Files
coder/tailnet/configmaps_internal_test.go
T
Spike Curtis 8701dbc874 chore: add nodeUpdater to tailnet (#11539)
Adds a nodeUpdater component, which serves a similar role to configMaps, but tracks information from tailscale going out to the coordinator as node updates.  This first PR just handles netInfo, subsequent PRs will
handle DERP forced websockets, endpoints, and addresses.
2024-01-11 09:29:42 +04:00

738 lines
20 KiB
Go

package tailnet
import (
"context"
"net/netip"
"sync"
"testing"
"time"
"github.com/benbjohnson/clock"
"github.com/google/uuid"
"github.com/stretchr/testify/assert"
"github.com/stretchr/testify/require"
"tailscale.com/ipn/ipnstate"
"tailscale.com/net/dns"
"tailscale.com/tailcfg"
"tailscale.com/types/key"
"tailscale.com/types/netmap"
"tailscale.com/wgengine/filter"
"tailscale.com/wgengine/router"
"tailscale.com/wgengine/wgcfg"
"cdr.dev/slog"
"cdr.dev/slog/sloggers/slogtest"
"github.com/coder/coder/v2/tailnet/proto"
"github.com/coder/coder/v2/testutil"
)
func TestConfigMaps_setAddresses_different(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
addrs := []netip.Prefix{netip.MustParsePrefix("192.168.0.200/32")}
uut.setAddresses(addrs)
nm := testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
require.Equal(t, addrs, nm.Addresses)
// here were in the middle of a reconfig, blocked on a channel write to fEng.reconfig
locked := uut.L.(*sync.Mutex).TryLock()
require.True(t, locked)
require.Equal(t, configuring, uut.phase)
uut.L.Unlock()
// send in another update while blocked
addrs2 := []netip.Prefix{
netip.MustParsePrefix("192.168.0.200/32"),
netip.MustParsePrefix("10.20.30.40/32"),
}
uut.setAddresses(addrs2)
r := testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Equal(t, addrs, r.wg.Addresses)
require.Equal(t, addrs, r.router.LocalAddrs)
f := testutil.RequireRecvCtx(ctx, t, fEng.filter)
fr := f.CheckTCP(netip.MustParseAddr("33.44.55.66"), netip.MustParseAddr("192.168.0.200"), 5555)
require.Equal(t, filter.Accept, fr)
fr = f.CheckTCP(netip.MustParseAddr("33.44.55.66"), netip.MustParseAddr("10.20.30.40"), 5555)
require.Equal(t, filter.Drop, fr, "first addr config should not include 10.20.30.40")
// we should get another round of configurations from the second set of addrs
nm = testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
require.Equal(t, addrs2, nm.Addresses)
r = testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Equal(t, addrs2, r.wg.Addresses)
require.Equal(t, addrs2, r.router.LocalAddrs)
f = testutil.RequireRecvCtx(ctx, t, fEng.filter)
fr = f.CheckTCP(netip.MustParseAddr("33.44.55.66"), netip.MustParseAddr("192.168.0.200"), 5555)
require.Equal(t, filter.Accept, fr)
fr = f.CheckTCP(netip.MustParseAddr("33.44.55.66"), netip.MustParseAddr("10.20.30.40"), 5555)
require.Equal(t, filter.Accept, fr)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_setAddresses_same(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
addrs := []netip.Prefix{netip.MustParsePrefix("192.168.0.200/32")}
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), addrs)
defer uut.close()
requireNeverConfigures(ctx, t, &uut.phased)
uut.setAddresses(addrs)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_updatePeers_new(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
p1ID := uuid.UUID{1}
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
p2ID := uuid.UUID{2}
p2Node := newTestNode(2)
p2n, err := NodeToProto(p2Node)
require.NoError(t, err)
go func() {
b := <-fEng.status
b.AddPeer(p1Node.Key, &ipnstate.PeerStatus{
PublicKey: p1Node.Key,
LastHandshake: time.Date(2024, 1, 7, 12, 13, 10, 0, time.UTC),
Active: true,
})
// peer 2 is missing, so it won't have KeepAlives set
fEng.statusDone <- struct{}{}
}()
updates := []*proto.CoordinateResponse_PeerUpdate{
{
Id: p1ID[:],
Kind: proto.CoordinateResponse_PeerUpdate_NODE,
Node: p1n,
},
{
Id: p2ID[:],
Kind: proto.CoordinateResponse_PeerUpdate_NODE,
Node: p2n,
},
}
uut.updatePeers(updates)
nm := testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
r := testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Len(t, nm.Peers, 2)
n1 := getNodeWithID(t, nm.Peers, 1)
require.Equal(t, "127.3.3.40:1", n1.DERP)
require.Equal(t, p1Node.Endpoints, n1.Endpoints)
require.True(t, n1.KeepAlive)
n2 := getNodeWithID(t, nm.Peers, 2)
require.Equal(t, "127.3.3.40:2", n2.DERP)
require.Equal(t, p2Node.Endpoints, n2.Endpoints)
require.False(t, n2.KeepAlive)
// we rely on nmcfg.WGCfg() to convert the netmap to wireguard config, so just
// require the right number of peers.
require.Len(t, r.wg.Peers, 2)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_updatePeers_same(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
// Then: we don't configure
requireNeverConfigures(ctx, t, &uut.phased)
p1ID := uuid.UUID{1}
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
p1tcn, err := uut.protoNodeToTailcfg(p1n)
p1tcn.KeepAlive = true
require.NoError(t, err)
// Given: peer already exists
uut.L.Lock()
uut.peers[p1ID] = &peerLifecycle{
peerID: p1ID,
node: p1tcn,
lastHandshake: time.Date(2024, 1, 7, 12, 0, 10, 0, time.UTC),
}
uut.L.Unlock()
go func() {
b := <-fEng.status
b.AddPeer(p1Node.Key, &ipnstate.PeerStatus{
PublicKey: p1Node.Key,
LastHandshake: time.Date(2024, 1, 7, 12, 13, 10, 0, time.UTC),
Active: true,
})
fEng.statusDone <- struct{}{}
}()
// When: update with no changes
updates := []*proto.CoordinateResponse_PeerUpdate{
{
Id: p1ID[:],
Kind: proto.CoordinateResponse_PeerUpdate_NODE,
Node: p1n,
},
}
uut.updatePeers(updates)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_updatePeers_disconnect(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
p1ID := uuid.UUID{1}
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
p1tcn, err := uut.protoNodeToTailcfg(p1n)
p1tcn.KeepAlive = true
require.NoError(t, err)
// set a timer, which should get canceled by the disconnect.
timer := uut.clock.AfterFunc(testutil.WaitMedium, func() {
t.Error("this should not be called!")
})
// Given: peer already exists
uut.L.Lock()
uut.peers[p1ID] = &peerLifecycle{
peerID: p1ID,
node: p1tcn,
lastHandshake: time.Date(2024, 1, 7, 12, 0, 10, 0, time.UTC),
timer: timer,
}
uut.L.Unlock()
go func() {
b := <-fEng.status
b.AddPeer(p1Node.Key, &ipnstate.PeerStatus{
PublicKey: p1Node.Key,
LastHandshake: time.Date(2024, 1, 7, 12, 13, 10, 0, time.UTC),
Active: true,
})
fEng.statusDone <- struct{}{}
}()
// When: update DISCONNECTED
updates := []*proto.CoordinateResponse_PeerUpdate{
{
Id: p1ID[:],
Kind: proto.CoordinateResponse_PeerUpdate_DISCONNECTED,
},
}
uut.updatePeers(updates)
assert.False(t, timer.Stop(), "timer was not stopped")
// Then, configure engine without the peer.
nm := testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
r := testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Len(t, nm.Peers, 0)
require.Len(t, r.wg.Peers, 0)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_updatePeers_lost(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
start := time.Date(2024, time.January, 1, 8, 0, 0, 0, time.UTC)
mClock := clock.NewMock()
mClock.Set(start)
uut.clock = mClock
p1ID := uuid.UUID{1}
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
s1 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, start)
updates := []*proto.CoordinateResponse_PeerUpdate{
{
Id: p1ID[:],
Kind: proto.CoordinateResponse_PeerUpdate_NODE,
Node: p1n,
},
}
uut.updatePeers(updates)
nm := testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
r := testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Len(t, nm.Peers, 1)
require.Len(t, r.wg.Peers, 1)
_ = testutil.RequireRecvCtx(ctx, t, s1)
mClock.Add(5 * time.Second)
s2 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, start)
updates[0].Kind = proto.CoordinateResponse_PeerUpdate_LOST
updates[0].Node = nil
uut.updatePeers(updates)
_ = testutil.RequireRecvCtx(ctx, t, s2)
// No reprogramming yet, since we keep the peer around.
select {
case <-fEng.setNetworkMap:
t.Fatal("should not reprogram")
default:
// OK!
}
// When we advance the clock, the timeout triggers. However, the new
// latest handshake has advanced by a minute, so we don't remove the peer.
lh := start.Add(time.Minute)
s3 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, lh)
mClock.Add(lostTimeout)
_ = testutil.RequireRecvCtx(ctx, t, s3)
select {
case <-fEng.setNetworkMap:
t.Fatal("should not reprogram")
default:
// OK!
}
// Before we update the clock again, we need to be sure the timeout has
// completed running. To do that, we check the new lastHandshake has been set
require.Eventually(t, func() bool {
uut.L.Lock()
defer uut.L.Unlock()
return uut.peers[p1ID].lastHandshake == lh
}, testutil.WaitShort, testutil.IntervalFast)
// Advance the clock again by a minute, which should trigger the reprogrammed
// timeout.
s4 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, lh)
mClock.Add(time.Minute)
nm = testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
r = testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Len(t, nm.Peers, 0)
require.Len(t, r.wg.Peers, 0)
_ = testutil.RequireRecvCtx(ctx, t, s4)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_updatePeers_lost_and_found(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
start := time.Date(2024, time.January, 1, 8, 0, 0, 0, time.UTC)
mClock := clock.NewMock()
mClock.Set(start)
uut.clock = mClock
p1ID := uuid.UUID{1}
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
s1 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, start)
updates := []*proto.CoordinateResponse_PeerUpdate{
{
Id: p1ID[:],
Kind: proto.CoordinateResponse_PeerUpdate_NODE,
Node: p1n,
},
}
uut.updatePeers(updates)
nm := testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
r := testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Len(t, nm.Peers, 1)
require.Len(t, r.wg.Peers, 1)
_ = testutil.RequireRecvCtx(ctx, t, s1)
mClock.Add(5 * time.Second)
s2 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, start)
updates[0].Kind = proto.CoordinateResponse_PeerUpdate_LOST
updates[0].Node = nil
uut.updatePeers(updates)
_ = testutil.RequireRecvCtx(ctx, t, s2)
// No reprogramming yet, since we keep the peer around.
select {
case <-fEng.setNetworkMap:
t.Fatal("should not reprogram")
default:
// OK!
}
mClock.Add(5 * time.Second)
s3 := expectStatusWithHandshake(ctx, t, fEng, p1Node.Key, start)
updates[0].Kind = proto.CoordinateResponse_PeerUpdate_NODE
updates[0].Node = p1n
uut.updatePeers(updates)
_ = testutil.RequireRecvCtx(ctx, t, s3)
// This does not trigger reprogramming, because we never removed the node
select {
case <-fEng.setNetworkMap:
t.Fatal("should not reprogram")
default:
// OK!
}
// When we advance the clock, nothing happens because the timeout was
// canceled
mClock.Add(lostTimeout)
select {
case <-fEng.setNetworkMap:
t.Fatal("should not reprogram")
default:
// OK!
}
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_setBlockEndpoints_different(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
p1ID := uuid.MustParse("10000000-0000-0000-0000-000000000000")
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
p1tcn, err := uut.protoNodeToTailcfg(p1n)
p1tcn.KeepAlive = true
require.NoError(t, err)
// Given: peer already exists
uut.L.Lock()
uut.peers[p1ID] = &peerLifecycle{
peerID: p1ID,
node: p1tcn,
lastHandshake: time.Date(2024, 1, 7, 12, 0, 10, 0, time.UTC),
}
uut.L.Unlock()
uut.setBlockEndpoints(true)
nm := testutil.RequireRecvCtx(ctx, t, fEng.setNetworkMap)
r := testutil.RequireRecvCtx(ctx, t, fEng.reconfig)
require.Len(t, nm.Peers, 1)
require.Len(t, nm.Peers[0].Endpoints, 0)
require.Len(t, r.wg.Peers, 1)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func TestConfigMaps_setBlockEndpoints_same(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
p1ID := uuid.MustParse("10000000-0000-0000-0000-000000000000")
p1Node := newTestNode(1)
p1n, err := NodeToProto(p1Node)
require.NoError(t, err)
p1tcn, err := uut.protoNodeToTailcfg(p1n)
p1tcn.KeepAlive = true
require.NoError(t, err)
// Given: peer already exists && blockEndpoints set to true
uut.L.Lock()
uut.peers[p1ID] = &peerLifecycle{
peerID: p1ID,
node: p1tcn,
lastHandshake: time.Date(2024, 1, 7, 12, 0, 10, 0, time.UTC),
}
uut.blockEndpoints = true
uut.L.Unlock()
// Then: we don't configure
requireNeverConfigures(ctx, t, &uut.phased)
// When we set blockEndpoints to true
uut.setBlockEndpoints(true)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
}
func expectStatusWithHandshake(
ctx context.Context, t testing.TB, fEng *fakeEngineConfigurable, k key.NodePublic, lastHandshake time.Time,
) <-chan struct{} {
t.Helper()
called := make(chan struct{})
go func() {
select {
case <-ctx.Done():
t.Error("timeout waiting for status")
return
case b := <-fEng.status:
b.AddPeer(k, &ipnstate.PeerStatus{
PublicKey: k,
LastHandshake: lastHandshake,
Active: true,
})
select {
case <-ctx.Done():
t.Error("timeout sending done")
case fEng.statusDone <- struct{}{}:
close(called)
return
}
}
}()
return called
}
func TestConfigMaps_updatePeers_nonexist(t *testing.T) {
t.Parallel()
for _, k := range []proto.CoordinateResponse_PeerUpdate_Kind{
proto.CoordinateResponse_PeerUpdate_DISCONNECTED,
proto.CoordinateResponse_PeerUpdate_LOST,
} {
k := k
t.Run(k.String(), func(t *testing.T) {
t.Parallel()
ctx := testutil.Context(t, testutil.WaitShort)
logger := slogtest.Make(t, nil).Leveled(slog.LevelDebug)
fEng := newFakeEngineConfigurable()
nodePrivateKey := key.NewNode()
nodeID := tailcfg.NodeID(5)
discoKey := key.NewDisco()
uut := newConfigMaps(logger, fEng, nodeID, nodePrivateKey, discoKey.Public(), nil)
defer uut.close()
// Then: we don't configure
requireNeverConfigures(ctx, t, &uut.phased)
// Given: no known peers
go func() {
<-fEng.status
fEng.statusDone <- struct{}{}
}()
// When: update with LOST/DISCONNECTED
p1ID := uuid.UUID{1}
updates := []*proto.CoordinateResponse_PeerUpdate{
{
Id: p1ID[:],
Kind: k,
},
}
uut.updatePeers(updates)
done := make(chan struct{})
go func() {
defer close(done)
uut.close()
}()
_ = testutil.RequireRecvCtx(ctx, t, done)
})
}
}
func newTestNode(id int) *Node {
return &Node{
ID: tailcfg.NodeID(id),
AsOf: time.Date(2024, 1, 7, 12, 13, 14, 15, time.UTC),
Key: key.NewNode().Public(),
DiscoKey: key.NewDisco().Public(),
Endpoints: []string{"192.168.0.55"},
PreferredDERP: id,
}
}
func getNodeWithID(t testing.TB, peers []*tailcfg.Node, id tailcfg.NodeID) *tailcfg.Node {
t.Helper()
for _, n := range peers {
if n.ID == id {
return n
}
}
t.Fatal()
return nil
}
func requireNeverConfigures(ctx context.Context, t *testing.T, uut *phased) {
t.Helper()
waiting := make(chan struct{})
go func() {
// ensure that we never configure, and go straight to closed
uut.L.Lock()
defer uut.L.Unlock()
close(waiting)
for uut.phase == idle {
uut.Wait()
}
assert.Equal(t, closed, uut.phase)
}()
_ = testutil.RequireRecvCtx(ctx, t, waiting)
}
type reconfigCall struct {
wg *wgcfg.Config
router *router.Config
}
var _ engineConfigurable = &fakeEngineConfigurable{}
type fakeEngineConfigurable struct {
setNetworkMap chan *netmap.NetworkMap
reconfig chan reconfigCall
filter chan *filter.Filter
// To fake these fields the test should read from status, do stuff to the
// StatusBuilder, then write to statusDone
status chan *ipnstate.StatusBuilder
statusDone chan struct{}
}
func (f fakeEngineConfigurable) UpdateStatus(status *ipnstate.StatusBuilder) {
f.status <- status
<-f.statusDone
}
func newFakeEngineConfigurable() *fakeEngineConfigurable {
return &fakeEngineConfigurable{
setNetworkMap: make(chan *netmap.NetworkMap),
reconfig: make(chan reconfigCall),
filter: make(chan *filter.Filter),
status: make(chan *ipnstate.StatusBuilder),
statusDone: make(chan struct{}),
}
}
func (f fakeEngineConfigurable) SetNetworkMap(networkMap *netmap.NetworkMap) {
f.setNetworkMap <- networkMap
}
func (f fakeEngineConfigurable) Reconfig(wg *wgcfg.Config, r *router.Config, _ *dns.Config, _ *tailcfg.Debug) error {
f.reconfig <- reconfigCall{wg: wg, router: r}
return nil
}
func (fakeEngineConfigurable) SetDERPMap(*tailcfg.DERPMap) {
// TODO implement me
panic("implement me")
}
func (f fakeEngineConfigurable) SetFilter(flt *filter.Filter) {
f.filter <- flt
}