Files
netbird/client/android/client.go
Riccardo Manfrin e14006ddc1 [client] mobile MDM bridge — iOS + Android setMDMPolicyFetcher entrypoint (#6435)
* MDM Android mobile wiring

* Removes dead code

* Removes static vars

* Now we need to apply MDM in the GetConfig

* You now need to explicitly call these around

* Adds iOS wiring

* Resolve merge conflicts from main

- login.go: keep both new imports (mdm + nbnet + server)
- ios/NetBirdSDK/client.go: additive struct-field merge (mdmLoader + stateMu/connectClient/config)
- setconfig_mdm_test.go: adopt new withMDMPolicy(t, s, policy) signature; fix stray old-signature call in TestSetConfig_MDMAllow_ManagementURLPortNormalized

* Convey MDM overlay config to Debug Bundle output

Aligns to other clients OSes behavior

* Solved conflict in client.go

* Fixup helper withMDMPolicy -> configWithMDM

* Fixup after merge

* Resolve merge conflicts

* [client] Move MDM enforcement logic into a shared Go layer (#7319)

The mobile bridges only carried the policy fetcher, leaving every
enforcement decision to the native apps: the desktop derived its UI
restrictions in the Wails service layer, the daemon kept the conflict
machinery in the server package, and both mobile bridges duplicated the
JSON fetch adapter. Anything the native side had to reimplement was a
place for iOS and Android to drift apart.

Enforcement now lives in client/mdm and is consumed identically by all
three platforms:

- conflicts.go holds the value-aware conflict checks lifted out of the
  daemon, so the same normalization (canonical URLs, PSK sentinel echo)
  applies wherever a config change is validated.
- restrictions.go derives the UI enforcement snapshot from a policy and
  renders it in the JSON shape the desktop frontend already consumes.
  The service-layer types become aliases, keeping one source of truth.
- jsonloader.go replaces the adapter that was copy-pasted into both
  bridges.
- changedetector.go moves change detection off the native side: the
  caller forwards the OS notification and asks whether the managed
  configuration actually changed, instead of diffing dictionaries
  itself.

The mobile bridges gain the enforcement the daemon already had. The
Preferences getters resolve managed keys from the policy, so a naive UI
shows the enforced value; Commit rejects a staged change that diverges
from a managed key; NewAuth resolves the managed management URL before
persisting the config and overlays the policy on it, so a login can no
longer run against a URL the policy forbids. Android's profile
mutations fail closed when disableProfiles is set.

NewAuth takes the fetcher as a required argument rather than keeping a
policy-blind overload: the apps consume this code as a submodule, so a
compile error at the bump is the point. The mobile PSK getter is
replaced by a presence check — the key has no reason to cross the
bridge, and not returning it means the native side needs no redaction
sentinel of its own.

* [client] Resolve the main merge conflicts in the MDM integration

The merge commit was recorded with the conflict markers still in the
tree. Resolve them so the branch builds again:

- client/ios/NetBirdSDK: keep both the mdm and mobile imports, and keep
  the mdmLoader/mdmDetector fields next to main's stateMu documentation.
- client/server/mdm.go: drop the conflict helpers main added locally,
  they already live in the client/mdm package on this branch, and keep
  the new checks main introduced (allowRemoteJobs, enableLocalMetrics,
  localMetricsAddress) as calls into the package-level helpers.
- client/mdm/conflicts.go: add ConflictStringPtr, the presence-aware
  string check main needs for the optional localMetricsAddress field.
- Port the two tests main added over the per-Server loader helper and the
  configWithMDM helper, both of which replaced the package-level policy
  injection this branch removed.

* [client] Reject explicit empty PSK when MDM enforces a pre-shared key

The SetConfig, Login and mobile Commit conflict checks collapsed the PSK
to a plain string, so an explicit empty value was indistinguishable from
an unset field and slipped past the MDM gate, clearing the persisted key.
Carry the optional field as a pointer through ConflictStringPtr, treating
only the redaction sentinel as a no-op echo. ConflictString had no other
callers and is removed.

* [client] Apply MDM overlay on the preloaded iOS config in Run

Run only overlaid the MDM policy when the config was loaded from file,
so the tvOS path fed by SetConfigFromJSON started with unmanaged
settings. Apply the overlay after the config source is selected, as the
other resolution sites already do.

* [client] Gate non-active profile logout behind the MDM profiles switch

The mobile ProfileManager let LogoutProfile clear credentials of any
profile even when disableProfiles was enforced. Follow the daemon's
validateProfileLogout semantics: logging out of the active profile is a
plain logout and stays allowed, logging out of any other profile is
profile management and is rejected under the policy.

* [client] Resolve the managed management URL through the MDM overlay on mobile

NewAuth on Android and iOS replaced the caller URL with the raw policy
value before persisting, so a malformed managed URL failed config
validation and blocked the login instead of being skipped with a warning
like the overlay does. Preferences.GetManagementURL likewise echoed the
raw policy string to the native UI even when the overlay had rejected it.

Follow the daemon: persist the caller URL, overlay the policy on the
resolved config, and report the overlaid ManagementURL as the effective
value.

* [client] Clean up MDM review leftovers

Drop the unused ChangeDetector.Current, point the stale LoadPolicy
comment references at Loader.Load, and move the profileEmail godoc back
above its function.

* [client] Check remote jobs and local metrics keys in the mobile MDM conflict gate

MDMConflicts skipped allowRemoteJobs, enableLocalMetrics and
localMetricsAddress even though the overlay applies all three and the
daemon gate already checks them, so a mobile Commit could persist values
diverging from the enforced policy. Align the list with the daemon.

* [client] Silence the deprecated PreSharedKey lint in the login conflict test

The legacy LoginRequest.PreSharedKey field is deliberately exercised by
the test, matching the nolint already carried by the production path.

* [client] Publish the mobile MDM loader and detector atomically

SetMDMPolicyFetcher wrote the loader and change detector as two plain
fields that Run, the OS-change callback and the restrictions getter read
from other threads without synchronization. Hold both behind a single
atomic pointer so a registration is published as one unit and readers
always observe a matching loader and detector pair; Preferences gets the
same treatment for its loader. Exported signatures are unchanged.

* [client] Report the MDM-overlaid remote jobs value from mobile Preferences

GetRemoteJobsAllowed returned the staged or persisted value even when
the policy manages allowRemoteJobs, so the native settings UI could show
a value the Commit gate would reject. Resolve it through the overlay like
GetManagementURL does.

* [client] Stop persisting the MDM-overlaid config after mobile logins

NewAuth already writes the config through UpdateOrCreateConfig before
the MDM policy is overlaid, and the login itself never mutates the
Config. The post-login WriteOutConfig calls therefore only rewrote the
same file with the enforced ManagementURL and PreSharedKey in it, so a
removed or changed policy kept acting through the persisted values.

* [client] Document that the MDM overlay on Config is not reversible

ApplyMDMPolicy promised that an empty Policy clears a prior overlay, but
applyMDMPolicy only resets the enforcement metadata and the runtime-only
upload URL; the enforced ManagementURL, PreSharedKey and flags stay. Every
lifecycle owner resolves the base Config again before applying, so state
that contract instead of the reversibility that was never implemented.

* [client] Re-resolve the tvOS preloaded config before every MDM overlay

The iOS Client kept the config parsed from SetConfigFromJSON and applied
the MDM overlay onto that same instance on every Run, IsLoginRequired
and DebugBundle, so a key removed from the policy stayed enforced. Store
the JSON instead and parse it per load through one loadConfig path.

Auth serialized the overlaid config from GetConfigJSON, which tvOS then
persisted to UserDefaults and fed back as the preload. Keep the resolved
config as the base, run the login on a JSON round-trip copy with the
overlay, and return the base from GetConfigJSON.

* [client] Serve the MDM-managed management URL without touching the config file on mobile

Preferences.GetManagementURL resolved a managed URL by reading and
overlaying the persisted config, so a corrupt file or the tvOS sandbox
turned an enforced URL into a read error. Return the canonical managed
value directly, the same string BuildRestrictions already hands to the
UI, and only fall back to the staged or persisted value when MDM does
not manage the key.

NewAuth validated the caller-supplied management URL before the overlay
ran, so a malformed or echoed value blocked or persisted under an MDM
policy that already dictates the URL. Ignore the caller value while the
key is managed; the login runs against the overlay either way.

* [client] Align the MDM loader docs with the fetcher precedence and make disableAdvancedView a tristate

NewLoader, PolicyFetcher and the darwin/windows loadPlatform docs claimed
the fetcher is unused on desktop, while every loader returns its values
when one is injected. That precedence is the seam the server tests rely
on across platforms, so the docs now describe it; production desktop
callers still pass nil and keep the registry / plist authoritative.

Fields.DisableAdvancedView collapsed "managed and false" into the same
JSON as "not managed", unlike AllowServerSSH and the daemon's optional
proto field. Carry it as a *bool so the UIs can tell the two apart; the
desktop reflect loop skips pointer fields already, and the mobile
decoders treat null as not managed.

* [client] Clean up MDM review nits

- ResolveConflicts treats a managed key whose ConflictCheck has no Check
  as a conflict instead of dereferencing nil.
- Ticker.Run and ChangeDetector.Changed share policyChanged so the diff
  semantics and the log line cannot drift apart.
- TestLoader_NilFetcherReturnsEmpty skips on windows/darwin, where a nil
  fetcher reads the real registry / plist.
- The profilemanager test loader checks GetInt before GetBool so integer
  keys survive the round trip, and the PSK tests use the exported
  redaction sentinel.

* [client] Fix int policy values coercing to bool in the MDM test helper

withMDMPolicy rebuilt the policy map by trying GetString, then GetBool,
then GetInt. Policy.GetBool accepts native ints (non-zero means true), so
an int-valued key such as wireguardPort round-tripped through the helper as
the bool true and GetInt was never reached. Try GetInt before GetBool, as
the profilemanager helper already does; GetInt does not coerce bools, so
booleans still fall through to GetBool.

No test sets an int key today, so this was latent: the first test to
exercise the wireguardPort conflict gate would have seen ConflictInt64
report a conflict for every value, including a matching one.

---------

Co-authored-by: Zoltan Papp <zoltan.pmail@gmail.com>
2026-09-08 11:53:07 +02:00

672 lines
20 KiB
Go

//go:build android
package android
import (
"context"
"fmt"
"os"
"slices"
"strings"
"sync"
"sync/atomic"
"time"
"golang.org/x/exp/maps"
log "github.com/sirupsen/logrus"
nbAnonymize "github.com/netbirdio/netbird/client/anonymize"
"github.com/netbirdio/netbird/client/iface/device"
"github.com/netbirdio/netbird/client/internal"
"github.com/netbirdio/netbird/client/internal/debug"
"github.com/netbirdio/netbird/client/internal/dns"
"github.com/netbirdio/netbird/client/internal/listener"
"github.com/netbirdio/netbird/client/internal/peer"
"github.com/netbirdio/netbird/client/internal/profilemanager"
"github.com/netbirdio/netbird/client/internal/routemanager"
"github.com/netbirdio/netbird/client/internal/stdnet"
"github.com/netbirdio/netbird/client/net"
"github.com/netbirdio/netbird/client/netevents"
"github.com/netbirdio/netbird/client/system"
"github.com/netbirdio/netbird/formatter"
"github.com/netbirdio/netbird/route"
"github.com/netbirdio/netbird/shared/management/domain"
types "github.com/netbirdio/netbird/upload-server/types"
)
// AnonymizeLevelDefault and AnonymizeLevelStrict are the accepted
// anonymizeLevel values for DebugBundle.
const (
AnonymizeLevelDefault = nbAnonymize.LevelDefaultString
AnonymizeLevelStrict = nbAnonymize.LevelStrictString
)
// TunAdapter export internal TunAdapter for mobile
type TunAdapter interface {
device.TunAdapter
}
// IFaceDiscover export internal IFaceDiscover for mobile
type IFaceDiscover interface {
stdnet.ExternalIFaceDiscover
}
// NetworkChangeListener export internal NetworkChangeListener for mobile
type NetworkChangeListener interface {
listener.NetworkChangeListener
}
// DnsReadyListener export internal dns ReadyListener for mobile
type DnsReadyListener interface {
dns.ReadyListener
}
// TunSettings is a snapshot of the settings the TUN device is rebuilt with
type TunSettings struct {
Routes string
SearchDomains string
}
func init() {
formatter.SetLogcatFormatter(log.StandardLogger())
}
// Client struct manage the life circle of background service
type Client struct {
tunAdapter device.TunAdapter
iFaceDiscover IFaceDiscover
recorder *peer.Status
ctxCancel context.CancelFunc
ctxCancelLock *sync.Mutex
deviceName string
uiVersion string
networkChangeListener listener.NetworkChangeListener
// netMgr outlives engine restarts: it mirrors the OS connectivity, not
// the engine lifecycle. Run and RunWithoutLogin inject its state and
// sweeper into each new ConnectClient.
netMgr *netevents.Manager
stateMu sync.RWMutex
connectClient *internal.ConnectClient
config *profilemanager.Config
cacheDir string
// mdmSource holds the per-Client MDM policy source and its change
// detector as one unit. Set by SetMDMPolicyFetcher (called from the
// Kotlin side). Each Run passes the loader to the resolved Config so
// applyMDMPolicy picks up the active overlay. Nil means "MDM
// enforcement off for this Client".
mdmSource atomic.Pointer[mdmSource]
// Identifies the running profile for the SSO login hint; see profile_state.go.
cfgPath string
stateChangeMu sync.Mutex
stateChangeSubID string
eventSub *peer.EventSubscription
// Closed to stop the watch goroutines from delivering buffered items to a
// listener that has been removed or replaced. See stopStateChangeWatchLocked.
stateChangeDone chan struct{}
// Latched "the server wants an interactive login": survives the engine
// restarts that replace the run loop's context state. See Client.Status.
// Guarded by loginRequiredMu together with loginCleared, which counts
// clears so a stale observation cannot re-latch over one.
loginRequiredMu sync.Mutex
loginRequired bool
loginCleared uint64
extendMu sync.Mutex
extendCancel context.CancelFunc
}
func (c *Client) setState(cfg *profilemanager.Config, cacheDir string, cfgPath string, cc *internal.ConnectClient) {
c.stateMu.Lock()
defer c.stateMu.Unlock()
c.config = cfg
c.cacheDir = cacheDir
c.cfgPath = cfgPath
c.connectClient = cc
}
func (c *Client) stateSnapshot() (*profilemanager.Config, string, *internal.ConnectClient) {
c.stateMu.RLock()
defer c.stateMu.RUnlock()
return c.config, c.cacheDir, c.connectClient
}
// authSnapshot returns the config together with the path it was loaded from, in
// one lock: the path identifies the profile whose account email backs the login
// hint, so reading it separately could pair one profile's config with another's
// hint when a profile switch lands in between.
func (c *Client) authSnapshot() (*profilemanager.Config, string, *internal.ConnectClient) {
c.stateMu.RLock()
defer c.stateMu.RUnlock()
return c.config, c.cfgPath, c.connectClient
}
func (c *Client) getConnectClient() *internal.ConnectClient {
c.stateMu.RLock()
defer c.stateMu.RUnlock()
return c.connectClient
}
// NewClient instantiate a new Client
func NewClient(androidSDKVersion int, deviceName string, uiVersion string, tunAdapter TunAdapter, iFaceDiscover IFaceDiscover, networkChangeListener NetworkChangeListener) *Client {
execWorkaround(androidSDKVersion)
net.SetAndroidProtectSocketFn(tunAdapter.ProtectSocket)
system.SetIFaceDiscover(iFaceDiscover)
recorder := peer.NewRecorder("")
return &Client{
deviceName: deviceName,
uiVersion: uiVersion,
tunAdapter: tunAdapter,
iFaceDiscover: iFaceDiscover,
recorder: recorder,
ctxCancelLock: &sync.Mutex{},
networkChangeListener: networkChangeListener,
netMgr: netevents.NewManager(recorder),
}
}
// Run start the internal client. It is a blocker function
func (c *Client) Run(platformFiles PlatformFiles, urlOpener URLOpener, isAndroidTV bool, dns *DNSList, dnsReadyListener DnsReadyListener, envList *EnvList) error {
exportEnvList(envList)
cfgFile := platformFiles.ConfigurationFilePath()
stateFile := platformFiles.StateFilePath()
cacheDir := platformFiles.CacheDir()
log.Infof("Starting client with config: %s, state: %s", cfgFile, stateFile)
cfg, err := profilemanager.UpdateOrCreateConfig(profilemanager.ConfigInput{
ConfigPath: cfgFile,
})
if err != nil {
return err
}
c.applyMDMOverlay(cfg)
c.recorder.UpdateManagementAddress(cfg.ManagementURL.String())
c.recorder.UpdateRosenpass(cfg.RosenpassEnabled, cfg.RosenpassPermissive)
var ctx context.Context
//nolint
ctxWithValues := context.WithValue(context.Background(), system.DeviceNameCtxKey, c.deviceName)
//nolint
ctxWithValues = context.WithValue(ctxWithValues, system.UiVersionCtxKey, c.uiVersion)
c.ctxCancelLock.Lock()
ctx, c.ctxCancel = context.WithCancel(ctxWithValues)
defer c.ctxCancel()
c.ctxCancelLock.Unlock()
auth := NewAuthWithConfig(ctx, cfg, cfgFile)
err = auth.login(urlOpener, isAndroidTV)
if err != nil {
return err
}
// todo do not throw error in case of cancelled context
ctx = internal.CtxInitState(ctx)
connectClient := internal.NewConnectClient(ctx, cfg, c.recorder,
internal.WithNetEvents(c.netMgr))
c.setState(cfg, cacheDir, cfgFile, connectClient)
// This path runs the interactive SSO flow, so reaching here means the peer
// is authenticated again — release the latch Status() reports from. Clear
// only once the fresh connect client is installed: until then Status()
// still reads the previous run's context state, which holds the NeedsLogin
// that prompted this login, and would re-latch what was just cleared.
c.clearLoginRequired()
return connectClient.RunOnAndroid(c.tunAdapter, c.iFaceDiscover, c.networkChangeListener, slices.Clone(dns.items), dnsReadyListener, stateFile, cacheDir)
}
// RunWithoutLogin we apply this type of run function when the backed has been started without UI (i.e. after reboot).
// In this case make no sense handle registration steps.
func (c *Client) RunWithoutLogin(platformFiles PlatformFiles, dns *DNSList, dnsReadyListener DnsReadyListener, envList *EnvList) error {
exportEnvList(envList)
cfgFile := platformFiles.ConfigurationFilePath()
stateFile := platformFiles.StateFilePath()
cacheDir := platformFiles.CacheDir()
log.Infof("Starting client without login with config: %s, state: %s", cfgFile, stateFile)
cfg, err := profilemanager.UpdateOrCreateConfig(profilemanager.ConfigInput{
ConfigPath: cfgFile,
})
if err != nil {
return err
}
c.applyMDMOverlay(cfg)
c.recorder.UpdateManagementAddress(cfg.ManagementURL.String())
c.recorder.UpdateRosenpass(cfg.RosenpassEnabled, cfg.RosenpassPermissive)
var ctx context.Context
//nolint
ctxWithValues := context.WithValue(context.Background(), system.DeviceNameCtxKey, c.deviceName)
c.ctxCancelLock.Lock()
ctx, c.ctxCancel = context.WithCancel(ctxWithValues)
defer c.ctxCancel()
c.ctxCancelLock.Unlock()
// todo do not throw error in case of cancelled context
ctx = internal.CtxInitState(ctx)
connectClient := internal.NewConnectClient(ctx, cfg, c.recorder,
internal.WithNetEvents(c.netMgr))
c.setState(cfg, cacheDir, cfgFile, connectClient)
return connectClient.RunOnAndroid(c.tunAdapter, c.iFaceDiscover, c.networkChangeListener, slices.Clone(dns.items), dnsReadyListener, stateFile, cacheDir)
}
// Stop the internal client and free the resources
func (c *Client) Stop() {
c.ctxCancelLock.Lock()
defer c.ctxCancelLock.Unlock()
if c.ctxCancel == nil {
return
}
c.ctxCancel()
}
func (c *Client) RenewTun(fd int) error {
cc := c.getConnectClient()
if cc == nil {
return fmt.Errorf("engine not running")
}
e := cc.Engine()
if e == nil {
return fmt.Errorf("engine not initialized")
}
return e.RenewTun(fd)
}
func (c *Client) GetTunSettings() (*TunSettings, error) {
cc := c.getConnectClient()
if cc == nil {
return nil, fmt.Errorf("engine not running")
}
e := cc.Engine()
if e == nil {
return nil, fmt.Errorf("engine not initialized")
}
routes, searchDomains := e.TunSettings()
return &TunSettings{
Routes: strings.Join(routes, ";"),
SearchDomains: strings.Join(searchDomains, ";"),
}, nil
}
// SetNetworkAvailable feeds OS-reported network availability into the client.
// While unavailable, the internal reconnect loops suspend their attempts and
// the connection listener reports NoNetwork instead of Connecting; when
// availability returns, the loops resume immediately with a fresh backoff.
// Losing the last network also sweeps the registered connections: nothing can
// redial while offline, so the stale sockets would otherwise stay silently
// "connected" until their own timeouts and the client would keep reporting
// Connected with no network at all.
func (c *Client) SetNetworkAvailable(available bool) {
c.netMgr.SetNetworkAvailable(available)
}
// NotifyNetworkChange marks the management, signal and relay connections
// stale after the OS switched networks and schedules a sweep that cuts
// whatever has not redialed on the new network by then. The engine and the
// TUN device stay untouched.
func (c *Client) NotifyNetworkChange() {
c.netMgr.NotifyNetworkChange()
}
// DebugBundle generates a debug bundle, uploads it, and returns the upload key.
// It works both with and without a running engine. anonymizeLevel is "default"
// or "strict"; strict also anonymizes internal IP ranges, peer names, and
// WireGuard public keys, and implies anonymize.
func (c *Client) DebugBundle(platformFiles PlatformFiles, anonymize bool, anonymizeLevel string) (string, error) {
cfg, cacheDir, cc := c.stateSnapshot()
// If the engine hasn't been started, load config from disk
if cfg == nil {
var err error
cfg, err = profilemanager.UpdateOrCreateConfig(profilemanager.ConfigInput{
ConfigPath: platformFiles.ConfigurationFilePath(),
})
if err != nil {
return "", fmt.Errorf("load config: %w", err)
}
c.applyMDMOverlay(cfg)
cacheDir = platformFiles.CacheDir()
}
deps := debug.GeneratorDependencies{
InternalConfig: cfg,
StatusRecorder: c.recorder,
TempDir: cacheDir,
StatePath: platformFiles.StateFilePath(),
}
if cc != nil {
resp, err := cc.GetLatestSyncResponse()
if err != nil {
log.Warnf("get latest sync response: %v", err)
}
deps.SyncResponse = resp
if e := cc.Engine(); e != nil {
deps.RefreshStatus = func() {
e.RunHealthProbes(context.Background(), true)
}
if cm := e.GetClientMetrics(); cm != nil {
deps.ClientMetrics = cm
}
}
}
bundleGenerator := debug.NewBundleGenerator(
deps,
debug.BundleConfig{
Anonymize: anonymize,
AnonymizeLevel: nbAnonymize.ParseLevel(anonymizeLevel),
IncludeSystemInfo: true,
},
)
path, err := bundleGenerator.Generate()
if err != nil {
return "", fmt.Errorf("generate debug bundle: %w", err)
}
defer func() {
if err := os.Remove(path); err != nil {
log.Errorf("failed to remove debug bundle file: %v", err)
}
}()
uploadCtx, cancel := context.WithTimeout(context.Background(), 2*time.Minute)
defer cancel()
key, err := debug.UploadDebugBundle(uploadCtx, types.DefaultBundleURL, cfg.ManagementURL.String(), path, false)
if err != nil {
return "", fmt.Errorf("upload debug bundle: %w", err)
}
log.Infof("debug bundle uploaded with key %s", key)
return key, nil
}
// SetTraceLogLevel configure the logger to trace level
func (c *Client) SetTraceLogLevel() {
log.SetLevel(log.TraceLevel)
}
// SetInfoLogLevel configure the logger to info level
func (c *Client) SetInfoLogLevel() {
log.SetLevel(log.InfoLevel)
}
// PeersList return with the list of the PeerInfos
func (c *Client) PeersList() *PeerInfoArray {
// The recorder only caches transfer counters and handshake times; nothing
// refreshes them on its own, so without this they read as zero. The desktop
// daemon does the same before serving a full peer status.
if err := c.recorder.RefreshWireGuardStats(); err != nil {
log.Debugf("failed to refresh WireGuard stats: %v", err)
}
fullStatus := c.recorder.GetFullStatus()
peerInfos := make([]PeerInfo, len(fullStatus.Peers))
for n, p := range fullStatus.Peers {
pi := PeerInfo{
IP: p.IP,
IPv6: p.IPv6,
FQDN: p.FQDN,
ConnStatus: int(p.ConnStatus),
Routes: PeerRoutes{routes: maps.Keys(p.GetRoutes())},
PubKey: p.PubKey,
Latency: formatDuration(p.Latency),
LatencyMs: p.Latency.Milliseconds(),
BytesRx: p.BytesRx,
BytesTx: p.BytesTx,
ConnStatusUpdate: formatTime(p.ConnStatusUpdate),
Relayed: p.Relayed,
RosenpassEnabled: p.RosenpassEnabled,
LastWireguardHandshake: formatTime(p.LastWireguardHandshake),
LocalIceCandidateType: p.LocalIceCandidateType,
RemoteIceCandidateType: p.RemoteIceCandidateType,
LocalIceCandidateEndpoint: p.LocalIceCandidateEndpoint,
RemoteIceCandidateEndpoint: p.RemoteIceCandidateEndpoint,
}
peerInfos[n] = pi
}
return &PeerInfoArray{items: peerInfos}
}
func (c *Client) Networks() *NetworkArray {
cc := c.getConnectClient()
if cc == nil {
log.Error("not connected")
return nil
}
engine := cc.Engine()
if engine == nil {
log.Error("could not get engine")
return nil
}
routeManager := engine.GetRouteManager()
if routeManager == nil {
log.Error("could not get route manager")
return nil
}
routeSelector := routeManager.GetRouteSelector()
if routeSelector == nil {
log.Error("could not get route selector")
return nil
}
routesMap := routeManager.GetClientRoutesWithNetID()
v6Merged := route.V6ExitMergeSet(routesMap)
resolvedDomains := c.recorder.GetResolvedDomainsStates()
networkArray := &NetworkArray{
items: make([]Network, 0),
}
for id, routes := range routesMap {
if len(routes) == 0 {
continue
}
if _, skip := v6Merged[id]; skip {
continue
}
network := c.buildNetwork(id, routes, routeSelector.IsSelected(id), resolvedDomains, v6Merged)
if network == nil {
continue
}
networkArray.Add(*network)
}
return networkArray
}
func (c *Client) buildNetwork(id route.NetID, routes []*route.Route, selected bool, resolvedDomains map[domain.Domain]peer.ResolvedDomainInfo, v6Merged map[route.NetID]struct{}) *Network {
r := routes[0]
netStr := r.Network.String()
if r.IsDynamic() {
netStr = r.Domains.SafeString()
}
routePeer, err := c.findBestRoutePeer(routes)
if err != nil {
log.Errorf("could not get peer info for route %s: %v", id, err)
return nil
}
network := &Network{
Name: string(id),
Network: netStr,
Peer: routePeer.FQDN,
Status: routePeer.ConnStatus.String(),
IsSelected: selected,
Domains: c.getNetworkDomainsFromRoute(r, resolvedDomains),
}
if route.IsV4DefaultRoute(r.Network) && route.HasV6ExitPair(id, v6Merged) {
network.Network = "0.0.0.0/0, ::/0"
}
return network
}
// findBestRoutePeer returns the peer actively routing traffic for the given
// HA route group. Falls back to the first connected peer, then the first peer.
func (c *Client) findBestRoutePeer(routes []*route.Route) (peer.State, error) {
netStr := routes[0].Network.String()
fullStatus := c.recorder.GetFullStatus()
for _, p := range fullStatus.Peers {
if _, ok := p.GetRoutes()[netStr]; ok {
return p, nil
}
}
for _, r := range routes {
p, err := c.recorder.GetPeer(r.Peer)
if err != nil {
continue
}
if p.ConnStatus == peer.StatusConnected {
return p, nil
}
}
return c.recorder.GetPeer(routes[0].Peer)
}
// OnUpdatedHostDNS update the DNS servers addresses for root zones
func (c *Client) OnUpdatedHostDNS(list *DNSList) error {
dnsServer, err := dns.GetServerDns()
if err != nil {
return err
}
dnsServer.OnUpdatedHostDNSServer(slices.Clone(list.items))
return nil
}
// SetConnectionListener set the network connection listener
func (c *Client) SetConnectionListener(listener ConnectionListener) {
if listener == nil {
c.recorder.RemoveConnectionListener()
return
}
c.recorder.SetConnectionListener(connectionListenerAdapter{listener})
}
// RemoveConnectionListener remove connection listener
func (c *Client) RemoveConnectionListener() {
c.recorder.RemoveConnectionListener()
}
func (c *Client) getRouteManager() (routemanager.Manager, error) {
client := c.getConnectClient()
if client == nil {
return nil, fmt.Errorf("not connected")
}
engine := client.Engine()
if engine == nil {
return nil, fmt.Errorf("engine is not running")
}
manager := engine.GetRouteManager()
if manager == nil {
return nil, fmt.Errorf("could not get route manager")
}
return manager, nil
}
func (c *Client) SelectRoute(id string) error {
manager, err := c.getRouteManager()
if err != nil {
return err
}
return manager.SelectRoutes([]route.NetID{route.NetID(id)}, true)
}
func (c *Client) DeselectRoute(id string) error {
manager, err := c.getRouteManager()
if err != nil {
return err
}
return manager.DeselectRoutes([]route.NetID{route.NetID(id)})
}
// getNetworkDomainsFromRoute extracts domains from a route and enriches each domain
// with its resolved IP addresses from the provided resolvedDomains map.
func (c *Client) getNetworkDomainsFromRoute(route *route.Route, resolvedDomains map[domain.Domain]peer.ResolvedDomainInfo) NetworkDomains {
domains := NetworkDomains{}
for _, d := range route.Domains {
networkDomain := NetworkDomain{
Address: d.SafeString(),
}
if info, exists := resolvedDomains[d]; exists {
for _, prefix := range info.Prefixes {
networkDomain.addResolvedIP(prefix.Addr().String())
}
}
domains.Add(&networkDomain)
}
return domains
}
func exportEnvList(list *EnvList) {
if list == nil {
return
}
for k, v := range list.AllItems() {
if err := os.Setenv(k, v); err != nil {
log.Errorf("could not set env variable %s: %v", k, err)
}
}
}
// formatDuration renders a duration for display, trimming the fractional part
// to two digits so latencies read as "12.34ms" rather than "12.345678ms".
func formatDuration(d time.Duration) string {
ds := d.String()
dotIndex := strings.Index(ds, ".")
if dotIndex == -1 {
return ds
}
endIndex := min(dotIndex+3, len(ds))
// Skip the remaining digits so only the unit suffix is appended back.
unitStart := endIndex
for unitStart < len(ds) && ds[unitStart] >= '0' && ds[unitStart] <= '9' {
unitStart++
}
return ds[:endIndex] + ds[unitStart:]
}
// formatTime renders a timestamp in UTC using a fixed layout. The zero time is
// passed through as-is so the UI can recognise it and show "never" instead.
func formatTime(t time.Time) string {
return t.UTC().Format("2006-01-02 15:04:05")
}