// getMetadata builds the raw "user-defined" metadata for the new
// instance (relative to the provided args) and returns it.
func getMetadata(args environs.StartInstanceParams) (map[string]string, error) {
userData, err := providerinit.ComposeUserData(args.InstanceConfig, nil)
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("GCE user data; %d bytes", len(userData))
authKeys, err := google.FormatAuthorizedKeys(args.InstanceConfig.AuthorizedKeys, "ubuntu")
if err != nil {
return nil, errors.Trace(err)
}
b64UserData := base64.StdEncoding.EncodeToString([]byte(userData))
metadata := map[string]string{
metadataKeyIsState: metadataValueFalse,
// We store a gz snapshop of information that is used by
// cloud-init and unpacked in to the /var/lib/cloud/instances folder
// for the instance. Due to a limitation with GCE and binary blobs
// we base64 encode the data before storing it.
metadataKeyCloudInit: b64UserData,
// Valid encoding values are determined by the cloudinit GCE data source.
// See: http://cloudinit.readthedocs.org
metadataKeyEncoding: "base64",
metadataKeySSHKeys: authKeys,
}
if isStateServer(args.InstanceConfig) {
metadata[metadataKeyIsState] = metadataValueTrue
}
return metadata, nil
}
func (s *BaseSuiteUnpatched) initInst(c *gc.C) {
tools := []*tools.Tools{{
Version: version.Binary{Arch: arch.AMD64, Series: "trusty"},
URL: "https://example.org",
}}
cons := constraints.Value{InstanceType: &allInstanceTypes[0].Name}
instanceConfig, err := instancecfg.NewBootstrapInstanceConfig(cons, cons, "trusty", "")
c.Assert(err, jc.ErrorIsNil)
instanceConfig.Tools = tools[0]
instanceConfig.AuthorizedKeys = s.Config.AuthorizedKeys()
userData, err := providerinit.ComposeUserData(instanceConfig, nil, GCERenderer{})
c.Assert(err, jc.ErrorIsNil)
authKeys, err := google.FormatAuthorizedKeys(instanceConfig.AuthorizedKeys, "ubuntu")
c.Assert(err, jc.ErrorIsNil)
s.UbuntuMetadata = map[string]string{
metadataKeyIsState: metadataValueTrue,
metadataKeyCloudInit: string(userData),
metadataKeyEncoding: "base64",
metadataKeySSHKeys: authKeys,
}
s.WindowsMetadata = map[string]string{
metadataKeyWindowsUserdata: string(userData),
metadataKeyWindowsSysprep: fmt.Sprintf(winSetHostnameScript, "juju.*"),
}
s.Addresses = []network.Address{{
Value: "10.0.0.1",
Type: network.IPv4Address,
Scope: network.ScopeCloudLocal,
}}
s.Instance = s.NewInstance(c, "spam")
s.BaseInstance = s.Instance.base
s.InstName = s.Prefix + "machine-spam"
s.StartInstArgs = environs.StartInstanceParams{
InstanceConfig: instanceConfig,
Tools: tools,
Constraints: cons,
//Placement: "",
//DistributionGroup: nil,
}
s.InstanceType = allInstanceTypes[0]
// Storage
eUUID := s.Env.Config().UUID()
s.BaseDisk = &google.Disk{
Id: 1234567,
Name: "home-zone--c930380d-8337-4bf5-b07a-9dbb5ae771e4",
Zone: "home-zone",
Status: google.StatusReady,
Size: 1024,
Description: eUUID,
}
}
// getMetadata builds the raw "user-defined" metadata for the new
// instance (relative to the provided args) and returns it.
func getMetadata(args environs.StartInstanceParams) (map[string]string, error) {
renderer := lxdRenderer{}
uncompressed, err := providerinit.ComposeUserData(args.InstanceConfig, nil, renderer)
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("LXD user data; %d bytes", len(uncompressed))
// TODO(ericsnow) Looks like LXD does not handle gzipped userdata
// correctly. It likely has to do with the HTTP transport, much
// as we have to b64encode the userdata for GCE. Until that is
// resolved we simply pass the plain text.
//compressed := utils.Gzip(compressed)
userdata := string(uncompressed)
metadata := map[string]string{
metadataKeyIsState: metadataValueFalse,
// We store a gz snapshop of information that is used by
// cloud-init and unpacked in to the /var/lib/cloud/instances folder
// for the instance.
metadataKeyCloudInit: userdata,
}
if isStateServer(args.InstanceConfig) {
metadata[metadataKeyIsState] = metadataValueTrue
}
return metadata, nil
}
func (s *CloudInitSuite) TestWindowsUserdataEncoding(c *gc.C) {
series := "win8"
metricsSpoolDir := must(paths.MetricsSpoolDir("win8"))
toolsList := tools.List{
&tools.Tools{
URL: "http://foo.com/tools/released/juju1.2.3-win8-amd64.tgz",
Version: version.MustParseBinary("1.2.3-win8-amd64"),
Size: 10,
SHA256: "1234",
},
}
dataDir, err := paths.DataDir(series)
c.Assert(err, jc.ErrorIsNil)
logDir, err := paths.LogDir(series)
c.Assert(err, jc.ErrorIsNil)
cfg := instancecfg.InstanceConfig{
ControllerTag: testing.ControllerTag,
MachineId: "10",
AgentEnvironment: map[string]string{agent.ProviderType: "dummy"},
Series: series,
Jobs: []multiwatcher.MachineJob{multiwatcher.JobHostUnits},
MachineNonce: "FAKE_NONCE",
APIInfo: &api.Info{
Addrs: []string{"state-addr.testing.invalid:54321"},
Password: "******",
CACert: "CA CERT\n" + testing.CACert,
Tag: names.NewMachineTag("10"),
ModelTag: testing.ModelTag,
},
MachineAgentServiceName: "jujud-machine-10",
DataDir: dataDir,
LogDir: path.Join(logDir, "juju"),
MetricsSpoolDir: metricsSpoolDir,
CloudInitOutputLog: path.Join(logDir, "cloud-init-output.log"),
}
err = cfg.SetTools(toolsList)
c.Assert(err, jc.ErrorIsNil)
ci, err := cloudinit.New("win8")
c.Assert(err, jc.ErrorIsNil)
udata, err := cloudconfig.NewUserdataConfig(&cfg, ci)
c.Assert(err, jc.ErrorIsNil)
err = udata.Configure()
c.Assert(err, jc.ErrorIsNil)
data, err := ci.RenderYAML()
c.Assert(err, jc.ErrorIsNil)
cicompose, err := cloudinit.New("win8")
c.Assert(err, jc.ErrorIsNil)
base64Data := base64.StdEncoding.EncodeToString(utils.Gzip(data))
got := []byte(fmt.Sprintf(cloudconfig.UserDataScript, base64Data))
expected, err := providerinit.ComposeUserData(&cfg, cicompose, openstack.OpenstackRenderer{})
c.Assert(err, jc.ErrorIsNil)
c.Assert(string(got), gc.Equals, string(expected))
}
// StartInstance asks for a new instance to be created, associated with
// the provided config in machineConfig. The given config describes the juju
// state for the new instance to connect to. The config MachineNonce, which must be
// unique within an environment, is used by juju to protect against the
// consequences of multiple instances being started with the same machine id.
func (env *environ) StartInstance(args environs.StartInstanceParams) (*environs.StartInstanceResult, error) {
logger.Infof("sigmaEnviron.StartInstance...")
if args.InstanceConfig == nil {
return nil, errors.New("instance configuration is nil")
}
if args.InstanceConfig.HasNetworks() {
return nil, errors.New("starting instances with networks is not supported yet")
}
if len(args.Tools) == 0 {
return nil, errors.New("tools not found")
}
img, err := findInstanceImage(args.ImageMetadata)
if err != nil {
return nil, err
}
tools, err := args.Tools.Match(tools.Filter{Arch: img.Arch})
if err != nil {
return nil, errors.Errorf("chosen architecture %v not present in %v", img.Arch, args.Tools.Arches())
}
args.InstanceConfig.Tools = tools[0]
if err := instancecfg.FinishInstanceConfig(args.InstanceConfig, env.Config()); err != nil {
return nil, err
}
userData, err := providerinit.ComposeUserData(args.InstanceConfig, nil, CloudSigmaRenderer{})
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("cloudsigma user data; %d bytes", len(userData))
client := env.client
server, rootdrive, arch, err := client.newInstance(args, img, userData)
if err != nil {
return nil, errors.Errorf("failed start instance: %v", err)
}
inst := &sigmaInstance{server: server}
// prepare hardware characteristics
hwch, err := inst.hardware(arch, rootdrive.Size())
if err != nil {
return nil, err
}
logger.Debugf("hardware: %v", hwch)
return &environs.StartInstanceResult{
Instance: inst,
Hardware: hwch,
}, nil
}
// makeCustomData produces custom data for Azure. This is a base64-encoded
// zipfile of cloudinit userdata.
func makeCustomData(cfg *instancecfg.InstanceConfig) (string, error) {
zipData, err := providerinit.ComposeUserData(cfg, nil)
if err != nil {
return "", fmt.Errorf("failure while generating custom data: %v", err)
}
logger.Debugf("user data; %d bytes", len(zipData))
encodedData := base64.StdEncoding.EncodeToString(zipData)
logger.Debugf("base64-encoded custom data: %d bytes", len(encodedData))
return encodedData, nil
}
func (*customDataSuite) TestMakeCustomDataEncodesUserData(c *gc.C) {
cfg := makeInstanceConfig(c)
encodedData, err := makeCustomData(cfg)
c.Assert(err, jc.ErrorIsNil)
data, err := base64.StdEncoding.DecodeString(encodedData)
c.Assert(err, jc.ErrorIsNil)
reference, err := providerinit.ComposeUserData(cfg, nil)
c.Assert(err, jc.ErrorIsNil)
c.Check(data, gc.DeepEquals, reference)
}
func (s *BaseSuiteUnpatched) initInst(c *gc.C) {
tools := []*tools.Tools{{
Version: version.Binary{Arch: arch.AMD64, Series: "trusty"},
URL: "https://example.org",
}}
cons := constraints.Value{
// nothing
}
instanceConfig, err := instancecfg.NewBootstrapInstanceConfig(cons, cons, "trusty", "")
c.Assert(err, jc.ErrorIsNil)
instanceConfig.Tools = tools[0]
instanceConfig.AuthorizedKeys = s.Config.AuthorizedKeys()
userData, err := providerinit.ComposeUserData(instanceConfig, nil, lxdRenderer{})
c.Assert(err, jc.ErrorIsNil)
s.Hardware = &lxdclient.InstanceHardware{
Architecture: arch.AMD64,
NumCores: 1,
MemoryMB: 3750,
}
var archName string = arch.AMD64
var numCores uint64 = 1
var memoryMB uint64 = 3750
s.HWC = &instance.HardwareCharacteristics{
Arch: &archName,
CpuCores: &numCores,
Mem: &memoryMB,
}
s.Metadata = map[string]string{ // userdata
metadataKeyIsState: metadataValueTrue, // bootstrap
metadataKeyCloudInit: string(userData),
}
s.Addresses = []network.Address{{
Value: "10.0.0.1",
Type: network.IPv4Address,
Scope: network.ScopeCloudLocal,
}}
s.Instance = s.NewInstance(c, "spam")
s.RawInstance = s.Instance.raw
s.InstName = s.Prefix + "machine-spam"
s.StartInstArgs = environs.StartInstanceParams{
InstanceConfig: instanceConfig,
Tools: tools,
Constraints: cons,
}
}
func newOSProfile(
vmName string,
instanceConfig *instancecfg.InstanceConfig,
randomAdminPassword func() string,
) (*compute.OSProfile, os.OSType, error) {
logger.Debugf("creating OS profile for %q", vmName)
customData, err := providerinit.ComposeUserData(instanceConfig, nil, AzureRenderer{})
if err != nil {
return nil, os.Unknown, errors.Annotate(err, "composing user data")
}
osProfile := &compute.OSProfile{
ComputerName: to.StringPtr(vmName),
CustomData: to.StringPtr(string(customData)),
}
seriesOS, err := jujuseries.GetOSFromSeries(instanceConfig.Series)
if err != nil {
return nil, os.Unknown, errors.Trace(err)
}
switch seriesOS {
case os.Ubuntu, os.CentOS:
// SSH keys are handled by custom data, but must also be
// specified in order to forego providing a password, and
// disable password authentication.
publicKeys := []compute.SSHPublicKey{{
Path: to.StringPtr("/home/ubuntu/.ssh/authorized_keys"),
KeyData: to.StringPtr(instanceConfig.AuthorizedKeys),
}}
osProfile.AdminUsername = to.StringPtr("ubuntu")
osProfile.LinuxConfiguration = &compute.LinuxConfiguration{
DisablePasswordAuthentication: to.BoolPtr(true),
SSH: &compute.SSHConfiguration{PublicKeys: &publicKeys},
}
case os.Windows:
osProfile.AdminUsername = to.StringPtr("JujuAdministrator")
// A password is required by Azure, but we will never use it.
// We generate something sufficiently long and random that it
// should be infeasible to guess.
osProfile.AdminPassword = to.StringPtr(randomAdminPassword())
osProfile.WindowsConfiguration = &compute.WindowsConfiguration{
ProvisionVMAgent: to.BoolPtr(true),
EnableAutomaticUpdates: to.BoolPtr(true),
// TODO(?) add WinRM configuration here.
}
default:
return nil, os.Unknown, errors.NotSupportedf("%s", seriesOS)
}
return osProfile, seriesOS, nil
}
func (s *BaseSuiteUnpatched) initInst(c *gc.C) {
tools := []*tools.Tools{{
Version: version.Binary{Arch: arch.AMD64, Series: "trusty"},
URL: "https://example.org",
}}
cons := constraints.Value{InstanceType: &allInstanceTypes[0].Name}
instanceConfig, err := instancecfg.NewBootstrapInstanceConfig(cons, "trusty")
c.Assert(err, jc.ErrorIsNil)
instanceConfig.Tools = tools[0]
instanceConfig.AuthorizedKeys = s.Config.AuthorizedKeys()
userData, err := providerinit.ComposeUserData(instanceConfig, nil)
c.Assert(err, jc.ErrorIsNil)
b64UserData := base64.StdEncoding.EncodeToString([]byte(userData))
authKeys, err := google.FormatAuthorizedKeys(instanceConfig.AuthorizedKeys, "ubuntu")
c.Assert(err, jc.ErrorIsNil)
s.Metadata = map[string]string{
metadataKeyIsState: metadataValueTrue,
metadataKeyCloudInit: b64UserData,
metadataKeyEncoding: "base64",
metadataKeySSHKeys: authKeys,
}
s.Addresses = []network.Address{{
Value: "10.0.0.1",
Type: network.IPv4Address,
Scope: network.ScopeCloudLocal,
}}
s.Instance = s.NewInstance(c, "spam")
s.BaseInstance = s.Instance.base
s.InstName = s.Prefix + "machine-spam"
s.StartInstArgs = environs.StartInstanceParams{
InstanceConfig: instanceConfig,
Tools: tools,
Constraints: cons,
//Placement: "",
//DistributionGroup: nil,
}
s.InstanceType = allInstanceTypes[0]
}
// getMetadata builds the raw "user-defined" metadata for the new
// instance (relative to the provided args) and returns it.
func getMetadata(args environs.StartInstanceParams, os jujuos.OSType) (map[string]string, error) {
userData, err := providerinit.ComposeUserData(args.InstanceConfig, nil, GCERenderer{})
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("GCE user data; %d bytes", len(userData))
metadata := make(map[string]string)
if isController(args.InstanceConfig) {
metadata[metadataKeyIsState] = metadataValueTrue
} else {
metadata[metadataKeyIsState] = metadataValueFalse
}
switch os {
case jujuos.Ubuntu:
// We store a gz snapshop of information that is used by
// cloud-init and unpacked in to the /var/lib/cloud/instances folder
// for the instance. Due to a limitation with GCE and binary blobs
// we base64 encode the data before storing it.
metadata[metadataKeyCloudInit] = string(userData)
// Valid encoding values are determined by the cloudinit GCE data source.
// See: http://cloudinit.readthedocs.org
metadata[metadataKeyEncoding] = "base64"
authKeys, err := google.FormatAuthorizedKeys(args.InstanceConfig.AuthorizedKeys, "ubuntu")
if err != nil {
return nil, errors.Trace(err)
}
metadata[metadataKeySSHKeys] = authKeys
case jujuos.Windows:
metadata[metadataKeyWindowsUserdata] = string(userData)
validChars := append(utils.UpperAlpha, append(utils.LowerAlpha, utils.Digits...)...)
// The hostname must have maximum 15 characters
winHostname := "juju" + utils.RandomString(11, validChars)
metadata[metadataKeyWindowsSysprep] = fmt.Sprintf(winSetHostnameScript, winHostname)
default:
return nil, errors.Errorf("cannot pack metadata for os %s on the gce provider", os.String())
}
return metadata, nil
}
// getMetadata builds the raw "user-defined" metadata for the new
// instance (relative to the provided args) and returns it.
func getMetadata(cloudcfg cloudinit.CloudConfig, args environs.StartInstanceParams) (map[string]string, error) {
renderer := lxdRenderer{}
uncompressed, err := providerinit.ComposeUserData(args.InstanceConfig, cloudcfg, renderer)
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("LXD user data; %d bytes", len(uncompressed))
// TODO(ericsnow) Looks like LXD does not handle gzipped userdata
// correctly. It likely has to do with the HTTP transport, much
// as we have to b64encode the userdata for GCE. Until that is
// resolved we simply pass the plain text.
//compressed := utils.Gzip(compressed)
userdata := string(uncompressed)
metadata := map[string]string{
// store the cloud-config userdata for cloud-init.
metadataKeyCloudInit: userdata,
}
for k, v := range args.InstanceConfig.Tags {
if !strings.HasPrefix(k, tags.JujuTagPrefix) {
// Since some metadata is interpreted by LXD,
// we cannot allow arbitrary tags to be passed
// in by the user. We currently only pass through
// Juju-defined tags.
//
// TODO(axw) 2016-04-11 #1568666
// We should reject non-juju tags in config validation.
logger.Debugf("ignoring non-juju tag: %s=%s", k, v)
continue
}
metadata[k] = v
}
return metadata, nil
}
// StartInstance is specified in the InstanceBroker interface.
func (e *Environ) StartInstance(args environs.StartInstanceParams) (*environs.StartInstanceResult, error) {
var availabilityZones []string
if args.Placement != "" {
placement, err := e.parsePlacement(args.Placement)
if err != nil {
return nil, err
}
if !placement.availabilityZone.State.Available {
return nil, errors.Errorf("availability zone %q is unavailable", placement.availabilityZone.Name)
}
availabilityZones = append(availabilityZones, placement.availabilityZone.Name)
}
// If no availability zone is specified, then automatically spread across
// the known zones for optimal spread across the instance distribution
// group.
if len(availabilityZones) == 0 {
var group []instance.Id
var err error
if args.DistributionGroup != nil {
group, err = args.DistributionGroup()
if err != nil {
return nil, err
}
}
zoneInstances, err := availabilityZoneAllocations(e, group)
if errors.IsNotImplemented(err) {
// Availability zones are an extension, so we may get a
// not implemented error; ignore these.
} else if err != nil {
return nil, err
} else {
for _, zone := range zoneInstances {
availabilityZones = append(availabilityZones, zone.ZoneName)
}
}
if len(availabilityZones) == 0 {
// No explicitly selectable zones available, so use an unspecified zone.
availabilityZones = []string{""}
}
}
series := args.Tools.OneSeries()
arches := args.Tools.Arches()
spec, err := findInstanceSpec(e, &instances.InstanceConstraint{
Region: e.ecfg().region(),
Series: series,
Arches: arches,
Constraints: args.Constraints,
}, args.ImageMetadata)
if err != nil {
return nil, err
}
tools, err := args.Tools.Match(tools.Filter{Arch: spec.Image.Arch})
if err != nil {
return nil, errors.Errorf("chosen architecture %v not present in %v", spec.Image.Arch, arches)
}
if err := args.InstanceConfig.SetTools(tools); err != nil {
return nil, errors.Trace(err)
}
if err := instancecfg.FinishInstanceConfig(args.InstanceConfig, e.Config()); err != nil {
return nil, err
}
cloudcfg, err := e.configurator.GetCloudConfig(args)
if err != nil {
return nil, errors.Trace(err)
}
userData, err := providerinit.ComposeUserData(args.InstanceConfig, cloudcfg, OpenstackRenderer{})
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("openstack user data; %d bytes", len(userData))
var networks = e.firewaller.InitialNetworks()
usingNetwork := e.ecfg().network()
if usingNetwork != "" {
networkId, err := e.resolveNetwork(usingNetwork)
if err != nil {
return nil, err
}
logger.Debugf("using network id %q", networkId)
networks = append(networks, nova.ServerNetworks{NetworkId: networkId})
}
withPublicIP := e.ecfg().useFloatingIP()
var publicIP *nova.FloatingIP
if withPublicIP {
logger.Debugf("allocating public IP address for openstack node")
if fip, err := e.allocatePublicIP(); err != nil {
return nil, errors.Annotate(err, "cannot allocate a public IP as needed")
} else {
publicIP = fip
logger.Infof("allocated public IP %s", publicIP.IP)
}
}
cfg := e.Config()
var groupNames = make([]nova.SecurityGroupName, 0)
groups, err := e.firewaller.SetUpGroups(args.InstanceConfig.MachineId, cfg.APIPort())
if err != nil {
return nil, errors.Annotate(err, "cannot set up groups")
}
for _, g := range groups {
groupNames = append(groupNames, nova.SecurityGroupName{g.Name})
}
machineName := resourceName(
names.NewMachineTag(args.InstanceConfig.MachineId),
e.Config().UUID(),
)
tryStartNovaInstance := func(
attempts utils.AttemptStrategy,
client *nova.Client,
instanceOpts nova.RunServerOpts,
) (server *nova.Entity, err error) {
for a := attempts.Start(); a.Next(); {
server, err = client.RunServer(instanceOpts)
if err == nil || gooseerrors.IsNotFound(err) == false {
break
}
}
return server, err
}
tryStartNovaInstanceAcrossAvailZones := func(
attempts utils.AttemptStrategy,
client *nova.Client,
instanceOpts nova.RunServerOpts,
availabilityZones []string,
) (server *nova.Entity, err error) {
for _, zone := range availabilityZones {
instanceOpts.AvailabilityZone = zone
e.configurator.ModifyRunServerOptions(&instanceOpts)
server, err = tryStartNovaInstance(attempts, client, instanceOpts)
if err == nil || isNoValidHostsError(err) == false {
break
}
logger.Infof("no valid hosts available in zone %q, trying another availability zone", zone)
}
if err != nil {
err = errors.Annotate(err, "cannot run instance")
}
return server, err
}
var opts = nova.RunServerOpts{
Name: machineName,
FlavorId: spec.InstanceType.Id,
ImageId: spec.Image.Id,
UserData: userData,
SecurityGroupNames: groupNames,
Networks: networks,
Metadata: args.InstanceConfig.Tags,
}
server, err := tryStartNovaInstanceAcrossAvailZones(shortAttempt, e.nova(), opts, availabilityZones)
if err != nil {
return nil, errors.Trace(err)
}
detail, err := e.nova().GetServer(server.Id)
if err != nil {
return nil, errors.Annotate(err, "cannot get started instance")
}
inst := &openstackInstance{
e: e,
serverDetail: detail,
arch: &spec.Image.Arch,
instType: &spec.InstanceType,
}
logger.Infof("started instance %q", inst.Id())
if withPublicIP {
if err := e.assignPublicIP(publicIP, string(inst.Id())); err != nil {
if err := e.terminateInstances([]instance.Id{inst.Id()}); err != nil {
// ignore the failure at this stage, just log it
logger.Debugf("failed to terminate instance %q: %v", inst.Id(), err)
}
return nil, errors.Annotatef(err, "cannot assign public address %s to instance %q", publicIP.IP, inst.Id())
}
inst.floatingIP = publicIP
logger.Infof("assigned public IP %s to %q", publicIP.IP, inst.Id())
}
return &environs.StartInstanceResult{
Instance: inst,
Hardware: inst.hardwareCharacteristics(),
}, nil
}
// StartInstance is specified in the InstanceBroker interface.
func (env *azureEnviron) StartInstance(args environs.StartInstanceParams) (*environs.StartInstanceResult, error) {
if args.InstanceConfig.HasNetworks() {
return nil, errors.New("starting instances with networks is not supported yet")
}
err := instancecfg.FinishInstanceConfig(args.InstanceConfig, env.Config())
if err != nil {
return nil, err
}
// Pick envtools. Needed for the custom data (which is what we normally
// call userdata).
args.InstanceConfig.Tools = args.Tools[0]
logger.Infof("picked tools %q", args.InstanceConfig.Tools)
// Compose userdata.
userData, err := providerinit.ComposeUserData(args.InstanceConfig, nil, AzureRenderer{})
if err != nil {
return nil, errors.Annotate(err, "cannot compose user data")
}
snapshot := env.getSnapshot()
location := snapshot.ecfg.location()
instanceType, sourceImageName, err := env.selectInstanceTypeAndImage(&instances.InstanceConstraint{
Region: location,
Series: args.Tools.OneSeries(),
Arches: args.Tools.Arches(),
Constraints: args.Constraints,
})
if err != nil {
return nil, err
}
// We use the cloud service label as a way to group instances with
// the same affinity, so that machines can be be allocated to the
// same availability set.
var cloudServiceName string
if args.DistributionGroup != nil && snapshot.ecfg.availabilitySetsEnabled() {
instanceIds, err := args.DistributionGroup()
if err != nil {
return nil, err
}
for _, id := range instanceIds {
cloudServiceName, _ = env.splitInstanceId(id)
if cloudServiceName != "" {
break
}
}
}
vhd, err := env.newOSDisk(sourceImageName, args.InstanceConfig.Series)
if err != nil {
return nil, errors.Trace(err)
}
// If we're creating machine-0, we'll want to expose port 22.
// All other machines get an auto-generated public port for SSH.
stateServer := multiwatcher.AnyJobNeedsState(args.InstanceConfig.Jobs...)
role, err := env.newRole(instanceType.Id, vhd, stateServer, string(userData), args.InstanceConfig.Series, snapshot)
if err != nil {
return nil, errors.Trace(err)
}
inst, err := createInstance(env, snapshot.api, role, cloudServiceName, stateServer)
if err != nil {
return nil, errors.Trace(err)
}
hc := &instance.HardwareCharacteristics{
Mem: &instanceType.Mem,
RootDisk: &instanceType.RootDisk,
CpuCores: &instanceType.CpuCores,
}
if len(instanceType.Arches) == 1 {
hc.Arch = &instanceType.Arches[0]
}
return &environs.StartInstanceResult{
Instance: inst,
Hardware: hc,
}, nil
}
func (env *joyentEnviron) StartInstance(args environs.StartInstanceParams) (*environs.StartInstanceResult, error) {
if args.InstanceConfig.HasNetworks() {
return nil, errors.New("starting instances with networks is not supported yet")
}
series := args.Tools.OneSeries()
arches := args.Tools.Arches()
spec, err := env.FindInstanceSpec(&instances.InstanceConstraint{
Region: env.Ecfg().Region(),
Series: series,
Arches: arches,
Constraints: args.Constraints,
}, args.ImageMetadata)
if err != nil {
return nil, err
}
tools, err := args.Tools.Match(tools.Filter{Arch: spec.Image.Arch})
if err != nil {
return nil, errors.Errorf("chosen architecture %v not present in %v", spec.Image.Arch, arches)
}
args.InstanceConfig.Tools = tools[0]
if err := instancecfg.FinishInstanceConfig(args.InstanceConfig, env.Config()); err != nil {
return nil, err
}
// This is a hack that ensures that instances can communicate over
// the internal network. Joyent sometimes gives instances
// different 10.x.x.x/21 networks and adding this route allows
// them to talk despite this. See:
// https://bugs.launchpad.net/juju-core/+bug/1401130
cloudcfg, err := cloudinit.New(args.InstanceConfig.Series)
if err != nil {
return nil, errors.Annotate(err, "cannot create cloudinit template")
}
ifupScript := `
#!/bin/bash
# These guards help to ensure that this hack only runs if Joyent's
# internal network still works as it does at time of writing.
[ "$IFACE" == "eth1" ] || [ "$IFACE" == "--all" ] || exit 0
/sbin/ip -4 --oneline addr show dev eth1 | fgrep --quiet " inet 10." || exit 0
/sbin/ip route add 10.0.0.0/8 dev eth1
`[1:]
cloudcfg.AddBootTextFile("/etc/network/if-up.d/joyent", ifupScript, 0755)
userData, err := providerinit.ComposeUserData(args.InstanceConfig, cloudcfg, JoyentRenderer{})
if err != nil {
return nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("joyent user data: %d bytes", len(userData))
var machine *cloudapi.Machine
machine, err = env.compute.cloudapi.CreateMachine(cloudapi.CreateMachineOpts{
//Name: env.machineFullName(machineConf.MachineId),
Package: spec.InstanceType.Name,
Image: spec.Image.Id,
Metadata: map[string]string{"metadata.cloud-init:user-data": string(userData)},
Tags: map[string]string{"tag.group": "juju", "tag.env": env.Config().Name()},
})
if err != nil {
return nil, errors.Annotate(err, "cannot create instances")
}
machineId := machine.Id
logger.Infof("provisioning instance %q", machineId)
machine, err = env.compute.cloudapi.GetMachine(machineId)
if err != nil {
return nil, errors.Annotate(err, "cannot start instances")
}
// wait for machine to start
for !strings.EqualFold(machine.State, "running") {
time.Sleep(1 * time.Second)
machine, err = env.compute.cloudapi.GetMachine(machineId)
if err != nil {
return nil, errors.Annotate(err, "cannot start instances")
}
}
logger.Infof("started instance %q", machineId)
inst := &joyentInstance{
machine: machine,
env: env,
}
if multiwatcher.AnyJobNeedsState(args.InstanceConfig.Jobs...) {
if err := common.AddStateInstance(env.Storage(), inst.Id()); err != nil {
logger.Errorf("could not record instance in provider-state: %v", err)
}
}
disk64 := uint64(machine.Disk)
hc := instance.HardwareCharacteristics{
Arch: &spec.Image.Arch,
Mem: &spec.InstanceType.Mem,
CpuCores: &spec.InstanceType.CpuCores,
CpuPower: spec.InstanceType.CpuPower,
RootDisk: &disk64,
}
return &environs.StartInstanceResult{
Instance: inst,
Hardware: &hc,
}, nil
}
func (*CloudInitSuite) testUserData(c *gc.C, series string, bootstrap bool) {
testJujuHome := c.MkDir()
defer osenv.SetJujuHome(osenv.SetJujuHome(testJujuHome))
// Use actual series paths instead of local defaults
logDir := must(paths.LogDir(series))
metricsSpoolDir := must(paths.MetricsSpoolDir(series))
dataDir := must(paths.DataDir(series))
tools := &tools.Tools{
URL: "http://tools.testing/tools/released/juju.tgz",
Version: version.Binary{version.MustParse("1.2.3"), "quantal", "amd64"},
}
envConfig, err := config.New(config.NoDefaults, dummySampleConfig())
c.Assert(err, jc.ErrorIsNil)
allJobs := []multiwatcher.MachineJob{
multiwatcher.JobManageModel,
multiwatcher.JobHostUnits,
multiwatcher.JobManageNetworking,
}
cfg := &instancecfg.InstanceConfig{
MachineId: "10",
MachineNonce: "5432",
Tools: tools,
Series: series,
MongoInfo: &mongo.MongoInfo{
Info: mongo.Info{
Addrs: []string{"127.0.0.1:1234"},
CACert: "CA CERT\n" + testing.CACert,
},
Password: "******",
Tag: names.NewMachineTag("10"),
},
APIInfo: &api.Info{
Addrs: []string{"127.0.0.1:1234"},
Password: "******",
CACert: "CA CERT\n" + testing.CACert,
Tag: names.NewMachineTag("10"),
ModelTag: testing.ModelTag,
},
DataDir: dataDir,
LogDir: path.Join(logDir, "juju"),
MetricsSpoolDir: metricsSpoolDir,
Jobs: allJobs,
CloudInitOutputLog: path.Join(logDir, "cloud-init-output.log"),
Config: envConfig,
AgentEnvironment: map[string]string{agent.ProviderType: "dummy"},
AuthorizedKeys: "wheredidileavemykeys",
MachineAgentServiceName: "jujud-machine-10",
EnableOSUpgrade: true,
}
if bootstrap {
cfg.Bootstrap = true
cfg.StateServingInfo = ¶ms.StateServingInfo{
StatePort: envConfig.StatePort(),
APIPort: envConfig.APIPort(),
Cert: testing.ServerCert,
PrivateKey: testing.ServerKey,
CAPrivateKey: testing.CAKey,
}
}
script1 := "script1"
script2 := "script2"
cloudcfg, err := cloudinit.New(series)
c.Assert(err, jc.ErrorIsNil)
cloudcfg.AddRunCmd(script1)
cloudcfg.AddRunCmd(script2)
result, err := providerinit.ComposeUserData(cfg, cloudcfg, &openstack.OpenstackRenderer{})
c.Assert(err, jc.ErrorIsNil)
unzipped, err := utils.Gunzip(result)
c.Assert(err, jc.ErrorIsNil)
config := make(map[interface{}]interface{})
err = goyaml.Unmarshal(unzipped, &config)
c.Assert(err, jc.ErrorIsNil)
// The scripts given to userData where added as the first
// commands to be run.
runCmd := config["runcmd"].([]interface{})
c.Check(runCmd[0], gc.Equals, script1)
c.Check(runCmd[1], gc.Equals, script2)
if bootstrap {
// The cloudinit config should have nothing but the basics:
// SSH authorized keys, the additional runcmds, and log output.
//
// Note: the additional runcmds *do* belong here, at least
// for MAAS. MAAS needs to configure and then bounce the
// network interfaces, which would sever the SSH connection
// in the synchronous bootstrap phase.
expected := map[interface{}]interface{}{
"output": map[interface{}]interface{}{
"all": "| tee -a /var/log/cloud-init-output.log",
},
"runcmd": []interface{}{
"script1", "script2",
"set -xe",
"install -D -m 644 /dev/null '/etc/init/juju-clean-shutdown.conf'",
"printf '%s\\n' '\nauthor \"Juju Team <*****@*****.**>\"\ndescription \"Stop all network interfaces on shutdown\"\nstart on runlevel [016]\ntask\nconsole output\n\nexec /sbin/ifdown -a -v --force\n' > '/etc/init/juju-clean-shutdown.conf'",
"install -D -m 644 /dev/null '/var/lib/juju/nonce.txt'",
"printf '%s\\n' '5432' > '/var/lib/juju/nonce.txt'",
},
}
// Series with old cloudinit versions don't support adding
// users so need the old way to set SSH authorized keys.
if series == "precise" {
expected["ssh_authorized_keys"] = []interface{}{
"wheredidileavemykeys",
}
} else {
expected["users"] = []interface{}{
map[interface{}]interface{}{
"name": "ubuntu",
"lock_passwd": true,
"groups": []interface{}{"adm", "audio",
"cdrom", "dialout", "dip",
"floppy", "netdev", "plugdev",
"sudo", "video"},
"shell": "/bin/bash",
"sudo": []interface{}{"ALL=(ALL) NOPASSWD:ALL"},
"ssh-authorized-keys": []interface{}{"wheredidileavemykeys"},
},
}
}
c.Check(config, jc.DeepEquals, expected)
} else {
// Just check that the cloudinit config looks good,
// and that there are more runcmds than the additional
// ones we passed into ComposeUserData.
c.Check(config["package_upgrade"], jc.IsTrue)
c.Check(len(runCmd) > 2, jc.IsTrue)
}
}
// newRawInstance is where the new physical instance is actually
// provisioned, relative to the provided args and spec. Info for that
// low-level instance is returned.
func (env *environ) newRawInstance(args environs.StartInstanceParams, img *OvaFileMetadata) (*mo.VirtualMachine, *instance.HardwareCharacteristics, error) {
machineID := common.MachineFullName(env, args.InstanceConfig.MachineId)
cloudcfg, err := cloudinit.New(args.Tools.OneSeries())
if err != nil {
return nil, nil, errors.Trace(err)
}
cloudcfg.AddPackage("open-vm-tools")
cloudcfg.AddPackage("iptables-persistent")
userData, err := providerinit.ComposeUserData(args.InstanceConfig, cloudcfg, VsphereRenderer{})
if err != nil {
return nil, nil, errors.Annotate(err, "cannot make user data")
}
logger.Debugf("Vmware user data; %d bytes", len(userData))
rootDisk := common.MinRootDiskSizeGiB * 1024
if args.Constraints.RootDisk != nil && *args.Constraints.RootDisk > rootDisk {
rootDisk = *args.Constraints.RootDisk
}
cpuCores := DefaultCpuCores
if args.Constraints.CpuCores != nil {
cpuCores = *args.Constraints.CpuCores
}
cpuPower := DefaultCpuPower
if args.Constraints.CpuPower != nil {
cpuPower = *args.Constraints.CpuPower
}
mem := DefaultMemMb
if args.Constraints.Mem != nil {
mem = *args.Constraints.Mem
}
hwc := &instance.HardwareCharacteristics{
Arch: &img.Arch,
Mem: &mem,
CpuCores: &cpuCores,
CpuPower: &cpuPower,
RootDisk: &rootDisk,
}
zones, err := env.parseAvailabilityZones(args)
if err != nil {
return nil, nil, errors.Trace(err)
}
var inst *mo.VirtualMachine
for _, zone := range zones {
var availZone *vmwareAvailZone
availZone, err = env.availZone(zone)
if err != nil {
logger.Warningf("Error while getting availability zone %s: %s", zone, err)
continue
}
apiPort := 0
if isStateServer(args.InstanceConfig) {
apiPort = args.InstanceConfig.StateServingInfo.APIPort
}
spec := &instanceSpec{
machineID: machineID,
zone: availZone,
hwc: hwc,
img: img,
userData: userData,
sshKey: args.InstanceConfig.AuthorizedKeys,
isState: isStateServer(args.InstanceConfig),
apiPort: apiPort,
}
inst, err = env.client.CreateInstance(env.ecfg, spec)
if err != nil {
logger.Warningf("Error while trying to create instance in %s availability zone: %s", zone, err)
continue
}
break
}
if err != nil {
return nil, nil, errors.Annotate(err, "Can't create instance in any of availability zones, last error")
}
return inst, hwc, err
}