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Packagesgcp.gkeonprem.BareMetalCluster
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A Google Bare Metal User Cluster.
Example Usage
Gkeonprem Bare Metal Cluster Basic
using System.Collections.Generic;
using System.Linq;
using Pulumi;
using Gcp = Pulumi.Gcp;
return await Deployment.RunAsync(() =>
{
var cluster_basic = new Gcp.GkeOnPrem.BareMetalCluster("cluster-basic", new()
{
AdminClusterMembership = "projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
BareMetalVersion = "1.12.3",
ControlPlane = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneArgs
{
ControlPlaneNodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs
{
NodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs
{
Labels = null,
NodeConfigs = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs
{
Labels = null,
NodeIp = "10.200.0.9",
},
},
OperatingSystem = "LINUX",
},
},
},
LoadBalancer = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerArgs
{
MetalLbConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerMetalLbConfigArgs
{
AddressPools = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerMetalLbConfigAddressPoolArgs
{
Addresses = new[]
{
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128",
},
AvoidBuggyIps = true,
ManualAssign = true,
Pool = "pool1",
},
},
},
PortConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerPortConfigArgs
{
ControlPlaneLoadBalancerPort = 443,
},
VipConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerVipConfigArgs
{
ControlPlaneVip = "10.200.0.13",
IngressVip = "10.200.0.14",
},
},
Location = "us-west1",
NetworkConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigArgs
{
IslandModeCidr = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigIslandModeCidrArgs
{
PodAddressCidrBlocks = new[]
{
"10.240.0.0/13",
},
ServiceAddressCidrBlocks = new[]
{
"172.26.0.0/16",
},
},
},
SecurityConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigArgs
{
Authorization = new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigAuthorizationArgs
{
AdminUsers = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs
{
Username = "admin@hashicorptest.com",
},
},
},
},
Storage = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageArgs
{
LvpNodeMountsConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpNodeMountsConfigArgs
{
Path = "/mnt/localpv-disk",
StorageClass = "local-disks",
},
LvpShareConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpShareConfigArgs
{
LvpConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpShareConfigLvpConfigArgs
{
Path = "/mnt/localpv-share",
StorageClass = "local-shared",
},
SharedPathPvCount = 5,
},
},
});
});
package main
import (
"github.com/pulumi/pulumi-gcp/sdk/v7/go/gcp/gkeonprem"
"github.com/pulumi/pulumi/sdk/v3/go/pulumi"
)
func main() {
pulumi.Run(func(ctx *pulumi.Context) error {
_, err := gkeonprem.NewBareMetalCluster(ctx, "cluster-basic", &gkeonprem.BareMetalClusterArgs{
AdminClusterMembership: pulumi.String("projects/870316890899/locations/global/memberships/gkeonprem-terraform-test"),
BareMetalVersion: pulumi.String("1.12.3"),
ControlPlane: &gkeonprem.BareMetalClusterControlPlaneArgs{
ControlPlaneNodePoolConfig: &gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs{
NodePoolConfig: &gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs{
Labels: nil,
NodeConfigs: gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArray{
&gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs{
Labels: nil,
NodeIp: pulumi.String("10.200.0.9"),
},
},
OperatingSystem: pulumi.String("LINUX"),
},
},
},
LoadBalancer: &gkeonprem.BareMetalClusterLoadBalancerArgs{
MetalLbConfig: &gkeonprem.BareMetalClusterLoadBalancerMetalLbConfigArgs{
AddressPools: gkeonprem.BareMetalClusterLoadBalancerMetalLbConfigAddressPoolArray{
&gkeonprem.BareMetalClusterLoadBalancerMetalLbConfigAddressPoolArgs{
Addresses: pulumi.StringArray{
pulumi.String("10.200.0.14/32"),
pulumi.String("10.200.0.15/32"),
pulumi.String("10.200.0.16/32"),
pulumi.String("10.200.0.17/32"),
pulumi.String("10.200.0.18/32"),
pulumi.String("fd00:1::f/128"),
pulumi.String("fd00:1::10/128"),
pulumi.String("fd00:1::11/128"),
pulumi.String("fd00:1::12/128"),
},
AvoidBuggyIps: pulumi.Bool(true),
ManualAssign: pulumi.Bool(true),
Pool: pulumi.String("pool1"),
},
},
},
PortConfig: &gkeonprem.BareMetalClusterLoadBalancerPortConfigArgs{
ControlPlaneLoadBalancerPort: pulumi.Int(443),
},
VipConfig: &gkeonprem.BareMetalClusterLoadBalancerVipConfigArgs{
ControlPlaneVip: pulumi.String("10.200.0.13"),
IngressVip: pulumi.String("10.200.0.14"),
},
},
Location: pulumi.String("us-west1"),
NetworkConfig: &gkeonprem.BareMetalClusterNetworkConfigArgs{
IslandModeCidr: &gkeonprem.BareMetalClusterNetworkConfigIslandModeCidrArgs{
PodAddressCidrBlocks: pulumi.StringArray{
pulumi.String("10.240.0.0/13"),
},
ServiceAddressCidrBlocks: pulumi.StringArray{
pulumi.String("172.26.0.0/16"),
},
},
},
SecurityConfig: &gkeonprem.BareMetalClusterSecurityConfigArgs{
Authorization: &gkeonprem.BareMetalClusterSecurityConfigAuthorizationArgs{
AdminUsers: gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArray{
&gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs{
Username: pulumi.String("admin@hashicorptest.com"),
},
},
},
},
Storage: &gkeonprem.BareMetalClusterStorageArgs{
LvpNodeMountsConfig: &gkeonprem.BareMetalClusterStorageLvpNodeMountsConfigArgs{
Path: pulumi.String("/mnt/localpv-disk"),
StorageClass: pulumi.String("local-disks"),
},
LvpShareConfig: &gkeonprem.BareMetalClusterStorageLvpShareConfigArgs{
LvpConfig: &gkeonprem.BareMetalClusterStorageLvpShareConfigLvpConfigArgs{
Path: pulumi.String("/mnt/localpv-share"),
StorageClass: pulumi.String("local-shared"),
},
SharedPathPvCount: pulumi.Int(5),
},
},
})
if err != nil {
return err
}
return nil
})
}
package generated_program;
import com.pulumi.Context;
import com.pulumi.Pulumi;
import com.pulumi.core.Output;
import com.pulumi.gcp.gkeonprem.BareMetalCluster;
import com.pulumi.gcp.gkeonprem.BareMetalClusterArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerMetalLbConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerPortConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerVipConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigIslandModeCidrArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterSecurityConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterSecurityConfigAuthorizationArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpNodeMountsConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpShareConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpShareConfigLvpConfigArgs;
import java.util.List;
import java.util.ArrayList;
import java.util.Map;
import java.io.File;
import java.nio.file.Files;
import java.nio.file.Paths;
public class App {
public static void main(String[] args) {
Pulumi.run(App::stack);
}
public static void stack(Context ctx) {
var cluster_basic = new BareMetalCluster("cluster-basic", BareMetalClusterArgs.builder()
.adminClusterMembership("projects/870316890899/locations/global/memberships/gkeonprem-terraform-test")
.bareMetalVersion("1.12.3")
.controlPlane(BareMetalClusterControlPlaneArgs.builder()
.controlPlaneNodePoolConfig(BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs.builder()
.nodePoolConfig(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs.builder()
.labels()
.nodeConfigs(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs.builder()
.labels()
.nodeIp("10.200.0.9")
.build())
.operatingSystem("LINUX")
.build())
.build())
.build())
.loadBalancer(BareMetalClusterLoadBalancerArgs.builder()
.metalLbConfig(BareMetalClusterLoadBalancerMetalLbConfigArgs.builder()
.addressPools(BareMetalClusterLoadBalancerMetalLbConfigAddressPoolArgs.builder()
.addresses(
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128")
.avoidBuggyIps(true)
.manualAssign(true)
.pool("pool1")
.build())
.build())
.portConfig(BareMetalClusterLoadBalancerPortConfigArgs.builder()
.controlPlaneLoadBalancerPort(443)
.build())
.vipConfig(BareMetalClusterLoadBalancerVipConfigArgs.builder()
.controlPlaneVip("10.200.0.13")
.ingressVip("10.200.0.14")
.build())
.build())
.location("us-west1")
.networkConfig(BareMetalClusterNetworkConfigArgs.builder()
.islandModeCidr(BareMetalClusterNetworkConfigIslandModeCidrArgs.builder()
.podAddressCidrBlocks("10.240.0.0/13")
.serviceAddressCidrBlocks("172.26.0.0/16")
.build())
.build())
.securityConfig(BareMetalClusterSecurityConfigArgs.builder()
.authorization(BareMetalClusterSecurityConfigAuthorizationArgs.builder()
.adminUsers(BareMetalClusterSecurityConfigAuthorizationAdminUserArgs.builder()
.username("admin@hashicorptest.com")
.build())
.build())
.build())
.storage(BareMetalClusterStorageArgs.builder()
.lvpNodeMountsConfig(BareMetalClusterStorageLvpNodeMountsConfigArgs.builder()
.path("/mnt/localpv-disk")
.storageClass("local-disks")
.build())
.lvpShareConfig(BareMetalClusterStorageLvpShareConfigArgs.builder()
.lvpConfig(BareMetalClusterStorageLvpShareConfigLvpConfigArgs.builder()
.path("/mnt/localpv-share")
.storageClass("local-shared")
.build())
.sharedPathPvCount(5)
.build())
.build())
.build());
}
}
import pulumi
import pulumi_gcp as gcp
cluster_basic = gcp.gkeonprem.BareMetalCluster("cluster-basic",
admin_cluster_membership="projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
bare_metal_version="1.12.3",
control_plane=gcp.gkeonprem.BareMetalClusterControlPlaneArgs(
control_plane_node_pool_config=gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs(
node_pool_config=gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs(
labels={},
node_configs=[gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs(
labels={},
node_ip="10.200.0.9",
)],
operating_system="LINUX",
),
),
),
load_balancer=gcp.gkeonprem.BareMetalClusterLoadBalancerArgs(
metal_lb_config=gcp.gkeonprem.BareMetalClusterLoadBalancerMetalLbConfigArgs(
address_pools=[gcp.gkeonprem.BareMetalClusterLoadBalancerMetalLbConfigAddressPoolArgs(
addresses=[
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128",
],
avoid_buggy_ips=True,
manual_assign=True,
pool="pool1",
)],
),
port_config=gcp.gkeonprem.BareMetalClusterLoadBalancerPortConfigArgs(
control_plane_load_balancer_port=443,
),
vip_config=gcp.gkeonprem.BareMetalClusterLoadBalancerVipConfigArgs(
control_plane_vip="10.200.0.13",
ingress_vip="10.200.0.14",
),
),
location="us-west1",
network_config=gcp.gkeonprem.BareMetalClusterNetworkConfigArgs(
island_mode_cidr=gcp.gkeonprem.BareMetalClusterNetworkConfigIslandModeCidrArgs(
pod_address_cidr_blocks=["10.240.0.0/13"],
service_address_cidr_blocks=["172.26.0.0/16"],
),
),
security_config=gcp.gkeonprem.BareMetalClusterSecurityConfigArgs(
authorization=gcp.gkeonprem.BareMetalClusterSecurityConfigAuthorizationArgs(
admin_users=[gcp.gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs(
username="admin@hashicorptest.com",
)],
),
),
storage=gcp.gkeonprem.BareMetalClusterStorageArgs(
lvp_node_mounts_config=gcp.gkeonprem.BareMetalClusterStorageLvpNodeMountsConfigArgs(
path="/mnt/localpv-disk",
storage_class="local-disks",
),
lvp_share_config=gcp.gkeonprem.BareMetalClusterStorageLvpShareConfigArgs(
lvp_config=gcp.gkeonprem.BareMetalClusterStorageLvpShareConfigLvpConfigArgs(
path="/mnt/localpv-share",
storage_class="local-shared",
),
shared_path_pv_count=5,
),
))
import * as pulumi from "@pulumi/pulumi";
import * as gcp from "@pulumi/gcp";
const cluster_basic = new gcp.gkeonprem.BareMetalCluster("cluster-basic", {
adminClusterMembership: "projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
bareMetalVersion: "1.12.3",
controlPlane: {
controlPlaneNodePoolConfig: {
nodePoolConfig: {
labels: {},
nodeConfigs: [{
labels: {},
nodeIp: "10.200.0.9",
}],
operatingSystem: "LINUX",
},
},
},
loadBalancer: {
metalLbConfig: {
addressPools: [{
addresses: [
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128",
],
avoidBuggyIps: true,
manualAssign: true,
pool: "pool1",
}],
},
portConfig: {
controlPlaneLoadBalancerPort: 443,
},
vipConfig: {
controlPlaneVip: "10.200.0.13",
ingressVip: "10.200.0.14",
},
},
location: "us-west1",
networkConfig: {
islandModeCidr: {
podAddressCidrBlocks: ["10.240.0.0/13"],
serviceAddressCidrBlocks: ["172.26.0.0/16"],
},
},
securityConfig: {
authorization: {
adminUsers: [{
username: "admin@hashicorptest.com",
}],
},
},
storage: {
lvpNodeMountsConfig: {
path: "/mnt/localpv-disk",
storageClass: "local-disks",
},
lvpShareConfig: {
lvpConfig: {
path: "/mnt/localpv-share",
storageClass: "local-shared",
},
sharedPathPvCount: 5,
},
},
});
resources:
cluster-basic:
type: gcp:gkeonprem:BareMetalCluster
properties:
adminClusterMembership: projects/870316890899/locations/global/memberships/gkeonprem-terraform-test
bareMetalVersion: 1.12.3
controlPlane:
controlPlaneNodePoolConfig:
nodePoolConfig:
labels: {}
nodeConfigs:
- labels: {}
nodeIp: 10.200.0.9
operatingSystem: LINUX
loadBalancer:
metalLbConfig:
addressPools:
- addresses:
- 10.200.0.14/32
- 10.200.0.15/32
- 10.200.0.16/32
- 10.200.0.17/32
- 10.200.0.18/32
- fd00:1::f/128
- fd00:1::10/128
- fd00:1::11/128
- fd00:1::12/128
avoidBuggyIps: true
manualAssign: true
pool: pool1
portConfig:
controlPlaneLoadBalancerPort: 443
vipConfig:
controlPlaneVip: 10.200.0.13
ingressVip: 10.200.0.14
location: us-west1
networkConfig:
islandModeCidr:
podAddressCidrBlocks:
- 10.240.0.0/13
serviceAddressCidrBlocks:
- 172.26.0.0/16
securityConfig:
authorization:
adminUsers:
- username: admin@hashicorptest.com
storage:
lvpNodeMountsConfig:
path: /mnt/localpv-disk
storageClass: local-disks
lvpShareConfig:
lvpConfig:
path: /mnt/localpv-share
storageClass: local-shared
sharedPathPvCount: 5
Gkeonprem Bare Metal Cluster Manuallb
using System.Collections.Generic;
using System.Linq;
using Pulumi;
using Gcp = Pulumi.Gcp;
return await Deployment.RunAsync(() =>
{
var cluster_manuallb = new Gcp.GkeOnPrem.BareMetalCluster("cluster-manuallb", new()
{
AdminClusterMembership = "projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
BareMetalVersion = "1.12.3",
BinaryAuthorization = new Gcp.GkeOnPrem.Inputs.BareMetalClusterBinaryAuthorizationArgs
{
EvaluationMode = "DISABLED",
},
ControlPlane = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneArgs
{
ControlPlaneNodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs
{
NodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs
{
Labels = null,
NodeConfigs = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs
{
Labels = null,
NodeIp = "10.200.0.9",
},
},
OperatingSystem = "LINUX",
},
},
},
LoadBalancer = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerArgs
{
ManualLbConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerManualLbConfigArgs
{
Enabled = true,
},
PortConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerPortConfigArgs
{
ControlPlaneLoadBalancerPort = 443,
},
VipConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerVipConfigArgs
{
ControlPlaneVip = "10.200.0.13",
IngressVip = "10.200.0.14",
},
},
Location = "us-west1",
NetworkConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigArgs
{
IslandModeCidr = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigIslandModeCidrArgs
{
PodAddressCidrBlocks = new[]
{
"10.240.0.0/13",
},
ServiceAddressCidrBlocks = new[]
{
"172.26.0.0/16",
},
},
},
SecurityConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigArgs
{
Authorization = new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigAuthorizationArgs
{
AdminUsers = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs
{
Username = "admin@hashicorptest.com",
},
},
},
},
Storage = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageArgs
{
LvpNodeMountsConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpNodeMountsConfigArgs
{
Path = "/mnt/localpv-disk",
StorageClass = "local-disks",
},
LvpShareConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpShareConfigArgs
{
LvpConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpShareConfigLvpConfigArgs
{
Path = "/mnt/localpv-share",
StorageClass = "local-shared",
},
SharedPathPvCount = 5,
},
},
UpgradePolicy = new Gcp.GkeOnPrem.Inputs.BareMetalClusterUpgradePolicyArgs
{
Policy = "SERIAL",
},
});
});
package main
import (
"github.com/pulumi/pulumi-gcp/sdk/v7/go/gcp/gkeonprem"
"github.com/pulumi/pulumi/sdk/v3/go/pulumi"
)
func main() {
pulumi.Run(func(ctx *pulumi.Context) error {
_, err := gkeonprem.NewBareMetalCluster(ctx, "cluster-manuallb", &gkeonprem.BareMetalClusterArgs{
AdminClusterMembership: pulumi.String("projects/870316890899/locations/global/memberships/gkeonprem-terraform-test"),
BareMetalVersion: pulumi.String("1.12.3"),
BinaryAuthorization: &gkeonprem.BareMetalClusterBinaryAuthorizationArgs{
EvaluationMode: pulumi.String("DISABLED"),
},
ControlPlane: &gkeonprem.BareMetalClusterControlPlaneArgs{
ControlPlaneNodePoolConfig: &gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs{
NodePoolConfig: &gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs{
Labels: nil,
NodeConfigs: gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArray{
&gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs{
Labels: nil,
NodeIp: pulumi.String("10.200.0.9"),
},
},
OperatingSystem: pulumi.String("LINUX"),
},
},
},
LoadBalancer: &gkeonprem.BareMetalClusterLoadBalancerArgs{
ManualLbConfig: &gkeonprem.BareMetalClusterLoadBalancerManualLbConfigArgs{
Enabled: pulumi.Bool(true),
},
PortConfig: &gkeonprem.BareMetalClusterLoadBalancerPortConfigArgs{
ControlPlaneLoadBalancerPort: pulumi.Int(443),
},
VipConfig: &gkeonprem.BareMetalClusterLoadBalancerVipConfigArgs{
ControlPlaneVip: pulumi.String("10.200.0.13"),
IngressVip: pulumi.String("10.200.0.14"),
},
},
Location: pulumi.String("us-west1"),
NetworkConfig: &gkeonprem.BareMetalClusterNetworkConfigArgs{
IslandModeCidr: &gkeonprem.BareMetalClusterNetworkConfigIslandModeCidrArgs{
PodAddressCidrBlocks: pulumi.StringArray{
pulumi.String("10.240.0.0/13"),
},
ServiceAddressCidrBlocks: pulumi.StringArray{
pulumi.String("172.26.0.0/16"),
},
},
},
SecurityConfig: &gkeonprem.BareMetalClusterSecurityConfigArgs{
Authorization: &gkeonprem.BareMetalClusterSecurityConfigAuthorizationArgs{
AdminUsers: gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArray{
&gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs{
Username: pulumi.String("admin@hashicorptest.com"),
},
},
},
},
Storage: &gkeonprem.BareMetalClusterStorageArgs{
LvpNodeMountsConfig: &gkeonprem.BareMetalClusterStorageLvpNodeMountsConfigArgs{
Path: pulumi.String("/mnt/localpv-disk"),
StorageClass: pulumi.String("local-disks"),
},
LvpShareConfig: &gkeonprem.BareMetalClusterStorageLvpShareConfigArgs{
LvpConfig: &gkeonprem.BareMetalClusterStorageLvpShareConfigLvpConfigArgs{
Path: pulumi.String("/mnt/localpv-share"),
StorageClass: pulumi.String("local-shared"),
},
SharedPathPvCount: pulumi.Int(5),
},
},
UpgradePolicy: &gkeonprem.BareMetalClusterUpgradePolicyArgs{
Policy: pulumi.String("SERIAL"),
},
})
if err != nil {
return err
}
return nil
})
}
package generated_program;
import com.pulumi.Context;
import com.pulumi.Pulumi;
import com.pulumi.core.Output;
import com.pulumi.gcp.gkeonprem.BareMetalCluster;
import com.pulumi.gcp.gkeonprem.BareMetalClusterArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterBinaryAuthorizationArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerManualLbConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerPortConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerVipConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigIslandModeCidrArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterSecurityConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterSecurityConfigAuthorizationArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpNodeMountsConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpShareConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpShareConfigLvpConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterUpgradePolicyArgs;
import java.util.List;
import java.util.ArrayList;
import java.util.Map;
import java.io.File;
import java.nio.file.Files;
import java.nio.file.Paths;
public class App {
public static void main(String[] args) {
Pulumi.run(App::stack);
}
public static void stack(Context ctx) {
var cluster_manuallb = new BareMetalCluster("cluster-manuallb", BareMetalClusterArgs.builder()
.adminClusterMembership("projects/870316890899/locations/global/memberships/gkeonprem-terraform-test")
.bareMetalVersion("1.12.3")
.binaryAuthorization(BareMetalClusterBinaryAuthorizationArgs.builder()
.evaluationMode("DISABLED")
.build())
.controlPlane(BareMetalClusterControlPlaneArgs.builder()
.controlPlaneNodePoolConfig(BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs.builder()
.nodePoolConfig(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs.builder()
.labels()
.nodeConfigs(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs.builder()
.labels()
.nodeIp("10.200.0.9")
.build())
.operatingSystem("LINUX")
.build())
.build())
.build())
.loadBalancer(BareMetalClusterLoadBalancerArgs.builder()
.manualLbConfig(BareMetalClusterLoadBalancerManualLbConfigArgs.builder()
.enabled(true)
.build())
.portConfig(BareMetalClusterLoadBalancerPortConfigArgs.builder()
.controlPlaneLoadBalancerPort(443)
.build())
.vipConfig(BareMetalClusterLoadBalancerVipConfigArgs.builder()
.controlPlaneVip("10.200.0.13")
.ingressVip("10.200.0.14")
.build())
.build())
.location("us-west1")
.networkConfig(BareMetalClusterNetworkConfigArgs.builder()
.islandModeCidr(BareMetalClusterNetworkConfigIslandModeCidrArgs.builder()
.podAddressCidrBlocks("10.240.0.0/13")
.serviceAddressCidrBlocks("172.26.0.0/16")
.build())
.build())
.securityConfig(BareMetalClusterSecurityConfigArgs.builder()
.authorization(BareMetalClusterSecurityConfigAuthorizationArgs.builder()
.adminUsers(BareMetalClusterSecurityConfigAuthorizationAdminUserArgs.builder()
.username("admin@hashicorptest.com")
.build())
.build())
.build())
.storage(BareMetalClusterStorageArgs.builder()
.lvpNodeMountsConfig(BareMetalClusterStorageLvpNodeMountsConfigArgs.builder()
.path("/mnt/localpv-disk")
.storageClass("local-disks")
.build())
.lvpShareConfig(BareMetalClusterStorageLvpShareConfigArgs.builder()
.lvpConfig(BareMetalClusterStorageLvpShareConfigLvpConfigArgs.builder()
.path("/mnt/localpv-share")
.storageClass("local-shared")
.build())
.sharedPathPvCount(5)
.build())
.build())
.upgradePolicy(BareMetalClusterUpgradePolicyArgs.builder()
.policy("SERIAL")
.build())
.build());
}
}
import pulumi
import pulumi_gcp as gcp
cluster_manuallb = gcp.gkeonprem.BareMetalCluster("cluster-manuallb",
admin_cluster_membership="projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
bare_metal_version="1.12.3",
binary_authorization=gcp.gkeonprem.BareMetalClusterBinaryAuthorizationArgs(
evaluation_mode="DISABLED",
),
control_plane=gcp.gkeonprem.BareMetalClusterControlPlaneArgs(
control_plane_node_pool_config=gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs(
node_pool_config=gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs(
labels={},
node_configs=[gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs(
labels={},
node_ip="10.200.0.9",
)],
operating_system="LINUX",
),
),
),
load_balancer=gcp.gkeonprem.BareMetalClusterLoadBalancerArgs(
manual_lb_config=gcp.gkeonprem.BareMetalClusterLoadBalancerManualLbConfigArgs(
enabled=True,
),
port_config=gcp.gkeonprem.BareMetalClusterLoadBalancerPortConfigArgs(
control_plane_load_balancer_port=443,
),
vip_config=gcp.gkeonprem.BareMetalClusterLoadBalancerVipConfigArgs(
control_plane_vip="10.200.0.13",
ingress_vip="10.200.0.14",
),
),
location="us-west1",
network_config=gcp.gkeonprem.BareMetalClusterNetworkConfigArgs(
island_mode_cidr=gcp.gkeonprem.BareMetalClusterNetworkConfigIslandModeCidrArgs(
pod_address_cidr_blocks=["10.240.0.0/13"],
service_address_cidr_blocks=["172.26.0.0/16"],
),
),
security_config=gcp.gkeonprem.BareMetalClusterSecurityConfigArgs(
authorization=gcp.gkeonprem.BareMetalClusterSecurityConfigAuthorizationArgs(
admin_users=[gcp.gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs(
username="admin@hashicorptest.com",
)],
),
),
storage=gcp.gkeonprem.BareMetalClusterStorageArgs(
lvp_node_mounts_config=gcp.gkeonprem.BareMetalClusterStorageLvpNodeMountsConfigArgs(
path="/mnt/localpv-disk",
storage_class="local-disks",
),
lvp_share_config=gcp.gkeonprem.BareMetalClusterStorageLvpShareConfigArgs(
lvp_config=gcp.gkeonprem.BareMetalClusterStorageLvpShareConfigLvpConfigArgs(
path="/mnt/localpv-share",
storage_class="local-shared",
),
shared_path_pv_count=5,
),
),
upgrade_policy=gcp.gkeonprem.BareMetalClusterUpgradePolicyArgs(
policy="SERIAL",
))
import * as pulumi from "@pulumi/pulumi";
import * as gcp from "@pulumi/gcp";
const cluster_manuallb = new gcp.gkeonprem.BareMetalCluster("cluster-manuallb", {
adminClusterMembership: "projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
bareMetalVersion: "1.12.3",
binaryAuthorization: {
evaluationMode: "DISABLED",
},
controlPlane: {
controlPlaneNodePoolConfig: {
nodePoolConfig: {
labels: {},
nodeConfigs: [{
labels: {},
nodeIp: "10.200.0.9",
}],
operatingSystem: "LINUX",
},
},
},
loadBalancer: {
manualLbConfig: {
enabled: true,
},
portConfig: {
controlPlaneLoadBalancerPort: 443,
},
vipConfig: {
controlPlaneVip: "10.200.0.13",
ingressVip: "10.200.0.14",
},
},
location: "us-west1",
networkConfig: {
islandModeCidr: {
podAddressCidrBlocks: ["10.240.0.0/13"],
serviceAddressCidrBlocks: ["172.26.0.0/16"],
},
},
securityConfig: {
authorization: {
adminUsers: [{
username: "admin@hashicorptest.com",
}],
},
},
storage: {
lvpNodeMountsConfig: {
path: "/mnt/localpv-disk",
storageClass: "local-disks",
},
lvpShareConfig: {
lvpConfig: {
path: "/mnt/localpv-share",
storageClass: "local-shared",
},
sharedPathPvCount: 5,
},
},
upgradePolicy: {
policy: "SERIAL",
},
});
resources:
cluster-manuallb:
type: gcp:gkeonprem:BareMetalCluster
properties:
adminClusterMembership: projects/870316890899/locations/global/memberships/gkeonprem-terraform-test
bareMetalVersion: 1.12.3
binaryAuthorization:
evaluationMode: DISABLED
controlPlane:
controlPlaneNodePoolConfig:
nodePoolConfig:
labels: {}
nodeConfigs:
- labels: {}
nodeIp: 10.200.0.9
operatingSystem: LINUX
loadBalancer:
manualLbConfig:
enabled: true
portConfig:
controlPlaneLoadBalancerPort: 443
vipConfig:
controlPlaneVip: 10.200.0.13
ingressVip: 10.200.0.14
location: us-west1
networkConfig:
islandModeCidr:
podAddressCidrBlocks:
- 10.240.0.0/13
serviceAddressCidrBlocks:
- 172.26.0.0/16
securityConfig:
authorization:
adminUsers:
- username: admin@hashicorptest.com
storage:
lvpNodeMountsConfig:
path: /mnt/localpv-disk
storageClass: local-disks
lvpShareConfig:
lvpConfig:
path: /mnt/localpv-share
storageClass: local-shared
sharedPathPvCount: 5
upgradePolicy:
policy: SERIAL
Gkeonprem Bare Metal Cluster Bgplb
using System.Collections.Generic;
using System.Linq;
using Pulumi;
using Gcp = Pulumi.Gcp;
return await Deployment.RunAsync(() =>
{
var cluster_bgplb = new Gcp.GkeOnPrem.BareMetalCluster("cluster-bgplb", new()
{
AdminClusterMembership = "projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
BareMetalVersion = "1.12.3",
ClusterOperations = new Gcp.GkeOnPrem.Inputs.BareMetalClusterClusterOperationsArgs
{
EnableApplicationLogs = true,
},
ControlPlane = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneArgs
{
ApiServerArgs = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneApiServerArgArgs
{
Argument = "test-argument",
Value = "test-value",
},
},
ControlPlaneNodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs
{
NodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs
{
Labels = null,
NodeConfigs = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs
{
Labels = null,
NodeIp = "10.200.0.9",
},
},
OperatingSystem = "LINUX",
Taints = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaintArgs
{
Effect = "NO_EXECUTE",
Key = "test-key",
Value = "test-value",
},
},
},
},
},
LoadBalancer = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerArgs
{
BgpLbConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigArgs
{
AddressPools = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigAddressPoolArgs
{
Addresses = new[]
{
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128",
},
Pool = "pool1",
},
},
Asn = 123456,
BgpPeerConfigs = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfigArgs
{
Asn = 123457,
ControlPlaneNodes = new[]
{
"test-node",
},
IpAddress = "10.0.0.1",
},
},
LoadBalancerNodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigArgs
{
NodePoolConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs
{
KubeletConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfigArgs
{
RegistryBurst = 12,
RegistryPullQps = 10,
SerializeImagePullsDisabled = true,
},
Labels = null,
NodeConfigs = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArgs
{
Labels = null,
NodeIp = "10.200.0.9",
},
},
OperatingSystem = "LINUX",
Taints = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArgs
{
Effect = "NO_EXECUTE",
Key = "test-key",
Value = "test-value",
},
},
},
},
},
PortConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerPortConfigArgs
{
ControlPlaneLoadBalancerPort = 443,
},
VipConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterLoadBalancerVipConfigArgs
{
ControlPlaneVip = "10.200.0.13",
IngressVip = "10.200.0.14",
},
},
Location = "us-west1",
MaintenanceConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterMaintenanceConfigArgs
{
MaintenanceAddressCidrBlocks = new[]
{
"192.168.0.1/20",
},
},
NetworkConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigArgs
{
AdvancedNetworking = true,
IslandModeCidr = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigIslandModeCidrArgs
{
PodAddressCidrBlocks = new[]
{
"10.240.0.0/13",
},
ServiceAddressCidrBlocks = new[]
{
"172.26.0.0/16",
},
},
MultipleNetworkInterfacesConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfigArgs
{
Enabled = true,
},
SrIovConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNetworkConfigSrIovConfigArgs
{
Enabled = true,
},
},
NodeAccessConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNodeAccessConfigArgs
{
LoginUser = "test@example.com",
},
NodeConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterNodeConfigArgs
{
ContainerRuntime = "CONTAINERD",
MaxPodsPerNode = 10,
},
OsEnvironmentConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterOsEnvironmentConfigArgs
{
PackageRepoExcluded = true,
},
Proxy = new Gcp.GkeOnPrem.Inputs.BareMetalClusterProxyArgs
{
NoProxies = new[]
{
"127.0.0.1",
},
Uri = "http://test-domain/test",
},
SecurityConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigArgs
{
Authorization = new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigAuthorizationArgs
{
AdminUsers = new[]
{
new Gcp.GkeOnPrem.Inputs.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs
{
Username = "admin@hashicorptest.com",
},
},
},
},
Storage = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageArgs
{
LvpNodeMountsConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpNodeMountsConfigArgs
{
Path = "/mnt/localpv-disk",
StorageClass = "local-disks",
},
LvpShareConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpShareConfigArgs
{
LvpConfig = new Gcp.GkeOnPrem.Inputs.BareMetalClusterStorageLvpShareConfigLvpConfigArgs
{
Path = "/mnt/localpv-share",
StorageClass = "local-shared",
},
SharedPathPvCount = 5,
},
},
});
});
package main
import (
"github.com/pulumi/pulumi-gcp/sdk/v7/go/gcp/gkeonprem"
"github.com/pulumi/pulumi/sdk/v3/go/pulumi"
)
func main() {
pulumi.Run(func(ctx *pulumi.Context) error {
_, err := gkeonprem.NewBareMetalCluster(ctx, "cluster-bgplb", &gkeonprem.BareMetalClusterArgs{
AdminClusterMembership: pulumi.String("projects/870316890899/locations/global/memberships/gkeonprem-terraform-test"),
BareMetalVersion: pulumi.String("1.12.3"),
ClusterOperations: &gkeonprem.BareMetalClusterClusterOperationsArgs{
EnableApplicationLogs: pulumi.Bool(true),
},
ControlPlane: &gkeonprem.BareMetalClusterControlPlaneArgs{
ApiServerArgs: gkeonprem.BareMetalClusterControlPlaneApiServerArgArray{
&gkeonprem.BareMetalClusterControlPlaneApiServerArgArgs{
Argument: pulumi.String("test-argument"),
Value: pulumi.String("test-value"),
},
},
ControlPlaneNodePoolConfig: &gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs{
NodePoolConfig: &gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs{
Labels: nil,
NodeConfigs: gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArray{
&gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs{
Labels: nil,
NodeIp: pulumi.String("10.200.0.9"),
},
},
OperatingSystem: pulumi.String("LINUX"),
Taints: gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaintArray{
&gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaintArgs{
Effect: pulumi.String("NO_EXECUTE"),
Key: pulumi.String("test-key"),
Value: pulumi.String("test-value"),
},
},
},
},
},
LoadBalancer: &gkeonprem.BareMetalClusterLoadBalancerArgs{
BgpLbConfig: &gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigArgs{
AddressPools: gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigAddressPoolArray{
&gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigAddressPoolArgs{
Addresses: pulumi.StringArray{
pulumi.String("10.200.0.14/32"),
pulumi.String("10.200.0.15/32"),
pulumi.String("10.200.0.16/32"),
pulumi.String("10.200.0.17/32"),
pulumi.String("10.200.0.18/32"),
pulumi.String("fd00:1::f/128"),
pulumi.String("fd00:1::10/128"),
pulumi.String("fd00:1::11/128"),
pulumi.String("fd00:1::12/128"),
},
Pool: pulumi.String("pool1"),
},
},
Asn: pulumi.Int(123456),
BgpPeerConfigs: gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfigArray{
&gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfigArgs{
Asn: pulumi.Int(123457),
ControlPlaneNodes: pulumi.StringArray{
pulumi.String("test-node"),
},
IpAddress: pulumi.String("10.0.0.1"),
},
},
LoadBalancerNodePoolConfig: &gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigArgs{
NodePoolConfig: &gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs{
KubeletConfig: &gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfigArgs{
RegistryBurst: pulumi.Int(12),
RegistryPullQps: pulumi.Int(10),
SerializeImagePullsDisabled: pulumi.Bool(true),
},
Labels: nil,
NodeConfigs: gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArray{
&gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArgs{
Labels: nil,
NodeIp: pulumi.String("10.200.0.9"),
},
},
OperatingSystem: pulumi.String("LINUX"),
Taints: gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArray{
&gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArgs{
Effect: pulumi.String("NO_EXECUTE"),
Key: pulumi.String("test-key"),
Value: pulumi.String("test-value"),
},
},
},
},
},
PortConfig: &gkeonprem.BareMetalClusterLoadBalancerPortConfigArgs{
ControlPlaneLoadBalancerPort: pulumi.Int(443),
},
VipConfig: &gkeonprem.BareMetalClusterLoadBalancerVipConfigArgs{
ControlPlaneVip: pulumi.String("10.200.0.13"),
IngressVip: pulumi.String("10.200.0.14"),
},
},
Location: pulumi.String("us-west1"),
MaintenanceConfig: &gkeonprem.BareMetalClusterMaintenanceConfigArgs{
MaintenanceAddressCidrBlocks: pulumi.StringArray{
pulumi.String("192.168.0.1/20"),
},
},
NetworkConfig: &gkeonprem.BareMetalClusterNetworkConfigArgs{
AdvancedNetworking: pulumi.Bool(true),
IslandModeCidr: &gkeonprem.BareMetalClusterNetworkConfigIslandModeCidrArgs{
PodAddressCidrBlocks: pulumi.StringArray{
pulumi.String("10.240.0.0/13"),
},
ServiceAddressCidrBlocks: pulumi.StringArray{
pulumi.String("172.26.0.0/16"),
},
},
MultipleNetworkInterfacesConfig: &gkeonprem.BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfigArgs{
Enabled: pulumi.Bool(true),
},
SrIovConfig: &gkeonprem.BareMetalClusterNetworkConfigSrIovConfigArgs{
Enabled: pulumi.Bool(true),
},
},
NodeAccessConfig: &gkeonprem.BareMetalClusterNodeAccessConfigArgs{
LoginUser: pulumi.String("test@example.com"),
},
NodeConfig: &gkeonprem.BareMetalClusterNodeConfigArgs{
ContainerRuntime: pulumi.String("CONTAINERD"),
MaxPodsPerNode: pulumi.Int(10),
},
OsEnvironmentConfig: &gkeonprem.BareMetalClusterOsEnvironmentConfigArgs{
PackageRepoExcluded: pulumi.Bool(true),
},
Proxy: &gkeonprem.BareMetalClusterProxyArgs{
NoProxies: pulumi.StringArray{
pulumi.String("127.0.0.1"),
},
Uri: pulumi.String("http://test-domain/test"),
},
SecurityConfig: &gkeonprem.BareMetalClusterSecurityConfigArgs{
Authorization: &gkeonprem.BareMetalClusterSecurityConfigAuthorizationArgs{
AdminUsers: gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArray{
&gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs{
Username: pulumi.String("admin@hashicorptest.com"),
},
},
},
},
Storage: &gkeonprem.BareMetalClusterStorageArgs{
LvpNodeMountsConfig: &gkeonprem.BareMetalClusterStorageLvpNodeMountsConfigArgs{
Path: pulumi.String("/mnt/localpv-disk"),
StorageClass: pulumi.String("local-disks"),
},
LvpShareConfig: &gkeonprem.BareMetalClusterStorageLvpShareConfigArgs{
LvpConfig: &gkeonprem.BareMetalClusterStorageLvpShareConfigLvpConfigArgs{
Path: pulumi.String("/mnt/localpv-share"),
StorageClass: pulumi.String("local-shared"),
},
SharedPathPvCount: pulumi.Int(5),
},
},
})
if err != nil {
return err
}
return nil
})
}
package generated_program;
import com.pulumi.Context;
import com.pulumi.Pulumi;
import com.pulumi.core.Output;
import com.pulumi.gcp.gkeonprem.BareMetalCluster;
import com.pulumi.gcp.gkeonprem.BareMetalClusterArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterClusterOperationsArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerBgpLbConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerPortConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterLoadBalancerVipConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterMaintenanceConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigIslandModeCidrArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNetworkConfigSrIovConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNodeAccessConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterNodeConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterOsEnvironmentConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterProxyArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterSecurityConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterSecurityConfigAuthorizationArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpNodeMountsConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpShareConfigArgs;
import com.pulumi.gcp.gkeonprem.inputs.BareMetalClusterStorageLvpShareConfigLvpConfigArgs;
import java.util.List;
import java.util.ArrayList;
import java.util.Map;
import java.io.File;
import java.nio.file.Files;
import java.nio.file.Paths;
public class App {
public static void main(String[] args) {
Pulumi.run(App::stack);
}
public static void stack(Context ctx) {
var cluster_bgplb = new BareMetalCluster("cluster-bgplb", BareMetalClusterArgs.builder()
.adminClusterMembership("projects/870316890899/locations/global/memberships/gkeonprem-terraform-test")
.bareMetalVersion("1.12.3")
.clusterOperations(BareMetalClusterClusterOperationsArgs.builder()
.enableApplicationLogs(true)
.build())
.controlPlane(BareMetalClusterControlPlaneArgs.builder()
.apiServerArgs(BareMetalClusterControlPlaneApiServerArgArgs.builder()
.argument("test-argument")
.value("test-value")
.build())
.controlPlaneNodePoolConfig(BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs.builder()
.nodePoolConfig(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs.builder()
.labels()
.nodeConfigs(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs.builder()
.labels()
.nodeIp("10.200.0.9")
.build())
.operatingSystem("LINUX")
.taints(BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaintArgs.builder()
.effect("NO_EXECUTE")
.key("test-key")
.value("test-value")
.build())
.build())
.build())
.build())
.loadBalancer(BareMetalClusterLoadBalancerArgs.builder()
.bgpLbConfig(BareMetalClusterLoadBalancerBgpLbConfigArgs.builder()
.addressPools(BareMetalClusterLoadBalancerBgpLbConfigAddressPoolArgs.builder()
.addresses(
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128")
.pool("pool1")
.build())
.asn(123456)
.bgpPeerConfigs(BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfigArgs.builder()
.asn(123457)
.controlPlaneNodes("test-node")
.ipAddress("10.0.0.1")
.build())
.loadBalancerNodePoolConfig(BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigArgs.builder()
.nodePoolConfig(BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs.builder()
.kubeletConfig(BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfigArgs.builder()
.registryBurst(12)
.registryPullQps(10)
.serializeImagePullsDisabled(true)
.build())
.labels()
.nodeConfigs(BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArgs.builder()
.labels()
.nodeIp("10.200.0.9")
.build())
.operatingSystem("LINUX")
.taints(BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArgs.builder()
.effect("NO_EXECUTE")
.key("test-key")
.value("test-value")
.build())
.build())
.build())
.build())
.portConfig(BareMetalClusterLoadBalancerPortConfigArgs.builder()
.controlPlaneLoadBalancerPort(443)
.build())
.vipConfig(BareMetalClusterLoadBalancerVipConfigArgs.builder()
.controlPlaneVip("10.200.0.13")
.ingressVip("10.200.0.14")
.build())
.build())
.location("us-west1")
.maintenanceConfig(BareMetalClusterMaintenanceConfigArgs.builder()
.maintenanceAddressCidrBlocks("192.168.0.1/20")
.build())
.networkConfig(BareMetalClusterNetworkConfigArgs.builder()
.advancedNetworking(true)
.islandModeCidr(BareMetalClusterNetworkConfigIslandModeCidrArgs.builder()
.podAddressCidrBlocks("10.240.0.0/13")
.serviceAddressCidrBlocks("172.26.0.0/16")
.build())
.multipleNetworkInterfacesConfig(BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfigArgs.builder()
.enabled(true)
.build())
.srIovConfig(BareMetalClusterNetworkConfigSrIovConfigArgs.builder()
.enabled(true)
.build())
.build())
.nodeAccessConfig(BareMetalClusterNodeAccessConfigArgs.builder()
.loginUser("test@example.com")
.build())
.nodeConfig(BareMetalClusterNodeConfigArgs.builder()
.containerRuntime("CONTAINERD")
.maxPodsPerNode(10)
.build())
.osEnvironmentConfig(BareMetalClusterOsEnvironmentConfigArgs.builder()
.packageRepoExcluded(true)
.build())
.proxy(BareMetalClusterProxyArgs.builder()
.noProxies("127.0.0.1")
.uri("http://test-domain/test")
.build())
.securityConfig(BareMetalClusterSecurityConfigArgs.builder()
.authorization(BareMetalClusterSecurityConfigAuthorizationArgs.builder()
.adminUsers(BareMetalClusterSecurityConfigAuthorizationAdminUserArgs.builder()
.username("admin@hashicorptest.com")
.build())
.build())
.build())
.storage(BareMetalClusterStorageArgs.builder()
.lvpNodeMountsConfig(BareMetalClusterStorageLvpNodeMountsConfigArgs.builder()
.path("/mnt/localpv-disk")
.storageClass("local-disks")
.build())
.lvpShareConfig(BareMetalClusterStorageLvpShareConfigArgs.builder()
.lvpConfig(BareMetalClusterStorageLvpShareConfigLvpConfigArgs.builder()
.path("/mnt/localpv-share")
.storageClass("local-shared")
.build())
.sharedPathPvCount(5)
.build())
.build())
.build());
}
}
import pulumi
import pulumi_gcp as gcp
cluster_bgplb = gcp.gkeonprem.BareMetalCluster("cluster-bgplb",
admin_cluster_membership="projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
bare_metal_version="1.12.3",
cluster_operations=gcp.gkeonprem.BareMetalClusterClusterOperationsArgs(
enable_application_logs=True,
),
control_plane=gcp.gkeonprem.BareMetalClusterControlPlaneArgs(
api_server_args=[gcp.gkeonprem.BareMetalClusterControlPlaneApiServerArgArgs(
argument="test-argument",
value="test-value",
)],
control_plane_node_pool_config=gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs(
node_pool_config=gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs(
labels={},
node_configs=[gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs(
labels={},
node_ip="10.200.0.9",
)],
operating_system="LINUX",
taints=[gcp.gkeonprem.BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaintArgs(
effect="NO_EXECUTE",
key="test-key",
value="test-value",
)],
),
),
),
load_balancer=gcp.gkeonprem.BareMetalClusterLoadBalancerArgs(
bgp_lb_config=gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigArgs(
address_pools=[gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigAddressPoolArgs(
addresses=[
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128",
],
pool="pool1",
)],
asn=123456,
bgp_peer_configs=[gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfigArgs(
asn=123457,
control_plane_nodes=["test-node"],
ip_address="10.0.0.1",
)],
load_balancer_node_pool_config=gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigArgs(
node_pool_config=gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs(
kubelet_config=gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfigArgs(
registry_burst=12,
registry_pull_qps=10,
serialize_image_pulls_disabled=True,
),
labels={},
node_configs=[gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArgs(
labels={},
node_ip="10.200.0.9",
)],
operating_system="LINUX",
taints=[gcp.gkeonprem.BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArgs(
effect="NO_EXECUTE",
key="test-key",
value="test-value",
)],
),
),
),
port_config=gcp.gkeonprem.BareMetalClusterLoadBalancerPortConfigArgs(
control_plane_load_balancer_port=443,
),
vip_config=gcp.gkeonprem.BareMetalClusterLoadBalancerVipConfigArgs(
control_plane_vip="10.200.0.13",
ingress_vip="10.200.0.14",
),
),
location="us-west1",
maintenance_config=gcp.gkeonprem.BareMetalClusterMaintenanceConfigArgs(
maintenance_address_cidr_blocks=["192.168.0.1/20"],
),
network_config=gcp.gkeonprem.BareMetalClusterNetworkConfigArgs(
advanced_networking=True,
island_mode_cidr=gcp.gkeonprem.BareMetalClusterNetworkConfigIslandModeCidrArgs(
pod_address_cidr_blocks=["10.240.0.0/13"],
service_address_cidr_blocks=["172.26.0.0/16"],
),
multiple_network_interfaces_config=gcp.gkeonprem.BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfigArgs(
enabled=True,
),
sr_iov_config=gcp.gkeonprem.BareMetalClusterNetworkConfigSrIovConfigArgs(
enabled=True,
),
),
node_access_config=gcp.gkeonprem.BareMetalClusterNodeAccessConfigArgs(
login_user="test@example.com",
),
node_config=gcp.gkeonprem.BareMetalClusterNodeConfigArgs(
container_runtime="CONTAINERD",
max_pods_per_node=10,
),
os_environment_config=gcp.gkeonprem.BareMetalClusterOsEnvironmentConfigArgs(
package_repo_excluded=True,
),
proxy=gcp.gkeonprem.BareMetalClusterProxyArgs(
no_proxies=["127.0.0.1"],
uri="http://test-domain/test",
),
security_config=gcp.gkeonprem.BareMetalClusterSecurityConfigArgs(
authorization=gcp.gkeonprem.BareMetalClusterSecurityConfigAuthorizationArgs(
admin_users=[gcp.gkeonprem.BareMetalClusterSecurityConfigAuthorizationAdminUserArgs(
username="admin@hashicorptest.com",
)],
),
),
storage=gcp.gkeonprem.BareMetalClusterStorageArgs(
lvp_node_mounts_config=gcp.gkeonprem.BareMetalClusterStorageLvpNodeMountsConfigArgs(
path="/mnt/localpv-disk",
storage_class="local-disks",
),
lvp_share_config=gcp.gkeonprem.BareMetalClusterStorageLvpShareConfigArgs(
lvp_config=gcp.gkeonprem.BareMetalClusterStorageLvpShareConfigLvpConfigArgs(
path="/mnt/localpv-share",
storage_class="local-shared",
),
shared_path_pv_count=5,
),
))
import * as pulumi from "@pulumi/pulumi";
import * as gcp from "@pulumi/gcp";
const cluster_bgplb = new gcp.gkeonprem.BareMetalCluster("cluster-bgplb", {
adminClusterMembership: "projects/870316890899/locations/global/memberships/gkeonprem-terraform-test",
bareMetalVersion: "1.12.3",
clusterOperations: {
enableApplicationLogs: true,
},
controlPlane: {
apiServerArgs: [{
argument: "test-argument",
value: "test-value",
}],
controlPlaneNodePoolConfig: {
nodePoolConfig: {
labels: {},
nodeConfigs: [{
labels: {},
nodeIp: "10.200.0.9",
}],
operatingSystem: "LINUX",
taints: [{
effect: "NO_EXECUTE",
key: "test-key",
value: "test-value",
}],
},
},
},
loadBalancer: {
bgpLbConfig: {
addressPools: [{
addresses: [
"10.200.0.14/32",
"10.200.0.15/32",
"10.200.0.16/32",
"10.200.0.17/32",
"10.200.0.18/32",
"fd00:1::f/128",
"fd00:1::10/128",
"fd00:1::11/128",
"fd00:1::12/128",
],
pool: "pool1",
}],
asn: 123456,
bgpPeerConfigs: [{
asn: 123457,
controlPlaneNodes: ["test-node"],
ipAddress: "10.0.0.1",
}],
loadBalancerNodePoolConfig: {
nodePoolConfig: {
kubeletConfig: {
registryBurst: 12,
registryPullQps: 10,
serializeImagePullsDisabled: true,
},
labels: {},
nodeConfigs: [{
labels: {},
nodeIp: "10.200.0.9",
}],
operatingSystem: "LINUX",
taints: [{
effect: "NO_EXECUTE",
key: "test-key",
value: "test-value",
}],
},
},
},
portConfig: {
controlPlaneLoadBalancerPort: 443,
},
vipConfig: {
controlPlaneVip: "10.200.0.13",
ingressVip: "10.200.0.14",
},
},
location: "us-west1",
maintenanceConfig: {
maintenanceAddressCidrBlocks: ["192.168.0.1/20"],
},
networkConfig: {
advancedNetworking: true,
islandModeCidr: {
podAddressCidrBlocks: ["10.240.0.0/13"],
serviceAddressCidrBlocks: ["172.26.0.0/16"],
},
multipleNetworkInterfacesConfig: {
enabled: true,
},
srIovConfig: {
enabled: true,
},
},
nodeAccessConfig: {
loginUser: "test@example.com",
},
nodeConfig: {
containerRuntime: "CONTAINERD",
maxPodsPerNode: 10,
},
osEnvironmentConfig: {
packageRepoExcluded: true,
},
proxy: {
noProxies: ["127.0.0.1"],
uri: "http://test-domain/test",
},
securityConfig: {
authorization: {
adminUsers: [{
username: "admin@hashicorptest.com",
}],
},
},
storage: {
lvpNodeMountsConfig: {
path: "/mnt/localpv-disk",
storageClass: "local-disks",
},
lvpShareConfig: {
lvpConfig: {
path: "/mnt/localpv-share",
storageClass: "local-shared",
},
sharedPathPvCount: 5,
},
},
});
resources:
cluster-bgplb:
type: gcp:gkeonprem:BareMetalCluster
properties:
adminClusterMembership: projects/870316890899/locations/global/memberships/gkeonprem-terraform-test
bareMetalVersion: 1.12.3
clusterOperations:
enableApplicationLogs: true
controlPlane:
apiServerArgs:
- argument: test-argument
value: test-value
controlPlaneNodePoolConfig:
nodePoolConfig:
labels: {}
nodeConfigs:
- labels: {}
nodeIp: 10.200.0.9
operatingSystem: LINUX
taints:
- effect: NO_EXECUTE
key: test-key
value: test-value
loadBalancer:
bgpLbConfig:
addressPools:
- addresses:
- 10.200.0.14/32
- 10.200.0.15/32
- 10.200.0.16/32
- 10.200.0.17/32
- 10.200.0.18/32
- fd00:1::f/128
- fd00:1::10/128
- fd00:1::11/128
- fd00:1::12/128
pool: pool1
asn: 123456
bgpPeerConfigs:
- asn: 123457
controlPlaneNodes:
- test-node
ipAddress: 10.0.0.1
loadBalancerNodePoolConfig:
nodePoolConfig:
kubeletConfig:
registryBurst: 12
registryPullQps: 10
serializeImagePullsDisabled: true
labels: {}
nodeConfigs:
- labels: {}
nodeIp: 10.200.0.9
operatingSystem: LINUX
taints:
- effect: NO_EXECUTE
key: test-key
value: test-value
portConfig:
controlPlaneLoadBalancerPort: 443
vipConfig:
controlPlaneVip: 10.200.0.13
ingressVip: 10.200.0.14
location: us-west1
maintenanceConfig:
maintenanceAddressCidrBlocks:
- 192.168.0.1/20
networkConfig:
advancedNetworking: true
islandModeCidr:
podAddressCidrBlocks:
- 10.240.0.0/13
serviceAddressCidrBlocks:
- 172.26.0.0/16
multipleNetworkInterfacesConfig:
enabled: true
srIovConfig:
enabled: true
nodeAccessConfig:
loginUser: test@example.com
nodeConfig:
containerRuntime: CONTAINERD
maxPodsPerNode: 10
osEnvironmentConfig:
packageRepoExcluded: true
proxy:
noProxies:
- 127.0.0.1
uri: http://test-domain/test
securityConfig:
authorization:
adminUsers:
- username: admin@hashicorptest.com
storage:
lvpNodeMountsConfig:
path: /mnt/localpv-disk
storageClass: local-disks
lvpShareConfig:
lvpConfig:
path: /mnt/localpv-share
storageClass: local-shared
sharedPathPvCount: 5
Create BareMetalCluster Resource
new BareMetalCluster(name: string, args: BareMetalClusterArgs, opts?: CustomResourceOptions);@overload
def BareMetalCluster(resource_name: str,
opts: Optional[ResourceOptions] = None,
admin_cluster_membership: Optional[str] = None,
annotations: Optional[Mapping[str, str]] = None,
bare_metal_version: Optional[str] = None,
binary_authorization: Optional[BareMetalClusterBinaryAuthorizationArgs] = None,
cluster_operations: Optional[BareMetalClusterClusterOperationsArgs] = None,
control_plane: Optional[BareMetalClusterControlPlaneArgs] = None,
description: Optional[str] = None,
load_balancer: Optional[BareMetalClusterLoadBalancerArgs] = None,
location: Optional[str] = None,
maintenance_config: Optional[BareMetalClusterMaintenanceConfigArgs] = None,
name: Optional[str] = None,
network_config: Optional[BareMetalClusterNetworkConfigArgs] = None,
node_access_config: Optional[BareMetalClusterNodeAccessConfigArgs] = None,
node_config: Optional[BareMetalClusterNodeConfigArgs] = None,
os_environment_config: Optional[BareMetalClusterOsEnvironmentConfigArgs] = None,
project: Optional[str] = None,
proxy: Optional[BareMetalClusterProxyArgs] = None,
security_config: Optional[BareMetalClusterSecurityConfigArgs] = None,
storage: Optional[BareMetalClusterStorageArgs] = None,
upgrade_policy: Optional[BareMetalClusterUpgradePolicyArgs] = None)
@overload
def BareMetalCluster(resource_name: str,
args: BareMetalClusterArgs,
opts: Optional[ResourceOptions] = None)func NewBareMetalCluster(ctx *Context, name string, args BareMetalClusterArgs, opts ...ResourceOption) (*BareMetalCluster, error)public BareMetalCluster(string name, BareMetalClusterArgs args, CustomResourceOptions? opts = null)
public BareMetalCluster(String name, BareMetalClusterArgs args)
public BareMetalCluster(String name, BareMetalClusterArgs args, CustomResourceOptions options)
type: gcp:gkeonprem:BareMetalCluster
properties: # The arguments to resource properties.
options: # Bag of options to control resource's behavior.
- name string
- The unique name of the resource.
- args BareMetalClusterArgs
- The arguments to resource properties.
- opts CustomResourceOptions
- Bag of options to control resource's behavior.
- resource_name str
- The unique name of the resource.
- args BareMetalClusterArgs
- The arguments to resource properties.
- opts ResourceOptions
- Bag of options to control resource's behavior.
- ctx Context
- Context object for the current deployment.
- name string
- The unique name of the resource.
- args BareMetalClusterArgs
- The arguments to resource properties.
- opts ResourceOption
- Bag of options to control resource's behavior.
- name string
- The unique name of the resource.
- args BareMetalClusterArgs
- The arguments to resource properties.
- opts CustomResourceOptions
- Bag of options to control resource's behavior.
- name String
- The unique name of the resource.
- args BareMetalClusterArgs
- The arguments to resource properties.
- options CustomResourceOptions
- Bag of options to control resource's behavior.
BareMetalCluster Resource Properties
To learn more about resource properties and how to use them, see Inputs and Outputs in the Architecture and Concepts docs.
Inputs
The BareMetalCluster resource accepts the following input properties:
- Admin
Cluster stringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- Bare
Metal stringVersion A human readable description of this Bare Metal User Cluster.
- Control
Plane BareMetal Cluster Control Plane Specifies the control plane configuration. Structure is documented below.
- Load
Balancer BareMetal Cluster Load Balancer Specifies the load balancer configuration. Structure is documented below.
- Location string
The location of the resource.
- Network
Config BareMetal Cluster Network Config Network configuration. Structure is documented below.
- Storage
Bare
Metal Cluster Storage Specifies the cluster storage configuration. Structure is documented below.
- Annotations Dictionary<string, string>
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.-
Bare
Metal Cluster Binary Authorization Binary Authorization related configurations. Structure is documented below.
- Cluster
Operations BareMetal Cluster Cluster Operations Specifies the User Cluster's observability infrastructure. Structure is documented below.
- Description string
A human readable description of this Bare Metal User Cluster.
- Maintenance
Config BareMetal Cluster Maintenance Config Specifies the workload node configurations. Structure is documented below.
- Name string
The bare metal cluster name.
- Node
Access BareConfig Metal Cluster Node Access Config Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- Node
Config BareMetal Cluster Node Config Specifies the workload node configurations. Structure is documented below.
- Os
Environment BareConfig Metal Cluster Os Environment Config OS environment related configurations. Structure is documented below.
- Project string
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- Proxy
Bare
Metal Cluster Proxy Specifies the cluster proxy configuration. Structure is documented below.
- Security
Config BareMetal Cluster Security Config Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- Upgrade
Policy BareMetal Cluster Upgrade Policy The cluster upgrade policy. Structure is documented below.
- Admin
Cluster stringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- Bare
Metal stringVersion A human readable description of this Bare Metal User Cluster.
- Control
Plane BareMetal Cluster Control Plane Args Specifies the control plane configuration. Structure is documented below.
- Load
Balancer BareMetal Cluster Load Balancer Args Specifies the load balancer configuration. Structure is documented below.
- Location string
The location of the resource.
- Network
Config BareMetal Cluster Network Config Args Network configuration. Structure is documented below.
- Storage
Bare
Metal Cluster Storage Args Specifies the cluster storage configuration. Structure is documented below.
- Annotations map[string]string
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.-
Bare
Metal Cluster Binary Authorization Args Binary Authorization related configurations. Structure is documented below.
- Cluster
Operations BareMetal Cluster Cluster Operations Args Specifies the User Cluster's observability infrastructure. Structure is documented below.
- Description string
A human readable description of this Bare Metal User Cluster.
- Maintenance
Config BareMetal Cluster Maintenance Config Args Specifies the workload node configurations. Structure is documented below.
- Name string
The bare metal cluster name.
- Node
Access BareConfig Metal Cluster Node Access Config Args Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- Node
Config BareMetal Cluster Node Config Args Specifies the workload node configurations. Structure is documented below.
- Os
Environment BareConfig Metal Cluster Os Environment Config Args OS environment related configurations. Structure is documented below.
- Project string
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- Proxy
Bare
Metal Cluster Proxy Args Specifies the cluster proxy configuration. Structure is documented below.
- Security
Config BareMetal Cluster Security Config Args Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- Upgrade
Policy BareMetal Cluster Upgrade Policy Args The cluster upgrade policy. Structure is documented below.
- admin
Cluster StringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- bare
Metal StringVersion A human readable description of this Bare Metal User Cluster.
- control
Plane BareMetal Cluster Control Plane Specifies the control plane configuration. Structure is documented below.
- load
Balancer BareMetal Cluster Load Balancer Specifies the load balancer configuration. Structure is documented below.
- location String
The location of the resource.
- network
Config BareMetal Cluster Network Config Network configuration. Structure is documented below.
- storage
Bare
Metal Cluster Storage Specifies the cluster storage configuration. Structure is documented below.
- annotations Map<String,String>
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.-
Bare
Metal Cluster Binary Authorization Binary Authorization related configurations. Structure is documented below.
- cluster
Operations BareMetal Cluster Cluster Operations Specifies the User Cluster's observability infrastructure. Structure is documented below.
- description String
A human readable description of this Bare Metal User Cluster.
- maintenance
Config BareMetal Cluster Maintenance Config Specifies the workload node configurations. Structure is documented below.
- name String
The bare metal cluster name.
- node
Access BareConfig Metal Cluster Node Access Config Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node
Config BareMetal Cluster Node Config Specifies the workload node configurations. Structure is documented below.
- os
Environment BareConfig Metal Cluster Os Environment Config OS environment related configurations. Structure is documented below.
- project String
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy
Bare
Metal Cluster Proxy Specifies the cluster proxy configuration. Structure is documented below.
- security
Config BareMetal Cluster Security Config Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- upgrade
Policy BareMetal Cluster Upgrade Policy The cluster upgrade policy. Structure is documented below.
- admin
Cluster stringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- bare
Metal stringVersion A human readable description of this Bare Metal User Cluster.
- control
Plane BareMetal Cluster Control Plane Specifies the control plane configuration. Structure is documented below.
- load
Balancer BareMetal Cluster Load Balancer Specifies the load balancer configuration. Structure is documented below.
- location string
The location of the resource.
- network
Config BareMetal Cluster Network Config Network configuration. Structure is documented below.
- storage
Bare
Metal Cluster Storage Specifies the cluster storage configuration. Structure is documented below.
- annotations {[key: string]: string}
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.-
Bare
Metal Cluster Binary Authorization Binary Authorization related configurations. Structure is documented below.
- cluster
Operations BareMetal Cluster Cluster Operations Specifies the User Cluster's observability infrastructure. Structure is documented below.
- description string
A human readable description of this Bare Metal User Cluster.
- maintenance
Config BareMetal Cluster Maintenance Config Specifies the workload node configurations. Structure is documented below.
- name string
The bare metal cluster name.
- node
Access BareConfig Metal Cluster Node Access Config Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node
Config BareMetal Cluster Node Config Specifies the workload node configurations. Structure is documented below.
- os
Environment BareConfig Metal Cluster Os Environment Config OS environment related configurations. Structure is documented below.
- project string
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy
Bare
Metal Cluster Proxy Specifies the cluster proxy configuration. Structure is documented below.
- security
Config BareMetal Cluster Security Config Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- upgrade
Policy BareMetal Cluster Upgrade Policy The cluster upgrade policy. Structure is documented below.
- admin_
cluster_ strmembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- bare_
metal_ strversion A human readable description of this Bare Metal User Cluster.
- control_
plane BareMetal Cluster Control Plane Args Specifies the control plane configuration. Structure is documented below.
- load_
balancer BareMetal Cluster Load Balancer Args Specifies the load balancer configuration. Structure is documented below.
- location str
The location of the resource.
- network_
config BareMetal Cluster Network Config Args Network configuration. Structure is documented below.
- storage
Bare
Metal Cluster Storage Args Specifies the cluster storage configuration. Structure is documented below.
- annotations Mapping[str, str]
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.-
Bare
Metal Cluster Binary Authorization Args Binary Authorization related configurations. Structure is documented below.
- cluster_
operations BareMetal Cluster Cluster Operations Args Specifies the User Cluster's observability infrastructure. Structure is documented below.
- description str
A human readable description of this Bare Metal User Cluster.
- maintenance_
config BareMetal Cluster Maintenance Config Args Specifies the workload node configurations. Structure is documented below.
- name str
The bare metal cluster name.
- node_
access_ Bareconfig Metal Cluster Node Access Config Args Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node_
config BareMetal Cluster Node Config Args Specifies the workload node configurations. Structure is documented below.
- os_
environment_ Bareconfig Metal Cluster Os Environment Config Args OS environment related configurations. Structure is documented below.
- project str
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy
Bare
Metal Cluster Proxy Args Specifies the cluster proxy configuration. Structure is documented below.
- security_
config BareMetal Cluster Security Config Args Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- upgrade_
policy BareMetal Cluster Upgrade Policy Args The cluster upgrade policy. Structure is documented below.
- admin
Cluster StringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- bare
Metal StringVersion A human readable description of this Bare Metal User Cluster.
- control
Plane Property Map Specifies the control plane configuration. Structure is documented below.
- load
Balancer Property Map Specifies the load balancer configuration. Structure is documented below.
- location String
The location of the resource.
- network
Config Property Map Network configuration. Structure is documented below.
- storage Property Map
Specifies the cluster storage configuration. Structure is documented below.
- annotations Map<String>
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- Property Map
Binary Authorization related configurations. Structure is documented below.
- cluster
Operations Property Map Specifies the User Cluster's observability infrastructure. Structure is documented below.
- description String
A human readable description of this Bare Metal User Cluster.
- maintenance
Config Property Map Specifies the workload node configurations. Structure is documented below.
- name String
The bare metal cluster name.
- node
Access Property MapConfig Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node
Config Property Map Specifies the workload node configurations. Structure is documented below.
- os
Environment Property MapConfig OS environment related configurations. Structure is documented below.
- project String
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy Property Map
Specifies the cluster proxy configuration. Structure is documented below.
- security
Config Property Map Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- upgrade
Policy Property Map The cluster upgrade policy. Structure is documented below.
Outputs
All input properties are implicitly available as output properties. Additionally, the BareMetalCluster resource produces the following output properties:
- Create
Time string The time the cluster was created, in RFC3339 text format.
- Delete
Time string The time the cluster was deleted, in RFC3339 text format.
- Effective
Annotations Dictionary<string, string> All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- Endpoint string
The IP address name of Bare Metal User Cluster's API server.
- Etag string
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- Fleets
List<Bare
Metal Cluster Fleet> Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- Id string
The provider-assigned unique ID for this managed resource.
- Local
Name string The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- Reconciling bool
If set, there are currently changes in flight to the Bare Metal User Cluster.
- State string
(Output) The lifecycle state of the condition.
- Statuses
List<Bare
Metal Cluster Status> (Output) Specifies the detailed validation check status Structure is documented below.
- Uid string
The unique identifier of the Bare Metal User Cluster.
- Update
Time string The time the cluster was last updated, in RFC3339 text format.
- Validation
Checks List<BareMetal Cluster Validation Check> Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- Create
Time string The time the cluster was created, in RFC3339 text format.
- Delete
Time string The time the cluster was deleted, in RFC3339 text format.
- Effective
Annotations map[string]string All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- Endpoint string
The IP address name of Bare Metal User Cluster's API server.
- Etag string
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- Fleets
[]Bare
Metal Cluster Fleet Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- Id string
The provider-assigned unique ID for this managed resource.
- Local
Name string The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- Reconciling bool
If set, there are currently changes in flight to the Bare Metal User Cluster.
- State string
(Output) The lifecycle state of the condition.
- Statuses
[]Bare
Metal Cluster Status (Output) Specifies the detailed validation check status Structure is documented below.
- Uid string
The unique identifier of the Bare Metal User Cluster.
- Update
Time string The time the cluster was last updated, in RFC3339 text format.
- Validation
Checks []BareMetal Cluster Validation Check Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- create
Time String The time the cluster was created, in RFC3339 text format.
- delete
Time String The time the cluster was deleted, in RFC3339 text format.
- effective
Annotations Map<String,String> All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint String
The IP address name of Bare Metal User Cluster's API server.
- etag String
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets
List<Bare
Metal Cluster Fleet> Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- id String
The provider-assigned unique ID for this managed resource.
- local
Name String The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- reconciling Boolean
If set, there are currently changes in flight to the Bare Metal User Cluster.
- state String
(Output) The lifecycle state of the condition.
- statuses
List<Bare
Metal Cluster Status> (Output) Specifies the detailed validation check status Structure is documented below.
- uid String
The unique identifier of the Bare Metal User Cluster.
- update
Time String The time the cluster was last updated, in RFC3339 text format.
- validation
Checks List<BareMetal Cluster Validation Check> Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- create
Time string The time the cluster was created, in RFC3339 text format.
- delete
Time string The time the cluster was deleted, in RFC3339 text format.
- effective
Annotations {[key: string]: string} All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint string
The IP address name of Bare Metal User Cluster's API server.
- etag string
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets
Bare
Metal Cluster Fleet[] Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- id string
The provider-assigned unique ID for this managed resource.
- local
Name string The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- reconciling boolean
If set, there are currently changes in flight to the Bare Metal User Cluster.
- state string
(Output) The lifecycle state of the condition.
- statuses
Bare
Metal Cluster Status[] (Output) Specifies the detailed validation check status Structure is documented below.
- uid string
The unique identifier of the Bare Metal User Cluster.
- update
Time string The time the cluster was last updated, in RFC3339 text format.
- validation
Checks BareMetal Cluster Validation Check[] Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- create_
time str The time the cluster was created, in RFC3339 text format.
- delete_
time str The time the cluster was deleted, in RFC3339 text format.
- effective_
annotations Mapping[str, str] All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint str
The IP address name of Bare Metal User Cluster's API server.
- etag str
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets
Sequence[Bare
Metal Cluster Fleet] Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- id str
The provider-assigned unique ID for this managed resource.
- local_
name str The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- reconciling bool
If set, there are currently changes in flight to the Bare Metal User Cluster.
- state str
(Output) The lifecycle state of the condition.
- statuses
Sequence[Bare
Metal Cluster Status] (Output) Specifies the detailed validation check status Structure is documented below.
- uid str
The unique identifier of the Bare Metal User Cluster.
- update_
time str The time the cluster was last updated, in RFC3339 text format.
- validation_
checks Sequence[BareMetal Cluster Validation Check] Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- create
Time String The time the cluster was created, in RFC3339 text format.
- delete
Time String The time the cluster was deleted, in RFC3339 text format.
- effective
Annotations Map<String> All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint String
The IP address name of Bare Metal User Cluster's API server.
- etag String
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets List<Property Map>
Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- id String
The provider-assigned unique ID for this managed resource.
- local
Name String The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- reconciling Boolean
If set, there are currently changes in flight to the Bare Metal User Cluster.
- state String
(Output) The lifecycle state of the condition.
- statuses List<Property Map>
(Output) Specifies the detailed validation check status Structure is documented below.
- uid String
The unique identifier of the Bare Metal User Cluster.
- update
Time String The time the cluster was last updated, in RFC3339 text format.
- validation
Checks List<Property Map> Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
Look up Existing BareMetalCluster Resource
Get an existing BareMetalCluster resource’s state with the given name, ID, and optional extra properties used to qualify the lookup.
public static get(name: string, id: Input<ID>, state?: BareMetalClusterState, opts?: CustomResourceOptions): BareMetalCluster@staticmethod
def get(resource_name: str,
id: str,
opts: Optional[ResourceOptions] = None,
admin_cluster_membership: Optional[str] = None,
annotations: Optional[Mapping[str, str]] = None,
bare_metal_version: Optional[str] = None,
binary_authorization: Optional[BareMetalClusterBinaryAuthorizationArgs] = None,
cluster_operations: Optional[BareMetalClusterClusterOperationsArgs] = None,
control_plane: Optional[BareMetalClusterControlPlaneArgs] = None,
create_time: Optional[str] = None,
delete_time: Optional[str] = None,
description: Optional[str] = None,
effective_annotations: Optional[Mapping[str, str]] = None,
endpoint: Optional[str] = None,
etag: Optional[str] = None,
fleets: Optional[Sequence[BareMetalClusterFleetArgs]] = None,
load_balancer: Optional[BareMetalClusterLoadBalancerArgs] = None,
local_name: Optional[str] = None,
location: Optional[str] = None,
maintenance_config: Optional[BareMetalClusterMaintenanceConfigArgs] = None,
name: Optional[str] = None,
network_config: Optional[BareMetalClusterNetworkConfigArgs] = None,
node_access_config: Optional[BareMetalClusterNodeAccessConfigArgs] = None,
node_config: Optional[BareMetalClusterNodeConfigArgs] = None,
os_environment_config: Optional[BareMetalClusterOsEnvironmentConfigArgs] = None,
project: Optional[str] = None,
proxy: Optional[BareMetalClusterProxyArgs] = None,
reconciling: Optional[bool] = None,
security_config: Optional[BareMetalClusterSecurityConfigArgs] = None,
state: Optional[str] = None,
statuses: Optional[Sequence[BareMetalClusterStatusArgs]] = None,
storage: Optional[BareMetalClusterStorageArgs] = None,
uid: Optional[str] = None,
update_time: Optional[str] = None,
upgrade_policy: Optional[BareMetalClusterUpgradePolicyArgs] = None,
validation_checks: Optional[Sequence[BareMetalClusterValidationCheckArgs]] = None) -> BareMetalClusterfunc GetBareMetalCluster(ctx *Context, name string, id IDInput, state *BareMetalClusterState, opts ...ResourceOption) (*BareMetalCluster, error)public static BareMetalCluster Get(string name, Input<string> id, BareMetalClusterState? state, CustomResourceOptions? opts = null)public static BareMetalCluster get(String name, Output<String> id, BareMetalClusterState state, CustomResourceOptions options)Resource lookup is not supported in YAML- name
- The unique name of the resulting resource.
- id
- The unique provider ID of the resource to lookup.
- state
- Any extra arguments used during the lookup.
- opts
- A bag of options that control this resource's behavior.
- resource_name
- The unique name of the resulting resource.
- id
- The unique provider ID of the resource to lookup.
- name
- The unique name of the resulting resource.
- id
- The unique provider ID of the resource to lookup.
- state
- Any extra arguments used during the lookup.
- opts
- A bag of options that control this resource's behavior.
- name
- The unique name of the resulting resource.
- id
- The unique provider ID of the resource to lookup.
- state
- Any extra arguments used during the lookup.
- opts
- A bag of options that control this resource's behavior.
- name
- The unique name of the resulting resource.
- id
- The unique provider ID of the resource to lookup.
- state
- Any extra arguments used during the lookup.
- opts
- A bag of options that control this resource's behavior.
- Admin
Cluster stringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- Annotations Dictionary<string, string>
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- Bare
Metal stringVersion A human readable description of this Bare Metal User Cluster.
-
Bare
Metal Cluster Binary Authorization Binary Authorization related configurations. Structure is documented below.
- Cluster
Operations BareMetal Cluster Cluster Operations Specifies the User Cluster's observability infrastructure. Structure is documented below.
- Control
Plane BareMetal Cluster Control Plane Specifies the control plane configuration. Structure is documented below.
- Create
Time string The time the cluster was created, in RFC3339 text format.
- Delete
Time string The time the cluster was deleted, in RFC3339 text format.
- Description string
A human readable description of this Bare Metal User Cluster.
- Effective
Annotations Dictionary<string, string> All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- Endpoint string
The IP address name of Bare Metal User Cluster's API server.
- Etag string
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- Fleets
List<Bare
Metal Cluster Fleet> Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- Load
Balancer BareMetal Cluster Load Balancer Specifies the load balancer configuration. Structure is documented below.
- Local
Name string The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- Location string
The location of the resource.
- Maintenance
Config BareMetal Cluster Maintenance Config Specifies the workload node configurations. Structure is documented below.
- Name string
The bare metal cluster name.
- Network
Config BareMetal Cluster Network Config Network configuration. Structure is documented below.
- Node
Access BareConfig Metal Cluster Node Access Config Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- Node
Config BareMetal Cluster Node Config Specifies the workload node configurations. Structure is documented below.
- Os
Environment BareConfig Metal Cluster Os Environment Config OS environment related configurations. Structure is documented below.
- Project string
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- Proxy
Bare
Metal Cluster Proxy Specifies the cluster proxy configuration. Structure is documented below.
- Reconciling bool
If set, there are currently changes in flight to the Bare Metal User Cluster.
- Security
Config BareMetal Cluster Security Config Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- State string
(Output) The lifecycle state of the condition.
- Statuses
List<Bare
Metal Cluster Status> (Output) Specifies the detailed validation check status Structure is documented below.
- Storage
Bare
Metal Cluster Storage Specifies the cluster storage configuration. Structure is documented below.
- Uid string
The unique identifier of the Bare Metal User Cluster.
- Update
Time string The time the cluster was last updated, in RFC3339 text format.
- Upgrade
Policy BareMetal Cluster Upgrade Policy The cluster upgrade policy. Structure is documented below.
- Validation
Checks List<BareMetal Cluster Validation Check> Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- Admin
Cluster stringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- Annotations map[string]string
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- Bare
Metal stringVersion A human readable description of this Bare Metal User Cluster.
-
Bare
Metal Cluster Binary Authorization Args Binary Authorization related configurations. Structure is documented below.
- Cluster
Operations BareMetal Cluster Cluster Operations Args Specifies the User Cluster's observability infrastructure. Structure is documented below.
- Control
Plane BareMetal Cluster Control Plane Args Specifies the control plane configuration. Structure is documented below.
- Create
Time string The time the cluster was created, in RFC3339 text format.
- Delete
Time string The time the cluster was deleted, in RFC3339 text format.
- Description string
A human readable description of this Bare Metal User Cluster.
- Effective
Annotations map[string]string All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- Endpoint string
The IP address name of Bare Metal User Cluster's API server.
- Etag string
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- Fleets
[]Bare
Metal Cluster Fleet Args Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- Load
Balancer BareMetal Cluster Load Balancer Args Specifies the load balancer configuration. Structure is documented below.
- Local
Name string The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- Location string
The location of the resource.
- Maintenance
Config BareMetal Cluster Maintenance Config Args Specifies the workload node configurations. Structure is documented below.
- Name string
The bare metal cluster name.
- Network
Config BareMetal Cluster Network Config Args Network configuration. Structure is documented below.
- Node
Access BareConfig Metal Cluster Node Access Config Args Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- Node
Config BareMetal Cluster Node Config Args Specifies the workload node configurations. Structure is documented below.
- Os
Environment BareConfig Metal Cluster Os Environment Config Args OS environment related configurations. Structure is documented below.
- Project string
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- Proxy
Bare
Metal Cluster Proxy Args Specifies the cluster proxy configuration. Structure is documented below.
- Reconciling bool
If set, there are currently changes in flight to the Bare Metal User Cluster.
- Security
Config BareMetal Cluster Security Config Args Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- State string
(Output) The lifecycle state of the condition.
- Statuses
[]Bare
Metal Cluster Status Args (Output) Specifies the detailed validation check status Structure is documented below.
- Storage
Bare
Metal Cluster Storage Args Specifies the cluster storage configuration. Structure is documented below.
- Uid string
The unique identifier of the Bare Metal User Cluster.
- Update
Time string The time the cluster was last updated, in RFC3339 text format.
- Upgrade
Policy BareMetal Cluster Upgrade Policy Args The cluster upgrade policy. Structure is documented below.
- Validation
Checks []BareMetal Cluster Validation Check Args Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- admin
Cluster StringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- annotations Map<String,String>
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- bare
Metal StringVersion A human readable description of this Bare Metal User Cluster.
-
Bare
Metal Cluster Binary Authorization Binary Authorization related configurations. Structure is documented below.
- cluster
Operations BareMetal Cluster Cluster Operations Specifies the User Cluster's observability infrastructure. Structure is documented below.
- control
Plane BareMetal Cluster Control Plane Specifies the control plane configuration. Structure is documented below.
- create
Time String The time the cluster was created, in RFC3339 text format.
- delete
Time String The time the cluster was deleted, in RFC3339 text format.
- description String
A human readable description of this Bare Metal User Cluster.
- effective
Annotations Map<String,String> All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint String
The IP address name of Bare Metal User Cluster's API server.
- etag String
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets
List<Bare
Metal Cluster Fleet> Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- load
Balancer BareMetal Cluster Load Balancer Specifies the load balancer configuration. Structure is documented below.
- local
Name String The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- location String
The location of the resource.
- maintenance
Config BareMetal Cluster Maintenance Config Specifies the workload node configurations. Structure is documented below.
- name String
The bare metal cluster name.
- network
Config BareMetal Cluster Network Config Network configuration. Structure is documented below.
- node
Access BareConfig Metal Cluster Node Access Config Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node
Config BareMetal Cluster Node Config Specifies the workload node configurations. Structure is documented below.
- os
Environment BareConfig Metal Cluster Os Environment Config OS environment related configurations. Structure is documented below.
- project String
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy
Bare
Metal Cluster Proxy Specifies the cluster proxy configuration. Structure is documented below.
- reconciling Boolean
If set, there are currently changes in flight to the Bare Metal User Cluster.
- security
Config BareMetal Cluster Security Config Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- state String
(Output) The lifecycle state of the condition.
- statuses
List<Bare
Metal Cluster Status> (Output) Specifies the detailed validation check status Structure is documented below.
- storage
Bare
Metal Cluster Storage Specifies the cluster storage configuration. Structure is documented below.
- uid String
The unique identifier of the Bare Metal User Cluster.
- update
Time String The time the cluster was last updated, in RFC3339 text format.
- upgrade
Policy BareMetal Cluster Upgrade Policy The cluster upgrade policy. Structure is documented below.
- validation
Checks List<BareMetal Cluster Validation Check> Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- admin
Cluster stringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- annotations {[key: string]: string}
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- bare
Metal stringVersion A human readable description of this Bare Metal User Cluster.
-
Bare
Metal Cluster Binary Authorization Binary Authorization related configurations. Structure is documented below.
- cluster
Operations BareMetal Cluster Cluster Operations Specifies the User Cluster's observability infrastructure. Structure is documented below.
- control
Plane BareMetal Cluster Control Plane Specifies the control plane configuration. Structure is documented below.
- create
Time string The time the cluster was created, in RFC3339 text format.
- delete
Time string The time the cluster was deleted, in RFC3339 text format.
- description string
A human readable description of this Bare Metal User Cluster.
- effective
Annotations {[key: string]: string} All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint string
The IP address name of Bare Metal User Cluster's API server.
- etag string
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets
Bare
Metal Cluster Fleet[] Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- load
Balancer BareMetal Cluster Load Balancer Specifies the load balancer configuration. Structure is documented below.
- local
Name string The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- location string
The location of the resource.
- maintenance
Config BareMetal Cluster Maintenance Config Specifies the workload node configurations. Structure is documented below.
- name string
The bare metal cluster name.
- network
Config BareMetal Cluster Network Config Network configuration. Structure is documented below.
- node
Access BareConfig Metal Cluster Node Access Config Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node
Config BareMetal Cluster Node Config Specifies the workload node configurations. Structure is documented below.
- os
Environment BareConfig Metal Cluster Os Environment Config OS environment related configurations. Structure is documented below.
- project string
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy
Bare
Metal Cluster Proxy Specifies the cluster proxy configuration. Structure is documented below.
- reconciling boolean
If set, there are currently changes in flight to the Bare Metal User Cluster.
- security
Config BareMetal Cluster Security Config Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- state string
(Output) The lifecycle state of the condition.
- statuses
Bare
Metal Cluster Status[] (Output) Specifies the detailed validation check status Structure is documented below.
- storage
Bare
Metal Cluster Storage Specifies the cluster storage configuration. Structure is documented below.
- uid string
The unique identifier of the Bare Metal User Cluster.
- update
Time string The time the cluster was last updated, in RFC3339 text format.
- upgrade
Policy BareMetal Cluster Upgrade Policy The cluster upgrade policy. Structure is documented below.
- validation
Checks BareMetal Cluster Validation Check[] Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- admin_
cluster_ strmembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- annotations Mapping[str, str]
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- bare_
metal_ strversion A human readable description of this Bare Metal User Cluster.
-
Bare
Metal Cluster Binary Authorization Args Binary Authorization related configurations. Structure is documented below.
- cluster_
operations BareMetal Cluster Cluster Operations Args Specifies the User Cluster's observability infrastructure. Structure is documented below.
- control_
plane BareMetal Cluster Control Plane Args Specifies the control plane configuration. Structure is documented below.
- create_
time str The time the cluster was created, in RFC3339 text format.
- delete_
time str The time the cluster was deleted, in RFC3339 text format.
- description str
A human readable description of this Bare Metal User Cluster.
- effective_
annotations Mapping[str, str] All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint str
The IP address name of Bare Metal User Cluster's API server.
- etag str
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets
Sequence[Bare
Metal Cluster Fleet Args] Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- load_
balancer BareMetal Cluster Load Balancer Args Specifies the load balancer configuration. Structure is documented below.
- local_
name str The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- location str
The location of the resource.
- maintenance_
config BareMetal Cluster Maintenance Config Args Specifies the workload node configurations. Structure is documented below.
- name str
The bare metal cluster name.
- network_
config BareMetal Cluster Network Config Args Network configuration. Structure is documented below.
- node_
access_ Bareconfig Metal Cluster Node Access Config Args Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node_
config BareMetal Cluster Node Config Args Specifies the workload node configurations. Structure is documented below.
- os_
environment_ Bareconfig Metal Cluster Os Environment Config Args OS environment related configurations. Structure is documented below.
- project str
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy
Bare
Metal Cluster Proxy Args Specifies the cluster proxy configuration. Structure is documented below.
- reconciling bool
If set, there are currently changes in flight to the Bare Metal User Cluster.
- security_
config BareMetal Cluster Security Config Args Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- state str
(Output) The lifecycle state of the condition.
- statuses
Sequence[Bare
Metal Cluster Status Args] (Output) Specifies the detailed validation check status Structure is documented below.
- storage
Bare
Metal Cluster Storage Args Specifies the cluster storage configuration. Structure is documented below.
- uid str
The unique identifier of the Bare Metal User Cluster.
- update_
time str The time the cluster was last updated, in RFC3339 text format.
- upgrade_
policy BareMetal Cluster Upgrade Policy Args The cluster upgrade policy. Structure is documented below.
- validation_
checks Sequence[BareMetal Cluster Validation Check Args] Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- admin
Cluster StringMembership The Admin Cluster this Bare Metal User Cluster belongs to. This is the full resource name of the Admin Cluster's hub membership.
- annotations Map<String>
Annotations on the Bare Metal User Cluster. This field has the same restrictions as Kubernetes annotations. The total size of all keys and values combined is limited to 256k. Key can have 2 segments: prefix (optional) and name (required), separated by a slash (/). Prefix must be a DNS subdomain. Name must be 63 characters or less, begin and end with alphanumerics, with dashes (-), underscores (_), dots (.), and alphanumerics between.
Note: This field is non-authoritative, and will only manage the annotations present in your configuration. Please refer to the field
effective_annotationsfor all of the annotations present on the resource.- bare
Metal StringVersion A human readable description of this Bare Metal User Cluster.
- Property Map
Binary Authorization related configurations. Structure is documented below.
- cluster
Operations Property Map Specifies the User Cluster's observability infrastructure. Structure is documented below.
- control
Plane Property Map Specifies the control plane configuration. Structure is documented below.
- create
Time String The time the cluster was created, in RFC3339 text format.
- delete
Time String The time the cluster was deleted, in RFC3339 text format.
- description String
A human readable description of this Bare Metal User Cluster.
- effective
Annotations Map<String> All of annotations (key/value pairs) present on the resource in GCP, including the annotations configured through Terraform, other clients and services.
- endpoint String
The IP address name of Bare Metal User Cluster's API server.
- etag String
This checksum is computed by the server based on the value of other fields, and may be sent on update and delete requests to ensure the client has an up-to-date value before proceeding. Allows clients to perform consistent read-modify-writes through optimistic concurrency control.
- fleets List<Property Map>
Fleet related configuration. Fleets are a Google Cloud concept for logically organizing clusters, letting you use and manage multi-cluster capabilities and apply consistent policies across your systems. See Anthos Fleets for more details on Anthos multi-cluster capabilities using Fleets. Structure is documented below.
- load
Balancer Property Map Specifies the load balancer configuration. Structure is documented below.
- local
Name String The object name of the Bare Metal Cluster custom resource on the associated admin cluster. This field is used to support conflicting names when enrolling existing clusters to the API. When used as a part of cluster enrollment, this field will differ from the ID in the resource name. For new clusters, this field will match the user provided cluster ID and be visible in the last component of the resource name. It is not modifiable. All users should use this name to access their cluster using gkectl or kubectl and should expect to see the local name when viewing admin cluster controller logs.
- location String
The location of the resource.
- maintenance
Config Property Map Specifies the workload node configurations. Structure is documented below.
- name String
The bare metal cluster name.
- network
Config Property Map Network configuration. Structure is documented below.
- node
Access Property MapConfig Specifies the node access related settings for the bare metal user cluster. Structure is documented below.
- node
Config Property Map Specifies the workload node configurations. Structure is documented below.
- os
Environment Property MapConfig OS environment related configurations. Structure is documented below.
- project String
The ID of the project in which the resource belongs. If it is not provided, the provider project is used.
- proxy Property Map
Specifies the cluster proxy configuration. Structure is documented below.
- reconciling Boolean
If set, there are currently changes in flight to the Bare Metal User Cluster.
- security
Config Property Map Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
- state String
(Output) The lifecycle state of the condition.
- statuses List<Property Map>
(Output) Specifies the detailed validation check status Structure is documented below.
- storage Property Map
Specifies the cluster storage configuration. Structure is documented below.
- uid String
The unique identifier of the Bare Metal User Cluster.
- update
Time String The time the cluster was last updated, in RFC3339 text format.
- upgrade
Policy Property Map The cluster upgrade policy. Structure is documented below.
- validation
Checks List<Property Map> Specifies the security related settings for the Bare Metal User Cluster. Structure is documented below.
Supporting Types
BareMetalClusterBinaryAuthorization, BareMetalClusterBinaryAuthorizationArgs
- Evaluation
Mode string Mode of operation for binauthz policy evaluation. If unspecified, defaults to DISABLED. Possible values are:
DISABLED,PROJECT_SINGLETON_POLICY_ENFORCE.
- Evaluation
Mode string Mode of operation for binauthz policy evaluation. If unspecified, defaults to DISABLED. Possible values are:
DISABLED,PROJECT_SINGLETON_POLICY_ENFORCE.
- evaluation
Mode String Mode of operation for binauthz policy evaluation. If unspecified, defaults to DISABLED. Possible values are:
DISABLED,PROJECT_SINGLETON_POLICY_ENFORCE.
- evaluation
Mode string Mode of operation for binauthz policy evaluation. If unspecified, defaults to DISABLED. Possible values are:
DISABLED,PROJECT_SINGLETON_POLICY_ENFORCE.
- evaluation_
mode str Mode of operation for binauthz policy evaluation. If unspecified, defaults to DISABLED. Possible values are:
DISABLED,PROJECT_SINGLETON_POLICY_ENFORCE.
- evaluation
Mode String Mode of operation for binauthz policy evaluation. If unspecified, defaults to DISABLED. Possible values are:
DISABLED,PROJECT_SINGLETON_POLICY_ENFORCE.
BareMetalClusterClusterOperations, BareMetalClusterClusterOperationsArgs
- Enable
Application boolLogs Whether collection of application logs/metrics should be enabled (in addition to system logs/metrics).
- Enable
Application boolLogs Whether collection of application logs/metrics should be enabled (in addition to system logs/metrics).
- enable
Application BooleanLogs Whether collection of application logs/metrics should be enabled (in addition to system logs/metrics).
- enable
Application booleanLogs Whether collection of application logs/metrics should be enabled (in addition to system logs/metrics).
- enable_
application_ boollogs Whether collection of application logs/metrics should be enabled (in addition to system logs/metrics).
- enable
Application BooleanLogs Whether collection of application logs/metrics should be enabled (in addition to system logs/metrics).
BareMetalClusterControlPlane, BareMetalClusterControlPlaneArgs
- Control
Plane BareNode Pool Config Metal Cluster Control Plane Control Plane Node Pool Config Configures the node pool running the control plane. If specified the corresponding NodePool will be created for the cluster's control plane. The NodePool will have the same name and namespace as the cluster. Structure is documented below.
- Api
Server List<BareArgs Metal Cluster Control Plane Api Server Arg> Customizes the default API server args. Only a subset of customized flags are supported. Please refer to the API server documentation below to know the exact format: https://kubernetes.io/docs/reference/command-line-tools-reference/kube-apiserver/ Structure is documented below.
- Control
Plane BareNode Pool Config Metal Cluster Control Plane Control Plane Node Pool Config Configures the node pool running the control plane. If specified the corresponding NodePool will be created for the cluster's control plane. The NodePool will have the same name and namespace as the cluster. Structure is documented below.
- Api
Server []BareArgs Metal Cluster Control Plane Api Server Arg Customizes the default API server args. Only a subset of customized flags are supported. Please refer to the API server documentation below to know the exact format: https://kubernetes.io/docs/reference/command-line-tools-reference/kube-apiserver/ Structure is documented below.
- control
Plane BareNode Pool Config Metal Cluster Control Plane Control Plane Node Pool Config Configures the node pool running the control plane. If specified the corresponding NodePool will be created for the cluster's control plane. The NodePool will have the same name and namespace as the cluster. Structure is documented below.
- api
Server List<BareArgs Metal Cluster Control Plane Api Server Arg> Customizes the default API server args. Only a subset of customized flags are supported. Please refer to the API server documentation below to know the exact format: https://kubernetes.io/docs/reference/command-line-tools-reference/kube-apiserver/ Structure is documented below.
- control
Plane BareNode Pool Config Metal Cluster Control Plane Control Plane Node Pool Config Configures the node pool running the control plane. If specified the corresponding NodePool will be created for the cluster's control plane. The NodePool will have the same name and namespace as the cluster. Structure is documented below.
- api
Server BareArgs Metal Cluster Control Plane Api Server Arg[] Customizes the default API server args. Only a subset of customized flags are supported. Please refer to the API server documentation below to know the exact format: https://kubernetes.io/docs/reference/command-line-tools-reference/kube-apiserver/ Structure is documented below.
- control_
plane_ Barenode_ pool_ config Metal Cluster Control Plane Control Plane Node Pool Config Configures the node pool running the control plane. If specified the corresponding NodePool will be created for the cluster's control plane. The NodePool will have the same name and namespace as the cluster. Structure is documented below.
- api_
server_ Sequence[Bareargs Metal Cluster Control Plane Api Server Arg] Customizes the default API server args. Only a subset of customized flags are supported. Please refer to the API server documentation below to know the exact format: https://kubernetes.io/docs/reference/command-line-tools-reference/kube-apiserver/ Structure is documented below.
- control
Plane Property MapNode Pool Config Configures the node pool running the control plane. If specified the corresponding NodePool will be created for the cluster's control plane. The NodePool will have the same name and namespace as the cluster. Structure is documented below.
- api
Server List<Property Map>Args Customizes the default API server args. Only a subset of customized flags are supported. Please refer to the API server documentation below to know the exact format: https://kubernetes.io/docs/reference/command-line-tools-reference/kube-apiserver/ Structure is documented below.
BareMetalClusterControlPlaneApiServerArg, BareMetalClusterControlPlaneApiServerArgArgs
BareMetalClusterControlPlaneControlPlaneNodePoolConfig, BareMetalClusterControlPlaneControlPlaneNodePoolConfigArgs
- Node
Pool BareConfig Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config The generic configuration for a node pool running the control plane. Structure is documented below.
- Node
Pool BareConfig Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config The generic configuration for a node pool running the control plane. Structure is documented below.
- node
Pool BareConfig Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config The generic configuration for a node pool running the control plane. Structure is documented below.
- node
Pool BareConfig Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config The generic configuration for a node pool running the control plane. Structure is documented below.
- node_
pool_ Bareconfig Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config The generic configuration for a node pool running the control plane. Structure is documented below.
- node
Pool Property MapConfig The generic configuration for a node pool running the control plane. Structure is documented below.
BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfig, BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigArgs
- Labels Dictionary<string, string>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Configs List<BareMetal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Node Config> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- Operating
System string Specifies the nodes operating system (default: LINUX).
- Taints
List<Bare
Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Taint> The initial taints assigned to nodes of this node pool. Structure is documented below.
- Labels map[string]string
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Configs []BareMetal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Node Config The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- Operating
System string Specifies the nodes operating system (default: LINUX).
- Taints
[]Bare
Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Taint The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels Map<String,String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs List<BareMetal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Node Config> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System String Specifies the nodes operating system (default: LINUX).
- taints
List<Bare
Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Taint> The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels {[key: string]: string}
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs BareMetal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Node Config[] The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System string Specifies the nodes operating system (default: LINUX).
- taints
Bare
Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Taint[] The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels Mapping[str, str]
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node_
configs Sequence[BareMetal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Node Config] The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating_
system str Specifies the nodes operating system (default: LINUX).
- taints
Sequence[Bare
Metal Cluster Control Plane Control Plane Node Pool Config Node Pool Config Taint] The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels Map<String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs List<Property Map> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System String Specifies the nodes operating system (default: LINUX).
- taints List<Property Map>
The initial taints assigned to nodes of this node pool. Structure is documented below.
BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfig, BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigNodeConfigArgs
- Labels Dictionary<string, string>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- Labels map[string]string
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Map<String,String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip String The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels {[key: string]: string}
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Mapping[str, str]
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node_
ip str The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Map<String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip String The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaint, BareMetalClusterControlPlaneControlPlaneNodePoolConfigNodePoolConfigTaintArgs
BareMetalClusterFleet, BareMetalClusterFleetArgs
- Membership string
(Output) The name of the managed Hub Membership resource associated to this cluster. Membership names are formatted as
projects/<project-number>/locations/<location>/memberships/<cluster-id>.
- Membership string
(Output) The name of the managed Hub Membership resource associated to this cluster. Membership names are formatted as
projects/<project-number>/locations/<location>/memberships/<cluster-id>.
- membership String
(Output) The name of the managed Hub Membership resource associated to this cluster. Membership names are formatted as
projects/<project-number>/locations/<location>/memberships/<cluster-id>.
- membership string
(Output) The name of the managed Hub Membership resource associated to this cluster. Membership names are formatted as
projects/<project-number>/locations/<location>/memberships/<cluster-id>.
- membership str
(Output) The name of the managed Hub Membership resource associated to this cluster. Membership names are formatted as
projects/<project-number>/locations/<location>/memberships/<cluster-id>.
- membership String
(Output) The name of the managed Hub Membership resource associated to this cluster. Membership names are formatted as
projects/<project-number>/locations/<location>/memberships/<cluster-id>.
BareMetalClusterLoadBalancer, BareMetalClusterLoadBalancerArgs
- Port
Config BareMetal Cluster Load Balancer Port Config Specifies the load balancer ports. Structure is documented below.
- Vip
Config BareMetal Cluster Load Balancer Vip Config Specified the Bare Metal Load Balancer Config Structure is documented below.
- Bgp
Lb BareConfig Metal Cluster Load Balancer Bgp Lb Config Configuration for BGP typed load balancers. Structure is documented below.
- Manual
Lb BareConfig Metal Cluster Load Balancer Manual Lb Config A nested object resource Structure is documented below.
- Metal
Lb BareConfig Metal Cluster Load Balancer Metal Lb Config A nested object resource Structure is documented below.
- Port
Config BareMetal Cluster Load Balancer Port Config Specifies the load balancer ports. Structure is documented below.
- Vip
Config BareMetal Cluster Load Balancer Vip Config Specified the Bare Metal Load Balancer Config Structure is documented below.
- Bgp
Lb BareConfig Metal Cluster Load Balancer Bgp Lb Config Configuration for BGP typed load balancers. Structure is documented below.
- Manual
Lb BareConfig Metal Cluster Load Balancer Manual Lb Config A nested object resource Structure is documented below.
- Metal
Lb BareConfig Metal Cluster Load Balancer Metal Lb Config A nested object resource Structure is documented below.
- port
Config BareMetal Cluster Load Balancer Port Config Specifies the load balancer ports. Structure is documented below.
- vip
Config BareMetal Cluster Load Balancer Vip Config Specified the Bare Metal Load Balancer Config Structure is documented below.
- bgp
Lb BareConfig Metal Cluster Load Balancer Bgp Lb Config Configuration for BGP typed load balancers. Structure is documented below.
- manual
Lb BareConfig Metal Cluster Load Balancer Manual Lb Config A nested object resource Structure is documented below.
- metal
Lb BareConfig Metal Cluster Load Balancer Metal Lb Config A nested object resource Structure is documented below.
- port
Config BareMetal Cluster Load Balancer Port Config Specifies the load balancer ports. Structure is documented below.
- vip
Config BareMetal Cluster Load Balancer Vip Config Specified the Bare Metal Load Balancer Config Structure is documented below.
- bgp
Lb BareConfig Metal Cluster Load Balancer Bgp Lb Config Configuration for BGP typed load balancers. Structure is documented below.
- manual
Lb BareConfig Metal Cluster Load Balancer Manual Lb Config A nested object resource Structure is documented below.
- metal
Lb BareConfig Metal Cluster Load Balancer Metal Lb Config A nested object resource Structure is documented below.
- port_
config BareMetal Cluster Load Balancer Port Config Specifies the load balancer ports. Structure is documented below.
- vip_
config BareMetal Cluster Load Balancer Vip Config Specified the Bare Metal Load Balancer Config Structure is documented below.
- bgp_
lb_ Bareconfig Metal Cluster Load Balancer Bgp Lb Config Configuration for BGP typed load balancers. Structure is documented below.
- manual_
lb_ Bareconfig Metal Cluster Load Balancer Manual Lb Config A nested object resource Structure is documented below.
- metal_
lb_ Bareconfig Metal Cluster Load Balancer Metal Lb Config A nested object resource Structure is documented below.
- port
Config Property Map Specifies the load balancer ports. Structure is documented below.
- vip
Config Property Map Specified the Bare Metal Load Balancer Config Structure is documented below.
- bgp
Lb Property MapConfig Configuration for BGP typed load balancers. Structure is documented below.
- manual
Lb Property MapConfig A nested object resource Structure is documented below.
- metal
Lb Property MapConfig A nested object resource Structure is documented below.
BareMetalClusterLoadBalancerBgpLbConfig, BareMetalClusterLoadBalancerBgpLbConfigArgs
- Address
Pools List<BareMetal Cluster Load Balancer Bgp Lb Config Address Pool> AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- Asn int
BGP autonomous system number (ASN) of the cluster. This field can be updated after cluster creation.
- Bgp
Peer List<BareConfigs Metal Cluster Load Balancer Bgp Lb Config Bgp Peer Config> The list of BGP peers that the cluster will connect to. At least one peer must be configured for each control plane node. Control plane nodes will connect to these peers to advertise the control plane VIP. The Services load balancer also uses these peers by default. This field can be updated after cluster creation. Structure is documented below.
- Load
Balancer BareNode Pool Config Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Specifies the node pool running data plane load balancing. L2 connectivity is required among nodes in this pool. If missing, the control plane node pool is used for data plane load balancing. Structure is documented below.
- Address
Pools []BareMetal Cluster Load Balancer Bgp Lb Config Address Pool AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- Asn int
BGP autonomous system number (ASN) of the cluster. This field can be updated after cluster creation.
- Bgp
Peer []BareConfigs Metal Cluster Load Balancer Bgp Lb Config Bgp Peer Config The list of BGP peers that the cluster will connect to. At least one peer must be configured for each control plane node. Control plane nodes will connect to these peers to advertise the control plane VIP. The Services load balancer also uses these peers by default. This field can be updated after cluster creation. Structure is documented below.
- Load
Balancer BareNode Pool Config Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Specifies the node pool running data plane load balancing. L2 connectivity is required among nodes in this pool. If missing, the control plane node pool is used for data plane load balancing. Structure is documented below.
- address
Pools List<BareMetal Cluster Load Balancer Bgp Lb Config Address Pool> AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- asn Integer
BGP autonomous system number (ASN) of the cluster. This field can be updated after cluster creation.
- bgp
Peer List<BareConfigs Metal Cluster Load Balancer Bgp Lb Config Bgp Peer Config> The list of BGP peers that the cluster will connect to. At least one peer must be configured for each control plane node. Control plane nodes will connect to these peers to advertise the control plane VIP. The Services load balancer also uses these peers by default. This field can be updated after cluster creation. Structure is documented below.
- load
Balancer BareNode Pool Config Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Specifies the node pool running data plane load balancing. L2 connectivity is required among nodes in this pool. If missing, the control plane node pool is used for data plane load balancing. Structure is documented below.
- address
Pools BareMetal Cluster Load Balancer Bgp Lb Config Address Pool[] AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- asn number
BGP autonomous system number (ASN) of the cluster. This field can be updated after cluster creation.
- bgp
Peer BareConfigs Metal Cluster Load Balancer Bgp Lb Config Bgp Peer Config[] The list of BGP peers that the cluster will connect to. At least one peer must be configured for each control plane node. Control plane nodes will connect to these peers to advertise the control plane VIP. The Services load balancer also uses these peers by default. This field can be updated after cluster creation. Structure is documented below.
- load
Balancer BareNode Pool Config Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Specifies the node pool running data plane load balancing. L2 connectivity is required among nodes in this pool. If missing, the control plane node pool is used for data plane load balancing. Structure is documented below.
- address_
pools Sequence[BareMetal Cluster Load Balancer Bgp Lb Config Address Pool] AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- asn int
BGP autonomous system number (ASN) of the cluster. This field can be updated after cluster creation.
- bgp_
peer_ Sequence[Bareconfigs Metal Cluster Load Balancer Bgp Lb Config Bgp Peer Config] The list of BGP peers that the cluster will connect to. At least one peer must be configured for each control plane node. Control plane nodes will connect to these peers to advertise the control plane VIP. The Services load balancer also uses these peers by default. This field can be updated after cluster creation. Structure is documented below.
- load_
balancer_ Barenode_ pool_ config Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Specifies the node pool running data plane load balancing. L2 connectivity is required among nodes in this pool. If missing, the control plane node pool is used for data plane load balancing. Structure is documented below.
- address
Pools List<Property Map> AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- asn Number
BGP autonomous system number (ASN) of the cluster. This field can be updated after cluster creation.
- bgp
Peer List<Property Map>Configs The list of BGP peers that the cluster will connect to. At least one peer must be configured for each control plane node. Control plane nodes will connect to these peers to advertise the control plane VIP. The Services load balancer also uses these peers by default. This field can be updated after cluster creation. Structure is documented below.
- load
Balancer Property MapNode Pool Config Specifies the node pool running data plane load balancing. L2 connectivity is required among nodes in this pool. If missing, the control plane node pool is used for data plane load balancing. Structure is documented below.
BareMetalClusterLoadBalancerBgpLbConfigAddressPool, BareMetalClusterLoadBalancerBgpLbConfigAddressPoolArgs
- Addresses List<string>
The addresses that are part of this pool. 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).
- Pool string
The name of the address pool.
- Avoid
Buggy boolIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- Manual
Assign string If true, prevent IP addresses from being automatically assigned.
- Addresses []string
The addresses that are part of this pool. 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).
- Pool string
The name of the address pool.
- Avoid
Buggy boolIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- Manual
Assign string If true, prevent IP addresses from being automatically assigned.
- addresses List<String>
The addresses that are part of this pool. 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).
- pool String
The name of the address pool.
- avoid
Buggy BooleanIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual
Assign String If true, prevent IP addresses from being automatically assigned.
- addresses string[]
The addresses that are part of this pool. 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).
- pool string
The name of the address pool.
- avoid
Buggy booleanIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual
Assign string If true, prevent IP addresses from being automatically assigned.
- addresses Sequence[str]
The addresses that are part of this pool. 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).
- pool str
The name of the address pool.
- avoid_
buggy_ boolips If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual_
assign str If true, prevent IP addresses from being automatically assigned.
- addresses List<String>
The addresses that are part of this pool. 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).
- pool String
The name of the address pool.
- avoid
Buggy BooleanIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual
Assign String If true, prevent IP addresses from being automatically assigned.
BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfig, BareMetalClusterLoadBalancerBgpLbConfigBgpPeerConfigArgs
- Asn int
BGP autonomous system number (ASN) for the network that contains the external peer device.
- Ip
Address string The IP address of the external peer device.
- Control
Plane List<string>Nodes The IP address of the control plane node that connects to the external peer. If you don't specify any control plane nodes, all control plane nodes can connect to the external peer. If you specify one or more IP addresses, only the nodes specified participate in peering sessions.
- Asn int
BGP autonomous system number (ASN) for the network that contains the external peer device.
- Ip
Address string The IP address of the external peer device.
- Control
Plane []stringNodes The IP address of the control plane node that connects to the external peer. If you don't specify any control plane nodes, all control plane nodes can connect to the external peer. If you specify one or more IP addresses, only the nodes specified participate in peering sessions.
- asn Integer
BGP autonomous system number (ASN) for the network that contains the external peer device.
- ip
Address String The IP address of the external peer device.
- control
Plane List<String>Nodes The IP address of the control plane node that connects to the external peer. If you don't specify any control plane nodes, all control plane nodes can connect to the external peer. If you specify one or more IP addresses, only the nodes specified participate in peering sessions.
- asn number
BGP autonomous system number (ASN) for the network that contains the external peer device.
- ip
Address string The IP address of the external peer device.
- control
Plane string[]Nodes The IP address of the control plane node that connects to the external peer. If you don't specify any control plane nodes, all control plane nodes can connect to the external peer. If you specify one or more IP addresses, only the nodes specified participate in peering sessions.
- asn int
BGP autonomous system number (ASN) for the network that contains the external peer device.
- ip_
address str The IP address of the external peer device.
- control_
plane_ Sequence[str]nodes The IP address of the control plane node that connects to the external peer. If you don't specify any control plane nodes, all control plane nodes can connect to the external peer. If you specify one or more IP addresses, only the nodes specified participate in peering sessions.
- asn Number
BGP autonomous system number (ASN) for the network that contains the external peer device.
- ip
Address String The IP address of the external peer device.
- control
Plane List<String>Nodes The IP address of the control plane node that connects to the external peer. If you don't specify any control plane nodes, all control plane nodes can connect to the external peer. If you specify one or more IP addresses, only the nodes specified participate in peering sessions.
BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfig, BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigArgs
- Node
Pool BareConfig Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- Node
Pool BareConfig Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node
Pool BareConfig Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node
Pool BareConfig Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node_
pool_ Bareconfig Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node
Pool Property MapConfig The generic configuration for a node pool running a load balancer. Structure is documented below.
BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfig, BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs
- Kubelet
Config BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Kubelet Config The modifiable kubelet configurations for the baremetal machines. Structure is documented below.
- Labels Dictionary<string, string>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Configs List<BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Node Config> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- Operating
System string Specifies the nodes operating system (default: LINUX).
- Taints
List<Bare
Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Taint> The initial taints assigned to nodes of this node pool. Structure is documented below.
- Kubelet
Config BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Kubelet Config The modifiable kubelet configurations for the baremetal machines. Structure is documented below.
- Labels map[string]string
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Configs []BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Node Config The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- Operating
System string Specifies the nodes operating system (default: LINUX).
- Taints
[]Bare
Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Taint The initial taints assigned to nodes of this node pool. Structure is documented below.
- kubelet
Config BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Kubelet Config The modifiable kubelet configurations for the baremetal machines. Structure is documented below.
- labels Map<String,String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs List<BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Node Config> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System String Specifies the nodes operating system (default: LINUX).
- taints
List<Bare
Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Taint> The initial taints assigned to nodes of this node pool. Structure is documented below.
- kubelet
Config BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Kubelet Config The modifiable kubelet configurations for the baremetal machines. Structure is documented below.
- labels {[key: string]: string}
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Node Config[] The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System string Specifies the nodes operating system (default: LINUX).
- taints
Bare
Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Taint[] The initial taints assigned to nodes of this node pool. Structure is documented below.
- kubelet_
config BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Kubelet Config The modifiable kubelet configurations for the baremetal machines. Structure is documented below.
- labels Mapping[str, str]
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node_
configs Sequence[BareMetal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Node Config] The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating_
system str Specifies the nodes operating system (default: LINUX).
- taints
Sequence[Bare
Metal Cluster Load Balancer Bgp Lb Config Load Balancer Node Pool Config Node Pool Config Taint] The initial taints assigned to nodes of this node pool. Structure is documented below.
- kubelet
Config Property Map The modifiable kubelet configurations for the baremetal machines. Structure is documented below.
- labels Map<String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs List<Property Map> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System String Specifies the nodes operating system (default: LINUX).
- taints List<Property Map>
The initial taints assigned to nodes of this node pool. Structure is documented below.
BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfig, BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigKubeletConfigArgs
- Registry
Burst int The maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry_pull_qps. The value must not be a negative number. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 10.
- Registry
Pull intQps The limit of registry pulls per second. Setting this value to 0 means no limit. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 5.
- Serialize
Image boolPulls Disabled Prevents the Kubelet from pulling multiple images at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Another Union File System (Aufs) storage backend. Issue https://github.com/kubernetes/kubernetes/issues/10959 has more details.
- Registry
Burst int The maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry_pull_qps. The value must not be a negative number. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 10.
- Registry
Pull intQps The limit of registry pulls per second. Setting this value to 0 means no limit. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 5.
- Serialize
Image boolPulls Disabled Prevents the Kubelet from pulling multiple images at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Another Union File System (Aufs) storage backend. Issue https://github.com/kubernetes/kubernetes/issues/10959 has more details.
- registry
Burst Integer The maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry_pull_qps. The value must not be a negative number. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 10.
- registry
Pull IntegerQps The limit of registry pulls per second. Setting this value to 0 means no limit. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 5.
- serialize
Image BooleanPulls Disabled Prevents the Kubelet from pulling multiple images at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Another Union File System (Aufs) storage backend. Issue https://github.com/kubernetes/kubernetes/issues/10959 has more details.
- registry
Burst number The maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry_pull_qps. The value must not be a negative number. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 10.
- registry
Pull numberQps The limit of registry pulls per second. Setting this value to 0 means no limit. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 5.
- serialize
Image booleanPulls Disabled Prevents the Kubelet from pulling multiple images at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Another Union File System (Aufs) storage backend. Issue https://github.com/kubernetes/kubernetes/issues/10959 has more details.
- registry_
burst int The maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry_pull_qps. The value must not be a negative number. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 10.
- registry_
pull_ intqps The limit of registry pulls per second. Setting this value to 0 means no limit. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 5.
- serialize_
image_ boolpulls_ disabled Prevents the Kubelet from pulling multiple images at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Another Union File System (Aufs) storage backend. Issue https://github.com/kubernetes/kubernetes/issues/10959 has more details.
- registry
Burst Number The maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry_pull_qps. The value must not be a negative number. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 10.
- registry
Pull NumberQps The limit of registry pulls per second. Setting this value to 0 means no limit. Updating this field may impact scalability by changing the amount of traffic produced by image pulls. Defaults to 5.
- serialize
Image BooleanPulls Disabled Prevents the Kubelet from pulling multiple images at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Another Union File System (Aufs) storage backend. Issue https://github.com/kubernetes/kubernetes/issues/10959 has more details.
BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfig, BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArgs
- Labels Dictionary<string, string>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- Labels map[string]string
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Map<String,String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip String The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels {[key: string]: string}
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Mapping[str, str]
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node_
ip str The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Map<String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip String The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaint, BareMetalClusterLoadBalancerBgpLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArgs
BareMetalClusterLoadBalancerManualLbConfig, BareMetalClusterLoadBalancerManualLbConfigArgs
- Enabled bool
Whether manual load balancing is enabled.
- Enabled bool
Whether manual load balancing is enabled.
- enabled Boolean
Whether manual load balancing is enabled.
- enabled boolean
Whether manual load balancing is enabled.
- enabled bool
Whether manual load balancing is enabled.
- enabled Boolean
Whether manual load balancing is enabled.
BareMetalClusterLoadBalancerMetalLbConfig, BareMetalClusterLoadBalancerMetalLbConfigArgs
- Address
Pools List<BareMetal Cluster Load Balancer Metal Lb Config Address Pool> AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- Load
Balancer BareNode Pool Config Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Specifies the load balancer's node pool configuration. Structure is documented below.
- Address
Pools []BareMetal Cluster Load Balancer Metal Lb Config Address Pool AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- Load
Balancer BareNode Pool Config Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Specifies the load balancer's node pool configuration. Structure is documented below.
- address
Pools List<BareMetal Cluster Load Balancer Metal Lb Config Address Pool> AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- load
Balancer BareNode Pool Config Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Specifies the load balancer's node pool configuration. Structure is documented below.
- address
Pools BareMetal Cluster Load Balancer Metal Lb Config Address Pool[] AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- load
Balancer BareNode Pool Config Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Specifies the load balancer's node pool configuration. Structure is documented below.
- address_
pools Sequence[BareMetal Cluster Load Balancer Metal Lb Config Address Pool] AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- load_
balancer_ Barenode_ pool_ config Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Specifies the load balancer's node pool configuration. Structure is documented below.
- address
Pools List<Property Map> AddressPools is a list of non-overlapping IP pools used by load balancer typed services. All addresses must be routable to load balancer nodes. IngressVIP must be included in the pools. Structure is documented below.
- load
Balancer Property MapNode Pool Config Specifies the load balancer's node pool configuration. Structure is documented below.
BareMetalClusterLoadBalancerMetalLbConfigAddressPool, BareMetalClusterLoadBalancerMetalLbConfigAddressPoolArgs
- Addresses List<string>
The addresses that are part of this pool. 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).
- Pool string
The name of the address pool.
- Avoid
Buggy boolIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- Manual
Assign bool If true, prevent IP addresses from being automatically assigned.
- Addresses []string
The addresses that are part of this pool. 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).
- Pool string
The name of the address pool.
- Avoid
Buggy boolIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- Manual
Assign bool If true, prevent IP addresses from being automatically assigned.
- addresses List<String>
The addresses that are part of this pool. 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).
- pool String
The name of the address pool.
- avoid
Buggy BooleanIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual
Assign Boolean If true, prevent IP addresses from being automatically assigned.
- addresses string[]
The addresses that are part of this pool. 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).
- pool string
The name of the address pool.
- avoid
Buggy booleanIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual
Assign boolean If true, prevent IP addresses from being automatically assigned.
- addresses Sequence[str]
The addresses that are part of this pool. 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).
- pool str
The name of the address pool.
- avoid_
buggy_ boolips If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual_
assign bool If true, prevent IP addresses from being automatically assigned.
- addresses List<String>
The addresses that are part of this pool. 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).
- pool String
The name of the address pool.
- avoid
Buggy BooleanIps If true, avoid using IPs ending in .0 or .255. This avoids buggy consumer devices mistakenly dropping IPv4 traffic for those special IP addresses.
- manual
Assign Boolean If true, prevent IP addresses from being automatically assigned.
BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfig, BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigArgs
- Node
Pool BareConfig Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- Node
Pool BareConfig Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node
Pool BareConfig Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node
Pool BareConfig Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node_
pool_ Bareconfig Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config The generic configuration for a node pool running a load balancer. Structure is documented below.
- node
Pool Property MapConfig The generic configuration for a node pool running a load balancer. Structure is documented below.
BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigNodePoolConfig, BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigNodePoolConfigArgs
- Labels Dictionary<string, string>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Configs List<BareMetal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Node Config> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- Operating
System string Specifies the nodes operating system (default: LINUX).
- Taints
List<Bare
Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Taint> The initial taints assigned to nodes of this node pool. Structure is documented below.
- Labels map[string]string
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Configs []BareMetal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Node Config The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- Operating
System string Specifies the nodes operating system (default: LINUX).
- Taints
[]Bare
Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Taint The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels Map<String,String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs List<BareMetal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Node Config> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System String Specifies the nodes operating system (default: LINUX).
- taints
List<Bare
Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Taint> The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels {[key: string]: string}
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs BareMetal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Node Config[] The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System string Specifies the nodes operating system (default: LINUX).
- taints
Bare
Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Taint[] The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels Mapping[str, str]
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node_
configs Sequence[BareMetal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Node Config] The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating_
system str Specifies the nodes operating system (default: LINUX).
- taints
Sequence[Bare
Metal Cluster Load Balancer Metal Lb Config Load Balancer Node Pool Config Node Pool Config Taint] The initial taints assigned to nodes of this node pool. Structure is documented below.
- labels Map<String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Configs List<Property Map> The list of machine addresses in the Bare Metal Node Pool. Structure is documented below.
- operating
System String Specifies the nodes operating system (default: LINUX).
- taints List<Property Map>
The initial taints assigned to nodes of this node pool. Structure is documented below.
BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfig, BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigNodePoolConfigNodeConfigArgs
- Labels Dictionary<string, string>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- Labels map[string]string
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- Node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Map<String,String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip String The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels {[key: string]: string}
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip string The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Mapping[str, str]
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node_
ip str The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
- labels Map<String>
The map of Kubernetes labels (key/value pairs) to be applied to each node. These will added in addition to any default label(s) that Kubernetes may apply to the node. In case of conflict in label keys, the applied set may differ depending on the Kubernetes version -- it's best to assume the behavior is undefined and conflicts should be avoided. For more information, including usage and the valid values, see: http://kubernetes.io/v1.1/docs/user-guide/labels.html An object containing a list of "key": value pairs. Example: { "name": "wrench", "mass": "1.3kg", "count": "3" }.
- node
Ip String The default IPv4 address for SSH access and Kubernetes node. Example: 192.168.0.1
BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaint, BareMetalClusterLoadBalancerMetalLbConfigLoadBalancerNodePoolConfigNodePoolConfigTaintArgs
BareMetalClusterLoadBalancerPortConfig, BareMetalClusterLoadBalancerPortConfigArgs
- Control
Plane intLoad Balancer Port The port that control plane hosted load balancers will listen on.
- Control
Plane intLoad Balancer Port The port that control plane hosted load balancers will listen on.
- control
Plane IntegerLoad Balancer Port The port that control plane hosted load balancers will listen on.
- control
Plane numberLoad Balancer Port The port that control plane hosted load balancers will listen on.
- control_
plane_ intload_ balancer_ port The port that control plane hosted load balancers will listen on.
- control
Plane NumberLoad Balancer Port The port that control plane hosted load balancers will listen on.
BareMetalClusterLoadBalancerVipConfig, BareMetalClusterLoadBalancerVipConfigArgs
- Control
Plane stringVip The VIP which you previously set aside for the Kubernetes API of this Bare Metal User Cluster.
- Ingress
Vip string The VIP which you previously set aside for ingress traffic into this Bare Metal User Cluster.
- Control
Plane stringVip The VIP which you previously set aside for the Kubernetes API of this Bare Metal User Cluster.
- Ingress
Vip string The VIP which you previously set aside for ingress traffic into this Bare Metal User Cluster.
- control
Plane StringVip The VIP which you previously set aside for the Kubernetes API of this Bare Metal User Cluster.
- ingress
Vip String The VIP which you previously set aside for ingress traffic into this Bare Metal User Cluster.
- control
Plane stringVip The VIP which you previously set aside for the Kubernetes API of this Bare Metal User Cluster.
- ingress
Vip string The VIP which you previously set aside for ingress traffic into this Bare Metal User Cluster.
- control_
plane_ strvip The VIP which you previously set aside for the Kubernetes API of this Bare Metal User Cluster.
- ingress_
vip str The VIP which you previously set aside for ingress traffic into this Bare Metal User Cluster.
- control
Plane StringVip The VIP which you previously set aside for the Kubernetes API of this Bare Metal User Cluster.
- ingress
Vip String The VIP which you previously set aside for ingress traffic into this Bare Metal User Cluster.
BareMetalClusterMaintenanceConfig, BareMetalClusterMaintenanceConfigArgs
- Maintenance
Address List<string>Cidr Blocks All IPv4 address from these ranges will be placed into maintenance mode. Nodes in maintenance mode will be cordoned and drained. When both of these are true, the "baremetal.cluster.gke.io/maintenance" annotation will be set on the node resource.
- Maintenance
Address []stringCidr Blocks All IPv4 address from these ranges will be placed into maintenance mode. Nodes in maintenance mode will be cordoned and drained. When both of these are true, the "baremetal.cluster.gke.io/maintenance" annotation will be set on the node resource.
- maintenance
Address List<String>Cidr Blocks All IPv4 address from these ranges will be placed into maintenance mode. Nodes in maintenance mode will be cordoned and drained. When both of these are true, the "baremetal.cluster.gke.io/maintenance" annotation will be set on the node resource.
- maintenance
Address string[]Cidr Blocks All IPv4 address from these ranges will be placed into maintenance mode. Nodes in maintenance mode will be cordoned and drained. When both of these are true, the "baremetal.cluster.gke.io/maintenance" annotation will be set on the node resource.
- maintenance_
address_ Sequence[str]cidr_ blocks All IPv4 address from these ranges will be placed into maintenance mode. Nodes in maintenance mode will be cordoned and drained. When both of these are true, the "baremetal.cluster.gke.io/maintenance" annotation will be set on the node resource.
- maintenance
Address List<String>Cidr Blocks All IPv4 address from these ranges will be placed into maintenance mode. Nodes in maintenance mode will be cordoned and drained. When both of these are true, the "baremetal.cluster.gke.io/maintenance" annotation will be set on the node resource.
BareMetalClusterNetworkConfig, BareMetalClusterNetworkConfigArgs
- Advanced
Networking bool Enables the use of advanced Anthos networking features, such as Bundled Load Balancing with BGP or the egress NAT gateway. Setting configuration for advanced networking features will automatically set this flag.
- Island
Mode BareCidr Metal Cluster Network Config Island Mode Cidr A nested object resource Structure is documented below.
- Multiple
Network BareInterfaces Config Metal Cluster Network Config Multiple Network Interfaces Config Configuration for multiple network interfaces. Structure is documented below.
- Sr
Iov BareConfig Metal Cluster Network Config Sr Iov Config Configuration for SR-IOV. Structure is documented below.
- Advanced
Networking bool Enables the use of advanced Anthos networking features, such as Bundled Load Balancing with BGP or the egress NAT gateway. Setting configuration for advanced networking features will automatically set this flag.
- Island
Mode BareCidr Metal Cluster Network Config Island Mode Cidr A nested object resource Structure is documented below.
- Multiple
Network BareInterfaces Config Metal Cluster Network Config Multiple Network Interfaces Config Configuration for multiple network interfaces. Structure is documented below.
- Sr
Iov BareConfig Metal Cluster Network Config Sr Iov Config Configuration for SR-IOV. Structure is documented below.
- advanced
Networking Boolean Enables the use of advanced Anthos networking features, such as Bundled Load Balancing with BGP or the egress NAT gateway. Setting configuration for advanced networking features will automatically set this flag.
- island
Mode BareCidr Metal Cluster Network Config Island Mode Cidr A nested object resource Structure is documented below.
- multiple
Network BareInterfaces Config Metal Cluster Network Config Multiple Network Interfaces Config Configuration for multiple network interfaces. Structure is documented below.
- sr
Iov BareConfig Metal Cluster Network Config Sr Iov Config Configuration for SR-IOV. Structure is documented below.
- advanced
Networking boolean Enables the use of advanced Anthos networking features, such as Bundled Load Balancing with BGP or the egress NAT gateway. Setting configuration for advanced networking features will automatically set this flag.
- island
Mode BareCidr Metal Cluster Network Config Island Mode Cidr A nested object resource Structure is documented below.
- multiple
Network BareInterfaces Config Metal Cluster Network Config Multiple Network Interfaces Config Configuration for multiple network interfaces. Structure is documented below.
- sr
Iov BareConfig Metal Cluster Network Config Sr Iov Config Configuration for SR-IOV. Structure is documented below.
- advanced_
networking bool Enables the use of advanced Anthos networking features, such as Bundled Load Balancing with BGP or the egress NAT gateway. Setting configuration for advanced networking features will automatically set this flag.
- island_
mode_ Barecidr Metal Cluster Network Config Island Mode Cidr A nested object resource Structure is documented below.
- multiple_
network_ Bareinterfaces_ config Metal Cluster Network Config Multiple Network Interfaces Config Configuration for multiple network interfaces. Structure is documented below.
- sr_
iov_ Bareconfig Metal Cluster Network Config Sr Iov Config Configuration for SR-IOV. Structure is documented below.
- advanced
Networking Boolean Enables the use of advanced Anthos networking features, such as Bundled Load Balancing with BGP or the egress NAT gateway. Setting configuration for advanced networking features will automatically set this flag.
- island
Mode Property MapCidr A nested object resource Structure is documented below.
- multiple
Network Property MapInterfaces Config Configuration for multiple network interfaces. Structure is documented below.
- sr
Iov Property MapConfig Configuration for SR-IOV. Structure is documented below.
BareMetalClusterNetworkConfigIslandModeCidr, BareMetalClusterNetworkConfigIslandModeCidrArgs
- Pod
Address List<string>Cidr Blocks All pods in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- Service
Address List<string>Cidr Blocks All services in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- Pod
Address []stringCidr Blocks All pods in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- Service
Address []stringCidr Blocks All services in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- pod
Address List<String>Cidr Blocks All pods in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- service
Address List<String>Cidr Blocks All services in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- pod
Address string[]Cidr Blocks All pods in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- service
Address string[]Cidr Blocks All services in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- pod_
address_ Sequence[str]cidr_ blocks All pods in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- service_
address_ Sequence[str]cidr_ blocks All services in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- pod
Address List<String>Cidr Blocks All pods in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
- service
Address List<String>Cidr Blocks All services in the cluster are assigned an RFC1918 IPv4 address from these ranges. This field cannot be changed after creation.
BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfig, BareMetalClusterNetworkConfigMultipleNetworkInterfacesConfigArgs
- Enabled bool
Whether to enable multiple network interfaces for your pods. When set network_config.advanced_networking is automatically set to true.
- Enabled bool
Whether to enable multiple network interfaces for your pods. When set network_config.advanced_networking is automatically set to true.
- enabled Boolean
Whether to enable multiple network interfaces for your pods. When set network_config.advanced_networking is automatically set to true.
- enabled boolean
Whether to enable multiple network interfaces for your pods. When set network_config.advanced_networking is automatically set to true.
- enabled bool
Whether to enable multiple network interfaces for your pods. When set network_config.advanced_networking is automatically set to true.
- enabled Boolean
Whether to enable multiple network interfaces for your pods. When set network_config.advanced_networking is automatically set to true.
BareMetalClusterNetworkConfigSrIovConfig, BareMetalClusterNetworkConfigSrIovConfigArgs
- Enabled bool
Whether to install the SR-IOV operator.
- Enabled bool
Whether to install the SR-IOV operator.
- enabled Boolean
Whether to install the SR-IOV operator.
- enabled boolean
Whether to install the SR-IOV operator.
- enabled bool
Whether to install the SR-IOV operator.
- enabled Boolean
Whether to install the SR-IOV operator.
BareMetalClusterNodeAccessConfig, BareMetalClusterNodeAccessConfigArgs
- Login
User string LoginUser is the user name used to access node machines. It defaults to "root" if not set.
- Login
User string LoginUser is the user name used to access node machines. It defaults to "root" if not set.
- login
User String LoginUser is the user name used to access node machines. It defaults to "root" if not set.
- login
User string LoginUser is the user name used to access node machines. It defaults to "root" if not set.
- login_
user str LoginUser is the user name used to access node machines. It defaults to "root" if not set.
- login
User String LoginUser is the user name used to access node machines. It defaults to "root" if not set.
BareMetalClusterNodeConfig, BareMetalClusterNodeConfigArgs
- Container
Runtime string The available runtimes that can be used to run containers in a Bare Metal User Cluster. Possible values are:
CONTAINER_RUNTIME_UNSPECIFIED,DOCKER,CONTAINERD.- Max
Pods intPer Node The maximum number of pods a node can run. The size of the CIDR range assigned to the node will be derived from this parameter.
- Container
Runtime string The available runtimes that can be used to run containers in a Bare Metal User Cluster. Possible values are:
CONTAINER_RUNTIME_UNSPECIFIED,DOCKER,CONTAINERD.- Max
Pods intPer Node The maximum number of pods a node can run. The size of the CIDR range assigned to the node will be derived from this parameter.
- container
Runtime String The available runtimes that can be used to run containers in a Bare Metal User Cluster. Possible values are:
CONTAINER_RUNTIME_UNSPECIFIED,DOCKER,CONTAINERD.- max
Pods IntegerPer Node The maximum number of pods a node can run. The size of the CIDR range assigned to the node will be derived from this parameter.
- container
Runtime string The available runtimes that can be used to run containers in a Bare Metal User Cluster. Possible values are:
CONTAINER_RUNTIME_UNSPECIFIED,DOCKER,CONTAINERD.- max
Pods numberPer Node The maximum number of pods a node can run. The size of the CIDR range assigned to the node will be derived from this parameter.
- container_
runtime str The available runtimes that can be used to run containers in a Bare Metal User Cluster. Possible values are:
CONTAINER_RUNTIME_UNSPECIFIED,DOCKER,CONTAINERD.- max_
pods_ intper_ node The maximum number of pods a node can run. The size of the CIDR range assigned to the node will be derived from this parameter.
- container
Runtime String The available runtimes that can be used to run containers in a Bare Metal User Cluster. Possible values are:
CONTAINER_RUNTIME_UNSPECIFIED,DOCKER,CONTAINERD.- max
Pods NumberPer Node The maximum number of pods a node can run. The size of the CIDR range assigned to the node will be derived from this parameter.
BareMetalClusterOsEnvironmentConfig, BareMetalClusterOsEnvironmentConfigArgs
- Package
Repo boolExcluded Whether the package repo should not be included when initializing bare metal machines.
- Package
Repo boolExcluded Whether the package repo should not be included when initializing bare metal machines.
- package
Repo BooleanExcluded Whether the package repo should not be included when initializing bare metal machines.
- package
Repo booleanExcluded Whether the package repo should not be included when initializing bare metal machines.
- package_
repo_ boolexcluded Whether the package repo should not be included when initializing bare metal machines.
- package
Repo BooleanExcluded Whether the package repo should not be included when initializing bare metal machines.
BareMetalClusterProxy, BareMetalClusterProxyArgs
- Uri string
Specifies the address of your proxy server. Examples: http://domain WARNING: Do not provide credentials in the format http://(username:password@)domain these will be rejected by the server.
- No
Proxies List<string> A list of IPs, hostnames, and domains that should skip the proxy. Examples: ["127.0.0.1", "example.com", ".corp", "localhost"].
- Uri string
Specifies the address of your proxy server. Examples: http://domain WARNING: Do not provide credentials in the format http://(username:password@)domain these will be rejected by the server.
- No
Proxies []string A list of IPs, hostnames, and domains that should skip the proxy. Examples: ["127.0.0.1", "example.com", ".corp", "localhost"].
- uri String
Specifies the address of your proxy server. Examples: http://domain WARNING: Do not provide credentials in the format http://(username:password@)domain these will be rejected by the server.
- no
Proxies List<String> A list of IPs, hostnames, and domains that should skip the proxy. Examples: ["127.0.0.1", "example.com", ".corp", "localhost"].
- uri string
Specifies the address of your proxy server. Examples: http://domain WARNING: Do not provide credentials in the format http://(username:password@)domain these will be rejected by the server.
- no
Proxies string[] A list of IPs, hostnames, and domains that should skip the proxy. Examples: ["127.0.0.1", "example.com", ".corp", "localhost"].
- uri str
Specifies the address of your proxy server. Examples: http://domain WARNING: Do not provide credentials in the format http://(username:password@)domain these will be rejected by the server.
- no_
proxies Sequence[str] A list of IPs, hostnames, and domains that should skip the proxy. Examples: ["127.0.0.1", "example.com", ".corp", "localhost"].
- uri String
Specifies the address of your proxy server. Examples: http://domain WARNING: Do not provide credentials in the format http://(username:password@)domain these will be rejected by the server.
- no
Proxies List<String> A list of IPs, hostnames, and domains that should skip the proxy. Examples: ["127.0.0.1", "example.com", ".corp", "localhost"].
BareMetalClusterSecurityConfig, BareMetalClusterSecurityConfigArgs
-
Bare
Metal Cluster Security Config Authorization Configures user access to the Bare Metal User cluster. Structure is documented below.
-
Bare
Metal Cluster Security Config Authorization Configures user access to the Bare Metal User cluster. Structure is documented below.
-
Bare
Metal Cluster Security Config Authorization Configures user access to the Bare Metal User cluster. Structure is documented below.
-
Bare
Metal Cluster Security Config Authorization Configures user access to the Bare Metal User cluster. Structure is documented below.
-
Bare
Metal Cluster Security Config Authorization Configures user access to the Bare Metal User cluster. Structure is documented below.
- Property Map
Configures user access to the Bare Metal User cluster. Structure is documented below.
BareMetalClusterSecurityConfigAuthorization, BareMetalClusterSecurityConfigAuthorizationArgs
- Admin
Users List<BareMetal Cluster Security Config Authorization Admin User> Users that will be granted the cluster-admin role on the cluster, providing full access to the cluster. Structure is documented below.
- Admin
Users []BareMetal Cluster Security Config Authorization Admin User Users that will be granted the cluster-admin role on the cluster, providing full access to the cluster. Structure is documented below.
- admin
Users List<BareMetal Cluster Security Config Authorization Admin User> Users that will be granted the cluster-admin role on the cluster, providing full access to the cluster. Structure is documented below.
- admin
Users BareMetal Cluster Security Config Authorization Admin User[] Users that will be granted the cluster-admin role on the cluster, providing full access to the cluster. Structure is documented below.
- admin_
users Sequence[BareMetal Cluster Security Config Authorization Admin User] Users that will be granted the cluster-admin role on the cluster, providing full access to the cluster. Structure is documented below.
- admin
Users List<Property Map> Users that will be granted the cluster-admin role on the cluster, providing full access to the cluster. Structure is documented below.
BareMetalClusterSecurityConfigAuthorizationAdminUser, BareMetalClusterSecurityConfigAuthorizationAdminUserArgs
- Username string
The name of the user, e.g.
my-gcp-id@gmail.com.
- Username string
The name of the user, e.g.
my-gcp-id@gmail.com.
- username String
The name of the user, e.g.
my-gcp-id@gmail.com.
- username string
The name of the user, e.g.
my-gcp-id@gmail.com.
- username str
The name of the user, e.g.
my-gcp-id@gmail.com.
- username String
The name of the user, e.g.
my-gcp-id@gmail.com.
BareMetalClusterStatus, BareMetalClusterStatusArgs
- Conditions
List<Bare
Metal Cluster Status Condition> (Output) ResourceConditions provide a standard mechanism for higher-level status reporting from user cluster controller. Structure is documented below.
- Error
Message string (Output) Human-friendly representation of the error message from the user cluster controller. The error message can be temporary as the user cluster controller creates a cluster or node pool. If the error message persists for a longer period of time, it can be used to surface error message to indicate real problems requiring user intervention.
- Conditions
[]Bare
Metal Cluster Status Condition (Output) ResourceConditions provide a standard mechanism for higher-level status reporting from user cluster controller. Structure is documented below.
- Error
Message string (Output) Human-friendly representation of the error message from the user cluster controller. The error message can be temporary as the user cluster controller creates a cluster or node pool. If the error message persists for a longer period of time, it can be used to surface error message to indicate real problems requiring user intervention.
- conditions
List<Bare
Metal Cluster Status Condition> (Output) ResourceConditions provide a standard mechanism for higher-level status reporting from user cluster controller. Structure is documented below.
- error
Message String (Output) Human-friendly representation of the error message from the user cluster controller. The error message can be temporary as the user cluster controller creates a cluster or node pool. If the error message persists for a longer period of time, it can be used to surface error message to indicate real problems requiring user intervention.
- conditions
Bare
Metal Cluster Status Condition[] (Output) ResourceConditions provide a standard mechanism for higher-level status reporting from user cluster controller. Structure is documented below.
- error
Message string (Output) Human-friendly representation of the error message from the user cluster controller. The error message can be temporary as the user cluster controller creates a cluster or node pool. If the error message persists for a longer period of time, it can be used to surface error message to indicate real problems requiring user intervention.
- conditions
Sequence[Bare
Metal Cluster Status Condition] (Output) ResourceConditions provide a standard mechanism for higher-level status reporting from user cluster controller. Structure is documented below.
- error_
message str (Output) Human-friendly representation of the error message from the user cluster controller. The error message can be temporary as the user cluster controller creates a cluster or node pool. If the error message persists for a longer period of time, it can be used to surface error message to indicate real problems requiring user intervention.
- conditions List<Property Map>
(Output) ResourceConditions provide a standard mechanism for higher-level status reporting from user cluster controller. Structure is documented below.
- error
Message String (Output) Human-friendly representation of the error message from the user cluster controller. The error message can be temporary as the user cluster controller creates a cluster or node pool. If the error message persists for a longer period of time, it can be used to surface error message to indicate real problems requiring user intervention.
BareMetalClusterStatusCondition, BareMetalClusterStatusConditionArgs
- Last
Transition stringTime (Output) Last time the condition transit from one status to another.
- Message string
Human-readable message indicating details about last transition.
- Reason string
(Output) A human-readable message of the check failure.
- State string
(Output) The lifecycle state of the condition.
- Type string
Type of the condition. (e.g., ClusterRunning, NodePoolRunning or ServerSidePreflightReady)
- Last
Transition stringTime (Output) Last time the condition transit from one status to another.
- Message string
Human-readable message indicating details about last transition.
- Reason string
(Output) A human-readable message of the check failure.
- State string
(Output) The lifecycle state of the condition.
- Type string
Type of the condition. (e.g., ClusterRunning, NodePoolRunning or ServerSidePreflightReady)
- last
Transition StringTime (Output) Last time the condition transit from one status to another.
- message String
Human-readable message indicating details about last transition.
- reason String
(Output) A human-readable message of the check failure.
- state String
(Output) The lifecycle state of the condition.
- type String
Type of the condition. (e.g., ClusterRunning, NodePoolRunning or ServerSidePreflightReady)
- last
Transition stringTime (Output) Last time the condition transit from one status to another.
- message string
Human-readable message indicating details about last transition.
- reason string
(Output) A human-readable message of the check failure.
- state string
(Output) The lifecycle state of the condition.
- type string
Type of the condition. (e.g., ClusterRunning, NodePoolRunning or ServerSidePreflightReady)
- last_
transition_ strtime (Output) Last time the condition transit from one status to another.
- message str
Human-readable message indicating details about last transition.
- reason str
(Output) A human-readable message of the check failure.
- state str
(Output) The lifecycle state of the condition.
- type str
Type of the condition. (e.g., ClusterRunning, NodePoolRunning or ServerSidePreflightReady)
- last
Transition StringTime (Output) Last time the condition transit from one status to another.
- message String
Human-readable message indicating details about last transition.
- reason String
(Output) A human-readable message of the check failure.
- state String
(Output) The lifecycle state of the condition.
- type String
Type of the condition. (e.g., ClusterRunning, NodePoolRunning or ServerSidePreflightReady)
BareMetalClusterStorage, BareMetalClusterStorageArgs
- Lvp
Node BareMounts Config Metal Cluster Storage Lvp Node Mounts Config Specifies the config for local PersistentVolumes backed by mounted node disks. These disks need to be formatted and mounted by the user, which can be done before or after cluster creation. Structure is documented below.
-
Bare
Metal Cluster Storage Lvp Share Config Specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem. These subdirectores are automatically created during cluster creation. Structure is documented below.
- Lvp
Node BareMounts Config Metal Cluster Storage Lvp Node Mounts Config Specifies the config for local PersistentVolumes backed by mounted node disks. These disks need to be formatted and mounted by the user, which can be done before or after cluster creation. Structure is documented below.
-
Bare
Metal Cluster Storage Lvp Share Config Specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem. These subdirectores are automatically created during cluster creation. Structure is documented below.
- lvp
Node BareMounts Config Metal Cluster Storage Lvp Node Mounts Config Specifies the config for local PersistentVolumes backed by mounted node disks. These disks need to be formatted and mounted by the user, which can be done before or after cluster creation. Structure is documented below.
-
Bare
Metal Cluster Storage Lvp Share Config Specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem. These subdirectores are automatically created during cluster creation. Structure is documented below.
- lvp
Node BareMounts Config Metal Cluster Storage Lvp Node Mounts Config Specifies the config for local PersistentVolumes backed by mounted node disks. These disks need to be formatted and mounted by the user, which can be done before or after cluster creation. Structure is documented below.
-
Bare
Metal Cluster Storage Lvp Share Config Specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem. These subdirectores are automatically created during cluster creation. Structure is documented below.
- lvp_
node_ Baremounts_ config Metal Cluster Storage Lvp Node Mounts Config Specifies the config for local PersistentVolumes backed by mounted node disks. These disks need to be formatted and mounted by the user, which can be done before or after cluster creation. Structure is documented below.
-
Bare
Metal Cluster Storage Lvp Share Config Specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem. These subdirectores are automatically created during cluster creation. Structure is documented below.
- lvp
Node Property MapMounts Config Specifies the config for local PersistentVolumes backed by mounted node disks. These disks need to be formatted and mounted by the user, which can be done before or after cluster creation. Structure is documented below.
- Property Map
Specifies the config for local PersistentVolumes backed by subdirectories in a shared filesystem. These subdirectores are automatically created during cluster creation. Structure is documented below.
BareMetalClusterStorageLvpNodeMountsConfig, BareMetalClusterStorageLvpNodeMountsConfigArgs
- Path string
The host machine path.
- Storage
Class string The StorageClass name that PVs will be created with.
- Path string
The host machine path.
- Storage
Class string The StorageClass name that PVs will be created with.
- path String
The host machine path.
- storage
Class String The StorageClass name that PVs will be created with.
- path string
The host machine path.
- storage
Class string The StorageClass name that PVs will be created with.
- path str
The host machine path.
- storage_
class str The StorageClass name that PVs will be created with.
- path String
The host machine path.
- storage
Class String The StorageClass name that PVs will be created with.
BareMetalClusterStorageLvpShareConfig, BareMetalClusterStorageLvpShareConfigArgs
- Lvp
Config BareMetal Cluster Storage Lvp Share Config Lvp Config Defines the machine path and storage class for the LVP Share. Structure is documented below.
- int
The number of subdirectories to create under path.
- Lvp
Config BareMetal Cluster Storage Lvp Share Config Lvp Config Defines the machine path and storage class for the LVP Share. Structure is documented below.
- int
The number of subdirectories to create under path.
- lvp
Config BareMetal Cluster Storage Lvp Share Config Lvp Config Defines the machine path and storage class for the LVP Share. Structure is documented below.
- Integer
The number of subdirectories to create under path.
- lvp
Config BareMetal Cluster Storage Lvp Share Config Lvp Config Defines the machine path and storage class for the LVP Share. Structure is documented below.
- number
The number of subdirectories to create under path.
- lvp_
config BareMetal Cluster Storage Lvp Share Config Lvp Config Defines the machine path and storage class for the LVP Share. Structure is documented below.
- int
The number of subdirectories to create under path.
- lvp
Config Property Map Defines the machine path and storage class for the LVP Share. Structure is documented below.
- Number
The number of subdirectories to create under path.
BareMetalClusterStorageLvpShareConfigLvpConfig, BareMetalClusterStorageLvpShareConfigLvpConfigArgs
- Path string
The host machine path.
- Storage
Class string The StorageClass name that PVs will be created with.
- Path string
The host machine path.
- Storage
Class string The StorageClass name that PVs will be created with.
- path String
The host machine path.
- storage
Class String The StorageClass name that PVs will be created with.
- path string
The host machine path.
- storage
Class string The StorageClass name that PVs will be created with.
- path str
The host machine path.
- storage_
class str The StorageClass name that PVs will be created with.
- path String
The host machine path.
- storage
Class String The StorageClass name that PVs will be created with.
BareMetalClusterUpgradePolicy, BareMetalClusterUpgradePolicyArgs
- Policy string
Specifies which upgrade policy to use. Possible values are:
SERIAL,CONCURRENT.
- Policy string
Specifies which upgrade policy to use. Possible values are:
SERIAL,CONCURRENT.
- policy String
Specifies which upgrade policy to use. Possible values are:
SERIAL,CONCURRENT.
- policy string
Specifies which upgrade policy to use. Possible values are:
SERIAL,CONCURRENT.
- policy str
Specifies which upgrade policy to use. Possible values are:
SERIAL,CONCURRENT.
- policy String
Specifies which upgrade policy to use. Possible values are:
SERIAL,CONCURRENT.
BareMetalClusterValidationCheck, BareMetalClusterValidationCheckArgs
- Options string
(Output) Options used for the validation check.
- Scenario string
(Output) The scenario when the preflight checks were run..
- Statuses
List<Bare
Metal Cluster Validation Check Status> (Output) Specifies the detailed validation check status Structure is documented below.
- Options string
(Output) Options used for the validation check.
- Scenario string
(Output) The scenario when the preflight checks were run..
- Statuses
[]Bare
Metal Cluster Validation Check Status (Output) Specifies the detailed validation check status Structure is documented below.
- options String
(Output) Options used for the validation check.
- scenario String
(Output) The scenario when the preflight checks were run..
- statuses
List<Bare
Metal Cluster Validation Check Status> (Output) Specifies the detailed validation check status Structure is documented below.
- options string
(Output) Options used for the validation check.
- scenario string
(Output) The scenario when the preflight checks were run..
- statuses
Bare
Metal Cluster Validation Check Status[] (Output) Specifies the detailed validation check status Structure is documented below.
- options str
(Output) Options used for the validation check.
- scenario str
(Output) The scenario when the preflight checks were run..
- statuses
Sequence[Bare
Metal Cluster Validation Check Status] (Output) Specifies the detailed validation check status Structure is documented below.
- options String
(Output) Options used for the validation check.
- scenario String
(Output) The scenario when the preflight checks were run..
- statuses List<Property Map>
(Output) Specifies the detailed validation check status Structure is documented below.
BareMetalClusterValidationCheckStatus, BareMetalClusterValidationCheckStatusArgs
- Results
List<Bare
Metal Cluster Validation Check Status Result> (Output) Individual checks which failed as part of the Preflight check execution. Structure is documented below.
- Results
[]Bare
Metal Cluster Validation Check Status Result (Output) Individual checks which failed as part of the Preflight check execution. Structure is documented below.
- results
List<Bare
Metal Cluster Validation Check Status Result> (Output) Individual checks which failed as part of the Preflight check execution. Structure is documented below.
- results
Bare
Metal Cluster Validation Check Status Result[] (Output) Individual checks which failed as part of the Preflight check execution. Structure is documented below.
- results
Sequence[Bare
Metal Cluster Validation Check Status Result] (Output) Individual checks which failed as part of the Preflight check execution. Structure is documented below.
- results List<Property Map>
(Output) Individual checks which failed as part of the Preflight check execution. Structure is documented below.
BareMetalClusterValidationCheckStatusResult, BareMetalClusterValidationCheckStatusResultArgs
- Category string
(Output) The category of the validation.
- Description string
A human readable description of this Bare Metal User Cluster.
- Details string
(Output) Detailed failure information, which might be unformatted.
- Options string
(Output) Options used for the validation check.
- Reason string
(Output) A human-readable message of the check failure.
- Category string
(Output) The category of the validation.
- Description string
A human readable description of this Bare Metal User Cluster.
- Details string
(Output) Detailed failure information, which might be unformatted.
- Options string
(Output) Options used for the validation check.
- Reason string
(Output) A human-readable message of the check failure.
- category String
(Output) The category of the validation.
- description String
A human readable description of this Bare Metal User Cluster.
- details String
(Output) Detailed failure information, which might be unformatted.
- options String
(Output) Options used for the validation check.
- reason String
(Output) A human-readable message of the check failure.
- category string
(Output) The category of the validation.
- description string
A human readable description of this Bare Metal User Cluster.
- details string
(Output) Detailed failure information, which might be unformatted.
- options string
(Output) Options used for the validation check.
- reason string
(Output) A human-readable message of the check failure.
- category str
(Output) The category of the validation.
- description str
A human readable description of this Bare Metal User Cluster.
- details str
(Output) Detailed failure information, which might be unformatted.
- options str
(Output) Options used for the validation check.
- reason str
(Output) A human-readable message of the check failure.
- category String
(Output) The category of the validation.
- description String
A human readable description of this Bare Metal User Cluster.
- details String
(Output) Detailed failure information, which might be unformatted.
- options String
(Output) Options used for the validation check.
- reason String
(Output) A human-readable message of the check failure.
Import
BareMetalCluster can be imported using any of these accepted formats* projects/{{project}}/locations/{{location}}/bareMetalClusters/{{name}} * {{project}}/{{location}}/{{name}} * {{location}}/{{name}} In Terraform v1.5.0 and later, use an import block to import BareMetalCluster using one of the formats above. For exampletf import {
id = “projects/{{project}}/locations/{{location}}/bareMetalClusters/{{name}}”
to = google_gkeonprem_bare_metal_cluster.default }
$ pulumi import gcp:gkeonprem/bareMetalCluster:BareMetalCluster When using the [`terraform import` command](https://developer.hashicorp.com/terraform/cli/commands/import), BareMetalCluster can be imported using one of the formats above. For example
$ pulumi import gcp:gkeonprem/bareMetalCluster:BareMetalCluster default projects/{{project}}/locations/{{location}}/bareMetalClusters/{{name}}
$ pulumi import gcp:gkeonprem/bareMetalCluster:BareMetalCluster default {{project}}/{{location}}/{{name}}
$ pulumi import gcp:gkeonprem/bareMetalCluster:BareMetalCluster default {{location}}/{{name}}
Package Details
- Repository
- Google Cloud (GCP) Classic pulumi/pulumi-gcp
- License
- Apache-2.0
- Notes
This Pulumi package is based on the
google-betaTerraform Provider.