func formatOneline(writer io.Writer, value interface{}, printf onelinePrintf) error {
fs, valueConverted := value.(formattedStatus)
if !valueConverted {
return errors.Errorf("expected value of type %T, got %T", fs, value)
}
pprint := func(uName string, u unitStatus, level int) {
var fmtPorts string
if len(u.OpenedPorts) > 0 {
fmtPorts = fmt.Sprintf(" %s", strings.Join(u.OpenedPorts, ", "))
}
format := indent("\n", level*2, "- %s: %s (%v)"+fmtPorts)
printf(writer, format, uName, u, level)
}
for _, svcName := range utils.SortStringsNaturally(stringKeysFromMap(fs.Applications)) {
svc := fs.Applications[svcName]
for _, uName := range utils.SortStringsNaturally(stringKeysFromMap(svc.Units)) {
unit := svc.Units[uName]
pprint(uName, unit, 0)
recurseUnits(unit, 1, pprint)
}
}
return nil
}
func printMachines(tw *ansiterm.TabWriter, machines map[string]machineStatus) {
w := output.Wrapper{tw}
w.Println("MACHINE", "STATE", "DNS", "INS-ID", "SERIES", "AZ")
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(machines)) {
printMachine(w, machines[name])
}
}
// FormatSummary writes a summary of the current environment
// including the following information:
// - Headers:
// - All subnets the environment occupies.
// - All ports the environment utilizes.
// - Sections:
// - Machines: Displays total #, and then the # in each state.
// - Units: Displays total #, and then # in each state.
// - Applications: Displays total #, their names, and how many of each
// are exposed.
func FormatSummary(writer io.Writer, value interface{}) error {
fs, valueConverted := value.(formattedStatus)
if !valueConverted {
return errors.Errorf("expected value of type %T, got %T", fs, value)
}
f := newSummaryFormatter(writer)
stateToMachine := f.aggregateMachineStates(fs.Machines)
svcExposure := f.aggregateServiceAndUnitStates(fs.Applications)
p := f.delimitValuesWithTabs
// Print everything out
p("Running on subnets:", strings.Join(f.netStrings, ", "))
p(" Utilizing ports:", f.portsInColumnsOf(3))
f.tw.Flush()
// Right align summary information
f.tw.Init(writer, 0, 1, 2, ' ', tabwriter.AlignRight)
p("# Machines:", fmt.Sprintf("(%d)", len(fs.Machines)))
f.printStateToCount(stateToMachine)
p(" ")
p("# Units:", fmt.Sprintf("(%d)", f.numUnits))
f.printStateToCount(f.stateToUnit)
p(" ")
p("# Applications:", fmt.Sprintf("(%d)", len(fs.Applications)))
for _, svcName := range utils.SortStringsNaturally(stringKeysFromMap(svcExposure)) {
s := svcExposure[svcName]
p(svcName, fmt.Sprintf("%d/%d\texposed", s[true], s[true]+s[false]))
}
f.tw.Flush()
return nil
}
func checkSort(c *gc.C, expected []string, xform func([]string)) {
input := copyStrSlice(expected)
xform(input)
origInput := copyStrSlice(input)
utils.SortStringsNaturally(input)
c.Check(input, gc.DeepEquals, expected, gc.Commentf("input was: %#v", origInput))
}
func printMachines(tw *ansiterm.TabWriter, machines map[string]machineStatus) {
w := output.Wrapper{tw}
w.Println("Machine", "State", "DNS", "Inst id", "Series", "AZ")
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(machines)) {
printMachine(w, machines[name])
}
}
// MinionReports returns details of the reports made by migration
// minions to the controller for the current migration phase.
func (api *API) MinionReports() (params.MinionReports, error) {
var out params.MinionReports
mig, err := api.backend.LatestMigration()
if err != nil {
return out, errors.Trace(err)
}
reports, err := mig.MinionReports()
if err != nil {
return out, errors.Trace(err)
}
out.MigrationId = mig.Id()
phase, err := mig.Phase()
if err != nil {
return out, errors.Trace(err)
}
out.Phase = phase.String()
out.SuccessCount = len(reports.Succeeded)
out.Failed = make([]string, len(reports.Failed))
for i := 0; i < len(out.Failed); i++ {
out.Failed[i] = reports.Failed[i].String()
}
utils.SortStringsNaturally(out.Failed)
out.UnknownCount = len(reports.Unknown)
unknown := make([]string, len(reports.Unknown))
for i := 0; i < len(unknown); i++ {
unknown[i] = reports.Unknown[i].String()
}
utils.SortStringsNaturally(unknown)
// Limit the number of unknowns reported
numSamples := out.UnknownCount
if numSamples > 10 {
numSamples = 10
}
out.UnknownSample = unknown[:numSamples]
return out, nil
}
func (f *summaryFormatter) aggregateServiceAndUnitStates(services map[string]applicationStatus) map[string]map[bool]int {
svcExposure := make(map[string]map[bool]int)
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(services)) {
s := services[name]
// Grab unit states
for _, un := range utils.SortStringsNaturally(stringKeysFromMap(s.Units)) {
u := s.Units[un]
f.trackUnit(un, u, 0)
recurseUnits(u, 1, f.trackUnit)
}
if _, ok := svcExposure[name]; !ok {
svcExposure[name] = make(map[bool]int)
}
svcExposure[name][s.Exposed]++
}
return svcExposure
}
// recurseUnits calls the given recurseMap function on the given unit
// and its subordinates (recursively defined on the given unit).
func recurseUnits(u unitStatus, il int, recurseMap func(string, unitStatus, int)) {
if len(u.Subordinates) == 0 {
return
}
for _, uName := range utils.SortStringsNaturally(stringKeysFromMap(u.Subordinates)) {
unit := u.Subordinates[uName]
recurseMap(uName, unit, il)
recurseUnits(unit, il+1, recurseMap)
}
}
func (st *mockState) AllMachines() (machines []common.Machine, _ error) {
// Ensure we get machines in id order.
var ids []string
for id := range st.machines {
ids = append(ids, id)
}
utils.SortStringsNaturally(ids)
for _, id := range ids {
machines = append(machines, st.machines[id])
}
return machines, nil
}
// Run grabs the Actions spec from the api. It then sets up a sensible
// output format for the map.
func (c *listCommand) Run(ctx *cmd.Context) error {
api, err := c.NewActionAPIClient()
if err != nil {
return err
}
defer api.Close()
actions, err := api.ApplicationCharmActions(params.Entity{c.applicationTag.String()})
if err != nil {
return err
}
if c.fullSchema {
verboseSpecs := make(map[string]interface{})
for k, v := range actions {
verboseSpecs[k] = v.Params
}
return c.out.Write(ctx, verboseSpecs)
}
shortOutput := make(map[string]string)
var sortedNames []string
for name, action := range actions {
shortOutput[name] = action.Description
if shortOutput[name] == "" {
shortOutput[name] = "No description"
}
sortedNames = append(sortedNames, name)
}
utils.SortStringsNaturally(sortedNames)
var output interface{}
switch c.out.Name() {
case "yaml", "json":
output = shortOutput
default:
if len(sortedNames) == 0 {
ctx.Infof("No actions defined for %s.", c.applicationTag.Id())
return nil
}
var list []listOutput
for _, name := range sortedNames {
list = append(list, listOutput{name, shortOutput[name]})
}
output = list
}
return c.out.Write(ctx, output)
}
func (f *summaryFormatter) aggregateMachineStates(machines map[string]machineStatus) map[status.Status]int {
stateToMachine := make(map[status.Status]int)
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(machines)) {
m := machines[name]
f.resolveAndTrackIp(m.DNSName)
if agentState := m.JujuStatus.Current; agentState == "" {
agentState = status.Pending
} else {
stateToMachine[agentState]++
}
}
return stateToMachine
}
func printMachine(w output.Wrapper, m machineStatus) {
// We want to display availability zone so extract from hardware info".
hw, err := instance.ParseHardware(m.Hardware)
if err != nil {
logger.Warningf("invalid hardware info %s for machine %v", m.Hardware, m)
}
az := ""
if hw.AvailabilityZone != nil {
az = *hw.AvailabilityZone
}
w.Print(m.Id)
w.PrintStatus(m.JujuStatus.Current)
w.Println(m.DNSName, m.InstanceId, m.Series, az)
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(m.Containers)) {
printMachine(w, m.Containers[name])
}
}
// FormatTabular writes a tabular summary of machines, applications, and
// units. Any subordinate items are indented by two spaces beneath
// their superior.
func FormatTabular(writer io.Writer, forceColor bool, value interface{}) error {
const maxVersionWidth = 15
const ellipsis = "..."
const truncatedWidth = maxVersionWidth - len(ellipsis)
fs, valueConverted := value.(formattedStatus)
if !valueConverted {
return errors.Errorf("expected value of type %T, got %T", fs, value)
}
// To format things into columns.
tw := output.TabWriter(writer)
if forceColor {
tw.SetColorCapable(forceColor)
}
w := output.Wrapper{tw}
p := w.Println
outputHeaders := func(values ...interface{}) {
p()
p(values...)
}
cloudRegion := fs.Model.Cloud
if fs.Model.CloudRegion != "" {
cloudRegion += "/" + fs.Model.CloudRegion
}
header := []interface{}{"MODEL", "CONTROLLER", "CLOUD/REGION", "VERSION"}
values := []interface{}{fs.Model.Name, fs.Model.Controller, cloudRegion, fs.Model.Version}
message := getModelMessage(fs.Model)
if message != "" {
header = append(header, "NOTES")
values = append(values, message)
}
// The first set of headers don't use outputHeaders because it adds the blank line.
p(header...)
p(values...)
units := make(map[string]unitStatus)
metering := false
relations := newRelationFormatter()
outputHeaders("APP", "VERSION", "STATUS", "SCALE", "CHARM", "STORE", "REV", "OS", "NOTES")
tw.SetColumnAlignRight(3)
tw.SetColumnAlignRight(6)
for _, appName := range utils.SortStringsNaturally(stringKeysFromMap(fs.Applications)) {
app := fs.Applications[appName]
version := app.Version
// Don't let a long version push out the version column.
if len(version) > maxVersionWidth {
version = version[:truncatedWidth] + ellipsis
}
// Notes may well contain other things later.
notes := ""
if app.Exposed {
notes = "exposed"
}
w.Print(appName, version)
w.PrintStatus(app.StatusInfo.Current)
scale, warn := fs.applicationScale(appName)
if warn {
w.PrintColor(output.WarningHighlight, scale)
} else {
w.Print(scale)
}
p(app.CharmName,
app.CharmOrigin,
app.CharmRev,
app.OS,
notes)
for un, u := range app.Units {
units[un] = u
if u.MeterStatus != nil {
metering = true
}
}
// Ensure that we pick a consistent name for peer relations.
sortedRelTypes := make([]string, 0, len(app.Relations))
for relType := range app.Relations {
sortedRelTypes = append(sortedRelTypes, relType)
}
sort.Strings(sortedRelTypes)
subs := set.NewStrings(app.SubordinateTo...)
for _, relType := range sortedRelTypes {
for _, related := range app.Relations[relType] {
relations.add(related, appName, relType, subs.Contains(related))
}
}
}
pUnit := func(name string, u unitStatus, level int) {
message := u.WorkloadStatusInfo.Message
agentDoing := agentDoing(u.JujuStatusInfo)
if agentDoing != "" {
message = fmt.Sprintf("(%s) %s", agentDoing, message)
}
w.Print(indent("", level*2, name))
w.PrintStatus(u.WorkloadStatusInfo.Current)
w.PrintStatus(u.JujuStatusInfo.Current)
p(
u.Machine,
u.PublicAddress,
strings.Join(u.OpenedPorts, ","),
message,
)
}
outputHeaders("UNIT", "WORKLOAD", "AGENT", "MACHINE", "PUBLIC-ADDRESS", "PORTS", "MESSAGE")
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(units)) {
u := units[name]
pUnit(name, u, 0)
const indentationLevel = 1
recurseUnits(u, indentationLevel, pUnit)
}
if metering {
outputHeaders("METER", "STATUS", "MESSAGE")
for _, name := range utils.SortStringsNaturally(stringKeysFromMap(units)) {
u := units[name]
if u.MeterStatus != nil {
p(name, u.MeterStatus.Color, u.MeterStatus.Message)
}
}
}
p()
printMachines(tw, fs.Machines)
if relations.len() > 0 {
outputHeaders("RELATION", "PROVIDES", "CONSUMES", "TYPE")
for _, k := range relations.sorted() {
r := relations.get(k)
if r != nil {
p(r.relation, r.application1, r.application2, r.relationType())
}
}
}
tw.Flush()
return nil
}
func (f *summaryFormatter) printStateToCount(m map[status.Status]int) {
for _, stateToCount := range utils.SortStringsNaturally(stringKeysFromMap(m)) {
numInStatus := m[status.Status(stateToCount)]
f.delimitValuesWithTabs(stateToCount+":", fmt.Sprintf(" %d ", numInStatus))
}
}
