This is a fork of the original SMD code from Cray-HPE/hms-smd, suitable only for experimentation and demo purposes at this point.
While the OpenCHAMI smd daemon is fundamentally the same as the original from HPE, it differs in a few ways:
- The vendor directory has been removed and the go version has been updated
- Releases are handled with goreleaser and containers are published to ghcr.io
- Additional commandline arguments are available to disable internal "threads" in favor of external daemons
- The
/componentsendpoint supports POST - HPE build and test frameworks are not used
It still provides inventory management services for HPC systems based on BMC discovery and enumeration.
This project uses GoReleaser to automate releases and include additional build metadata such as commit info, build time, and versioning. Below is a guide on how to set up and build the project locally using GoReleaser.
To include detailed build metadata, ensure the following environment variables are set:
- GIT_STATE: Indicates whether there are uncommitted changes in the working directory. Set to clean if the repository is clean, or dirty if there are uncommitted changes.
- BUILD_HOST: The hostname of the machine where the build is being performed.
- GO_VERSION: The version of Go used for the build. GoReleaser uses this to ensure consistent Go versioning information.
- BUILD_USER: The username of the person or system performing the build.
Set all the environment variables with:
export GIT_STATE=$(if git diff-index --quiet HEAD --; then echo 'clean'; else echo 'dirty'; fi)
export BUILD_HOST=$(hostname)
export GO_VERSION=$(go version | awk '{print $3}')
export BUILD_USER=$(whoami)Once the environment variables are set, you can build the project locally using GoReleaser in snapshot mode (to avoid publishing).
Follow the installation instructions from GoReleaser’s documentation.
- Run GoReleaser in snapshot mode with the --snapshot and --skip-publish flags to create a local build without attempting to release it:
goreleaser release --snapshot --skip-publish --clean- Check the dist/ directory for the built binaries, which will include the metadata from the environment variables. You can inspect the binary output to confirm that the metadata was correctly embedded.
The rest of this README is unchanged from the HPE version.
The Shasta Hardware State Manager monitors and interrogates hardware components in a Shasta system, tracking hardware state and inventory information, and making it available via REST queries and message bus events when changes occur.
This service provides the following functions:
- Performs inventory discovery of all known Mountain/River controllers in system
- This process bootstraps everything HSM tracks.
- Updated in response to component life-cycle changes to keep info current.
- Interrogates Redfish controllers whenever provided by an endpoint discovery service:
- REDS
- MEDS
- Or manually added to Hardware State Manager via REST
- Tracks hardware state and other high-level component data:
- Hardware state (e.g. Empty/Off/On/Ready(heart beating))
- Logical state (i.e. managed plane software state)
- Hardware Type (i.e. Node, Chassis, BMC, Slot), as well as SubType
- Enabled/Disabled status
- Role, e.g. Compute vs. NCN type (nodes only)
- NID, i.e. the numerical Node ID (nodes only)
- Architecture
- Allows the creation of component groups and partitions
- Tracks default NIDs and Roles to use when discovering new nodes
- Stores Redfish endpoint and component data obtained via inventory discovery
- Translates global Physical IDs (i.e. xnames) to local Redfish URIs.
- Stores component-by-component Redfish properties to allow interactions
- Stores needed boot-time information such as MACs
- Actions for performing power operations via the managing Redfish EP
- Service endpoint info, e.g. for performing firmware updates
- Learns, stores and tracks detailed hardware inventory data:
- Tracks FRU data for manufacturing/service and scheduling (e.g. SLURM)
- Tracks FRUs by location, showing the present composition of the system.
- We include the most detailed information available on:
- The manufacturer, model, revision, and so on describing exactly what is installed.
- Serial numbers and any other identifying info to track individual pieces of HW
- Properties of the hardware describing it's resources and abilities, for example:
- Speeds
- Memory/storage capacities
- Thread and core counts
- The component family and the specific sub-type in use
The main components of smd's RESTful API are as follows:
/hsm/v2/Inventory/RedfishEndpoints
POST A new RedfishEndpoint to be inventoried by state manager
GET The collection of all RedfishEndpoints, with optional filters.
/hsm/v2/Inventory/RedfishEndpoints/{xname-id}
PUT Updates to a RedfishEndpoint
GET The RedfishEndpoint's details or check its discovery status
DELETE A RedfishEndpoint that is no longer in the system
/hsm/v2/Inventory/ComponentsEndpoints?filter-option1=xxx...
GET Array of Redfish details for a filtered subset of components
/hsm/v2/Inventory/ComponentsEndpoints/{xname-id}
GET Redfish details for a specific component
/hsm/v2/State/Components?filter-option1=xxx...
GET A filtered subset of all components, or a specific component by its id
/hsm/v2/State/Components
POST A list of individual component ids to query, and filtering options.
/hsm/v2/State/Components/{xname-id}
GET The HW state, flag, role, enabled status, NID, etc. of the component
PATCH The HW state, flag, role, enabled status, NID, etc. of a component
/hsm/v2/State/Components/Query
POST A list of parents and filtering options
/hsm/v2/State/Components/Query/{parent-id}?filter-option1=xxx...
GET Parent and children of selected component parent id, optionally filtering
/hsm/v2/Inventory/Hardware/Query/all
GET An xthwinv-like json representation of the system's hardware and FRUs.
/hsm/v2/Inventory/HardwareByFRU/{fru-id}
GET Details on a particular FRU by it's ID.
/hsm/v2/Inventory/HardwareByFRU/{fru-id}
GET Details on a particular FRU by it's ID.
/hsm/v2/Defaults/NodeMaps
GET All NodeMaps entries, with default NID and Role per xname
POST One or more new NodeMaps entries to be added or overwritten
/hsm/v2/Defaults/NodeMaps/{xname}
GET The default NID and Role for {xname}
PUT Update the default NID and Role for xname {xname}
/hsm/v2/groups
GET Details on all groups
POST A new component group with a list of members
/hsm/v2/groups/{group-label}
PATCH Metadata for an existing group {group-label}
GET Details on the group {group-label}, i.e. it's members and metadata
/hsm/v2/groups/{group-label}/members
GET Just the member list for a group
POST The id of a new component to add to the group's members list
/hsm/v2/groups/{group-label}/members/{xname-id}
DELETE Component {xname-id} from the members of the group {group-label}
/hsm/v2/partitions
GET Details on all partitions
POST A new partition with a list of members
/hsm/v2/partitions/{part-name}
PATCH Metadata for an existing partition {part-name}
GET Details on the partition {part-name}, i.e. it's members and metadata
/hsm/v2/partitions/{part-name}/members
GET Just the members list for a partition
POST The id of a new component to add to the partition's members list
/hsm/v2/partitions/{part-name}/members/{xname-id}
DELETE Component {xname-id} from the members of partition {part-name}
/hsm/v2/memberships?filter-option1=xxx...
GET A filtered list of each system component's group/partition memberships
/hsm/v2/memberships/{xname-id}
GET The group and partition memberships (if any) of component {xname-id}
NOTE The above is NOT an exhausive list of the API calls and is intended solely as an overview
The complete HSM (smd) API documentation is included in the Cray API docs. This is the nightly-generated version. Content is generated in an automated fashion from the current swagger.yaml file.
http://web.us.cray.com/~ekoen/cray-portal/public
Latest detailed API usage examples:
https://github.com/OpenCHAMI/smd/blob/master/docs/examples.adoc (current)
Latest swagger.yaml (if you would prefer to use the OpenAPI viewer of your choice):
https://github.com/OpenCHAMI/smd/blob/master/api/swagger_v2.yaml (current)
In addition to the service itself, this repository builds and publishes cray-smd-test images containing tests that verify HSM on live Shasta systems. The tests are invoked via helm test as part of the Continuous Test (CT) framework during CSM installs and upgrades. The version of the cray-smd-test image (vX.Y.Z) should match the version of the cray-smd image being tested, both of which are specified in the helm chart for the service.
This is primarily intended to compare XC-Shasta functionality.
| V1 Feature | V1+ Feature | XC Equivalent |
|---|---|---|
| /hsm/v2/State/Components (structure) | - | rs_node_t |
| /hsm/v2/State/Components (GET) | - | xtcli status, but with all fields, including NIDs |
| /hsm/v2/State/Components/Query/ (GET) | - | xtcli status |
| /hsm/v2/State/Components//Enabled (PATCH) | - | xtcli enable/disable |
| /hsm/v2/State/Components//Role (PATCH) | - | xtcli mark (1) |
| /hsm/v2/State/Components//StateData (PATCH) | - | xtcli set_empty -f |
| /hsm/v2/State/Components//FlagOnly (PATCH) | - | xtcli set_flag/clr_flag (2) |
| /hsm/v2/Inventory/Hardware/Query/all (GET) | - | xthwinv s0 |
| /hsm/v2/Inventory/Discover (POST XNames list) | - | xtdiscover --warmswap (3) |
| - | Additional Hardware/Query options | xthwinv |
| SCN Events | - | ec_node_(un)available, ec_node_failed |
| - | See Future Features and Updates Below | - |
(1) Role determines Compute vs NCN (Non-Compute Node) type, not Compute vs. Service as on XC.
(2) Flags cleared automatically on successful state transition, so normally not needed.
(3) There is no direct equivalent to the full xtdiscover command on Shasta. Discovery is continuous in response to system events and works in concert with endpoint discovery performed by MEDS and REDS, as well as system info provided by (the upcoming) IDEALS.
- Inventory discovery of all known Mountain/River controllers in system
- Tracks hardware state and other high-level component data (like rs_node_t on XC)
- Allows the creation of component groups and partitions
- Tracks default NIDs and Roles to use when discovering new nodes
- This can be used to distinguish Compute vs Non-Compute Nodes NCNs
- Stores Redfish endpoint and component data obtained via inventory discovery
- This is used by HMS services such as CAPMC to interact with nodes via Redfish
- Monitors Redfish events from currently supported River/Mountain controller types
- Looks at BMC alerts/events to track power on/off changes
- Events vary by manufacturer/firmware version.
- Learns, stores and tracks detailed hardware inventory data. Currently supported types are:
- Mountain Chassis and Slots (Compute and Router)
- Mountain cC and sC and associated board and node subcomponents
- River BMCs and Nodes for Intel s2600
- Processors and DIMMs
- River RackPDUs.
- Sends SCN State Change Notifications via the HMI NFD for Component State and other field changes.
- Automatic warmswaps/removals/additions with no manual rediscovery
- Integration with IDEALS to:
- Report empty components where missing/undiscovered
- Retrieve info on manually configured components/endpoints
- Get information on NID map, roles, etc. from CCD-based data.
- And so on.
- Performance/scaling optimizations
- Inventory and State monitoring of additional component types
- Support for Gigabyte River nodes (discovery/events)
- Improved FRU tracking
- Historical Location<->FRU tracking
- FRU firmware version tracking
- Full featured push events for all hardware changes for HMS services and customer message bus. (Having services poll HSM doesn't scale.)
- Cease storage of RedfishEndpoint credentials in DB, using vault instead.
- Use HMS specific Kafka bus for Redfish and HSM(smd) events to decouple from the telemetry/SMA message bus.
- Improved DB testing capabilities and allowing saving/restoring database settings for test/debug
- Dumping state for dump utility(?)
Note that these are the States HSM directly has access to. They are basically just the hardware states, with the Ready, et. al states above On being tracked by the heartbeat monitor is the case of nodes (and in the case of controllers, by HSM directly confirming that a component can be accessed for Redfish operations). Other hardware types will generally go no higher than on.
A separate field, SoftwareStatus, is intended for any additional state that might exist for a heart beating node. Note that we have no table of these states, nor a transition diagram, because these are a function of the managed plane and we do not limit what can appear there so that there are no dependencies created.
StateUnknown HMSState = "Unknown" // The State is unknown. Appears missing but has not been confirmed as empty.
StateEmpty HMSState = "Empty" // The location is not populated with a component
StatePopulated HMSState = "Populated" // Present (not empty), but no further track can or is being done.
StateOff HMSState = "Off" // Present but powered off
StateOn HMSState = "On" // Powered on. If no heartbeat mechanism is available, it's software state may be unknown.
StateStandby HMSState = "Standby" // No longer Ready and presumed dead. It typically means HB has been lost (w/alert).
StateHalt HMSState = "Halt" // No longer Ready and halted. OS has been gracefully shutdown or panicked (w/ alert).
StateReady HMSState = "Ready" // Both On and Ready to provide its expected services, i.e. used for jobs.
To avoid undesirable behavior (bad ordering, invalid states), only certain state transitions are allowed based upon events or REST operations.
Note that the inventory discovery process has the ability to perform any state change, e.g. when a new component is added or is powered on after appearing to disappear from the system.
Desired new state - Required current state
"Unknown": {}, // Force/HSM-internal only
"Empty": {}, // Force/HSM-internal only
"Populated": {}, // Force/HSM-internal only
"Off": {StateOff, StateOn, StateStandby, StateHalt, StateReady},
"On": {StateOn, StateOff, StateStandby, StateHalt, StateReady},
"Standby": {StateStandby, StateReady},
"Halt": {StateHalt, StateReady},
"Ready": {StateReady, StateOn},
Setting default NIDs
This document describes and provides examples for the Hardware State Manager smd) NodeMaps feature, which allows the installer (or a user via the HSM REST API) to pre-populate default NID assignments for node locations in the system. These are then used a node with an xname matches the NodeMaps entry of the same name, setting the correct NID and Role values from the start, and making it unnecessary to manually patch them.
Groups (or Labels)
Are named sets of system components, most commonly nodes. Each component may belong to any number of groups. Groups can be created freely, and smd does not assign them any particular predetermined meaning.
Partitions
Are essentially a kind of group, but have an established meaning and are treated as distinct entities from groups. Each component may belong to at most one partition, and partitions are used as an access control mechanism.
- To allow the creation, deletion and modification of groups and partitions, as well as the members thereof
- To allow groups and partitions to be used as filtering mechanisms for existing smd API calls.
* Filtering by partition should be optimized for use as an access control mechanism.
hmcollector polls smd periodically and establishes event subscriptions when new RedfishEndpoints are found. These events are used for power state changes and they are POSTed to a kafka bus (currently the telemetry bus) that smd then monitors.
When an event comes in, smd establishes the sending BMC and then looks up (via the ComponentEndpoints) the path of the subcomponent URI referenced in the payload in order to establish, for example, which of the two nodes under a node controller is the one powering on or off.
The event payloads used can vary from Redfish implementation to implementation. In some cases, these are "Alert" type events that are more or less a repackaging of the underlying iPMI alert message. In other cases, the controller may use the standard ResourceEvent registry, where the intent is to report on Redfish Status field (and other) changes in a more generic way.
State Change Notification Infrastructure
Set via -e during docker run or in k8s configuration:
RF_MSG_HOST - Sets the kafkahost:port:topic
SMD_PROXY - socks5 proxy to use when interrogating Redfish endpoint IPs.
SMD_DBTYPE - Only option, and default if blank is "postgres"
SMD_DBNAME - Name of database to connect to (defaulr: hmsds)
SMD_DBUSER - DB Account to use (default: hmsdsuser)
SMD_DBHOST - DB Hostname (e.g. cray-smd-postgres in kubernetes)
SMD_DBPORT - DB Port (default 5432)
SMD_DBPASS - Password for SMD_DBUSER
SMD_DBOPTS - Additional DB parameters to append to connection DSN
LOGLEVEL - Set log level (0-4)
- Launch non-clustered postgres container, after making sure postgres is not already running locally on this port
sudo docker run --rm --name cray-smd-postgres -e POSTGRES_PASSWORD=hmsdsuser -e POSTGRES_USER=hmsdsuser -e POSTGRES_DB=hmsds -d -p 5432:5432 postgres:10.8 - Launch cray-smd-init container to update or initialize DB schema
sudo docker pull dtr.dev.cray.com:443/cray/cray-smd-init:latest sudo docker run --name smd-init --link cray-smd-postgres:cray-smd-postgres -e SMD_DBHOST=cray-smd-postgres -e SMD_DBOPTS="sslmode=disable" -e SMD_DBPASS=hmsdsuser -d dtr.dev.cray.com:443/cray/cray-smd-init:latest - Launch cray-smd (State Management Daemon a.k.a. HSM) with env variable set to use socks5 proxy (9999 being the example port number):
sudo docker pull dtr.dev.cray.com:443/cray/cray-smd:latest sudo docker run --name smd --net host -p 27779:27779 -e SMD_DBHOST=127.0.0.1 -e SMD_DBPASS=hmsdsuser -e SMD_DBOPTS="sslmode=disable" -e SMD_PROXY="socks5://127.0.0.1:9999" -d dtr.dev.cray.com:443/cray/cray-smd:latest - Double check everything is working:
bshields@shasta-sms:~> curl -k https://localhost:27779/hsm/v2/groups []
Find the machine you wish to discover and ssh to it with dynamic port forwarding enabled on the local port you gave for SMD_PROXY:
ssh -D 9999 [email protected]Leave this window open until you are finished with the discovery.
Double check /etc/hosts for the BMC IP addresses that are assigned to the nodes you wish to discover, in case they are non-standard ones
If the proxy has been set up (or you are running locally on an SMS), then you can then create endpoints for every BMC you wish to discover using their native BMC IP addresses.
NOTE: If you need particular NIDs and Roles, you will need to set up xname entries in /hsm/v2/Defaults/NodeMaps BEFORE discovery OR patch the NID and/or Role fields after discovery:
Example creation and discovery of preview system computes
These are the usual computes found on a standard preview system, but you can easily adapt this example for whatever is in /etc/hosts. Just make sure you use the BMC xname and a raw IP (if using a socks5 proxy):
curl -k -d '{"ID": "x0c0s28b0", "RediscoverOnUpdate":true, "Hostname":"10.4.0.5", "User": "root","Password": "somePassword"}' -H "Content-Type: application/json" -X POST https://localhost:27779/hsm/v2/Inventory/RedfishEndpoints
curl -k -d '{"ID": "x0c0s26b0", "RediscoverOnUpdate":true, "Hostname":"10.4.0.6", "User": "root","Password": "somePassword"}' -H "Content-Type: application/json" -X POST https://localhost:27779/hsm/v2/Inventory/RedfishEndpoints
curl -k -d '{"ID": "x0c0s24b0", "RediscoverOnUpdate":true, "Hostname":"10.4.0.7", "User": "root","Password": "somePassword"}' -H "Content-Type: application/json" -X POST https://localhost:27779/hsm/v2/Inventory/RedfishEndpoints
curl -k -d '{"ID": "x0c0s21b0", "RediscoverOnUpdate":true, "Hostname":"10.4.0.8", "User": "root","Password": "somePassword"}' -H "Content-Type: application/json" -X POST https://localhost:27779/hsm/v2/Inventory/RedfishEndpoints
NOTE: the above path is assuming you are running docker in a bare container (see above). Otherwise use 'https:///apis/smd/hsm/v2/... instead of 'https://localhost:27779/hsm/...'
Also note that inventory discovery is a read-only operation and should not do anything to the endpoints besides walk them via GETs. The "RediscoverOnUpdate":true field is important because it will automatically kick off inventory discovery.
Running a plain docker container is not really practical in a full helm-based deployment because of the lack of integration and features that are provided via helm.
The easiest way to add nodes via discovery is to find nodes that have externally visible IP addresses for their BMCs.
I've not gotten the socks5 method above to work in kubernetes, but it might be something simple. Logging into each cray-smd pod using kubectl exec and doing "apk add openssh" will allow you to install ssh and use it to connect to external hosts, however the -D option gives an error logging in. In any case, you would have to reroll the values.yaml helm chart for cray-smd (and incrememnt the version number in Chart.yaml) to add the SMD_PROXY env variable (see above)
Accessing Postgres Operator
You can access the postgres database cluster as follows:
sms-1:~ # kubectl get pods -n services | grep smd
sms-1:~ # kubectl exec -it -n services cray-smd-{id-from-previous} -- /bin/sh
/ # cat /secrets/postgres/hmsdsuser/password # Copy to clipboard
/ # psql hmsds hmsdsuser -h cray-smd-postgres-0 -W
(Paste password)
At this point, you have two options.
- Use the following instructions to dump (from a real machine) a db backup and restore it on craystack if the db is fresh and empty.
https://www.postgresql.org/docs/11/backup-dump.html
- Use the instructions below to manually create a few Components (limited functonality) via the pgsl client directly.
WARNING: This only works for some kinds of testing as it creates incomplete configurations (but should work with group, partition, and State/Components calls, though remember that normally there will be non-Node components you will need to filter out if that's desired).
Moreover, even in this case, adding entries manually can create a corrupt database even if data is correct but improperly normalized. Best to not stray from the example below except to change the slot number in the xname and the NID.
- Access the database on one of the postgres containers, as described above, from the cray-smd pod:
(cray-smd-container) # psql hmsds hmsdsuser -h cray-smd-postgres-0 -W
<enter password from /secrets/postgres/hmsdsuser/password, see above>
- Create Nodes one at a time with the following template (follow carefully, note '123' is the NID).
hmsds=> insert INTO components (id,type,state,flag,enabled,admin,role,nid,subtype,nettype,arch) VALUES('x0c0s0b0n0','Node','Empty','OK',true,'','Compute',123,'','Sling','X86');
- If you get the following, the insert worked and you are on the primary node for the postgres cluster.
INSERT 0 1 # <- SUCCESS, running on primary
- If you get the following error, repeat steps 1 and 2 with -h cray-smd-postgres-1 and, if needed, -h cray-smd-postgres-2. Password is the same.
ERROR: cannot execute INSERT in a read-only transaction # <- Not on primary postgres pod
- Quitting the psql editor
hmsds=> \q
- Display contents of a table
hmsds=> SELECT * FROM table_name;
- Display contents of the components table
hmsds=> SELECT * FROM components;
- Display only components of type 'Node' from the components table
hmsds=> SELECT * FROM components
hmsds-> WHERE type = 'Node';
- Delete a node from the components table; Necessary precursor to re-adding the same node with different values
hmsds=> DELETE FROM components WHERE id = 'x3000c0s19b1n0';
- Create a node in the components table with the given attributes
hmsds=> insert INTO components (id,type,state,flag,enabled,admin,role,nid,subtype,nettype,arch) VALUES('x0c0s0b0n0','Node','Empty','OK',true,'','Compute',123,'','Sling','X86');
- List available tables
hmsds=> \dt
- Describe a table
hmsds=> \d table_name
- Command history
hmsds=> \s
- Get help on psql commands
hmsds=> \h
I don't have step-by-step instructions but the basic idea is to:
- At some point use the above instructions to access postgres on a real system and run pg_dump.
- On Craystack, access postgres on the primary node after smd is first installed and load the dump
For more info: https://www.postgresql.org/docs/11/backup-dump.html
Note if it is easier, you can run pg_dump/psql on the sms, but you must use the IP, not the hostname, of the cray-smd-postgres-[012] service. Running kubectl get services -n services will get you this IP.