcVirtualization": {
"current_value": "Enabled",
"instance_id": "BIOS.Setup.1-1:ProcVirtualization",
"name": "ProcVirtualization",
"pending_value": null,
"possible_values": [
"Enabled",
"Disabled"],
"read_only": false }}
There are a number of items to note from the above snippet:
* ``name``: this is the name to use in a call to ``set_bios_config``.
* ``current_value``: the current state of the setting.
* ``pending_value``: if the value has been set, but not yet committed,
the new value is shown here. The change can either be committed or
abandoned.
* ``possible_values``: shows a list of valid values which can be used
in a call to ``set_bios_config``.
* ``read_only``: indicates if the value is capable of being changed.
Set BIOS Config
~~~~~~~~~~~~~~~
.. code-block:: bash
baremetal node passthru call <node> set_bios_config --arg "name=value"
Walkthrough of perfoming a BIOS configuration change:
The following section demonstrates how to change BIOS configuration settings,
detect that a commit and reboot are required, and act on them accordingly. The
two properties that are being changed are:
* Enable virtualization technology of the processor
* Globally enable SR-IOV
.. code-block:: bash
baremetal node passthru call <node> set_bios_config \
--arg "ProcVirtualization=Enabled" \
--arg "SriovGlobalEnable=Enabled"
This returns a dictionary indicating what actions are required next:
.. code-block:: json
{
"is_reboot_required": true,
"is_commit_required": true
}
Commit BIOS Changes
~~~~~~~~~~~~~~~~~~~
The next step is to commit the pending change to the BIOS. Note that in this
example, the ``reboot`` argument is set to ``true``. The response indicates
that a reboot is no longer required as it has been scheduled automatically
by the ``commit_bios_config`` call. If the reboot argument is not supplied,
the job is still created, however it remains in the ``scheduled`` state
until a reboot is performed. The reboot can be initiated through the
Ironic power API.
.. code-block:: bash
baremetal node passthru call <node> commit_bios_config \
--arg "reboot=true"
.. code-block:: json
{
"job_id": "JID_499377293428",
"reboot_required": false
}
The state of any executing job can be queried:
.. code-block:: bash
baremetal node passthru call --http-method GET <node> list_unfinished_jobs
.. code-block:: json
{"unfinished_jobs":
[{"status": "Scheduled",
"name": "ConfigBIOS:BIOS.Setup.1-1",
"until_time": "TIME_NA",
"start_time": "TIME_NOW",
"message": "Task successfully scheduled.",
"percent_complete": "0",
"id": "JID_499377293428"}]}
Abandon BIOS Changes
~~~~~~~~~~~~~~~~~~~~
Instead of committing, a pending change can be abandoned:
.. code-block:: bash
baremetal node passthru call --http-method DELETE <node> abandon_bios_config
The abandon command does not provide a response body.
Change Boot Mode
^^^^^^^^^^^^^^^^
The boot mode of the iDRAC can be changed to:
* BIOS - Also called legacy or traditional boot mode. The BIOS initializes the
system’s processors, memory, bus controllers, and I/O devices. After
initialization is complete, the BIOS passes control to operating system (OS)
software. The OS loader uses basic services provided by the system BIOS to
locate and load OS modules into system memory. After booting the system, the
BIOS and embedded management controllers execute system management
algorithms, which monitor and optimize the condition of the underlying
hardware. BIOS configuration settings enable fine-tuning of the
performance, power management, and reliability features of the system.
* UEFI - The Unified Extensible Firmware Interface does not change the
traditional purposes of the system BIOS. To a large extent, a UEFI-compliant
BIOS performs the same initialization, boot, configuration, and management
tasks as a traditional BIOS. However, UEFI does change the interfaces and
data structures the BIOS uses to interact with I/O device firmware and
operating system software. The primary intent of UEFI is to eliminate
shortcomings in the traditional BIOS environment, enabling system firmware to
continue scaling with industry trends.
The UEFI boot mode offers:
* Improved partitioning scheme for boot media
* Support for media larger than 2 TB
* Redundant partition tables
* Flexible handoff from BIOS to OS
* Consolidated firmware user interface
* Enhanced resource allocation for boot device firmware
The boot mode can be changed via the WSMAN vendor passthru interface as
follows:
.. code-block:: bash
baremetal node passthru call <node> set_bios_config \
--arg "BootMode=Uefi"
baremetal node passthru call <node> commit_bios_config \
--arg "reboot=true"
.. code-block:: bash
baremetal node passthru call <node> set_bios_config \
--arg "BootMode=Bios"
baremetal node passthru call <node> commit_bios_config \
--arg "reboot=true"
idrac-redfish
-------------
Through the ``idrac-redfish`` vendor passthru interface these methods are
available:
================ ============ ==============================================
Method Name HTTP Method Description
================ ============ ==============================================
``eject_media`` ``POST`` Eject a virtual media device. If no device is
provided then all attached devices will be
ejected. Optional argument: ``boot_device`` -
the boot device to eject, either, ``cd``,
``dvd``, ``usb`` or ``floppy``.
================ ============ ==============================================
Known Issues
============
Nodes go into maintenance mode
------------------------------
After some period of time, nodes managed by the ``idrac`` hardware type may go
into maintenance mode in Ironic. This issue can be worked around by changing
the Ironic power state poll interval to 70 seconds. See
``[conductor]sync_power_state_interval`` in ``/etc/ironic/ironic.conf``.
PXE reset with "factory_reset" BIOS clean step
----------------------------------------------
When using the ``UEFI boot mode`` with non-default PXE interface, the factory
reset can cause the PXE interface to be reset to default, which doesn't allow
the server to PXE boot for any further operations. This can cause a
``clean_failed`` state on the node or ``deploy_failed`` if you attempt to
deploy a node after this step. For now, the only solution is for the operator
to manually restore the PXE settings of the server for it to PXE boot again,
properly.
The problem is caused by the fact that with the ``UEFI boot mode``, the
``idrac`` uses BIOS settings to manage PXE configuration. This is not the case
with the ``BIOS boot mode`` where the PXE configuration is handled as a
configuration job on the integrated NIC itself, independently of the BIOS
settings.
.. _Ironic_RAID: https://docs.openstack.org/ironic/latest/admin/raid.html
.. _iDRAC: https://www.dell.com/idracmanuals
WSMAN vendor passthru timeout
-----------------------------
When iDRAC is not ready and executing WSMAN vendor passthru commands, they take
more time as waiting for iDRAC to become ready again and then time out,
for example:
.. code-block:: bash
baremetal node passthru call --http-method GET \
aed58dca-1b25-409a-a32f-3a817d59e1e0 list_unfinished_jobs
Timed out waiting for a reply to message ID 547ce7995342418c99ef1ea4a0054572 (HTTP 500)
To avoid this need to increase timeout for messaging in ``/etc/ironic/ironic.conf``
and restart Ironic API service.
.. code-block:: ini
[DEFAULT]
rpc_response_timeout = 600
Timeout when powering off
-------------------------
Some servers might be slow when soft powering off and time out. The default retry count
is 6, resulting in 30 seconds timeout (the default retry interval set by
``post_deploy_get_power_state_retry_interval`` is 5 seconds).
To resolve this issue, increase the timeout to 90 seconds by setting the retry count to
18 as follows:
.. code-block:: ini
[agent]
post_deploy_get_power_state_retries = 18
Unable to mount remote share with iDRAC firmware before 4.40.40.00
------------------------------------------------------------------
When using iDRAC firmware 4.40.00.00 and consecutive versions before 4.40.40.00
with virtual media boot and new Virtual Console plug-in type eHTML5, there is
an error: "Unable to mount remote share". This is a known issue that is fixed
in 4.40.40.00 iDRAC firmware release. If cannot upgrade, then adjust settings
in iDRAC to use plug-in type HTML5. In iDRAC web UI go to Configuration ->
Virtual Console and select Plug-in Type to HTML5.
During upgrade to 4.40.00.00 or newer iDRAC firmware eHTML5 is automatically
selected if default plug-in type has been used and never changed. Systems that
have plug-in type changed will keep selected plug-in type after iDRAC firmware
upgrade.
.. _SCP_Reference_Guide: http://downloads.dell.com/manuals/common/dellemc-server-config-profile-refguide.pdf
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