open-nomad/nomad/core_sched_test.go

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package nomad
import (
"fmt"
"testing"
"time"
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memdb "github.com/hashicorp/go-memdb"
msgpackrpc "github.com/hashicorp/net-rpc-msgpackrpc"
"github.com/hashicorp/nomad/ci"
"github.com/hashicorp/nomad/helper/uuid"
"github.com/hashicorp/nomad/nomad/mock"
"github.com/hashicorp/nomad/nomad/state"
"github.com/hashicorp/nomad/nomad/structs"
"github.com/hashicorp/nomad/testutil"
"github.com/stretchr/testify/assert"
"github.com/stretchr/testify/require"
)
func TestCoreScheduler_EvalGC(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" eval
store := s1.fsm.State()
eval := mock.Eval()
eval.Status = structs.EvalStatusFailed
store.UpsertJobSummary(999, mock.JobSummary(eval.JobID))
err := store.UpsertEvals(structs.MsgTypeTestSetup, 1000, []*structs.Evaluation{eval})
require.Nil(t, err)
// Insert mock job with rescheduling disabled
job := mock.Job()
job.ID = eval.JobID
job.TaskGroups[0].ReschedulePolicy = &structs.ReschedulePolicy{
Attempts: 0,
Interval: 0 * time.Second,
}
err = store.UpsertJob(structs.MsgTypeTestSetup, 1001, job)
require.Nil(t, err)
// Insert "dead" alloc
alloc := mock.Alloc()
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
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alloc.JobID = eval.JobID
alloc.TaskGroup = job.TaskGroups[0].Name
// Insert "lost" alloc
alloc2 := mock.Alloc()
alloc2.EvalID = eval.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusLost
alloc2.JobID = eval.JobID
alloc2.TaskGroup = job.TaskGroups[0].Name
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1001, []*structs.Allocation{alloc, alloc2})
if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should be gone
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ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA != nil {
t.Fatalf("bad: %v", outA)
}
outA2, err := store.AllocByID(ws, alloc2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 != nil {
t.Fatalf("bad: %v", outA2)
}
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}
// Tests GC behavior on allocations being rescheduled
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func TestCoreScheduler_EvalGC_ReschedulingAllocs(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" eval
store := s1.fsm.State()
eval := mock.Eval()
eval.Status = structs.EvalStatusFailed
store.UpsertJobSummary(999, mock.JobSummary(eval.JobID))
err := store.UpsertEvals(structs.MsgTypeTestSetup, 1000, []*structs.Evaluation{eval})
require.Nil(t, err)
// Insert "pending" eval for same job
eval2 := mock.Eval()
eval2.JobID = eval.JobID
store.UpsertJobSummary(999, mock.JobSummary(eval2.JobID))
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1003, []*structs.Evaluation{eval2})
require.Nil(t, err)
// Insert mock job with default reschedule policy of 2 in 10 minutes
job := mock.Job()
job.ID = eval.JobID
err = store.UpsertJob(structs.MsgTypeTestSetup, 1001, job)
require.Nil(t, err)
// Insert failed alloc with an old reschedule attempt, can be GCed
alloc := mock.Alloc()
alloc.Job = job
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusRun
alloc.ClientStatus = structs.AllocClientStatusFailed
alloc.JobID = eval.JobID
alloc.TaskGroup = job.TaskGroups[0].Name
alloc.NextAllocation = uuid.Generate()
alloc.RescheduleTracker = &structs.RescheduleTracker{
Events: []*structs.RescheduleEvent{
{
RescheduleTime: time.Now().Add(-1 * time.Hour).UTC().UnixNano(),
PrevNodeID: uuid.Generate(),
PrevAllocID: uuid.Generate(),
},
},
}
alloc2 := mock.Alloc()
alloc2.Job = job
alloc2.EvalID = eval.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusFailed
alloc2.JobID = eval.JobID
alloc2.TaskGroup = job.TaskGroups[0].Name
alloc2.RescheduleTracker = &structs.RescheduleTracker{
Events: []*structs.RescheduleEvent{
{
RescheduleTime: time.Now().Add(-3 * time.Minute).UTC().UnixNano(),
PrevNodeID: uuid.Generate(),
PrevAllocID: uuid.Generate(),
},
},
}
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1001, []*structs.Allocation{alloc, alloc2})
require.Nil(t, err)
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC, job has all terminal allocs and one pending eval
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
err = core.Process(gc)
require.Nil(t, err)
// Eval should still exist
ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
require.Nil(t, err)
require.NotNil(t, out)
require.Equal(t, eval.ID, out.ID)
outA, err := store.AllocByID(ws, alloc.ID)
require.Nil(t, err)
require.Nil(t, outA)
outA2, err := store.AllocByID(ws, alloc2.ID)
require.Nil(t, err)
require.Equal(t, alloc2.ID, outA2.ID)
}
// Tests GC behavior on stopped job with reschedulable allocs
func TestCoreScheduler_EvalGC_StoppedJob_Reschedulable(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" eval
store := s1.fsm.State()
eval := mock.Eval()
eval.Status = structs.EvalStatusFailed
store.UpsertJobSummary(999, mock.JobSummary(eval.JobID))
err := store.UpsertEvals(structs.MsgTypeTestSetup, 1000, []*structs.Evaluation{eval})
require.Nil(t, err)
// Insert mock stopped job with default reschedule policy of 2 in 10 minutes
job := mock.Job()
job.ID = eval.JobID
job.Stop = true
err = store.UpsertJob(structs.MsgTypeTestSetup, 1001, job)
require.Nil(t, err)
// Insert failed alloc with a recent reschedule attempt
alloc := mock.Alloc()
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusRun
alloc.ClientStatus = structs.AllocClientStatusLost
alloc.JobID = eval.JobID
alloc.TaskGroup = job.TaskGroups[0].Name
alloc.RescheduleTracker = &structs.RescheduleTracker{
Events: []*structs.RescheduleEvent{
{
RescheduleTime: time.Now().Add(-3 * time.Minute).UTC().UnixNano(),
PrevNodeID: uuid.Generate(),
PrevAllocID: uuid.Generate(),
},
},
}
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1001, []*structs.Allocation{alloc})
require.Nil(t, err)
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
err = core.Process(gc)
require.Nil(t, err)
// Eval should not exist
ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
require.Nil(t, err)
require.Nil(t, out)
// Alloc should not exist
outA, err := store.AllocByID(ws, alloc.ID)
require.Nil(t, err)
require.Nil(t, outA)
}
// An EvalGC should never reap a batch job that has not been stopped
func TestCoreScheduler_EvalGC_Batch(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert a "dead" job
store := s1.fsm.State()
job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusDead
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
if err != nil {
t.Fatalf("err: %v", err)
}
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// Insert "complete" eval
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eval := mock.Eval()
eval.Status = structs.EvalStatusComplete
eval.Type = structs.JobTypeBatch
eval.JobID = job.ID
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval})
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if err != nil {
t.Fatalf("err: %v", err)
}
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// Insert "failed" alloc
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alloc := mock.Alloc()
alloc.Job = job
alloc.JobID = job.ID
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alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
// Insert "lost" alloc
alloc2 := mock.Alloc()
alloc2.Job = job
alloc2.JobID = job.ID
alloc2.EvalID = eval.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusLost
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc, alloc2})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
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err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Nothing should be gone
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ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA == nil {
t.Fatalf("bad: %v", outA)
}
outA2, err := store.AllocByID(ws, alloc2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 == nil {
t.Fatalf("bad: %v", outA2)
}
outB, err := store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outB == nil {
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t.Fatalf("bad: %v", outB)
}
}
// An EvalGC should reap allocations from jobs with an older modify index
func TestCoreScheduler_EvalGC_Batch_OldVersion(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert a "dead" job
store := s1.fsm.State()
job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusDead
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert "complete" eval
eval := mock.Eval()
eval.Status = structs.EvalStatusComplete
eval.Type = structs.JobTypeBatch
eval.JobID = job.ID
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval})
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert "failed" alloc
alloc := mock.Alloc()
alloc.Job = job
alloc.JobID = job.ID
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
// Insert "lost" alloc
alloc2 := mock.Alloc()
alloc2.Job = job
alloc2.JobID = job.ID
alloc2.EvalID = eval.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusLost
// Insert alloc with older job modifyindex
alloc3 := mock.Alloc()
job2 := job.Copy()
alloc3.Job = job2
alloc3.JobID = job2.ID
alloc3.EvalID = eval.ID
job2.CreateIndex = 500
alloc3.DesiredStatus = structs.AllocDesiredStatusRun
alloc3.ClientStatus = structs.AllocClientStatusLost
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc, alloc2, alloc3})
if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Alloc1 and 2 should be there, and alloc3 should be gone
ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA == nil {
t.Fatalf("bad: %v", outA)
}
outA2, err := store.AllocByID(ws, alloc2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 == nil {
t.Fatalf("bad: %v", outA2)
}
outA3, err := store.AllocByID(ws, alloc3.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA3 != nil {
t.Fatalf("expected alloc to be nil:%v", outA2)
}
outB, err := store.JobByID(ws, job.Namespace, job.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outB == nil {
t.Fatalf("bad: %v", outB)
}
}
// An EvalGC should reap a batch job that has been stopped
func TestCoreScheduler_EvalGC_BatchStopped(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Create a "dead" job
store := s1.fsm.State()
job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusDead
job.Stop = true
job.TaskGroups[0].ReschedulePolicy = &structs.ReschedulePolicy{
Attempts: 0,
Interval: 0 * time.Second,
}
err := store.UpsertJob(structs.MsgTypeTestSetup, 1001, job)
require.Nil(t, err)
// Insert "complete" eval
eval := mock.Eval()
eval.Status = structs.EvalStatusComplete
eval.Type = structs.JobTypeBatch
eval.JobID = job.ID
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1002, []*structs.Evaluation{eval})
require.Nil(t, err)
// Insert "failed" alloc
alloc := mock.Alloc()
alloc.JobID = job.ID
alloc.EvalID = eval.ID
alloc.TaskGroup = job.TaskGroups[0].Name
alloc.DesiredStatus = structs.AllocDesiredStatusStop
// Insert "lost" alloc
alloc2 := mock.Alloc()
alloc2.JobID = job.ID
alloc2.EvalID = eval.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusLost
alloc2.TaskGroup = job.TaskGroups[0].Name
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1003, []*structs.Allocation{alloc, alloc2})
if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Everything should be gone
ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA != nil {
t.Fatalf("bad: %v", outA)
}
outA2, err := store.AllocByID(ws, alloc2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 != nil {
t.Fatalf("bad: %v", outA2)
}
}
func TestCoreScheduler_EvalGC_Partial(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
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// Insert "dead" eval
store := s1.fsm.State()
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eval := mock.Eval()
eval.Status = structs.EvalStatusComplete
store.UpsertJobSummary(999, mock.JobSummary(eval.JobID))
err := store.UpsertEvals(structs.MsgTypeTestSetup, 1000, []*structs.Evaluation{eval})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Create mock job with id same as eval
job := mock.Job()
job.ID = eval.JobID
// Insert "dead" alloc
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alloc := mock.Alloc()
alloc.JobID = job.ID
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alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
alloc.TaskGroup = job.TaskGroups[0].Name
store.UpsertJobSummary(1001, mock.JobSummary(alloc.JobID))
// Insert "lost" alloc
alloc2 := mock.Alloc()
alloc2.JobID = job.ID
alloc2.EvalID = eval.ID
alloc2.TaskGroup = job.TaskGroups[0].Name
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusLost
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc, alloc2})
if err != nil {
t.Fatalf("err: %v", err)
}
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// Insert "running" alloc
alloc3 := mock.Alloc()
alloc3.EvalID = eval.ID
alloc3.JobID = job.ID
store.UpsertJobSummary(1003, mock.JobSummary(alloc3.JobID))
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1004, []*structs.Allocation{alloc3})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Insert mock job with rescheduling disabled
job.TaskGroups[0].ReschedulePolicy = &structs.ReschedulePolicy{
Attempts: 0,
Interval: 0 * time.Second,
}
err = store.UpsertJob(structs.MsgTypeTestSetup, 1001, job)
require.Nil(t, err)
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// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.EvalGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobEvalGC, 2000)
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err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should not be gone
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ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc3.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA == nil {
t.Fatalf("bad: %v", outA)
}
// Should be gone
outB, err := store.AllocByID(ws, alloc.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outB != nil {
t.Fatalf("bad: %v", outB)
}
outC, err := store.AllocByID(ws, alloc2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outC != nil {
t.Fatalf("bad: %v", outC)
}
}
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func TestCoreScheduler_EvalGC_Force(t *testing.T) {
ci.Parallel(t)
for _, withAcl := range []bool{false, true} {
t.Run(fmt.Sprintf("with acl %v", withAcl), func(t *testing.T) {
var server *Server
var cleanup func()
if withAcl {
server, _, cleanup = TestACLServer(t, nil)
} else {
server, cleanup = TestServer(t, nil)
}
defer cleanup()
testutil.WaitForLeader(t, server.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
server.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" eval
store := server.fsm.State()
eval := mock.Eval()
eval.Status = structs.EvalStatusFailed
store.UpsertJobSummary(999, mock.JobSummary(eval.JobID))
err := store.UpsertEvals(structs.MsgTypeTestSetup, 1000, []*structs.Evaluation{eval})
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert mock job with rescheduling disabled
job := mock.Job()
job.ID = eval.JobID
job.TaskGroups[0].ReschedulePolicy = &structs.ReschedulePolicy{
Attempts: 0,
Interval: 0 * time.Second,
}
err = store.UpsertJob(structs.MsgTypeTestSetup, 1001, job)
require.Nil(t, err)
// Insert "dead" alloc
alloc := mock.Alloc()
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
alloc.TaskGroup = job.TaskGroups[0].Name
store.UpsertJobSummary(1001, mock.JobSummary(alloc.JobID))
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc})
if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(server, snap)
// Attempt the GC
gc := server.coreJobEval(structs.CoreJobForceGC, 1002)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should be gone
ws := memdb.NewWatchSet()
out, err := store.EvalByID(ws, eval.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA != nil {
t.Fatalf("bad: %v", outA)
}
})
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}
}
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func TestCoreScheduler_NodeGC(t *testing.T) {
ci.Parallel(t)
for _, withAcl := range []bool{false, true} {
t.Run(fmt.Sprintf("with acl %v", withAcl), func(t *testing.T) {
var server *Server
var cleanup func()
if withAcl {
server, _, cleanup = TestACLServer(t, nil)
} else {
server, cleanup = TestServer(t, nil)
}
defer cleanup()
testutil.WaitForLeader(t, server.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
server.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" node
store := server.fsm.State()
node := mock.Node()
node.Status = structs.NodeStatusDown
err := store.UpsertNode(structs.MsgTypeTestSetup, 1000, node)
if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := server.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*server.config.NodeGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(server, snap)
// Attempt the GC
gc := server.coreJobEval(structs.CoreJobNodeGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should be gone
ws := memdb.NewWatchSet()
out, err := store.NodeByID(ws, node.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
})
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}
}
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func TestCoreScheduler_NodeGC_TerminalAllocs(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" node
store := s1.fsm.State()
node := mock.Node()
node.Status = structs.NodeStatusDown
err := store.UpsertNode(structs.MsgTypeTestSetup, 1000, node)
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert a terminal alloc on that node
alloc := mock.Alloc()
alloc.DesiredStatus = structs.AllocDesiredStatusStop
store.UpsertJobSummary(1001, mock.JobSummary(alloc.JobID))
if err := store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc}); err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.NodeGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobNodeGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should be gone
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ws := memdb.NewWatchSet()
out, err := store.NodeByID(ws, node.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
}
func TestCoreScheduler_NodeGC_RunningAllocs(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert "dead" node
store := s1.fsm.State()
node := mock.Node()
node.Status = structs.NodeStatusDown
err := store.UpsertNode(structs.MsgTypeTestSetup, 1000, node)
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert a running alloc on that node
alloc := mock.Alloc()
alloc.NodeID = node.ID
alloc.DesiredStatus = structs.AllocDesiredStatusRun
alloc.ClientStatus = structs.AllocClientStatusRunning
store.UpsertJobSummary(1001, mock.JobSummary(alloc.JobID))
if err := store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc}); err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.NodeGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobNodeGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should still be here
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ws := memdb.NewWatchSet()
out, err := store.NodeByID(ws, node.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
}
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func TestCoreScheduler_NodeGC_Force(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
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// Insert "dead" node
store := s1.fsm.State()
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node := mock.Node()
node.Status = structs.NodeStatusDown
err := store.UpsertNode(structs.MsgTypeTestSetup, 1000, node)
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if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobForceGC, 1000)
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err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should be gone
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ws := memdb.NewWatchSet()
out, err := store.NodeByID(ws, node.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
}
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func TestCoreScheduler_JobGC_OutstandingEvals(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
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// Insert job.
store := s1.fsm.State()
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job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusDead
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
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if err != nil {
t.Fatalf("err: %v", err)
}
// Insert two evals, one terminal and one not
eval := mock.Eval()
eval.JobID = job.ID
eval.Status = structs.EvalStatusComplete
eval2 := mock.Eval()
eval2.JobID = job.ID
eval2.Status = structs.EvalStatusPending
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval, eval2})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.JobGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobJobGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should still exist
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ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
outE, err := store.EvalByID(ws, eval.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outE == nil {
t.Fatalf("bad: %v", outE)
}
outE2, err := store.EvalByID(ws, eval2.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outE2 == nil {
t.Fatalf("bad: %v", outE2)
}
// Update the second eval to be terminal
eval2.Status = structs.EvalStatusComplete
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1003, []*structs.Evaluation{eval2})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err = store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core = NewCoreScheduler(s1, snap)
// Attempt the GC
gc = s1.coreJobEval(structs.CoreJobJobGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should not still exist
out, err = store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outE, err = store.EvalByID(ws, eval.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outE != nil {
t.Fatalf("bad: %v", outE)
}
outE2, err = store.EvalByID(ws, eval2.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outE2 != nil {
t.Fatalf("bad: %v", outE2)
}
}
func TestCoreScheduler_JobGC_OutstandingAllocs(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
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// Insert job.
store := s1.fsm.State()
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job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusDead
job.TaskGroups[0].ReschedulePolicy = &structs.ReschedulePolicy{
Attempts: 0,
Interval: 0 * time.Second,
}
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
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if err != nil {
t.Fatalf("err: %v", err)
}
// Insert an eval
eval := mock.Eval()
eval.JobID = job.ID
eval.Status = structs.EvalStatusComplete
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Insert two allocs, one terminal and one not
alloc := mock.Alloc()
alloc.JobID = job.ID
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusRun
alloc.ClientStatus = structs.AllocClientStatusComplete
alloc.TaskGroup = job.TaskGroups[0].Name
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alloc2 := mock.Alloc()
alloc2.JobID = job.ID
alloc2.EvalID = eval.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
alloc2.ClientStatus = structs.AllocClientStatusRunning
alloc2.TaskGroup = job.TaskGroups[0].Name
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err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc, alloc2})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.JobGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobJobGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should still exist
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ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
outA, err := store.AllocByID(ws, alloc.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA == nil {
t.Fatalf("bad: %v", outA)
}
outA2, err := store.AllocByID(ws, alloc2.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 == nil {
t.Fatalf("bad: %v", outA2)
}
// Update the second alloc to be terminal
alloc2.ClientStatus = structs.AllocClientStatusComplete
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1003, []*structs.Allocation{alloc2})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err = store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core = NewCoreScheduler(s1, snap)
// Attempt the GC
gc = s1.coreJobEval(structs.CoreJobJobGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should not still exist
out, err = store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outA, err = store.AllocByID(ws, alloc.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA != nil {
t.Fatalf("bad: %v", outA)
}
outA2, err = store.AllocByID(ws, alloc2.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 != nil {
t.Fatalf("bad: %v", outA2)
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}
}
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// This test ensures that batch jobs are GC'd in one shot, meaning it all
// allocs/evals and job or nothing
func TestCoreScheduler_JobGC_OneShot(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert job.
store := s1.fsm.State()
job := mock.Job()
job.Type = structs.JobTypeBatch
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert two complete evals
eval := mock.Eval()
eval.JobID = job.ID
eval.Status = structs.EvalStatusComplete
eval2 := mock.Eval()
eval2.JobID = job.ID
eval2.Status = structs.EvalStatusComplete
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval, eval2})
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert one complete alloc and one running on distinct evals
alloc := mock.Alloc()
alloc.JobID = job.ID
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
alloc2 := mock.Alloc()
alloc2.JobID = job.ID
alloc2.EvalID = eval2.ID
alloc2.DesiredStatus = structs.AllocDesiredStatusRun
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc, alloc2})
if err != nil {
t.Fatalf("err: %v", err)
}
// Force the jobs state to dead
job.Status = structs.JobStatusDead
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.JobGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobJobGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should still exist
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ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
outE, err := store.EvalByID(ws, eval.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outE == nil {
t.Fatalf("bad: %v", outE)
}
outE2, err := store.EvalByID(ws, eval2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outE2 == nil {
t.Fatalf("bad: %v", outE2)
}
outA, err := store.AllocByID(ws, alloc.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA == nil {
t.Fatalf("bad: %v", outA)
}
outA2, err := store.AllocByID(ws, alloc2.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outA2 == nil {
t.Fatalf("bad: %v", outA2)
}
}
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// This test ensures that stopped jobs are GCd
func TestCoreScheduler_JobGC_Stopped(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert job.
store := s1.fsm.State()
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job := mock.Job()
job.Stop = true
job.TaskGroups[0].ReschedulePolicy = &structs.ReschedulePolicy{
Attempts: 0,
Interval: 0 * time.Second,
}
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
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if err != nil {
t.Fatalf("err: %v", err)
}
// Insert two complete evals
eval := mock.Eval()
eval.JobID = job.ID
eval.Status = structs.EvalStatusComplete
eval2 := mock.Eval()
eval2.JobID = job.ID
eval2.Status = structs.EvalStatusComplete
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval, eval2})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Insert one complete alloc
alloc := mock.Alloc()
alloc.JobID = job.ID
alloc.EvalID = eval.ID
alloc.DesiredStatus = structs.AllocDesiredStatusStop
alloc.TaskGroup = job.TaskGroups[0].Name
err = store.UpsertAllocs(structs.MsgTypeTestSetup, 1002, []*structs.Allocation{alloc})
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if err != nil {
t.Fatalf("err: %v", err)
}
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.JobGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobJobGC, 2000)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Shouldn't still exist
ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outE, err := store.EvalByID(ws, eval.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outE != nil {
t.Fatalf("bad: %v", outE)
}
outE2, err := store.EvalByID(ws, eval2.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outE2 != nil {
t.Fatalf("bad: %v", outE2)
}
outA, err := store.AllocByID(ws, alloc.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if outA != nil {
t.Fatalf("bad: %v", outA)
}
}
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func TestCoreScheduler_JobGC_Force(t *testing.T) {
ci.Parallel(t)
for _, withAcl := range []bool{false, true} {
t.Run(fmt.Sprintf("with acl %v", withAcl), func(t *testing.T) {
var server *Server
var cleanup func()
if withAcl {
server, _, cleanup = TestACLServer(t, nil)
} else {
server, cleanup = TestServer(t, nil)
}
defer cleanup()
testutil.WaitForLeader(t, server.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
server.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert job.
store := server.fsm.State()
job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusDead
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
if err != nil {
t.Fatalf("err: %v", err)
}
// Insert a terminal eval
eval := mock.Eval()
eval.JobID = job.ID
eval.Status = structs.EvalStatusComplete
err = store.UpsertEvals(structs.MsgTypeTestSetup, 1001, []*structs.Evaluation{eval})
if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(server, snap)
// Attempt the GC
gc := server.coreJobEval(structs.CoreJobForceGC, 1002)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Shouldn't still exist
ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %v", out)
}
outE, err := store.EvalByID(ws, eval.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if outE != nil {
t.Fatalf("bad: %v", outE)
}
})
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}
}
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// This test ensures parameterized jobs only get gc'd when stopped
func TestCoreScheduler_JobGC_Parameterized(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert a parameterized job.
store := s1.fsm.State()
job := mock.Job()
job.Type = structs.JobTypeBatch
job.Status = structs.JobStatusRunning
job.ParameterizedJob = &structs.ParameterizedJobConfig{
Payload: structs.DispatchPayloadRequired,
}
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
if err != nil {
t.Fatalf("err: %v", err)
}
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// Create a core scheduler
snap, err := store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobForceGC, 1002)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should still exist
ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
// Mark the job as stopped and try again
job2 := job.Copy()
job2.Stop = true
err = store.UpsertJob(structs.MsgTypeTestSetup, 2000, job2)
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if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err = store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core = NewCoreScheduler(s1, snap)
// Attempt the GC
gc = s1.coreJobEval(structs.CoreJobForceGC, 2002)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should not exist
out, err = store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %+v", out)
}
}
// This test ensures periodic jobs don't get GCd until they are stopped
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func TestCoreScheduler_JobGC_Periodic(t *testing.T) {
ci.Parallel(t)
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s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert a parameterized job.
store := s1.fsm.State()
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job := mock.PeriodicJob()
err := store.UpsertJob(structs.MsgTypeTestSetup, 1000, job)
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if err != nil {
t.Fatalf("err: %v", err)
}
// Create a core scheduler
snap, err := store.Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobForceGC, 1002)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should still exist
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ws := memdb.NewWatchSet()
out, err := store.JobByID(ws, job.Namespace, job.ID)
if err != nil {
t.Fatalf("err: %v", err)
}
if out == nil {
t.Fatalf("bad: %v", out)
}
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// Mark the job as stopped and try again
job2 := job.Copy()
job2.Stop = true
err = store.UpsertJob(structs.MsgTypeTestSetup, 2000, job2)
if err != nil {
t.Fatalf("err: %v", err)
}
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// Create a core scheduler
snap, err = store.Snapshot()
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if err != nil {
t.Fatalf("err: %v", err)
}
core = NewCoreScheduler(s1, snap)
// Attempt the GC
gc = s1.coreJobEval(structs.CoreJobForceGC, 2002)
err = core.Process(gc)
if err != nil {
t.Fatalf("err: %v", err)
}
// Should not exist
out, err = store.JobByID(ws, job.Namespace, job.ID)
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if err != nil {
t.Fatalf("err: %v", err)
}
if out != nil {
t.Fatalf("bad: %+v", out)
}
}
func TestCoreScheduler_DeploymentGC(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
assert := assert.New(t)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
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// Insert an active, terminal, and terminal with allocations deployment
store := s1.fsm.State()
d1, d2, d3 := mock.Deployment(), mock.Deployment(), mock.Deployment()
d1.Status = structs.DeploymentStatusFailed
d3.Status = structs.DeploymentStatusSuccessful
assert.Nil(store.UpsertDeployment(1000, d1), "UpsertDeployment")
assert.Nil(store.UpsertDeployment(1001, d2), "UpsertDeployment")
assert.Nil(store.UpsertDeployment(1002, d3), "UpsertDeployment")
a := mock.Alloc()
a.JobID = d3.JobID
a.DeploymentID = d3.ID
assert.Nil(store.UpsertAllocs(structs.MsgTypeTestSetup, 1003, []*structs.Allocation{a}), "UpsertAllocs")
// Update the time tables to make this work
tt := s1.fsm.TimeTable()
tt.Witness(2000, time.Now().UTC().Add(-1*s1.config.DeploymentGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
assert.Nil(err, "Snapshot")
core := NewCoreScheduler(s1, snap)
// Attempt the GC
gc := s1.coreJobEval(structs.CoreJobDeploymentGC, 2000)
assert.Nil(core.Process(gc), "Process GC")
// Should be gone
ws := memdb.NewWatchSet()
out, err := store.DeploymentByID(ws, d1.ID)
assert.Nil(err, "DeploymentByID")
assert.Nil(out, "Terminal Deployment")
out2, err := store.DeploymentByID(ws, d2.ID)
assert.Nil(err, "DeploymentByID")
assert.NotNil(out2, "Active Deployment")
out3, err := store.DeploymentByID(ws, d3.ID)
assert.Nil(err, "DeploymentByID")
assert.NotNil(out3, "Terminal Deployment With Allocs")
}
func TestCoreScheduler_DeploymentGC_Force(t *testing.T) {
ci.Parallel(t)
for _, withAcl := range []bool{false, true} {
t.Run(fmt.Sprintf("with acl %v", withAcl), func(t *testing.T) {
var server *Server
var cleanup func()
if withAcl {
server, _, cleanup = TestACLServer(t, nil)
} else {
server, cleanup = TestServer(t, nil)
}
defer cleanup()
testutil.WaitForLeader(t, server.RPC)
assert := assert.New(t)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
server.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Insert terminal and active deployment
store := server.fsm.State()
d1, d2 := mock.Deployment(), mock.Deployment()
d1.Status = structs.DeploymentStatusFailed
assert.Nil(store.UpsertDeployment(1000, d1), "UpsertDeployment")
assert.Nil(store.UpsertDeployment(1001, d2), "UpsertDeployment")
// Create a core scheduler
snap, err := store.Snapshot()
assert.Nil(err, "Snapshot")
core := NewCoreScheduler(server, snap)
// Attempt the GC
gc := server.coreJobEval(structs.CoreJobForceGC, 1000)
assert.Nil(core.Process(gc), "Process Force GC")
// Should be gone
ws := memdb.NewWatchSet()
out, err := store.DeploymentByID(ws, d1.ID)
assert.Nil(err, "DeploymentByID")
assert.Nil(out, "Terminal Deployment")
out2, err := store.DeploymentByID(ws, d2.ID)
assert.Nil(err, "DeploymentByID")
assert.NotNil(out2, "Active Deployment")
})
}
}
func TestCoreScheduler_PartitionEvalReap(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
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// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
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// Create a core scheduler
snap, err := s1.fsm.State().Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Set the max ids per reap to something lower.
structs.MaxUUIDsPerWriteRequest = 2
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evals := []string{"a", "b", "c"}
allocs := []string{"1", "2", "3"}
requests := core.(*CoreScheduler).partitionEvalReap(evals, allocs)
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if len(requests) != 3 {
t.Fatalf("Expected 3 requests got: %v", requests)
}
first := requests[0]
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if len(first.Allocs) != 2 && len(first.Evals) != 0 {
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t.Fatalf("Unexpected first request: %v", first)
}
second := requests[1]
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if len(second.Allocs) != 1 && len(second.Evals) != 1 {
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t.Fatalf("Unexpected second request: %v", second)
}
third := requests[2]
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if len(third.Allocs) != 0 && len(third.Evals) != 2 {
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t.Fatalf("Unexpected third request: %v", third)
}
}
func TestCoreScheduler_PartitionDeploymentReap(t *testing.T) {
ci.Parallel(t)
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
testutil.WaitForLeader(t, s1.RPC)
// COMPAT Remove in 0.6: Reset the FSM time table since we reconcile which sets index 0
s1.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
// Create a core scheduler
snap, err := s1.fsm.State().Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Set the max ids per reap to something lower.
structs.MaxUUIDsPerWriteRequest = 2
deployments := []string{"a", "b", "c"}
requests := core.(*CoreScheduler).partitionDeploymentReap(deployments)
if len(requests) != 2 {
t.Fatalf("Expected 2 requests got: %v", requests)
}
first := requests[0]
if len(first.Deployments) != 2 {
t.Fatalf("Unexpected first request: %v", first)
}
second := requests[1]
if len(second.Deployments) != 1 {
t.Fatalf("Unexpected second request: %v", second)
}
}
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func TestCoreScheduler_PartitionJobReap(t *testing.T) {
s1, cleanupS1 := TestServer(t, nil)
defer cleanupS1()
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testutil.WaitForLeader(t, s1.RPC)
// Create a core scheduler
snap, err := s1.fsm.State().Snapshot()
if err != nil {
t.Fatalf("err: %v", err)
}
core := NewCoreScheduler(s1, snap)
// Set the max ids per reap to something lower.
originalMaxUUIDsPerWriteRequest := structs.MaxUUIDsPerWriteRequest
structs.MaxUUIDsPerWriteRequest = 2
defer func() {
structs.MaxUUIDsPerWriteRequest = originalMaxUUIDsPerWriteRequest
}()
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jobs := []*structs.Job{mock.Job(), mock.Job(), mock.Job()}
requests := core.(*CoreScheduler).partitionJobReap(jobs, "")
require.Len(t, requests, 2)
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first := requests[0]
second := requests[1]
require.Len(t, first.Jobs, 2)
require.Len(t, second.Jobs, 1)
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}
// Tests various scenarios when allocations are eligible to be GCed
func TestAllocation_GCEligible(t *testing.T) {
type testCase struct {
Desc string
GCTime time.Time
ClientStatus string
DesiredStatus string
JobStatus string
JobStop bool
AllocJobModifyIndex uint64
JobModifyIndex uint64
ModifyIndex uint64
NextAllocID string
ReschedulePolicy *structs.ReschedulePolicy
RescheduleTrackers []*structs.RescheduleEvent
ThresholdIndex uint64
ShouldGC bool
}
fail := time.Now()
harness := []testCase{
{
2018-04-11 20:12:23 +00:00
Desc: "Don't GC when non terminal",
ClientStatus: structs.AllocClientStatusPending,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
ModifyIndex: 90,
ThresholdIndex: 90,
ShouldGC: false,
},
{
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Desc: "Don't GC when non terminal and job stopped",
ClientStatus: structs.AllocClientStatusPending,
DesiredStatus: structs.AllocDesiredStatusRun,
JobStop: true,
GCTime: fail,
ModifyIndex: 90,
ThresholdIndex: 90,
ShouldGC: false,
},
{
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Desc: "Don't GC when non terminal and job dead",
ClientStatus: structs.AllocClientStatusPending,
DesiredStatus: structs.AllocDesiredStatusRun,
JobStatus: structs.JobStatusDead,
GCTime: fail,
ModifyIndex: 90,
ThresholdIndex: 90,
ShouldGC: false,
},
{
Desc: "Don't GC when non terminal on client and job dead",
ClientStatus: structs.AllocClientStatusRunning,
DesiredStatus: structs.AllocDesiredStatusStop,
JobStatus: structs.JobStatusDead,
GCTime: fail,
ModifyIndex: 90,
ThresholdIndex: 90,
ShouldGC: false,
},
{
Desc: "GC when terminal but not failed ",
ClientStatus: structs.AllocClientStatusComplete,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
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ModifyIndex: 90,
ThresholdIndex: 90,
ReschedulePolicy: nil,
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ShouldGC: true,
},
{
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Desc: "Don't GC when threshold not met",
ClientStatus: structs.AllocClientStatusComplete,
DesiredStatus: structs.AllocDesiredStatusStop,
GCTime: fail,
ModifyIndex: 100,
ThresholdIndex: 90,
ReschedulePolicy: nil,
ShouldGC: false,
},
{
Desc: "GC when no reschedule policy",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
ReschedulePolicy: nil,
ModifyIndex: 90,
ThresholdIndex: 90,
ShouldGC: true,
},
{
Desc: "GC when empty policy",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 0, Interval: 0 * time.Minute},
ModifyIndex: 90,
ThresholdIndex: 90,
ShouldGC: true,
},
{
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Desc: "Don't GC when no previous reschedule attempts",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
ModifyIndex: 90,
ThresholdIndex: 90,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 1, Interval: 1 * time.Minute},
ShouldGC: false,
},
{
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Desc: "Don't GC when prev reschedule attempt within interval",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 2, Interval: 30 * time.Minute},
GCTime: fail,
ModifyIndex: 90,
ThresholdIndex: 90,
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-5 * time.Minute).UTC().UnixNano(),
},
},
ShouldGC: false,
},
{
Desc: "GC with prev reschedule attempt outside interval",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 5, Interval: 30 * time.Minute},
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-45 * time.Minute).UTC().UnixNano(),
},
{
RescheduleTime: fail.Add(-60 * time.Minute).UTC().UnixNano(),
},
},
ShouldGC: true,
},
{
Desc: "GC when next alloc id is set",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 5, Interval: 30 * time.Minute},
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-3 * time.Minute).UTC().UnixNano(),
},
},
NextAllocID: uuid.Generate(),
ShouldGC: true,
},
{
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Desc: "Don't GC when next alloc id is not set and unlimited restarts",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
ReschedulePolicy: &structs.ReschedulePolicy{Unlimited: true, Delay: 5 * time.Second, DelayFunction: "constant"},
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-3 * time.Minute).UTC().UnixNano(),
},
},
ShouldGC: false,
},
{
Desc: "GC when job is stopped",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 5, Interval: 30 * time.Minute},
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-3 * time.Minute).UTC().UnixNano(),
},
},
JobStop: true,
ShouldGC: true,
},
{
Desc: "GC when job status is dead",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusRun,
GCTime: fail,
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ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 5, Interval: 30 * time.Minute},
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-3 * time.Minute).UTC().UnixNano(),
},
},
JobStatus: structs.JobStatusDead,
ShouldGC: true,
},
{
Desc: "GC when desired status is stop, unlimited reschedule policy, no previous reschedule events",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusStop,
GCTime: fail,
ReschedulePolicy: &structs.ReschedulePolicy{Unlimited: true, Delay: 5 * time.Second, DelayFunction: "constant"},
ShouldGC: true,
},
{
Desc: "GC when desired status is stop, limited reschedule policy, some previous reschedule events",
ClientStatus: structs.AllocClientStatusFailed,
DesiredStatus: structs.AllocDesiredStatusStop,
GCTime: fail,
ReschedulePolicy: &structs.ReschedulePolicy{Attempts: 5, Interval: 30 * time.Minute},
RescheduleTrackers: []*structs.RescheduleEvent{
{
RescheduleTime: fail.Add(-3 * time.Minute).UTC().UnixNano(),
},
},
ShouldGC: true,
},
}
for _, tc := range harness {
alloc := &structs.Allocation{}
alloc.ModifyIndex = tc.ModifyIndex
alloc.DesiredStatus = tc.DesiredStatus
alloc.ClientStatus = tc.ClientStatus
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alloc.RescheduleTracker = &structs.RescheduleTracker{Events: tc.RescheduleTrackers}
alloc.NextAllocation = tc.NextAllocID
job := mock.Job()
alloc.TaskGroup = job.TaskGroups[0].Name
job.TaskGroups[0].ReschedulePolicy = tc.ReschedulePolicy
if tc.JobStatus != "" {
job.Status = tc.JobStatus
}
job.Stop = tc.JobStop
t.Run(tc.Desc, func(t *testing.T) {
if got := allocGCEligible(alloc, job, tc.GCTime, tc.ThresholdIndex); got != tc.ShouldGC {
t.Fatalf("expected %v but got %v", tc.ShouldGC, got)
}
})
}
// Verify nil job
alloc := mock.Alloc()
alloc.ClientStatus = structs.AllocClientStatusComplete
require.True(t, allocGCEligible(alloc, nil, time.Now(), 1000))
}
func TestCoreScheduler_CSIPluginGC(t *testing.T) {
ci.Parallel(t)
srv, cleanupSRV := TestServer(t, nil)
defer cleanupSRV()
testutil.WaitForLeader(t, srv.RPC)
srv.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
deleteNodes := state.CreateTestCSIPlugin(srv.fsm.State(), "foo")
defer deleteNodes()
store := srv.fsm.State()
// Update the time tables to make this work
tt := srv.fsm.TimeTable()
index := uint64(2000)
tt.Witness(index, time.Now().UTC().Add(-1*srv.config.CSIPluginGCThreshold))
// Create a core scheduler
snap, err := store.Snapshot()
require.NoError(t, err)
core := NewCoreScheduler(srv, snap)
// Attempt the GC
index++
gc := srv.coreJobEval(structs.CoreJobCSIPluginGC, index)
require.NoError(t, core.Process(gc))
// Should not be gone (plugin in use)
ws := memdb.NewWatchSet()
plug, err := store.CSIPluginByID(ws, "foo")
require.NotNil(t, plug)
require.NoError(t, err)
// Empty the plugin
plug.Controllers = map[string]*structs.CSIInfo{}
plug.Nodes = map[string]*structs.CSIInfo{}
index++
err = store.UpsertCSIPlugin(index, plug)
require.NoError(t, err)
// Retry
index++
gc = srv.coreJobEval(structs.CoreJobCSIPluginGC, index)
require.NoError(t, core.Process(gc))
// Should be gone
plug, err = store.CSIPluginByID(ws, "foo")
require.Nil(t, plug)
require.NoError(t, err)
}
func TestCoreScheduler_CSIVolumeClaimGC(t *testing.T) {
srv, shutdown := TestServer(t, func(c *Config) {
c.NumSchedulers = 0 // Prevent automatic dequeue
})
defer shutdown()
testutil.WaitForLeader(t, srv.RPC)
codec := rpcClient(t, srv)
index := uint64(1)
volID := uuid.Generate()
ns := structs.DefaultNamespace
pluginID := "foo"
store := srv.fsm.State()
ws := memdb.NewWatchSet()
index, _ = store.LatestIndex()
// Create client node and plugin
node := mock.Node()
node.Attributes["nomad.version"] = "0.11.0" // needs client RPCs
node.CSINodePlugins = map[string]*structs.CSIInfo{
pluginID: {
PluginID: pluginID,
Healthy: true,
NodeInfo: &structs.CSINodeInfo{},
},
}
index++
err := store.UpsertNode(structs.MsgTypeTestSetup, index, node)
require.NoError(t, err)
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
// *Important*: for volume writes in this test we must use RPCs
// rather than StateStore methods directly, or the blocking query
// in volumewatcher won't get the final update for GC because it's
// watching on a different store at that point
// Register a volume
vols := []*structs.CSIVolume{{
ID: volID,
Namespace: ns,
PluginID: pluginID,
Topologies: []*structs.CSITopology{},
RequestedCapabilities: []*structs.CSIVolumeCapability{{
AccessMode: structs.CSIVolumeAccessModeMultiNodeSingleWriter,
AttachmentMode: structs.CSIVolumeAttachmentModeFilesystem,
}},
}}
volReq := &structs.CSIVolumeRegisterRequest{Volumes: vols}
volReq.Namespace = ns
volReq.Region = srv.config.Region
err = msgpackrpc.CallWithCodec(codec, "CSIVolume.Register",
volReq, &structs.CSIVolumeRegisterResponse{})
require.NoError(t, err)
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
// Create a job with two allocs that claim the volume.
// We use two allocs here, one of which is not running, so
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
// that we can assert the volumewatcher has made one
// complete pass (and removed the 2nd alloc) before we
// run the GC
eval := mock.Eval()
eval.Status = structs.EvalStatusFailed
index++
store.UpsertJobSummary(index, mock.JobSummary(eval.JobID))
index++
err = store.UpsertEvals(structs.MsgTypeTestSetup, index, []*structs.Evaluation{eval})
require.Nil(t, err)
job := mock.Job()
job.ID = eval.JobID
job.Status = structs.JobStatusRunning
index++
err = store.UpsertJob(structs.MsgTypeTestSetup, index, job)
require.NoError(t, err)
alloc1, alloc2 := mock.Alloc(), mock.Alloc()
alloc1.NodeID = node.ID
alloc1.ClientStatus = structs.AllocClientStatusRunning
alloc1.Job = job
alloc1.JobID = job.ID
alloc1.EvalID = eval.ID
alloc2.NodeID = node.ID
alloc2.ClientStatus = structs.AllocClientStatusComplete
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
alloc2.DesiredStatus = structs.AllocDesiredStatusStop
alloc2.Job = job
alloc2.JobID = job.ID
alloc2.EvalID = eval.ID
summary := mock.JobSummary(alloc1.JobID)
index++
require.NoError(t, store.UpsertJobSummary(index, summary))
summary = mock.JobSummary(alloc2.JobID)
index++
require.NoError(t, store.UpsertJobSummary(index, summary))
index++
require.NoError(t, store.UpsertAllocs(structs.MsgTypeTestSetup, index, []*structs.Allocation{alloc1, alloc2}))
req := &structs.CSIVolumeClaimRequest{
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
VolumeID: volID,
AllocationID: alloc1.ID,
NodeID: uuid.Generate(), // doesn't exist so we don't get errors trying to unmount volumes from it
Claim: structs.CSIVolumeClaimWrite,
AccessMode: structs.CSIVolumeAccessModeMultiNodeMultiWriter,
AttachmentMode: structs.CSIVolumeAttachmentModeFilesystem,
State: structs.CSIVolumeClaimStateTaken,
WriteRequest: structs.WriteRequest{
Namespace: ns,
Region: srv.config.Region,
},
}
err = msgpackrpc.CallWithCodec(codec, "CSIVolume.Claim",
req, &structs.CSIVolumeClaimResponse{})
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
require.NoError(t, err, "write claim should succeed")
req.AllocationID = alloc2.ID
req.State = structs.CSIVolumeClaimStateUnpublishing
err = msgpackrpc.CallWithCodec(codec, "CSIVolume.Claim",
req, &structs.CSIVolumeClaimResponse{})
require.NoError(t, err, "unpublishing claim should succeed")
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
require.Eventually(t, func() bool {
vol, err := store.CSIVolumeByID(ws, ns, volID)
require.NoError(t, err)
return len(vol.WriteClaims) == 1 &&
len(vol.WriteAllocs) == 1 &&
len(vol.PastClaims) == 0
}, time.Second*1, 100*time.Millisecond,
"volumewatcher should have released unpublishing claim without GC")
// At this point we can guarantee that volumewatcher is waiting
// for new work. Delete allocation and job so that the next pass
// thru volumewatcher has more work to do
index, _ = store.LatestIndex()
index++
err = store.DeleteJob(index, ns, job.ID)
require.NoError(t, err)
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
index, _ = store.LatestIndex()
index++
err = store.DeleteEval(index, []string{eval.ID}, []string{alloc1.ID}, false)
require.NoError(t, err)
// Create a core scheduler and attempt the volume claim GC
snap, err := store.Snapshot()
require.NoError(t, err)
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
core := NewCoreScheduler(srv, snap)
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
index, _ = snap.LatestIndex()
index++
gc := srv.coreJobEval(structs.CoreJobForceGC, index)
c := core.(*CoreScheduler)
require.NoError(t, c.csiVolumeClaimGC(gc))
CSI: volume watcher shutdown fixes (#12439) The volume watcher design was based on deploymentwatcher and drainer, but has an important difference: we don't want to maintain a goroutine for the lifetime of the volume. So we stop the volumewatcher goroutine for a volume when that volume has no more claims to free. But the shutdown races with updates on the parent goroutine, and it's possible to drop updates. Fortunately these updates are picked up on the next core GC job, but we're most likely to hit this race when we're replacing an allocation and that's the time we least want to wait. Wait until the volume has "settled" before stopping this goroutine so that the race between shutdown and the parent goroutine sending on `<-updateCh` is pushed to after the window we most care about quick freeing of claims. * Fixes a resource leak when volumewatchers are no longer needed. The volume is nil and can't ever be started again, so the volume's `watcher` should be removed from the top-level `Watcher`. * De-flakes the GC job test: the test throws an error because the claimed node doesn't exist and is unreachable. This flaked instead of failed because we didn't correctly wait for the first pass through the volumewatcher. Make the GC job wait for the volumewatcher to reach the quiescent timeout window state before running the GC eval under test, so that we're sure the GC job's work isn't being picked up by processing one of the earlier claims. Update the claims used so that we're sure the GC pass won't hit a node unpublish error. * Adds trace logging to unpublish operations
2022-04-04 14:46:45 +00:00
// the only remaining claim is for a deleted alloc with no path to
// the non-existent node, so volumewatcher will release the
// remaining claim
require.Eventually(t, func() bool {
vol, _ := store.CSIVolumeByID(ws, ns, volID)
CSI: reorder controller volume detachment (#12387) In #12112 and #12113 we solved for the problem of races in releasing volume claims, but there was a case that we missed. During a node drain with a controller attach/detach, we can hit a race where we call controller publish before the unpublish has completed. This is discouraged in the spec but plugins are supposed to handle it safely. But if the storage provider's API is slow enough and the plugin doesn't handle the case safely, the volume can get "locked" into a state where the provider's API won't detach it cleanly. Check the claim before making any external controller publish RPC calls so that Nomad is responsible for the canonical information about whether a volume is currently claimed. This has a couple side-effects that also had to get fixed here: * Changing the order means that the volume will have a past claim without a valid external node ID because it came from the client, and this uncovered a separate bug where we didn't assert the external node ID was valid before returning it. Fallthrough to getting the ID from the plugins in the state store in this case. We avoided this originally because of concerns around plugins getting lost during node drain but now that we've fixed that we may want to revisit it in future work. * We should make sure we're handling `FailedPrecondition` cases from the controller plugin the same way we handle other retryable cases. * Several tests had to be updated because they were assuming we fail in a particular order that we're no longer doing.
2022-03-29 13:44:00 +00:00
return len(vol.WriteClaims) == 0 &&
len(vol.WriteAllocs) == 0 &&
len(vol.PastClaims) == 0
}, time.Second*2, 10*time.Millisecond, "claims were not released")
}
func TestCoreScheduler_CSIBadState_ClaimGC(t *testing.T) {
ci.Parallel(t)
srv, shutdown := TestServer(t, func(c *Config) {
c.NumSchedulers = 0 // Prevent automatic dequeue
})
defer shutdown()
testutil.WaitForLeader(t, srv.RPC)
err := state.TestBadCSIState(t, srv.State())
require.NoError(t, err)
snap, err := srv.State().Snapshot()
require.NoError(t, err)
core := NewCoreScheduler(srv, snap)
index, _ := srv.State().LatestIndex()
index++
gc := srv.coreJobEval(structs.CoreJobForceGC, index)
c := core.(*CoreScheduler)
require.NoError(t, c.csiVolumeClaimGC(gc))
require.Eventually(t, func() bool {
vol, _ := srv.State().CSIVolumeByID(nil,
structs.DefaultNamespace, "csi-volume-nfs0")
if len(vol.PastClaims) != 2 {
return false
}
for _, claim := range vol.PastClaims {
if claim.State != structs.CSIVolumeClaimStateUnpublishing {
return false
}
}
return true
}, time.Second*1, 10*time.Millisecond, "invalid claims should be marked for GC")
}
// TestCoreScheduler_RootKeyGC exercises root key GC
func TestCoreScheduler_RootKeyGC(t *testing.T) {
ci.Parallel(t)
srv, cleanup := TestServer(t, nil)
defer cleanup()
testutil.WaitForLeader(t, srv.RPC)
// reset the time table
srv.fsm.timetable.table = make([]TimeTableEntry, 1, 10)
store := srv.fsm.State()
key0, err := store.GetActiveRootKeyMeta(nil)
require.NotNil(t, key0, "expected keyring to be bootstapped")
require.NoError(t, err)
// insert an "old" and inactive key
key1 := structs.NewRootKeyMeta()
key1.Active = false
require.NoError(t, store.UpsertRootKeyMeta(500, key1))
// insert an "old" and inactive key with a variable that's using it
key2 := structs.NewRootKeyMeta()
key2.Active = false
require.NoError(t, store.UpsertRootKeyMeta(600, key2))
variable := mock.SecureVariableEncrypted()
variable.KeyID = key2.KeyID
require.NoError(t, store.UpsertSecureVariables(
structs.MsgTypeTestSetup, 601, []*structs.SecureVariableEncrypted{variable}))
// insert a time table index between the two keys
tt := srv.fsm.TimeTable()
tt.Witness(1000, time.Now().UTC().Add(-1*srv.config.RootKeyGCThreshold))
// insert a "new" but inactive key
key3 := structs.NewRootKeyMeta()
key3.Active = false
require.NoError(t, store.UpsertRootKeyMeta(1500, key3))
// run the core job
snap, err := store.Snapshot()
require.NoError(t, err)
core := NewCoreScheduler(srv, snap)
eval := srv.coreJobEval(structs.CoreJobRootKeyGC, 2000)
c := core.(*CoreScheduler)
require.NoError(t, c.rootKeyGC(eval))
ws := memdb.NewWatchSet()
key, err := store.RootKeyMetaByID(ws, key0.KeyID)
require.NoError(t, err)
require.NotNil(t, key, "active key should not have been GCd")
key, err = store.RootKeyMetaByID(ws, key1.KeyID)
require.NoError(t, err)
require.Nil(t, key, "old key should have been GCd")
key, err = store.RootKeyMetaByID(ws, key2.KeyID)
require.NoError(t, err)
require.NotNil(t, key, "old key should not have been GCd if still in use")
key, err = store.RootKeyMetaByID(ws, key3.KeyID)
require.NoError(t, err)
require.NotNil(t, key, "new key should not have been GCd")
}
func TestCoreScheduler_FailLoop(t *testing.T) {
ci.Parallel(t)
srv, cleanupSrv := TestServer(t, func(c *Config) {
c.NumSchedulers = 0 // Prevent automatic dequeue
c.EvalDeliveryLimit = 2
c.EvalFailedFollowupBaselineDelay = time.Duration(50 * time.Millisecond)
c.EvalFailedFollowupDelayRange = time.Duration(1 * time.Millisecond)
})
defer cleanupSrv()
codec := rpcClient(t, srv)
sched := []string{structs.JobTypeCore}
testutil.WaitForResult(func() (bool, error) {
return srv.evalBroker.Enabled(), nil
}, func(err error) {
t.Fatalf("should enable eval broker")
})
// Enqueue a core job eval that can never succeed because it was enqueued
// by another leader that's now gone
expected := srv.coreJobEval(structs.CoreJobCSIPluginGC, 100)
expected.LeaderACL = "nonsense"
srv.evalBroker.Enqueue(expected)
nack := func(evalID, token string) error {
req := &structs.EvalAckRequest{
EvalID: evalID,
Token: token,
WriteRequest: structs.WriteRequest{Region: "global"},
}
var resp structs.GenericResponse
return msgpackrpc.CallWithCodec(codec, "Eval.Nack", req, &resp)
}
out, token, err := srv.evalBroker.Dequeue(sched, time.Second*5)
require.NoError(t, err)
require.NotNil(t, out)
require.Equal(t, expected, out)
// first fail
require.NoError(t, nack(out.ID, token))
out, token, err = srv.evalBroker.Dequeue(sched, time.Second*5)
require.NoError(t, err)
require.NotNil(t, out)
require.Equal(t, expected, out)
// second fail, should not result in failed-follow-up
require.NoError(t, nack(out.ID, token))
out, token, err = srv.evalBroker.Dequeue(sched, time.Second*5)
require.NoError(t, err)
if out != nil {
t.Fatalf(
"failed core jobs should not result in follow-up. TriggeredBy: %v",
out.TriggeredBy)
}
}