Files
act_runner/internal/pkg/report/reporter.go
Lunny Xiao 573e811492 refactor: move act/model and act/exprparser to actionslib
Gitea needs the workflow model and the expression evaluator to parse
workflows and to build the task payload this runner consumes, so it had
to depend on gitea.com/gitea/runner for it. Both packages now live in
gitea.dev/actionslib, the module both sides already share, and this
repository consumes them from there.

The GithubContext helpers that need a git checkout on disk (SetRef,
SetSha and SetRepositoryAndOwner) are not moved: they are runner only and
would drag a git client and the act context logger into the shared
module. They become functions of the new act/ghcontext package, together
with their tests.

act/common.CartesianProduct moved to the shared model package as well,
act/model was its only user. act/model/testdata/container-volumes is now
act/runner/testdata/container-volumes, its only user is runner_test.go.

The x-runner-uuid and x-runner-token header names come from
actionslib too, so the runner and Gitea cannot drift apart.

The generated runner API code moved along with the repository, from
gitea.dev/actions-proto-go to gitea.dev/actionslib, so the imports of
ping/v1 and runner/v1 follow the new module path. Both cannot be used at
once: the generated types would no longer be the same types.

Signed-off-by: Lunny Xiao <xiaolunwen@gmail.com>
2026-08-06 15:14:18 -07:00

834 lines
24 KiB
Go

// Copyright 2022 The Gitea Authors. All rights reserved.
// SPDX-License-Identifier: MIT
package report
import (
"context"
"errors"
"fmt"
"regexp"
"strings"
"sync"
"sync/atomic"
"time"
"gitea.com/gitea/runner/act/runner"
"gitea.com/gitea/runner/internal/pkg/client"
"gitea.com/gitea/runner/internal/pkg/config"
"gitea.com/gitea/runner/internal/pkg/metrics"
"connectrpc.com/connect"
runnerv1 "gitea.dev/actionslib/runner/v1"
"github.com/avast/retry-go/v5"
log "github.com/sirupsen/logrus"
"google.golang.org/protobuf/proto"
"google.golang.org/protobuf/types/known/timestamppb"
)
// Size limits for the outputs reported to the server.
const (
maxOutputKeyLen = 255
maxOutputValueLen = 1024 * 1024 // 1 MiB
)
// jobOutput is a job output on its way to the server, sent once the server has acknowledged it.
type jobOutput struct {
value string
sent bool
}
type Reporter struct {
ctx context.Context
cancel context.CancelFunc
closed bool
client client.Client
clientM sync.Mutex
logOffset int
logRows []*runnerv1.LogRow
logReplacer *strings.Replacer
oldnew []string
// lastLogBufferRows is the last value written to the ReportLogBufferRows
// gauge; guarded by clientM (the same lock held around each ReportLog call)
// so the gauge skips no-op Set calls when the buffer size is unchanged.
lastLogBufferRows int
state *runnerv1.TaskState
stateChanged bool
stateMu sync.RWMutex
outputsMu sync.Mutex
outputs map[string]jobOutput
daemon chan struct{}
heartbeatStop chan struct{}
heartbeatStopOnce sync.Once
// Unix-nanos of the last successful UpdateTask. Atomic so the heartbeat
// guard in ReportState reads it without contending stateMu.
lastReportedAtNanos atomic.Int64
// Adaptive batching control
logReportInterval time.Duration
logReportMaxLatency time.Duration
logBatchSize int
stateReportInterval time.Duration
// closeTimeout bounds each RPC attempt in the final flush, on a context
// detached from r.ctx so a server cancel can't abort the acknowledgement.
closeTimeout time.Duration
// Event notification channels (non-blocking, buffered 1)
logNotify chan struct{} // signal: new log rows arrived
stateNotify chan struct{} // signal: step transition (start/stop)
debugOutputEnabled bool
stopCommandEndToken string
}
// extraMasks are values known before the job starts that are not among its secrets, such as
// the password in the runner's proxy URL.
func NewReporter(ctx context.Context, cancel context.CancelFunc, client client.Client, task *runnerv1.Task, cfg *config.Config, extraMasks ...string) *Reporter {
var oldnew []string
for _, v := range extraMasks {
oldnew = runner.AppendSecretMasker(oldnew, v)
}
if v := task.Context.Fields["token"].GetStringValue(); v != "" {
oldnew = runner.AppendSecretMasker(oldnew, v)
}
if v := task.Context.Fields["gitea_runtime_token"].GetStringValue(); v != "" {
oldnew = runner.AppendSecretMasker(oldnew, v)
}
for _, v := range task.Secrets {
oldnew = runner.AppendSecretMasker(oldnew, v)
}
rv := &Reporter{
ctx: ctx,
cancel: cancel,
client: client,
oldnew: oldnew,
logReplacer: strings.NewReplacer(oldnew...),
logReportInterval: cfg.Runner.LogReportInterval,
logReportMaxLatency: cfg.Runner.LogReportMaxLatency,
logBatchSize: cfg.Runner.LogReportBatchSize,
stateReportInterval: cfg.Runner.StateReportInterval,
closeTimeout: cfg.Runner.ReportCloseTimeout,
logNotify: make(chan struct{}, 1),
stateNotify: make(chan struct{}, 1),
state: &runnerv1.TaskState{
Id: task.Id,
},
daemon: make(chan struct{}),
heartbeatStop: make(chan struct{}),
}
if task.Secrets["ACTIONS_STEP_DEBUG"] == "true" {
rv.debugOutputEnabled = true
}
return rv
}
// Result returns the final job result. Safe to call after Close() returns.
func (r *Reporter) Result() runnerv1.Result {
r.stateMu.RLock()
defer r.stateMu.RUnlock()
return r.state.Result
}
func (r *Reporter) ResetSteps(l int) {
r.stateMu.Lock()
defer r.stateMu.Unlock()
for i := range l {
r.state.Steps = append(r.state.Steps, &runnerv1.StepState{
Id: int64(i),
})
}
}
func (r *Reporter) Levels() []log.Level {
return log.AllLevels
}
func appendIfNotNil[T any](s []*T, v *T) []*T {
if v != nil {
return append(s, v)
}
return s
}
// isJobStepEntry is used to not report composite step results incorrectly as step result
// returns true if the logentry is on job level
// returns false for composite action step messages
func isJobStepEntry(entry *log.Entry) bool {
if v, ok := entry.Data["stepID"]; ok {
if v, ok := v.([]string); ok && len(v) > 1 {
return false
}
}
return true
}
// notifyLog sends a non-blocking signal that new log rows are available.
func (r *Reporter) notifyLog() {
select {
case r.logNotify <- struct{}{}:
default:
}
}
// notifyState sends a non-blocking signal that a UX-critical state change occurred (step start/stop, job result).
func (r *Reporter) notifyState() {
select {
case r.stateNotify <- struct{}{}:
default:
}
}
// unlockAndNotify releases stateMu and sends channel notifications.
// Must be called with stateMu held.
func (r *Reporter) unlockAndNotify(urgentState bool) {
r.stateMu.Unlock()
r.notifyLog()
if urgentState {
r.notifyState()
}
}
func (r *Reporter) Fire(entry *log.Entry) error {
urgentState := false
r.stateMu.Lock()
r.stateChanged = true
if log.IsLevelEnabled(log.TraceLevel) {
log.WithFields(entry.Data).Trace(entry.Message)
}
timestamp := entry.Time
if r.state.StartedAt == nil {
r.state.StartedAt = timestamppb.New(timestamp)
}
stage := entry.Data["stage"]
if stage != "Main" {
if v, ok := entry.Data["jobResult"]; ok {
if jobResult, ok := r.parseResult(v); ok {
// We need to ensure log upload before this upload
r.state.Result = jobResult
r.state.StoppedAt = timestamppb.New(timestamp)
for _, s := range r.state.Steps {
if s.Result == runnerv1.Result_RESULT_UNSPECIFIED {
s.Result = runnerv1.Result_RESULT_CANCELLED
if jobResult == runnerv1.Result_RESULT_SKIPPED {
s.Result = runnerv1.Result_RESULT_SKIPPED
}
}
}
urgentState = true
}
}
if r.shouldAppendLogRow(entry) {
r.logRows = appendIfNotNil(r.logRows, r.parseLogRow(entry))
}
r.unlockAndNotify(urgentState)
return nil
}
var step *runnerv1.StepState
if v, ok := entry.Data["stepNumber"]; ok {
if v, ok := v.(int); ok && len(r.state.Steps) > v {
step = r.state.Steps[v]
}
}
if step == nil {
if r.shouldAppendLogRow(entry) {
r.logRows = appendIfNotNil(r.logRows, r.parseLogRow(entry))
}
r.unlockAndNotify(false)
return nil
}
if step.StartedAt == nil {
step.StartedAt = timestamppb.New(timestamp)
urgentState = true
// The runner's own handler is per step, so an unresumed ::stop-commands:: must not
// leave the reporter suppressed, and no longer registering masks, for the whole job.
r.stopCommandEndToken = ""
}
// Force reporting log errors as raw output to prevent silent failures
if entry.Level == log.ErrorLevel {
entry.Data["raw_output"] = true
}
if v, ok := entry.Data["raw_output"]; ok {
if rawOutput, ok := v.(bool); ok && rawOutput {
if row := r.parseLogRow(entry); row != nil {
if step.LogLength == 0 {
step.LogIndex = int64(r.logOffset + len(r.logRows))
}
step.LogLength++
r.logRows = append(r.logRows, row)
}
}
} else if r.shouldAppendLogRow(entry) {
r.logRows = appendIfNotNil(r.logRows, r.parseLogRow(entry))
}
if v, ok := entry.Data["stepResult"]; ok && isJobStepEntry(entry) {
if stepResult, ok := r.parseResult(v); ok {
if step.LogLength == 0 {
step.LogIndex = int64(r.logOffset + len(r.logRows))
}
step.Result = stepResult
step.StoppedAt = timestamppb.New(timestamp)
urgentState = true
}
}
r.unlockAndNotify(urgentState)
return nil
}
func (r *Reporter) RunDaemon() {
go r.runDaemonLoop()
}
// StopHeartbeats stops periodic UpdateTask heartbeats without cancelling the
// task context. Close() still delivers the final flush. Safe to call multiple
// times and when the context is already cancelled.
func (r *Reporter) StopHeartbeats() {
r.heartbeatStopOnce.Do(func() {
close(r.heartbeatStop)
})
}
func (r *Reporter) stopLatencyTimer(active *bool, timer *time.Timer) {
if *active {
if !timer.Stop() {
select {
case <-timer.C:
default:
}
}
*active = false
}
}
func (r *Reporter) runDaemonLoop() {
logTicker := time.NewTicker(r.logReportInterval)
stateTicker := time.NewTicker(r.stateReportInterval)
// maxLatencyTimer ensures the first buffered log row is sent within logReportMaxLatency.
// Start inactive — it is armed when the first log row arrives in an empty buffer.
maxLatencyTimer := time.NewTimer(0)
if !maxLatencyTimer.Stop() {
<-maxLatencyTimer.C
}
maxLatencyActive := false
defer logTicker.Stop()
defer stateTicker.Stop()
defer maxLatencyTimer.Stop()
for {
select {
case <-logTicker.C:
_ = r.ReportLog(false)
r.stopLatencyTimer(&maxLatencyActive, maxLatencyTimer)
case <-stateTicker.C:
_ = r.ReportState(false)
case <-r.logNotify:
r.stateMu.RLock()
n := len(r.logRows)
r.stateMu.RUnlock()
if n >= r.logBatchSize {
_ = r.ReportLog(false)
r.stopLatencyTimer(&maxLatencyActive, maxLatencyTimer)
} else if !maxLatencyActive && n > 0 {
maxLatencyTimer.Reset(r.logReportMaxLatency)
maxLatencyActive = true
}
case <-r.stateNotify:
// Step transition or job result — flush both immediately for frontend UX.
_ = r.ReportLog(false)
_ = r.ReportState(false)
r.stopLatencyTimer(&maxLatencyActive, maxLatencyTimer)
case <-maxLatencyTimer.C:
maxLatencyActive = false
_ = r.ReportLog(false)
case <-r.ctx.Done():
// Stop heartbeating on cancel so Gitea sees the runner as offline
// during cleanup and won't assign an overlapping task. Close() still
// delivers the final flush on a detached context (flushFinal).
close(r.daemon)
return
case <-r.heartbeatStop:
// Stop heartbeating during post-task script execution. Close() still
// delivers the final flush on a detached context (flushFinal).
close(r.daemon)
return
}
r.stateMu.RLock()
closed := r.closed
r.stateMu.RUnlock()
if closed {
close(r.daemon)
return
}
}
}
func (r *Reporter) Logf(format string, a ...any) {
r.stateMu.Lock()
defer r.stateMu.Unlock()
r.logf(format, a...)
}
func (r *Reporter) logf(format string, a ...any) {
if !r.duringSteps() {
// Masked like any other row: these bypass parseLogRow, but a caller can still
// interpolate a secret, such as a configured URL carrying credentials.
r.logRows = append(r.logRows, r.newLogRow(timestamppb.Now(), fmt.Sprintf(format, a...)))
}
}
func (r *Reporter) SetOutputs(outputs map[string]string) {
r.stateMu.Lock()
defer r.stateMu.Unlock()
r.outputsMu.Lock()
defer r.outputsMu.Unlock()
if r.outputs == nil {
r.outputs = map[string]jobOutput{}
}
for k, v := range outputs {
if l := len(k); l > maxOutputKeyLen {
log.Warnf("ignore output %q because the key is too long: %d > %d", k, l, maxOutputKeyLen)
r.logf("ignore output %q because the key is too long: %d > %d", k, l, maxOutputKeyLen)
continue
}
if l := len(v); l > maxOutputValueLen {
log.Warnf("ignore output %q because the value is too long: %d > %d", k, l, maxOutputValueLen)
r.logf("ignore output %q because the value is too long: %d > %d", k, l, maxOutputValueLen)
continue
}
if _, ok := r.outputs[k]; !ok {
r.outputs[k] = jobOutput{value: v}
}
}
}
func (r *Reporter) Close(lastWords string) error {
r.stateMu.Lock()
r.closed = true
if r.state.Result == runnerv1.Result_RESULT_UNSPECIFIED {
// When r.ctx has been cancelled (server returned RESULT_CANCELLED via
// rpcCtx/ReportState, see line 590) the job is being torn down on the
// cancellation path: surface that explicitly instead of attributing it
// to a generic failure.
cancelled := errors.Is(r.ctx.Err(), context.Canceled)
if lastWords == "" {
if cancelled {
lastWords = "Cancelled"
} else {
lastWords = "Early termination"
}
}
for _, v := range r.state.Steps {
if v.Result == runnerv1.Result_RESULT_UNSPECIFIED {
v.Result = runnerv1.Result_RESULT_CANCELLED
}
}
if cancelled {
r.state.Result = runnerv1.Result_RESULT_CANCELLED
} else {
r.state.Result = runnerv1.Result_RESULT_FAILURE
}
r.logRows = append(r.logRows, &runnerv1.LogRow{
Time: timestamppb.Now(),
Content: lastWords,
})
r.state.StoppedAt = timestamppb.Now()
} else if lastWords != "" {
r.logRows = append(r.logRows, &runnerv1.LogRow{
Time: timestamppb.Now(),
Content: lastWords,
})
}
r.stateMu.Unlock()
// Wake up the daemon loop so it detects closed promptly.
r.notifyLog()
// Wait for Acknowledge
select {
case <-r.daemon:
case <-time.After(60 * time.Second):
close(r.daemon)
log.Error("No Response from RunDaemon for 60s, continue best effort")
}
// Gitea's UpdateLog short-circuits on len(Rows)==0 before honoring NoMore,
// so a final empty request never runs TransferLogs and dbfs_data leaks.
// Inject a sentinel row after the daemon has exited so it can't be flushed
// before ReportLog(true).
// TODO: Remove after https://github.com/go-gitea/gitea/pull/37631 is in all
// supported branches, e.g. v1.28+.
r.stateMu.Lock()
if len(r.logRows) == 0 {
r.logRows = append(r.logRows, &runnerv1.LogRow{
Time: timestamppb.Now(),
Content: "",
})
}
r.stateMu.Unlock()
// Separate budgets so a slow ReportLog can't starve the ReportState that
// carries the cancel acknowledgement.
return errors.Join(
r.flushFinal(func() error { return r.ReportLog(true) }),
r.flushFinal(func() error { return r.ReportState(true) }),
)
}
// flushFinal retries fn on a detached, bounded context so a cancelled r.ctx
// does not abort the final flush. Each call gets its own fresh budget.
func (r *Reporter) flushFinal(fn func() error) error {
ctx, cancel := context.WithTimeout(context.Background(), 3*r.effectiveCloseTimeout())
defer cancel()
return retry.New(retry.Context(ctx)).Do(fn)
}
// effectiveCloseTimeout returns closeTimeout, or 10s when unset, so a zero
// value can't produce an already-expired context for the final flush.
func (r *Reporter) effectiveCloseTimeout() time.Duration {
if r.closeTimeout <= 0 {
return 10 * time.Second
}
return r.closeTimeout
}
// rpcCtx returns the context for an outbound RPC plus a cancel func. While
// r.ctx is alive it's used directly; once cancelled (server RESULT_CANCELLED),
// RPCs switch to a fresh bounded context so Close()'s final flush still lands.
func (r *Reporter) rpcCtx() (context.Context, context.CancelFunc) {
select {
case <-r.ctx.Done():
return context.WithTimeout(context.Background(), r.effectiveCloseTimeout())
default:
return r.ctx, func() {}
}
}
func (r *Reporter) ReportLog(noMore bool) error {
r.clientM.Lock()
defer r.clientM.Unlock()
r.stateMu.RLock()
rows := r.logRows
r.stateMu.RUnlock()
if !noMore && len(rows) == 0 {
return nil
}
rpcCtx, rpcCancel := r.rpcCtx()
defer rpcCancel()
start := time.Now()
resp, err := r.client.UpdateLog(rpcCtx, connect.NewRequest(&runnerv1.UpdateLogRequest{
TaskId: r.state.Id,
Index: int64(r.logOffset),
Rows: rows,
NoMore: noMore,
}))
metrics.ReportLogDuration.Observe(time.Since(start).Seconds())
if err != nil {
metrics.ReportLogTotal.WithLabelValues(metrics.LabelResultError).Inc()
metrics.ClientErrors.WithLabelValues(metrics.LabelMethodUpdateLog).Inc()
return err
}
metrics.ReportLogTotal.WithLabelValues(metrics.LabelResultSuccess).Inc()
ack := int(resp.Msg.AckIndex)
if ack < r.logOffset {
return errors.New("submitted logs are lost")
}
r.stateMu.Lock()
r.logRows = r.logRows[ack-r.logOffset:]
submitted := r.logOffset + len(rows)
r.logOffset = ack
remaining := len(r.logRows)
r.stateMu.Unlock()
if remaining != r.lastLogBufferRows {
metrics.ReportLogBufferRows.Set(float64(remaining))
r.lastLogBufferRows = remaining
}
if noMore && ack < submitted {
return errors.New("not all logs are submitted")
}
return nil
}
// ReportState only reports the job result if reportResult is true
// RunDaemon never reports results even if result is set
func (r *Reporter) ReportState(reportResult bool) error {
r.clientM.Lock()
defer r.clientM.Unlock()
outputs := make(map[string]string)
r.outputsMu.Lock()
for key, out := range r.outputs {
if !out.sent {
outputs[key] = out.value
}
}
r.outputsMu.Unlock()
// Consume stateChanged atomically with the snapshot; restored on error
// below so a concurrent Fire() during UpdateTask isn't silently lost.
// Heartbeat at stateReportInterval even when nothing changed, so the server
// doesn't time out long-running silent jobs as orphaned (#826).
last := r.lastReportedAtNanos.Load()
withinHeartbeatInterval := last != 0 && time.Since(time.Unix(0, last)) < r.stateReportInterval
r.stateMu.Lock()
if !reportResult && !r.stateChanged && len(outputs) == 0 && withinHeartbeatInterval {
r.stateMu.Unlock()
return nil
}
state := &runnerv1.TaskState{}
proto.Merge(state, r.state)
r.stateChanged = false
r.stateMu.Unlock()
if !reportResult {
state.Result = runnerv1.Result_RESULT_UNSPECIFIED
}
rpcCtx, rpcCancel := r.rpcCtx()
defer rpcCancel()
start := time.Now()
resp, err := r.client.UpdateTask(rpcCtx, connect.NewRequest(&runnerv1.UpdateTaskRequest{
State: state,
Outputs: outputs,
}))
metrics.ReportStateDuration.Observe(time.Since(start).Seconds())
if err != nil {
metrics.ReportStateTotal.WithLabelValues(metrics.LabelResultError).Inc()
metrics.ClientErrors.WithLabelValues(metrics.LabelMethodUpdateTask).Inc()
r.stateMu.Lock()
r.stateChanged = true
r.stateMu.Unlock()
return err
}
metrics.ReportStateTotal.WithLabelValues(metrics.LabelResultSuccess).Inc()
r.lastReportedAtNanos.Store(time.Now().UnixNano())
var noSent []string
r.outputsMu.Lock()
for _, k := range resp.Msg.SentOutputs {
if _, ok := r.outputs[k]; ok {
r.outputs[k] = jobOutput{sent: true}
}
}
for key, out := range r.outputs {
if !out.sent {
noSent = append(noSent, key)
}
}
r.outputsMu.Unlock()
if resp.Msg.State != nil && resp.Msg.State.Result == runnerv1.Result_RESULT_CANCELLED {
r.cancel()
}
if len(noSent) > 0 {
return fmt.Errorf("there are still outputs that have not been sent: %v", noSent)
}
return nil
}
func (r *Reporter) duringSteps() bool {
if steps := r.state.Steps; len(steps) == 0 {
return false
} else if first := steps[0]; first.Result == runnerv1.Result_RESULT_UNSPECIFIED && first.LogLength == 0 {
return false
} else if last := steps[len(steps)-1]; last.Result != runnerv1.Result_RESULT_UNSPECIFIED {
return false
}
return true
}
// shouldAppendLogRow reports whether a non-raw_output entry should be written
// to the job log: only when we are between steps and the entry's level is
// within the globally configured log level.
func (r *Reporter) shouldAppendLogRow(entry *log.Entry) bool {
return !r.duringSteps() && entry.Level <= log.GetLevel()
}
var stringToResult = map[string]runnerv1.Result{
"success": runnerv1.Result_RESULT_SUCCESS,
"failure": runnerv1.Result_RESULT_FAILURE,
"skipped": runnerv1.Result_RESULT_SKIPPED,
"cancelled": runnerv1.Result_RESULT_CANCELLED,
}
func (r *Reporter) parseResult(result any) (runnerv1.Result, bool) {
str := ""
if v, ok := result.(string); ok { // for jobResult
str = v
} else if v, ok := result.(fmt.Stringer); ok { // for stepResult
str = v.String()
}
ret, ok := stringToResult[str]
return ret, ok
}
// A property value never contains a raw ':' (GitHub escapes it as %3A), so excluding ':' ends
// the property list at the first '::' as GitHub does; greedily would swallow a '::' message.
var cmdRegex = regexp.MustCompile(`^::([^ :]+)( [^:]*)?::(.*)$`)
// handleCommand takes value still escaped, so that the web UI decodes it exactly once. Only
// the branches that consume the payload here decode it.
func (r *Reporter) handleCommand(originalContent, command, properties, value string) *string {
if r.stopCommandEndToken != "" {
if command != r.stopCommandEndToken {
return &originalContent
}
// Resumed here rather than from the switch, because the end token is arbitrary and a
// token naming a real command would otherwise never resume.
r.stopCommandEndToken = ""
return nil
}
switch command {
case "add-mask":
r.addMask(runner.UnescapeCommandData(value))
return nil
case "debug":
if r.debugOutputEnabled {
return &originalContent // kept as ::debug::, so the web UI labels and decodes it
}
return nil
case "notice", "warning", "error":
// Gitea has no annotation store, so the annotation is rendered into the log with
// its source location instead of being dropped: that location is the whole point
// of the command for compiler and linter output.
annotation := formatAnnotation(command, properties, value)
return &annotation
case "group", "endgroup":
// Passed through: the web UI folds the log on these and decodes the payload itself.
return &originalContent
case "stop-commands":
r.stopCommandEndToken = runner.UnescapeCommandData(value)
return nil
}
return &originalContent
}
// formatAnnotation folds the file, line, column and title the command carries into its message,
// which the web UI otherwise drops along with the rest of the properties:
//
// ::error file=main.go,line=12,col=5,title=vet::undefined: x
// ::error::main.go:12:5: vet: undefined: x
//
// The ::-form prefix is deliberate, and value is not escaped here because it arrived escaped
// and must stay that way.
func formatAnnotation(level, properties, value string) string {
props := parseCommandProperties(properties)
prefix := props["file"]
if prefix != "" {
if props["line"] != "" {
prefix += ":" + props["line"]
if props["col"] != "" {
prefix += ":" + props["col"]
}
}
prefix += ": "
}
if props["title"] != "" {
prefix += props["title"] + ": "
}
return "::" + level + "::" + prefix + value
}
// parseCommandProperties parses the `file=main.go,line=12` part of a workflow command.
func parseCommandProperties(properties string) map[string]string {
properties = strings.TrimSpace(properties)
if properties == "" {
return nil
}
props := map[string]string{}
for pair := range strings.SplitSeq(properties, ",") {
key, value, ok := strings.Cut(pair, "=")
if !ok {
continue
}
// Only the property-list separators are decoded, the web UI decodes the rest.
value = strings.ReplaceAll(strings.ReplaceAll(value, "%3A", ":"), "%2C", ",")
// GitHub keys its property dictionary case-insensitively, so `File=` works there too.
props[strings.ToLower(strings.TrimSpace(key))] = value
}
// GitHub's toolkit emits `col`; accept `column` as well, which some tools write instead.
if props["col"] == "" {
props["col"] = props["column"]
}
return props
}
func (r *Reporter) parseLogRow(entry *log.Entry) *runnerv1.LogRow {
content := strings.TrimRight(entry.Message, "\r\n")
// cmdRegex only covers the ::cmd:: form, so the ##[add-mask] one would otherwise reach
// the log carrying its own secret. Registered and dropped like its ::add-mask:: twin.
if arg, ok := strings.CutPrefix(content, "##[add-mask]"); ok {
r.addMask(runner.UnescapeCommandData(arg))
return nil
}
matches := cmdRegex.FindStringSubmatch(content)
if matches != nil {
if output := r.handleCommand(content, matches[1], matches[2], matches[3]); output != nil {
content = *output
} else {
return nil
}
}
return r.newLogRow(timestamppb.New(entry.Time), content)
}
// newLogRow applies the masking and validation every row must carry, whatever built it.
func (r *Reporter) newLogRow(t *timestamppb.Timestamp, content string) *runnerv1.LogRow {
return &runnerv1.LogRow{
Time: t,
Content: strings.ToValidUTF8(r.logReplacer.Replace(content), "?"),
}
}
func (r *Reporter) addMask(msg string) {
r.oldnew = runner.AppendSecretMasker(r.oldnew, msg)
r.logReplacer = strings.NewReplacer(r.oldnew...)
}