Im Folgenden finden Sie ein Beispiel für die YAML-Datei, die erstellt wird, wenn Sie den Befehl bmctl create cluster ausführen. Weitere Informationen zu diesem Befehl und wie Sie damit verschiedene Arten von Clusterkonfigurationen erstellen, finden Sie in den folgenden Themen:
- Installationsübersicht: Bereitstellungsmodell auswählen
- Administratorcluster erstellen
- Nutzercluster erstellen
- Hybridcluster erstellen
- Eigenständige Cluster erstellen
Cluster-Konfigurationsdatei
# bmctl configuration variables. Because this section is valid YAML but not a valid Kubernetes
# resource, this section can only be included when using bmctl to
# create the initial admin/hybrid cluster. Afterwards, when creating user clusters by directly
# applying the cluster and node pool resources to the existing cluster, you must remove this
# section.
gcrKeyPath: <path to GCR service account key>
sshPrivateKeyPath: <path to SSH private key, used for node access>
gkeConnectAgentServiceAccountKeyPath: <path to Connect agent service account key>
gkeConnectRegisterServiceAccountKeyPath: <path to Hub registration service account key>
cloudOperationsServiceAccountKeyPath: <path to Cloud Operations service account key>
---
apiVersion: v1
kind: Namespace
metadata:
name: cluster-example
---
apiVersion: baremetal.cluster.gke.io/v1
kind: Cluster
metadata:
name: example
namespace: cluster-example
spec:
# Cluster type. This can be:
# 1) admin: to create an admin cluster. This can later be used to create user clusters.
# 2) user: to create a user cluster. Requires an existing admin cluster.
# 3) hybrid: to create a hybrid cluster that runs admin cluster components and user workloads.
# 4) standalone: to create a cluster that manages itself, runs user workloads, but does not manage other clusters.
type: admin
# Anthos cluster version.
anthosBareMetalVersion: 1.9.8
# GKE connect configuration
gkeConnect:
projectID: <GCP project ID>
# Control plane configuration
controlPlane:
nodePoolSpec:
nodes:
# Control plane node pools. Typically, this is either a single machine
# or 3 machines if using a high availability deployment.
- address: <Machine 1 IP>
# Cluster networking configuration
clusterNetwork:
# Pods specify the IP ranges from which pod networks are allocated.
pods:
cidrBlocks:
- 192.168.0.0/16
# Services specify the network ranges from which service virtual IPs are allocated.
# This can be any RFC 1918 range that does not conflict with any other IP range
# in the cluster and node pool resources.
services:
cidrBlocks:
- 10.96.0.0/20
# Load balancer configuration
loadBalancer:
# Load balancer mode can be either 'bundled' or 'manual'.
# In 'bundled' mode a load balancer will be installed on load balancer nodes during cluster creation.
# In 'manual' mode the cluster relies on a manually-configured external load balancer.
mode: bundled
# Load balancer port configuration
ports:
# Specifies the port the load balancer serves the Kubernetes control plane on.
# In 'manual' mode the external load balancer must be listening on this port.
controlPlaneLBPort: 443
# There are two load balancer virtual IP (VIP) addresses: one for the control plane
# and one for the L7 Ingress service. The VIPs must be in the same subnet as the load balancer nodes.
# These IP addresses do not correspond to physical network interfaces.
vips:
# ControlPlaneVIP specifies the VIP to connect to the Kubernetes API server.
# This address must not be in the address pools below.
controlPlaneVIP: 10.0.0.8
# IngressVIP specifies the VIP shared by all services for ingress traffic.
# Allowed only in non-admin clusters.
# This address must be in the address pools below.
# ingressVIP: 10.0.0.2
# AddressPools is a list of non-overlapping IP ranges for the data plane load balancer.
# All addresses must be in the same subnet as the load balancer nodes.
# Address pool configuration is only valid for 'bundled' LB mode in non-admin clusters.
# addressPools:
# - name: pool1
# addresses:
# # Each address must be either in the CIDR form (1.2.3.0/24)
# # or range form (1.2.3.1-1.2.3.5).
# - 10.0.0.1-10.0.0.4
# A load balancer node pool can be configured to specify nodes used for load balancing.
# These nodes are part of the Kubernetes cluster and run regular workloads as well as load balancers.
# If the node pool config is absent then the control plane nodes are used.
# Node pool configuration is only valid for 'bundled' LB mode.
# nodePoolSpec:
# nodes:
# - address: <Machine 1 IP>
# Proxy configuration
# proxy:
# url: http://[username:password@]domain
# # A list of IPs, hostnames or domains that should not be proxied.
# noProxy:
# - 127.0.0.1
# - localhost
# Logging and Monitoring
clusterOperations:
# Cloud project for logs and metrics.
projectID: <GCP project ID>
# Cloud location for logs and metrics.
location: us-central1
# Whether collection of application logs/metrics should be enabled (in addition to
# collection of system logs/metrics which correspond to system components such as
# Kubernetes control plane or cluster management agents).
# enableApplication: false
# Storage configuration
storage:
# lvpNodeMounts specifies the config for local PersistentVolumes backed by mounted disks.
# These disks need to be formatted and mounted by the user, which can be done before or after
# cluster creation.
lvpNodeMounts:
# path specifies the host machine path where mounted disks will be discovered and a local PV
# will be created for each mount.
path: /mnt/localpv-disk
# storageClassName specifies the StorageClass that PVs will be created with. The StorageClass
# is created during cluster creation.
storageClassName: local-disks
# lvpShare specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem.
# These subdirectories are automatically created during cluster creation.
lvpShare:
# path specifies the host machine path where subdirectories will be created on each host. A local PV
# will be created for each subdirectory.
path: /mnt/localpv-share
# storageClassName specifies the StorageClass that PVs will be created with. The StorageClass
# is created during cluster creation.
storageClassName: local-shared
# numPVUnderSharedPath specifies the number of subdirectories to create under path.
numPVUnderSharedPath: 5
# NodeConfig specifies the configuration that applies to all nodes in the cluster.
nodeConfig:
# podDensity specifies the pod density configuration.
podDensity:
# maxPodsPerNode specifies at most how many pods can be run on a single node.
maxPodsPerNode: 250
# containerRuntime specifies which container runtime to use for scheduling containers on nodes.
# containerd and docker are supported.
containerRuntime: containerd
# KubeVirt configuration, uncomment this section if you want to install kubevirt to the cluster
# kubevirt:
# # if useEmulation is enabled, hardware accelerator (i.e relies on cpu feature like vmx or svm)
# # will not be attempted. QEMU will be used for software emulation.
# # useEmulation must be specified for KubeVirt installation
# useEmulation: false
# Authentication; uncomment this section if you wish to enable authentication to the cluster with OpenID Connect.
# authentication:
# oidc:
# # issuerURL specifies the URL of your OpenID provider, such as "https://accounts.google.com". The Kubernetes API
# # server uses this URL to discover public keys for verifying tokens. Must use HTTPS.
# issuerURL: <URL for OIDC Provider; required>
# # clientID specifies the ID for the client application that makes authentication requests to the OpenID
# # provider.
# clientID: <ID for OIDC client application; required>
# # clientSecret specifies the secret for the client application.
# clientSecret: <Secret for OIDC client application; optional>
# # kubectlRedirectURL specifies the redirect URL (required) for the gcloud CLI, such as
# # "http://localhost:[PORT]/callback".
# kubectlRedirectURL: <Redirect URL for the gcloud CLI; optional, default is "http://kubectl.redirect.invalid">
# # username specifies the JWT claim to use as the username. The default is "sub", which is expected to be a
# # unique identifier of the end user.
# username: <JWT claim to use as the username; optional, default is "sub">
# # usernamePrefix specifies the prefix prepended to username claims to prevent clashes with existing names.
# usernamePrefix: <Prefix prepended to username claims; optional>
# # group specifies the JWT claim that the provider will use to return your security groups.
# group: <JWT claim to use as the group name; optional>
# # groupPrefix specifies the prefix prepended to group claims to prevent clashes with existing names.
# groupPrefix: <Prefix prepended to group claims; optional>
# # scopes specifies additional scopes to send to the OpenID provider as a comma-delimited list.
# scopes: <Additional scopes to send to OIDC provider as a comma-separated list; optional>
# # extraParams specifies additional key-value parameters to send to the OpenID provider as a comma-delimited
# # list.
# extraParams: <Additional key-value parameters to send to OIDC provider as a comma-separated list; optional>
# # proxy specifies the proxy server to use for the cluster to connect to your OIDC provider, if applicable.
# # Example: https://user:password@10.10.10.10:8888. If left blank, this defaults to no proxy.
# proxy: <Proxy server to use for the cluster to connect to your OIDC provider; optional, default is no proxy>
# # deployCloudConsoleProxy specifies whether to deploy a reverse proxy in the cluster to allow Google Cloud
# # Console access to the on-premises OIDC provider for authenticating users. If your identity provider is not
# # reachable over the public internet, and you wish to authenticate using Google Cloud console, then this field
# # must be set to true. If left blank, this field defaults to false.
# deployCloudConsoleProxy: <Whether to deploy a reverse proxy for Google Cloud console authentication; optional>
# # certificateAuthorityData specifies a Base64 PEM-encoded certificate authority certificate of your identity
# # provider. It's not needed if your identity provider's certificate was issued by a well-known public CA.
# # However, if deployCloudConsoleProxy is true, then this value must be provided, even for a well-known public
# # CA.
# certificateAuthorityData: <Base64 PEM-encoded certificate authority certificate of your OIDC provider; optional>
# Node access configuration; uncomment this section if you wish to use a non-root user
# with passwordless sudo capability for machine login.
# nodeAccess:
# loginUser: <login user name>
---
# Node pools for worker nodes
apiVersion: baremetal.cluster.gke.io/v1
kind: NodePool
metadata:
name: node-pool-1
namespace: cluster-my-cluster
spec:
clusterName: my-cluster
nodes:
- address: <Machine 2 IP>
- address: <Machine 3 IP>
# Taints and labels are reconciled to the nodes of the node pool unless the node has
# “baremetal.cluster.gke.io/label-taint-no-sync” annotated.
taints:
- key: <key1>
value: <value1>
# The effect can be either 'NoSchedule', 'PreferNoSchedule', or 'NoExecute'.
# 'NoSchedule' means no pod will be able to schedule onto the node unless it has a matching toleration.
# 'PreferNoSchedule' means the system avoids placing a pod that does not tolerate the taint on the node, but it is
# not required.
# `NoExecute` means pods that do not tolerate the taint will be evicted immediately, and pods that do tolerate the
# taint will never be evicted.
effect: NoSchedule
labels:
key1: <value1>
key2: <value2>