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dendrite/syncapi/storage/storage_test.go
Till eb29a31550
Optimize /sync and history visibility (#2961)
Should fix the following issues or make a lot less worse when using
Postgres:

The main issue behind #2911: The client gives up after a certain time,
causing a cascade of context errors, because the response couldn't be
built up fast enough. This mostly happens on accounts with many rooms,
due to the inefficient way we're getting recent events and current state

For #2777: The queries for getting the membership events for history
visibility were being executed for each room (I think 185?), resulting
in a whooping 2k queries for membership events. (Getting the
statesnapshot -> block nids -> actual wanted membership event)

Both should now be better by:
- Using a LATERAL join to get all recent events for all joined rooms in
one go (TODO: maybe do the same for room summary and current state etc)
- If we're lazy loading on initial syncs, we're now not getting the
whole current state, just to drop the majority of it because we're lazy
loading members - we add a filter to exclude membership events on the
first call to `CurrentState`.
- Using an optimized query to get the membership events needed to
calculate history visibility

---------

Co-authored-by: kegsay <kegan@matrix.org>
2023-02-07 14:31:23 +01:00

987 lines
35 KiB
Go

package storage_test
import (
"bytes"
"context"
"encoding/json"
"fmt"
"math"
"reflect"
"testing"
"github.com/matrix-org/dendrite/setup/config"
"github.com/matrix-org/dendrite/syncapi/storage"
"github.com/matrix-org/dendrite/syncapi/types"
"github.com/matrix-org/dendrite/test"
"github.com/matrix-org/dendrite/test/testrig"
"github.com/matrix-org/gomatrixserverlib"
"github.com/stretchr/testify/assert"
)
var ctx = context.Background()
func MustCreateDatabase(t *testing.T, dbType test.DBType) (storage.Database, func(), func()) {
connStr, close := test.PrepareDBConnectionString(t, dbType)
base, closeBase := testrig.CreateBaseDendrite(t, dbType)
db, err := storage.NewSyncServerDatasource(base, &config.DatabaseOptions{
ConnectionString: config.DataSource(connStr),
})
if err != nil {
t.Fatalf("NewSyncServerDatasource returned %s", err)
}
return db, close, closeBase
}
func MustWriteEvents(t *testing.T, db storage.Database, events []*gomatrixserverlib.HeaderedEvent) (positions []types.StreamPosition) {
for _, ev := range events {
var addStateEvents []*gomatrixserverlib.HeaderedEvent
var addStateEventIDs []string
var removeStateEventIDs []string
if ev.StateKey() != nil {
addStateEvents = append(addStateEvents, ev)
addStateEventIDs = append(addStateEventIDs, ev.EventID())
}
pos, err := db.WriteEvent(ctx, ev, addStateEvents, addStateEventIDs, removeStateEventIDs, nil, false, gomatrixserverlib.HistoryVisibilityShared)
if err != nil {
t.Fatalf("WriteEvent failed: %s", err)
}
t.Logf("Event ID %s spos=%v depth=%v", ev.EventID(), pos, ev.Depth())
positions = append(positions, pos)
}
return
}
func TestWriteEvents(t *testing.T) {
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
alice := test.NewUser(t)
r := test.NewRoom(t, alice)
db, close, closeBase := MustCreateDatabase(t, dbType)
defer close()
defer closeBase()
MustWriteEvents(t, db, r.Events())
})
}
func WithSnapshot(t *testing.T, db storage.Database, f func(snapshot storage.DatabaseTransaction)) {
snapshot, err := db.NewDatabaseSnapshot(ctx)
if err != nil {
t.Fatal(err)
}
f(snapshot)
if err := snapshot.Rollback(); err != nil {
t.Fatal(err)
}
}
// These tests assert basic functionality of RecentEvents for PDUs
func TestRecentEventsPDU(t *testing.T) {
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
db, close, closeBase := MustCreateDatabase(t, dbType)
defer close()
defer closeBase()
alice := test.NewUser(t)
// dummy room to make sure SQL queries are filtering on room ID
MustWriteEvents(t, db, test.NewRoom(t, alice).Events())
// actual test room
r := test.NewRoom(t, alice)
r.CreateAndInsert(t, alice, "m.room.message", map[string]interface{}{"body": "hi"})
events := r.Events()
positions := MustWriteEvents(t, db, events)
// dummy room to make sure SQL queries are filtering on room ID
MustWriteEvents(t, db, test.NewRoom(t, alice).Events())
var latest types.StreamPosition
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
var err error
if latest, err = snapshot.MaxStreamPositionForPDUs(ctx); err != nil {
t.Fatal("failed to get MaxStreamPositionForPDUs: %w", err)
}
})
testCases := []struct {
Name string
From types.StreamPosition
To types.StreamPosition
Limit int
ReverseOrder bool
WantEvents []*gomatrixserverlib.HeaderedEvent
WantLimited bool
}{
// The purpose of this test is to make sure that incremental syncs are including up to the latest events.
// It's a basic sanity test that sync works. It creates a streaming position that is on the penultimate event.
// It makes sure the response includes the final event.
{
Name: "penultimate",
From: positions[len(positions)-2], // pretend we are at the penultimate event
To: latest,
Limit: 100,
WantEvents: events[len(events)-1:],
WantLimited: false,
},
// The purpose of this test is to check that limits can be applied and work.
// This is critical for big rooms hence the test here.
{
Name: "limited",
From: 0,
To: latest,
Limit: 1,
WantEvents: events[len(events)-1:],
WantLimited: true,
},
// The purpose of this test is to check that we can return every event with a high
// enough limit
{
Name: "large limited",
From: 0,
To: latest,
Limit: 100,
WantEvents: events,
WantLimited: false,
},
// The purpose of this test is to check that we can return events in reverse order
{
Name: "reverse",
From: positions[len(positions)-3], // 2 events back
To: latest,
Limit: 100,
ReverseOrder: true,
WantEvents: test.Reversed(events[len(events)-2:]),
WantLimited: false,
},
}
for i := range testCases {
tc := testCases[i]
t.Run(tc.Name, func(st *testing.T) {
var filter gomatrixserverlib.RoomEventFilter
var gotEvents map[string]types.RecentEvents
var limited bool
filter.Limit = tc.Limit
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
var err error
gotEvents, err = snapshot.RecentEvents(ctx, []string{r.ID}, types.Range{
From: tc.From,
To: tc.To,
}, &filter, !tc.ReverseOrder, true)
if err != nil {
st.Fatalf("failed to do sync: %s", err)
}
})
streamEvents := gotEvents[r.ID]
limited = streamEvents.Limited
if limited != tc.WantLimited {
st.Errorf("got limited=%v want %v", limited, tc.WantLimited)
}
if len(streamEvents.Events) != len(tc.WantEvents) {
st.Errorf("got %d events, want %d", len(gotEvents), len(tc.WantEvents))
}
for j := range streamEvents.Events {
if !reflect.DeepEqual(streamEvents.Events[j].JSON(), tc.WantEvents[j].JSON()) {
st.Errorf("event %d got %s want %s", j, string(streamEvents.Events[j].JSON()), string(tc.WantEvents[j].JSON()))
}
}
})
}
})
}
// The purpose of this test is to ensure that backfill does indeed go backwards, using a topology token
func TestGetEventsInRangeWithTopologyToken(t *testing.T) {
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
db, close, closeBase := MustCreateDatabase(t, dbType)
defer close()
defer closeBase()
alice := test.NewUser(t)
r := test.NewRoom(t, alice)
for i := 0; i < 10; i++ {
r.CreateAndInsert(t, alice, "m.room.message", map[string]interface{}{"body": fmt.Sprintf("hi %d", i)})
}
events := r.Events()
_ = MustWriteEvents(t, db, events)
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
from := types.TopologyToken{Depth: math.MaxInt64, PDUPosition: math.MaxInt64}
t.Logf("max topo pos = %+v", from)
// head towards the beginning of time
to := types.TopologyToken{}
// backpaginate 5 messages starting at the latest position.
filter := &gomatrixserverlib.RoomEventFilter{Limit: 5}
paginatedEvents, err := snapshot.GetEventsInTopologicalRange(ctx, &from, &to, r.ID, filter, true)
if err != nil {
t.Fatalf("GetEventsInTopologicalRange returned an error: %s", err)
}
gots := snapshot.StreamEventsToEvents(nil, paginatedEvents)
test.AssertEventsEqual(t, gots, test.Reversed(events[len(events)-5:]))
})
})
}
func TestStreamToTopologicalPosition(t *testing.T) {
alice := test.NewUser(t)
r := test.NewRoom(t, alice)
testCases := []struct {
name string
roomID string
streamPos types.StreamPosition
backwardOrdering bool
wantToken types.TopologyToken
}{
{
name: "forward ordering found streamPos returns found position",
roomID: r.ID,
streamPos: 1,
backwardOrdering: false,
wantToken: types.TopologyToken{Depth: 1, PDUPosition: 1},
},
{
name: "forward ordering not found streamPos returns max position",
roomID: r.ID,
streamPos: 100,
backwardOrdering: false,
wantToken: types.TopologyToken{Depth: math.MaxInt64, PDUPosition: math.MaxInt64},
},
{
name: "backward ordering found streamPos returns found position",
roomID: r.ID,
streamPos: 1,
backwardOrdering: true,
wantToken: types.TopologyToken{Depth: 1, PDUPosition: 1},
},
{
name: "backward ordering not found streamPos returns maxDepth with param pduPosition",
roomID: r.ID,
streamPos: 100,
backwardOrdering: true,
wantToken: types.TopologyToken{Depth: 5, PDUPosition: 100},
},
{
name: "backward non-existent room returns zero token",
roomID: "!doesnotexist:localhost",
streamPos: 1,
backwardOrdering: true,
wantToken: types.TopologyToken{Depth: 0, PDUPosition: 1},
},
{
name: "forward non-existent room returns max token",
roomID: "!doesnotexist:localhost",
streamPos: 1,
backwardOrdering: false,
wantToken: types.TopologyToken{Depth: math.MaxInt64, PDUPosition: math.MaxInt64},
},
}
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
db, close, closeBase := MustCreateDatabase(t, dbType)
defer close()
defer closeBase()
txn, err := db.NewDatabaseTransaction(ctx)
if err != nil {
t.Fatal(err)
}
defer txn.Rollback()
MustWriteEvents(t, db, r.Events())
for _, tc := range testCases {
t.Run(tc.name, func(t *testing.T) {
token, err := txn.StreamToTopologicalPosition(ctx, tc.roomID, tc.streamPos, tc.backwardOrdering)
if err != nil {
t.Fatal(err)
}
if tc.wantToken != token {
t.Fatalf("expected token %q, got %q", tc.wantToken, token)
}
})
}
})
}
/*
// The purpose of this test is to make sure that backpagination returns all events, even if some events have the same depth.
// For cases where events have the same depth, the streaming token should be used to tie break so events written via WriteEvent
// will appear FIRST when going backwards. This test creates a DAG like:
// .-----> Message ---.
// Create -> Membership --------> Message -------> Message
// `-----> Message ---`
// depth 1 2 3 4
//
// With a total depth of 4. It tests that:
// - Backpagination over the whole fork should include all messages and not leave any out.
// - Backpagination from the middle of the fork should not return duplicates (things later than the token).
func TestGetEventsInRangeWithEventsSameDepth(t *testing.T) {
t.Parallel()
db := MustCreateDatabase(t)
var events []*gomatrixserverlib.HeaderedEvent
events = append(events, MustCreateEvent(t, testRoomID, nil, &gomatrixserverlib.EventBuilder{
Content: []byte(fmt.Sprintf(`{"room_version":"4","creator":"%s"}`, testUserIDA)),
Type: "m.room.create",
StateKey: &emptyStateKey,
Sender: testUserIDA,
Depth: int64(len(events) + 1),
}))
events = append(events, MustCreateEvent(t, testRoomID, []*gomatrixserverlib.HeaderedEvent{events[len(events)-1]}, &gomatrixserverlib.EventBuilder{
Content: []byte(`{"membership":"join"}`),
Type: "m.room.member",
StateKey: &testUserIDA,
Sender: testUserIDA,
Depth: int64(len(events) + 1),
}))
// fork the dag into three, same prev_events and depth
parent := []*gomatrixserverlib.HeaderedEvent{events[len(events)-1]}
depth := int64(len(events) + 1)
for i := 0; i < 3; i++ {
events = append(events, MustCreateEvent(t, testRoomID, parent, &gomatrixserverlib.EventBuilder{
Content: []byte(fmt.Sprintf(`{"body":"Message A %d"}`, i+1)),
Type: "m.room.message",
Sender: testUserIDA,
Depth: depth,
}))
}
// merge the fork, prev_events are all 3 messages, depth is increased by 1.
events = append(events, MustCreateEvent(t, testRoomID, events[len(events)-3:], &gomatrixserverlib.EventBuilder{
Content: []byte(`{"body":"Message merge"}`),
Type: "m.room.message",
Sender: testUserIDA,
Depth: depth + 1,
}))
MustWriteEvents(t, db, events)
fromLatest, err := db.EventPositionInTopology(ctx, events[len(events)-1].EventID())
if err != nil {
t.Fatalf("failed to get EventPositionInTopology: %s", err)
}
fromFork, err := db.EventPositionInTopology(ctx, events[len(events)-3].EventID()) // Message 2
if err != nil {
t.Fatalf("failed to get EventPositionInTopology for event: %s", err)
}
// head towards the beginning of time
to := types.TopologyToken{}
testCases := []struct {
Name string
From types.TopologyToken
Limit int
Wants []*gomatrixserverlib.HeaderedEvent
}{
{
Name: "Pagination over the whole fork",
From: fromLatest,
Limit: 5,
Wants: reversed(events[len(events)-5:]),
},
{
Name: "Paginating to the middle of the fork",
From: fromLatest,
Limit: 2,
Wants: reversed(events[len(events)-2:]),
},
{
Name: "Pagination FROM the middle of the fork",
From: fromFork,
Limit: 3,
Wants: reversed(events[len(events)-5 : len(events)-2]),
},
}
for _, tc := range testCases {
// backpaginate messages starting at the latest position.
paginatedEvents, err := db.GetEventsInTopologicalRange(ctx, &tc.From, &to, testRoomID, tc.Limit, true)
if err != nil {
t.Fatalf("%s GetEventsInRange returned an error: %s", tc.Name, err)
}
gots := gomatrixserverlib.HeaderedToClientEvents(db.StreamEventsToEvents(&testUserDeviceA, paginatedEvents), gomatrixserverlib.FormatAll)
assertEventsEqual(t, tc.Name, true, gots, tc.Wants)
}
}
// The purpose of this test is to make sure that the query to pull out events is honouring the room ID correctly.
// It works by creating two rooms with the same events in them, then selecting events by topological range.
// Specifically, we know that events with the same depth but lower stream positions are selected, and it's possible
// that this check isn't using the room ID if the brackets are wrong in the SQL query.
func TestGetEventsInTopologicalRangeMultiRoom(t *testing.T) {
t.Parallel()
db := MustCreateDatabase(t)
makeEvents := func(roomID string) (events []*gomatrixserverlib.HeaderedEvent) {
events = append(events, MustCreateEvent(t, roomID, nil, &gomatrixserverlib.EventBuilder{
Content: []byte(fmt.Sprintf(`{"room_version":"4","creator":"%s"}`, testUserIDA)),
Type: "m.room.create",
StateKey: &emptyStateKey,
Sender: testUserIDA,
Depth: int64(len(events) + 1),
}))
events = append(events, MustCreateEvent(t, roomID, []*gomatrixserverlib.HeaderedEvent{events[len(events)-1]}, &gomatrixserverlib.EventBuilder{
Content: []byte(`{"membership":"join"}`),
Type: "m.room.member",
StateKey: &testUserIDA,
Sender: testUserIDA,
Depth: int64(len(events) + 1),
}))
return
}
roomA := "!room_a:" + string(testOrigin)
roomB := "!room_b:" + string(testOrigin)
eventsA := makeEvents(roomA)
eventsB := makeEvents(roomB)
MustWriteEvents(t, db, eventsA)
MustWriteEvents(t, db, eventsB)
from, err := db.MaxTopologicalPosition(ctx, roomB)
if err != nil {
t.Fatalf("failed to get MaxTopologicalPosition: %s", err)
}
// head towards the beginning of time
to := types.TopologyToken{}
// Query using room B as room A was inserted first and hence A will have lower stream positions but identical depths,
// allowing this bug to surface.
paginatedEvents, err := db.GetEventsInTopologicalRange(ctx, &from, &to, roomB, 5, true)
if err != nil {
t.Fatalf("GetEventsInRange returned an error: %s", err)
}
gots := gomatrixserverlib.HeaderedToClientEvents(db.StreamEventsToEvents(&testUserDeviceA, paginatedEvents), gomatrixserverlib.FormatAll)
assertEventsEqual(t, "", true, gots, reversed(eventsB))
}
// The purpose of this test is to make sure that events are returned in the right *order* when they have been inserted in a manner similar to
// how any kind of backfill operation will insert the events. This test inserts the SimpleRoom events in a manner similar to how backfill over
// federation would:
// - First inserts join event of test user C
// - Inserts chunks of history in strata e.g (25-30, 20-25, 15-20, 10-15, 5-10, 0-5).
// The test then does a backfill to ensure that the response is ordered correctly according to depth.
func TestGetEventsInRangeWithEventsInsertedLikeBackfill(t *testing.T) {
t.Parallel()
db := MustCreateDatabase(t)
events, _ := SimpleRoom(t, testRoomID, testUserIDA, testUserIDB)
// "federation" join
userC := fmt.Sprintf("@radiance:%s", testOrigin)
joinEvent := MustCreateEvent(t, testRoomID, []*gomatrixserverlib.HeaderedEvent{events[len(events)-1]}, &gomatrixserverlib.EventBuilder{
Content: []byte(`{"membership":"join"}`),
Type: "m.room.member",
StateKey: &userC,
Sender: userC,
Depth: int64(len(events) + 1),
})
MustWriteEvents(t, db, []*gomatrixserverlib.HeaderedEvent{joinEvent})
// Sync will return this for the prev_batch
from := topologyTokenBefore(t, db, joinEvent.EventID())
// inject events in batches as if they were from backfill
// e.g [1,2,3,4,5,6] => [4,5,6] , [1,2,3]
chunkSize := 5
for i := len(events); i >= 0; i -= chunkSize {
start := i - chunkSize
if start < 0 {
start = 0
}
backfill := events[start:i]
MustWriteEvents(t, db, backfill)
}
// head towards the beginning of time
to := types.TopologyToken{}
// starting at `from`, backpaginate to the beginning of time, asserting as we go.
chunkSize = 3
events = reversed(events)
for i := 0; i < len(events); i += chunkSize {
paginatedEvents, err := db.GetEventsInTopologicalRange(ctx, from, &to, testRoomID, chunkSize, true)
if err != nil {
t.Fatalf("GetEventsInRange returned an error: %s", err)
}
gots := gomatrixserverlib.HeaderedToClientEvents(db.StreamEventsToEvents(&testUserDeviceA, paginatedEvents), gomatrixserverlib.FormatAll)
endi := i + chunkSize
if endi > len(events) {
endi = len(events)
}
assertEventsEqual(t, from.String(), true, gots, events[i:endi])
from = topologyTokenBefore(t, db, paginatedEvents[len(paginatedEvents)-1].EventID())
}
}
*/
func TestSendToDeviceBehaviour(t *testing.T) {
t.Parallel()
alice := test.NewUser(t)
bob := test.NewUser(t)
deviceID := "one"
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
db, close, closeBase := MustCreateDatabase(t, dbType)
defer close()
defer closeBase()
// At this point there should be no messages. We haven't sent anything
// yet.
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
_, events, err := snapshot.SendToDeviceUpdatesForSync(ctx, alice.ID, deviceID, 0, 100)
if err != nil {
t.Fatal(err)
}
if len(events) != 0 {
t.Fatal("first call should have no updates")
}
})
// Try sending a message.
streamPos, err := db.StoreNewSendForDeviceMessage(ctx, alice.ID, deviceID, gomatrixserverlib.SendToDeviceEvent{
Sender: bob.ID,
Type: "m.type",
Content: json.RawMessage("{}"),
})
if err != nil {
t.Fatal(err)
}
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
// At this point we should get exactly one message. We're sending the sync position
// that we were given from the update and the send-to-device update will be updated
// in the database to reflect that this was the sync position we sent the message at.
var events []types.SendToDeviceEvent
streamPos, events, err = snapshot.SendToDeviceUpdatesForSync(ctx, alice.ID, deviceID, 0, streamPos)
if err != nil {
t.Fatal(err)
}
if count := len(events); count != 1 {
t.Fatalf("second call should have one update, got %d", count)
}
// At this point we should still have one message because we haven't progressed the
// sync position yet. This is equivalent to the client failing to /sync and retrying
// with the same position.
streamPos, events, err = snapshot.SendToDeviceUpdatesForSync(ctx, alice.ID, deviceID, 0, streamPos)
if err != nil {
t.Fatal(err)
}
if len(events) != 1 {
t.Fatal("third call should have one update still")
}
})
err = db.CleanSendToDeviceUpdates(context.Background(), alice.ID, deviceID, streamPos)
if err != nil {
return
}
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
// At this point we should now have no updates, because we've progressed the sync
// position. Therefore the update from before will not be sent again.
var events []types.SendToDeviceEvent
_, events, err = snapshot.SendToDeviceUpdatesForSync(ctx, alice.ID, deviceID, streamPos, streamPos+10)
if err != nil {
t.Fatal(err)
}
if len(events) != 0 {
t.Fatal("fourth call should have no updates")
}
// At this point we should still have no updates, because no new updates have been
// sent.
_, events, err = snapshot.SendToDeviceUpdatesForSync(ctx, alice.ID, deviceID, streamPos, streamPos+10)
if err != nil {
t.Fatal(err)
}
if len(events) != 0 {
t.Fatal("fifth call should have no updates")
}
})
// Send some more messages and verify the ordering is correct ("in order of arrival")
var lastPos types.StreamPosition = 0
for i := 0; i < 10; i++ {
streamPos, err = db.StoreNewSendForDeviceMessage(ctx, alice.ID, deviceID, gomatrixserverlib.SendToDeviceEvent{
Sender: bob.ID,
Type: "m.type",
Content: json.RawMessage(fmt.Sprintf(`{"count":%d}`, i)),
})
if err != nil {
t.Fatal(err)
}
lastPos = streamPos
}
WithSnapshot(t, db, func(snapshot storage.DatabaseTransaction) {
_, events, err := snapshot.SendToDeviceUpdatesForSync(ctx, alice.ID, deviceID, 0, lastPos)
if err != nil {
t.Fatalf("unable to get events: %v", err)
}
for i := 0; i < 10; i++ {
want := json.RawMessage(fmt.Sprintf(`{"count":%d}`, i))
got := events[i].Content
if !bytes.Equal(got, want) {
t.Fatalf("messages are out of order\nwant: %s\ngot: %s", string(want), string(got))
}
}
})
})
}
/*
func TestInviteBehaviour(t *testing.T) {
db := MustCreateDatabase(t)
inviteRoom1 := "!inviteRoom1:somewhere"
inviteEvent1 := MustCreateEvent(t, inviteRoom1, nil, &gomatrixserverlib.EventBuilder{
Content: []byte(`{"membership":"invite"}`),
Type: "m.room.member",
StateKey: &testUserIDA,
Sender: "@inviteUser1:somewhere",
})
inviteRoom2 := "!inviteRoom2:somewhere"
inviteEvent2 := MustCreateEvent(t, inviteRoom2, nil, &gomatrixserverlib.EventBuilder{
Content: []byte(`{"membership":"invite"}`),
Type: "m.room.member",
StateKey: &testUserIDA,
Sender: "@inviteUser2:somewhere",
})
for _, ev := range []*gomatrixserverlib.HeaderedEvent{inviteEvent1, inviteEvent2} {
_, err := db.AddInviteEvent(ctx, ev)
if err != nil {
t.Fatalf("Failed to AddInviteEvent: %s", err)
}
}
latest, err := db.SyncPosition(ctx)
if err != nil {
t.Fatalf("failed to get SyncPosition: %s", err)
}
// both invite events should appear in a new sync
beforeRetireRes := types.NewResponse()
beforeRetireRes, err = db.IncrementalSync(ctx, beforeRetireRes, testUserDeviceA, types.StreamingToken{}, latest, 0, false)
if err != nil {
t.Fatalf("IncrementalSync failed: %s", err)
}
assertInvitedToRooms(t, beforeRetireRes, []string{inviteRoom1, inviteRoom2})
// retire one event: a fresh sync should just return 1 invite room
if _, err = db.RetireInviteEvent(ctx, inviteEvent1.EventID()); err != nil {
t.Fatalf("Failed to RetireInviteEvent: %s", err)
}
latest, err = db.SyncPosition(ctx)
if err != nil {
t.Fatalf("failed to get SyncPosition: %s", err)
}
res := types.NewResponse()
res, err = db.IncrementalSync(ctx, res, testUserDeviceA, types.StreamingToken{}, latest, 0, false)
if err != nil {
t.Fatalf("IncrementalSync failed: %s", err)
}
assertInvitedToRooms(t, res, []string{inviteRoom2})
// a sync after we have received both invites should result in a leave for the retired room
res = types.NewResponse()
res, err = db.IncrementalSync(ctx, res, testUserDeviceA, beforeRetireRes.NextBatch, latest, 0, false)
if err != nil {
t.Fatalf("IncrementalSync failed: %s", err)
}
assertInvitedToRooms(t, res, []string{})
if _, ok := res.Rooms.Leave[inviteRoom1]; !ok {
t.Fatalf("IncrementalSync: expected to see room left after it was retired but it wasn't")
}
}
func assertInvitedToRooms(t *testing.T, res *types.Response, roomIDs []string) {
t.Helper()
if len(res.Rooms.Invite) != len(roomIDs) {
t.Fatalf("got %d invited rooms, want %d", len(res.Rooms.Invite), len(roomIDs))
}
for _, roomID := range roomIDs {
if _, ok := res.Rooms.Invite[roomID]; !ok {
t.Fatalf("missing room ID %s", roomID)
}
}
}
func assertEventsEqual(t *testing.T, msg string, checkRoomID bool, gots []gomatrixserverlib.ClientEvent, wants []*gomatrixserverlib.HeaderedEvent) {
t.Helper()
if len(gots) != len(wants) {
t.Fatalf("%s response returned %d events, want %d", msg, len(gots), len(wants))
}
for i := range gots {
g := gots[i]
w := wants[i]
if g.EventID != w.EventID() {
t.Errorf("%s event[%d] event_id mismatch: got %s want %s", msg, i, g.EventID, w.EventID())
}
if g.Sender != w.Sender() {
t.Errorf("%s event[%d] sender mismatch: got %s want %s", msg, i, g.Sender, w.Sender())
}
if checkRoomID && g.RoomID != w.RoomID() {
t.Errorf("%s event[%d] room_id mismatch: got %s want %s", msg, i, g.RoomID, w.RoomID())
}
if g.Type != w.Type() {
t.Errorf("%s event[%d] event type mismatch: got %s want %s", msg, i, g.Type, w.Type())
}
if g.OriginServerTS != w.OriginServerTS() {
t.Errorf("%s event[%d] origin_server_ts mismatch: got %v want %v", msg, i, g.OriginServerTS, w.OriginServerTS())
}
if string(g.Content) != string(w.Content()) {
t.Errorf("%s event[%d] content mismatch: got %s want %s", msg, i, string(g.Content), string(w.Content()))
}
if string(g.Unsigned) != string(w.Unsigned()) {
t.Errorf("%s event[%d] unsigned mismatch: got %s want %s", msg, i, string(g.Unsigned), string(w.Unsigned()))
}
if (g.StateKey == nil && w.StateKey() != nil) || (g.StateKey != nil && w.StateKey() == nil) {
t.Errorf("%s event[%d] state_key [not] missing: got %v want %v", msg, i, g.StateKey, w.StateKey())
continue
}
if g.StateKey != nil {
if !w.StateKeyEquals(*g.StateKey) {
t.Errorf("%s event[%d] state_key mismatch: got %s want %s", msg, i, *g.StateKey, *w.StateKey())
}
}
}
}
func topologyTokenBefore(t *testing.T, db storage.Database, eventID string) *types.TopologyToken {
tok, err := db.EventPositionInTopology(ctx, eventID)
if err != nil {
t.Fatalf("failed to get EventPositionInTopology: %s", err)
}
tok.Decrement()
return &tok
}
*/
func pointer[t any](s t) *t {
return &s
}
func TestRoomSummary(t *testing.T) {
alice := test.NewUser(t)
bob := test.NewUser(t)
charlie := test.NewUser(t)
// Create some dummy users
moreUsers := []*test.User{}
moreUserIDs := []string{}
for i := 0; i < 10; i++ {
u := test.NewUser(t)
moreUsers = append(moreUsers, u)
moreUserIDs = append(moreUserIDs, u.ID)
}
testCases := []struct {
name string
wantSummary *types.Summary
additionalEvents func(t *testing.T, room *test.Room)
}{
{
name: "after initial creation",
wantSummary: &types.Summary{JoinedMemberCount: pointer(1), InvitedMemberCount: pointer(0), Heroes: []string{}},
},
{
name: "invited user",
wantSummary: &types.Summary{JoinedMemberCount: pointer(1), InvitedMemberCount: pointer(1), Heroes: []string{bob.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "invite",
}, test.WithStateKey(bob.ID))
},
},
{
name: "invited user, but declined",
wantSummary: &types.Summary{JoinedMemberCount: pointer(1), InvitedMemberCount: pointer(0), Heroes: []string{bob.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "invite",
}, test.WithStateKey(bob.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "leave",
}, test.WithStateKey(bob.ID))
},
},
{
name: "joined user after invitation",
wantSummary: &types.Summary{JoinedMemberCount: pointer(2), InvitedMemberCount: pointer(0), Heroes: []string{bob.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "invite",
}, test.WithStateKey(bob.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
},
},
{
name: "multiple joined user",
wantSummary: &types.Summary{JoinedMemberCount: pointer(3), InvitedMemberCount: pointer(0), Heroes: []string{charlie.ID, bob.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, charlie, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(charlie.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
},
},
{
name: "multiple joined/invited user",
wantSummary: &types.Summary{JoinedMemberCount: pointer(2), InvitedMemberCount: pointer(1), Heroes: []string{charlie.ID, bob.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "invite",
}, test.WithStateKey(charlie.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
},
},
{
name: "multiple joined/invited/left user",
wantSummary: &types.Summary{JoinedMemberCount: pointer(1), InvitedMemberCount: pointer(1), Heroes: []string{charlie.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "invite",
}, test.WithStateKey(charlie.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "leave",
}, test.WithStateKey(bob.ID))
},
},
{
name: "leaving user after joining",
wantSummary: &types.Summary{JoinedMemberCount: pointer(1), InvitedMemberCount: pointer(0), Heroes: []string{bob.ID}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "leave",
}, test.WithStateKey(bob.ID))
},
},
{
name: "many users", // heroes ordered by stream id
wantSummary: &types.Summary{JoinedMemberCount: pointer(len(moreUserIDs) + 1), InvitedMemberCount: pointer(0), Heroes: moreUserIDs[:5]},
additionalEvents: func(t *testing.T, room *test.Room) {
for _, x := range moreUsers {
room.CreateAndInsert(t, x, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(x.ID))
}
},
},
{
name: "canonical alias set",
wantSummary: &types.Summary{JoinedMemberCount: pointer(2), InvitedMemberCount: pointer(0), Heroes: []string{}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomCanonicalAlias, map[string]interface{}{
"alias": "myalias",
}, test.WithStateKey(""))
},
},
{
name: "room name set",
wantSummary: &types.Summary{JoinedMemberCount: pointer(2), InvitedMemberCount: pointer(0), Heroes: []string{}},
additionalEvents: func(t *testing.T, room *test.Room) {
room.CreateAndInsert(t, bob, gomatrixserverlib.MRoomMember, map[string]interface{}{
"membership": "join",
}, test.WithStateKey(bob.ID))
room.CreateAndInsert(t, alice, gomatrixserverlib.MRoomName, map[string]interface{}{
"name": "my room name",
}, test.WithStateKey(""))
},
},
}
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
db, close, closeBase := MustCreateDatabase(t, dbType)
defer close()
defer closeBase()
for _, tc := range testCases {
t.Run(tc.name, func(t *testing.T) {
r := test.NewRoom(t, alice)
if tc.additionalEvents != nil {
tc.additionalEvents(t, r)
}
// write the room before creating a transaction
MustWriteEvents(t, db, r.Events())
transaction, err := db.NewDatabaseTransaction(ctx)
assert.NoError(t, err)
defer transaction.Rollback()
summary, err := transaction.GetRoomSummary(ctx, r.ID, alice.ID)
assert.NoError(t, err)
assert.Equal(t, tc.wantSummary, summary)
})
}
})
}
func TestRecentEvents(t *testing.T) {
alice := test.NewUser(t)
room1 := test.NewRoom(t, alice)
room2 := test.NewRoom(t, alice)
roomIDs := []string{room1.ID, room2.ID}
rooms := map[string]*test.Room{
room1.ID: room1,
room2.ID: room2,
}
test.WithAllDatabases(t, func(t *testing.T, dbType test.DBType) {
filter := gomatrixserverlib.DefaultRoomEventFilter()
db, close, closeBase := MustCreateDatabase(t, dbType)
t.Cleanup(func() {
close()
closeBase()
})
MustWriteEvents(t, db, room1.Events())
MustWriteEvents(t, db, room2.Events())
transaction, err := db.NewDatabaseTransaction(ctx)
assert.NoError(t, err)
defer transaction.Rollback()
// get all recent events from 0 to 100 (we only created 5 events, so we should get 5 back)
roomEvs, err := transaction.RecentEvents(ctx, roomIDs, types.Range{From: 0, To: 100}, &filter, true, true)
assert.NoError(t, err)
assert.Equal(t, len(roomEvs), 2, "unexpected recent events response")
for _, recentEvents := range roomEvs {
assert.Equal(t, 5, len(recentEvents.Events), "unexpected recent events for room")
}
// update the filter to only return one event
filter.Limit = 1
roomEvs, err = transaction.RecentEvents(ctx, roomIDs, types.Range{From: 0, To: 100}, &filter, true, true)
assert.NoError(t, err)
assert.Equal(t, len(roomEvs), 2, "unexpected recent events response")
for roomID, recentEvents := range roomEvs {
origEvents := rooms[roomID].Events()
assert.Equal(t, true, recentEvents.Limited, "expected events to be limited")
assert.Equal(t, 1, len(recentEvents.Events), "unexpected recent events for room")
assert.Equal(t, origEvents[len(origEvents)-1].EventID(), recentEvents.Events[0].EventID())
}
// not chronologically ordered still returns the events in order (given ORDER BY id DESC)
roomEvs, err = transaction.RecentEvents(ctx, roomIDs, types.Range{From: 0, To: 100}, &filter, false, true)
assert.NoError(t, err)
assert.Equal(t, len(roomEvs), 2, "unexpected recent events response")
for roomID, recentEvents := range roomEvs {
origEvents := rooms[roomID].Events()
assert.Equal(t, true, recentEvents.Limited, "expected events to be limited")
assert.Equal(t, 1, len(recentEvents.Events), "unexpected recent events for room")
assert.Equal(t, origEvents[len(origEvents)-1].EventID(), recentEvents.Events[0].EventID())
}
})
}