P4: audit battery — run.Audit Sink + Writer + queryable Memory store

First Tier-2 battery, plugging into run.Ports.Audit:
- storage.go/writer.go: skillaudit's Storage interface + per-run Writer moved
  clean (only utils->fmt); the Writer already matches run.RunRecorder's shape.
- sink.go: Sink adapts a Storage to run.Audit (StartRun -> a run row + a Writer
  wrapped as run.RunRecorder, converting run.RunStats on Close). NewSink(nil) is
  equivalent to no audit. Compile-time proofs: Sink is run.Audit, recorder is
  run.RunRecorder.
- memory.go: NewMemory() — a zero-dependency, queryable in-process Storage
  (retains runs + logs; all 17 read/filter/purge/walk methods) so a light host
  gets run history with no setup. Mort keeps its GORM Storage; contrib/store
  adds durable SQLite at P4.

End-to-end test: wire audit.NewSink(audit.NewMemory()) into the executor, run an
agent, and the run is recorded with terminal status/output and queryable by
caller. CI invariant verified: core imports ZERO from the audit battery (proper
battery direction; battery imports core, never the reverse).

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
This commit is contained in:
2026-06-26 22:14:37 -04:00
parent b35514dfaa
commit addf3a19d1
6 changed files with 978 additions and 1 deletions
+2 -1
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@@ -63,7 +63,8 @@ CORE (majordomo + stdlib):
BATTERIES (opt-in siblings, each nil-safe + a default):
persona/ Agent noun + AgentStore seam + yml loader [P4]
skill/ rich Skill + SkillStore seam + toml loader [P4]
audit/ run-trace Sink (+ Noop/Slog) [P4]
audit/ run.Audit Sink + Writer + queryable Memory [P4]
default (skillaudit Storage iface; GORM stays in mort)
critic/ two-tier timeout state machine + Escalator [P4]
schedule/ cron runner cores [P4]
checkpoint/ durable resume seam [P4]
+78
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@@ -0,0 +1,78 @@
package audit_test
import (
"context"
"testing"
"gitea.stevedudenhoeffer.com/steve/majordomo/llm"
"gitea.stevedudenhoeffer.com/steve/majordomo/provider/fake"
"gitea.stevedudenhoeffer.com/steve/executus/audit"
"gitea.stevedudenhoeffer.com/steve/executus/run"
"gitea.stevedudenhoeffer.com/steve/executus/tool"
)
// TestAuditBatteryEndToEnd wires the audit battery (Memory storage) into
// run.Ports.Audit, runs an agent, and verifies the run was recorded and is
// queryable — proving Sink/Writer/Memory satisfy the core seams end to end.
func TestAuditBatteryEndToEnd(t *testing.T) {
mem := audit.NewMemory()
fp := fake.New("fake")
fp.Enqueue("m", fake.Reply("the answer"))
m, err := fp.Model("m")
if err != nil {
t.Fatal(err)
}
ex := run.New(run.Config{
Registry: tool.NewRegistry(),
Models: func(ctx context.Context, _ string) (context.Context, llm.Model, error) {
return ctx, m, nil
},
Ports: run.Ports{Audit: audit.NewSink(mem)},
})
res := ex.Run(context.Background(),
run.RunnableAgent{ID: "agent-1", Name: "a", ModelTier: "m"},
tool.Invocation{RunID: "run-xyz", CallerID: "caller-1"},
"question")
if res.Err != nil {
t.Fatalf("run error: %v", res.Err)
}
// The run was recorded with a terminal status + output.
got, err := mem.GetRun(context.Background(), "run-xyz")
if err != nil {
t.Fatalf("GetRun: %v", err)
}
if got.Status != "ok" {
t.Errorf("status = %q, want ok", got.Status)
}
if got.Output != "the answer" {
t.Errorf("output = %q, want %q", got.Output, "the answer")
}
if got.FinishedAt == nil {
t.Error("FinishedAt should be set after the run")
}
if got.SkillID != "agent-1" {
t.Errorf("SkillID = %q, want agent-1 (the subject id)", got.SkillID)
}
// And it is queryable by caller.
runs, err := mem.ListRunsByCaller(context.Background(), "caller-1", 10)
if err != nil {
t.Fatalf("ListRunsByCaller: %v", err)
}
if len(runs) != 1 || runs[0].ID != "run-xyz" {
t.Errorf("ListRunsByCaller = %+v, want [run-xyz]", runs)
}
}
// TestNilSinkRecordsNothing: NewSink(nil) is equivalent to no audit.
func TestNilSinkRecordsNothing(t *testing.T) {
s := audit.NewSink(nil)
if rec := s.StartRun(context.Background(), run.RunInfo{RunID: "r"}); rec != nil {
t.Error("NewSink(nil).StartRun should return a nil recorder")
}
}
+255
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@@ -0,0 +1,255 @@
package audit
import (
"context"
"sort"
"sync"
"time"
)
// Memory is an in-process Storage: it retains runs + logs in memory so a light
// host (or a test) gets queryable run history with zero setup. It is bounded
// only by process memory — a host that runs forever should PurgeOlderThan
// periodically, or use a persistent Storage. Construct with NewMemory.
//
// Mort uses its GORM/MySQL Storage; contrib/store adds a durable SQLite one.
// Memory is the zero-dependency default behind audit.NewSink(audit.NewMemory()).
type Memory struct {
mu sync.RWMutex
order []string // run ids in insertion order
runs map[string]SkillRun // by run id
logs map[string][]SkillRunLog // by run id
}
// NewMemory returns an empty in-memory Storage.
func NewMemory() *Memory {
return &Memory{runs: map[string]SkillRun{}, logs: map[string][]SkillRunLog{}}
}
var _ Storage = (*Memory)(nil)
func (m *Memory) Initialize(context.Context) error { return nil }
func (m *Memory) StartRun(_ context.Context, run SkillRun) error {
m.mu.Lock()
defer m.mu.Unlock()
if _, ok := m.runs[run.ID]; !ok {
m.order = append(m.order, run.ID)
}
m.runs[run.ID] = run
return nil
}
func (m *Memory) FinishRun(_ context.Context, runID string, s RunStats) error {
m.mu.Lock()
defer m.mu.Unlock()
r, ok := m.runs[runID]
if !ok {
return ErrNotFound
}
now := time.Now()
r.FinishedAt = &now
r.Status = s.Status
r.Output = s.Output
r.Error = s.Error
r.ToolCallsCount = s.ToolCalls
r.RuntimeSeconds = s.RuntimeSeconds
r.TotalInputTokens = s.InputTokens
r.TotalOutputTokens = s.OutputTokens
r.TotalThinkingTokens = s.ThinkingTokens
m.runs[runID] = r
return nil
}
func (m *Memory) AppendLog(_ context.Context, log SkillRunLog) error {
m.mu.Lock()
defer m.mu.Unlock()
m.logs[log.RunID] = append(m.logs[log.RunID], log)
return nil
}
func (m *Memory) GetRun(_ context.Context, runID string) (*SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
r, ok := m.runs[runID]
if !ok {
return nil, ErrNotFound
}
return &r, nil
}
func (m *Memory) ListLogsByRun(_ context.Context, runID string) ([]SkillRunLog, error) {
m.mu.RLock()
defer m.mu.RUnlock()
ls := append([]SkillRunLog(nil), m.logs[runID]...)
sort.SliceStable(ls, func(i, j int) bool { return ls[i].Sequence < ls[j].Sequence })
return ls, nil
}
// newestFirst returns the retained runs in reverse insertion order, optionally
// filtered. Caller holds at least RLock.
func (m *Memory) newestFirst(keep func(SkillRun) bool) []SkillRun {
out := make([]SkillRun, 0, len(m.order))
for i := len(m.order) - 1; i >= 0; i-- {
r := m.runs[m.order[i]]
if keep == nil || keep(r) {
out = append(out, r)
}
}
return out
}
func page(rs []SkillRun, offset, limit int) []SkillRun {
if offset < 0 {
offset = 0
}
if offset >= len(rs) {
return nil
}
rs = rs[offset:]
if limit > 0 && limit < len(rs) {
rs = rs[:limit]
}
return rs
}
func (m *Memory) ListRunsBySkill(ctx context.Context, skillID string, limit int) ([]SkillRun, error) {
return m.ListRunsBySkillPaginated(ctx, skillID, 0, limit, false)
}
func (m *Memory) ListRunsBySkillPaginated(_ context.Context, skillID string, offset, limit int, includeDryRun bool) ([]SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return page(m.newestFirst(func(r SkillRun) bool {
return r.SkillID == skillID && (includeDryRun || r.Status != "dry_run")
}), offset, limit), nil
}
func (m *Memory) CountRunsBySkill(_ context.Context, skillID string, includeDryRun bool) (int64, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return int64(len(m.newestFirst(func(r SkillRun) bool {
return r.SkillID == skillID && (includeDryRun || r.Status != "dry_run")
}))), nil
}
func (m *Memory) ListRunsByCaller(_ context.Context, callerID string, limit int) ([]SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return page(m.newestFirst(func(r SkillRun) bool {
return r.CallerID == callerID && r.Status != "dry_run"
}), 0, limit), nil
}
func (m *Memory) matchesFilter(r SkillRun, f RunFilter) bool {
if !f.IncludeDryRun && r.Status == "dry_run" {
return false
}
if f.Status != "" && r.Status != f.Status {
return false
}
if f.SkillID != "" && r.SkillID != f.SkillID {
return false
}
if f.CallerID != "" && r.CallerID != f.CallerID {
return false
}
if f.ChannelID != "" && r.ChannelID != f.ChannelID {
return false
}
if f.TopLevelOnly && r.ParentRunID != "" {
return false
}
if !f.Since.IsZero() && r.StartedAt.Before(f.Since) {
return false
}
if !f.Until.IsZero() && r.StartedAt.After(f.Until) {
return false
}
return true
}
func (m *Memory) ListRunsFiltered(_ context.Context, f RunFilter, offset, limit int) ([]SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return page(m.newestFirst(func(r SkillRun) bool { return m.matchesFilter(r, f) }), offset, limit), nil
}
func (m *Memory) CountRunsFiltered(_ context.Context, f RunFilter) (int64, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return int64(len(m.newestFirst(func(r SkillRun) bool { return m.matchesFilter(r, f) }))), nil
}
func (m *Memory) PurgeOlderThan(_ context.Context, t time.Time) (int64, error) {
m.mu.Lock()
defer m.mu.Unlock()
var purged int64
kept := m.order[:0:0]
for _, id := range m.order {
r := m.runs[id]
if r.FinishedAt != nil && r.FinishedAt.Before(t) {
delete(m.runs, id)
delete(m.logs, id)
purged++
continue
}
kept = append(kept, id)
}
m.order = kept
return purged, nil
}
func (m *Memory) ListChildrenByParent(_ context.Context, parentRunID string) ([]SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return m.newestFirst(func(r SkillRun) bool { return r.ParentRunID == parentRunID }), nil
}
func (m *Memory) WalkParentChain(_ context.Context, runID string) ([]SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
var chain []SkillRun
seen := map[string]bool{}
for id := runID; id != ""; {
r, ok := m.runs[id]
if !ok || seen[id] {
break
}
seen[id] = true
chain = append(chain, r)
id = r.ParentRunID
}
return chain, nil
}
func (m *Memory) ListFinishedRunsBefore(_ context.Context, cutoff time.Time, limit int) ([]SkillRun, error) {
m.mu.RLock()
defer m.mu.RUnlock()
return page(m.newestFirst(func(r SkillRun) bool {
return r.FinishedAt != nil && r.FinishedAt.Before(cutoff)
}), 0, limit), nil
}
func (m *Memory) LastRunBySkills(_ context.Context, skillIDs []string, includeFailed bool) (map[string]time.Time, error) {
m.mu.RLock()
defer m.mu.RUnlock()
want := map[string]bool{}
for _, id := range skillIDs {
want[id] = true
}
out := map[string]time.Time{}
for _, id := range m.order {
r := m.runs[id]
if !want[r.SkillID] {
continue
}
if !includeFailed && (r.Status == "error" || r.Status == "timeout") {
continue
}
if r.StartedAt.After(out[r.SkillID]) {
out[r.SkillID] = r.StartedAt
}
}
return out, nil
}
+76
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@@ -0,0 +1,76 @@
package audit
import (
"context"
"time"
"gitea.stevedudenhoeffer.com/steve/majordomo/llm"
"gitea.stevedudenhoeffer.com/steve/executus/run"
)
// Sink adapts an audit Storage to the run.Audit port: StartRun opens a run row
// and returns a per-run recorder (a Writer) that the executor feeds with steps,
// tool calls, and the terminal roll-up. This is what plugs the audit battery
// into run.Ports.Audit — mort backs it with its GORM Storage, a light host with
// Memory() (or omits it entirely).
type Sink struct{ storage Storage }
// NewSink wraps a Storage as a run.Audit. A nil Storage yields a Sink whose
// StartRun returns nil (the executor then records nothing) — so NewSink(nil) is
// equivalent to leaving run.Ports.Audit unset.
func NewSink(storage Storage) *Sink { return &Sink{storage: storage} }
// compile-time proof the adapter satisfies the core seams.
var (
_ run.Audit = (*Sink)(nil)
_ run.RunRecorder = (*recorder)(nil)
)
// StartRun records the run start and returns a recorder. Implements run.Audit.
func (s *Sink) StartRun(ctx context.Context, info run.RunInfo) run.RunRecorder {
if s == nil || s.storage == nil {
return nil
}
started := info.StartedAt
if started.IsZero() {
started = time.Now()
}
// Best-effort: a failed StartRun must not break the user-visible run.
_ = s.storage.StartRun(ctx, SkillRun{
ID: info.RunID,
SkillID: info.SubjectID,
CallerID: info.CallerID,
ChannelID: info.ChannelID,
ParentRunID: info.ParentRunID,
Inputs: info.Inputs,
StartedAt: started,
Status: "running",
})
return &recorder{w: NewWriter(s.storage, info.RunID)}
}
// recorder adapts a *Writer to run.RunRecorder, converting run.RunStats to the
// audit RunStats on Close (the two have identical fields).
type recorder struct{ w *Writer }
func (r *recorder) TokenStats() (in, out, thinking int64) { return r.w.TokenStats() }
func (r *recorder) ToolCallsCount() int { return r.w.ToolCallsCount() }
func (r *recorder) OnStep(iter int, resp *llm.Response) { r.w.OnStep(iter, resp) }
func (r *recorder) OnTool(call llm.ToolCall, result string) { r.w.OnTool(call, result) }
func (r *recorder) LogEvent(eventType string, payload map[string]any) {
r.w.LogEvent(eventType, payload)
}
func (r *recorder) LogError(msg string) { r.w.LogError(msg) }
func (r *recorder) Close(ctx context.Context, s run.RunStats) {
r.w.Close(ctx, RunStats{
Status: s.Status,
Output: s.Output,
Error: s.Error,
ToolCalls: s.ToolCalls,
RuntimeSeconds: s.RuntimeSeconds,
InputTokens: s.InputTokens,
OutputTokens: s.OutputTokens,
ThinkingTokens: s.ThinkingTokens,
})
}
+245
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@@ -0,0 +1,245 @@
// Package skillaudit persists skill execution traces: per-run summary rows
// (skill_runs) and per-step event logs (skill_run_logs). The executor in
// pkg/logic/skillexec emits events through a Writer; the storage layer is
// kept separate so tests can mock it and so retention pruning has a clear
// home.
//
// Why: agentic runs can be long, multi-tool affairs. Without a structured
// audit trail, debugging "why did the LLM do that?" is impossible. The
// log table is keyed by (run_id, sequence) so insert order is preserved.
package audit
import (
"context"
"errors"
"time"
)
// ErrNotFound is returned when a run lookup fails.
var ErrNotFound = errors.New("skill run not found")
// SkillRun is the per-invocation summary row. One per call to
// Executor.Run. Status transitions through running → ok / error /
// timeout / budget_exceeded / dry_run.
type SkillRun struct {
ID string
SkillID string
CallerID string
ChannelID string
Inputs map[string]any
StartedAt time.Time
FinishedAt *time.Time
Status string // running|ok|error|timeout|budget_exceeded|dry_run
Output string
Error string
ToolCallsCount int
RuntimeSeconds float64
// ParentRunID is the run_id of the parent skill that invoked this
// run via skill_invoke. Empty for top-level invocations. Indexed
// in the gorm model so call-tree queries (ListChildrenByParent +
// WalkParentChain) are cheap.
ParentRunID string
// Token roll-ups, summed across all model completions in this run
// (one Usage per OnStep). All default to 0 when the provider did
// not expose token usage.
TotalInputTokens int64
TotalOutputTokens int64
TotalThinkingTokens int64
}
// RunStats captures the terminal state of a run for FinishRun. Bundling
// these into one struct (vs a long positional argument list) keeps
// callers readable; future fields slot in here without touching every
// call site.
//
// Why: FinishRun originally took six positional args; adding token
// columns would push it higher. A struct is the idiomatic Go way to
// avoid the positional-arg explosion.
type RunStats struct {
Status string // ok|error|timeout|budget_exceeded|dry_run
Output string // final agent output (empty on error)
Error string // error message (empty on success)
ToolCalls int // total OnTool count
RuntimeSeconds float64 // wall-clock duration
// Token roll-ups (all default to 0 when token usage was not
// exposed by the provider).
InputTokens int64
OutputTokens int64
ThinkingTokens int64
}
// SkillRunLog is one event recorded during a run. EventType ∈
// step|tool_call|tool_result|error. Payload is opaque JSON the writer
// emits.
type SkillRunLog struct {
RunID string
Sequence int
EventType string
Payload map[string]any
CreatedAt time.Time
}
// RunFilter is the predicate bundle for the cross-surface "recent runs"
// query (ListRunsFiltered / CountRunsFiltered). Every field is optional;
// the zero value matches the most recent runs across ALL audited surfaces
// (agents + skills). This powers the admin agent-trace debug view and the
// Claude debug API's /runs list.
//
// Why a struct (vs positional args): the debug list filters along several
// independent axes and more will be added; bundling avoids a positional
// explosion and keeps call sites readable.
type RunFilter struct {
Status string // exact status match; "" = all (dry_run excluded unless IncludeDryRun)
SkillID string // exact skill_id (holds the agent UUID for agent runs)
CallerID string // exact caller (Discord member id)
ChannelID string // exact channel id
// TopLevelOnly restricts to root runs (parent_run_id = ''), hiding
// nested sub-agent / sub-skill runs from the firehose. The debug list
// defaults this on; an "include nested" toggle clears it.
TopLevelOnly bool
// IncludeDryRun surfaces status="dry_run" sandbox rows, which are
// excluded by default. Ignored when Status is set explicitly (an
// explicit Status=="dry_run" still matches).
IncludeDryRun bool
// Since / Until bound started_at: started_at >= Since (zero = no lower
// bound) and started_at < Until (zero = no upper bound).
Since time.Time
Until time.Time
}
// Storage is the persistence interface for skill runs and per-step logs.
//
// Why: tests substitute fake implementations; production wires
// NewGormStorage. Keep the interface narrow — the system only needs CRUD
// plus the retention prune helper.
type Storage interface {
Initialize(ctx context.Context) error
// StartRun inserts the run with status=running. The caller MUST
// invoke FinishRun later (or the row stays in running indefinitely
// — operationally that signals a crash mid-run, which is useful
// signal).
StartRun(ctx context.Context, run SkillRun) error
// FinishRun updates the running row with terminal status, output
// and stats. Idempotent on second call (last write wins).
//
// V5: takes a RunStats struct so token + cost columns can be
// written alongside the legacy fields without changing the
// signature for every future addition.
FinishRun(ctx context.Context, runID string, stats RunStats) error
// AppendLog adds one event to the run's log. Sequence numbers must
// be unique per run; the writer is responsible for monotonic
// ordering.
AppendLog(ctx context.Context, log SkillRunLog) error
// GetRun returns the run summary, or ErrNotFound.
GetRun(ctx context.Context, runID string) (*SkillRun, error)
// ListLogsByRun returns all logs for a run in sequence order.
ListLogsByRun(ctx context.Context, runID string) ([]SkillRunLog, error)
// ListRunsBySkill returns recent runs for a skill, newest first,
// capped at limit. Excludes dry-run rows by default — use
// ListRunsBySkillPaginated with includeDryRun=true to see them.
ListRunsBySkill(ctx context.Context, skillID string, limit int) ([]SkillRun, error)
// ListRunsBySkillPaginated returns recent runs for a skill, newest
// first, with offset+limit. When includeDryRun is false, rows with
// status="dry_run" are excluded (matches the wizard's sandbox
// status; see skillaudit.Writer / wizardtools docs).
//
// Why a separate paginated method vs. expanding ListRunsBySkill:
// callers that need the legacy "last N" view (Discord .skill runs,
// chatbot tool result) want the simpler signature; the paginated
// view is webui-specific.
ListRunsBySkillPaginated(ctx context.Context, skillID string,
offset, limit int, includeDryRun bool) ([]SkillRun, error)
// CountRunsBySkill returns the total number of runs for a skill.
// When includeDryRun is false, dry-run rows are excluded so the
// count matches the default ListRunsBySkillPaginated result.
CountRunsBySkill(ctx context.Context, skillID string, includeDryRun bool) (int64, error)
// ListRunsByCaller returns recent runs by a caller, newest first,
// capped at limit.
ListRunsByCaller(ctx context.Context, callerID string, limit int) ([]SkillRun, error)
// ListRunsFiltered returns runs matching f, newest first
// (started_at DESC), with offset+limit. With an all-zero filter it
// returns the most recent runs across EVERY audited surface (agents +
// skills) — the cross-surface feed behind the admin agent-trace debug
// view and the Claude debug API. dry_run rows are excluded unless
// f.IncludeDryRun or f.Status=="dry_run". limit is clamped (<=0 or
// >500 → 50) to bound admin scans.
ListRunsFiltered(ctx context.Context, f RunFilter, offset, limit int) ([]SkillRun, error)
// CountRunsFiltered returns the total rows matching f (ignoring
// offset/limit), for pagination math.
CountRunsFiltered(ctx context.Context, f RunFilter) (int64, error)
// PurgeOlderThan deletes runs (and their logs) whose StartedAt is
// strictly before t. Returns the number of runs deleted.
PurgeOlderThan(ctx context.Context, t time.Time) (int64, error)
// ListChildrenByParent returns all SkillRun rows where
// parent_run_id == parentRunID, oldest first. Used for the
// call-tree view (skill_invoke trace section) and as a building
// block for WalkParentChain.
//
// Returns an empty slice when parentRunID has no children. An
// empty parentRunID never matches anything (no row stores ""
// as a parent — that's the top-level sentinel).
ListChildrenByParent(ctx context.Context, parentRunID string) ([]SkillRun, error)
// WalkParentChain walks from runID up via parent_run_id, returning
// the chain of SkillRun summaries (oldest = root first, newest =
// runID last). Used by the loop guard in skill_invoke.
//
// Cap walk depth at 32 to prevent pathological loops in the data
// itself: if the parent_run_id chain has been corrupted (e.g. by
// a bad migration) and forms a cycle, we want a bounded result
// rather than an infinite loop.
WalkParentChain(ctx context.Context, runID string) ([]SkillRun, error)
// ListFinishedRunsBefore returns runs whose FinishedAt is strictly
// before cutoff, oldest first, capped at limit. limit <= 0 yields
// no rows (the caller is expected to specify a real bound).
//
// Why: skills.StorageSweeper drives the run-scope storage purge from
// this query. The sweeper picks up only finished runs so an
// in-flight run's run-scope KV/files cannot be deleted out from
// under it.
//
// Test: storage_test.go covers the include/exclude boundaries
// (running rows excluded; finished-after-cutoff excluded; finished-
// before-cutoff included).
ListFinishedRunsBefore(ctx context.Context, cutoff time.Time, limit int) ([]SkillRun, error)
// LastRunBySkills returns the most recent StartedAt timestamp per
// skill in the input ID list. Skills with no rows simply have no
// entry in the result map (caller distinguishes "never run" from
// "run but no timestamp" by map key presence).
//
// When includeFailed is true, all non-dry-run statuses count
// (ok / error / timeout / budget_exceeded / preempted / lane_busy).
// When false, only status="ok" rows count — useful for "last
// successful run" semantics on dashboards where errored runs
// shouldn't surface as recent activity.
//
// Empty skillIDs short-circuits to an empty map without touching
// the DB.
LastRunBySkills(ctx context.Context, skillIDs []string, includeFailed bool) (map[string]time.Time, error)
}
// MaxParentChainDepth is the safety cap for WalkParentChain. The loop
// guard in skill_invoke enforces a separate (smaller) MaxInvokeDepth
// at the tool layer; this cap exists only to bound the walk in the
// presence of corrupted data.
const MaxParentChainDepth = 32
+322
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@@ -0,0 +1,322 @@
package audit
import (
"context"
"fmt"
"log/slog"
"strings"
"sync"
"sync/atomic"
"time"
llm "gitea.stevedudenhoeffer.com/steve/majordomo/llm"
)
// stepTextMax caps the per-step assistant-text preview persisted on a
// "step" event. Large enough to capture the model's reasoning around a
// (mis)fired tool call — the single best clue to WHY a model emitted a
// malformed call — but bounded so the longtext payload can't balloon.
const stepTextMax = 2000
// Writer wraps a Storage with the OnStep / OnTool callbacks suitable for
// wiring into the majordomo agent loop's step observer, tracking sequence
// numbers and tool-call counts internally.
//
// Why: the agent loop's observer hooks are unaware of run identity; the
// writer captures the runID + skill metadata at construction so the
// per-event callbacks stay simple. AppendLog failures are logged but
// never fatal — audit must not break user-visible execution.
//
// What: NewWriter(storage, runID) → use OnStep / OnTool / Close. Close
// records the final FinishRun. The executors translate each agent.Step
// into one OnStep call (1-indexed iteration, the step's *llm.Response)
// plus one OnTool call per executed tool.
//
// Test: see writer_test.go for sequence ordering and finish semantics.
type Writer struct {
storage Storage
runID string
sequence atomic.Int32
calls atomic.Int32
mu sync.Mutex // guards Close idempotency + token tally
closed bool
// V5 token accumulator — summed across each OnStep's resp.Usage.
// Reads come from TokenStats() so the executor can pass them to
// FinishRun. atomics-on-Int64 would also work, but mu already
// guards Close + we need consistent multi-field reads anyway
// (input + output + thinking). The mutex hot-path overhead is
// negligible vs the LLM call latency that dominates step time.
inputTokens int64
outputTokens int64
thinkingTokens int64
// Per-step wall-clock + run-level model attribution (guarded by mu).
// startedAt anchors the first step's duration; lastStepAt is the
// previous step's observation time; resolvedModelLogged ensures the
// one-shot "resolved_model" run-level event fires at most once.
startedAt time.Time
lastStepAt time.Time
resolvedModelLogged bool
}
// NewWriter constructs a Writer. The caller is expected to have already
// called Storage.StartRun.
func NewWriter(storage Storage, runID string) *Writer {
return &Writer{storage: storage, runID: runID, startedAt: time.Now()}
}
// OnStep records one agent-loop step: a "step" event with the iteration
// number and the response's text size.
//
// V5: also tallies per-step token usage. majordomo populates
// resp.Usage when the provider reports it; for providers that don't,
// the fields stay 0 and the tally stays at 0 — the formatter then
// renders "—" rather than a misleading "$0.00".
//
// Why we tally here vs in the agent loop: the loop's Result.Usage is a
// run total; the audit row needs the same numbers, but the writer also
// serves the live RunState accessor mid-run, so a per-step running sum
// is the right shape. Global usage attribution is handled by the llms
// package's instrumented models — the writer tally is strictly the
// per-run audit roll-up.
func (w *Writer) OnStep(iter int, resp *llm.Response) {
if w == nil || w.storage == nil {
return
}
now := time.Now()
payload := map[string]any{"iter": iter}
w.mu.Lock()
// Per-step wall-clock: time since the previous observed step, or since
// run start for the first step. A long gap localises a slow/hung model
// call — the signal that was missing when an animate step-0 call hung
// ~5 min. NOTE: this is step-to-step wall time (model call + the prior
// step's tool execution), not pure model latency.
prev := w.lastStepAt
if prev.IsZero() {
prev = w.startedAt
}
if !prev.IsZero() {
payload["step_ms"] = now.Sub(prev).Milliseconds()
}
w.lastStepAt = now
if resp != nil {
w.inputTokens += int64(resp.Usage.InputTokens)
w.outputTokens += int64(resp.Usage.OutputTokens)
// Thinking/reasoning tokens are a first-class Usage field in
// majordomo (populated by the providers that report them).
w.thinkingTokens += int64(resp.Usage.ReasoningTokens)
}
// One-shot run-level served-model attribution: the FIRST step with a
// resolved model name emits a "resolved_model" event so a run that
// errors before producing a useful step still records which model
// served it. resp.Model is failover-aware ("provider/model-id" of the
// element that actually served), unlike the static configured head.
logResolvedModel := ""
if resp != nil && resp.Model != "" && !w.resolvedModelLogged {
w.resolvedModelLogged = true
logResolvedModel = resp.Model
}
w.mu.Unlock()
if resp != nil {
payload["text_len"] = len(resp.Text())
// Served model + why generation stopped — the two scalars that turn
// a "model misbehaved" guess into a fact. finish_reason on an
// empty-tool-call step disambiguates truncation (length) from a
// deliberate empty emission (tool_calls).
if resp.Model != "" {
payload["model"] = resp.Model
}
if resp.FinishReason != "" {
payload["finish_reason"] = string(resp.FinishReason)
}
// Per-step token breakdown (OnStep already reads these into the run
// total above; persisting the per-step slice costs nothing more).
payload["in_tokens"] = resp.Usage.InputTokens
payload["out_tokens"] = resp.Usage.OutputTokens
if resp.Usage.ReasoningTokens > 0 {
payload["thinking_tokens"] = resp.Usage.ReasoningTokens
}
if resp.Usage.CacheReadTokens > 0 {
payload["cache_read_tokens"] = resp.Usage.CacheReadTokens
}
// The model's own narration accompanying this step — the smoking gun
// for WHY a malformed tool call was emitted. Capped; suppressed when
// the step fired a secret-bearing tool (mcp_call/email_send/http_*)
// whose narration could echo the secret it's about to send.
if t := strings.TrimSpace(resp.Text()); t != "" {
if stepHasSecretTool(resp) {
payload["text_redacted"] = true
} else {
payload["text"] = truncate(t, stepTextMax)
}
}
} else {
payload["text_len"] = 0
}
w.appendLog("step", payload)
if logResolvedModel != "" {
w.appendLog("resolved_model", map[string]any{"model": logResolvedModel})
}
}
// stepHasSecretTool reports whether a step's response fired a tool whose
// surrounding narration could leak a secret (MCP args, email body/
// recipients, raw HTTP request). Mirrors the steps.go redaction list so
// the audit trace never persists secret-adjacent assistant text.
func stepHasSecretTool(resp *llm.Response) bool {
if resp == nil {
return false
}
for _, c := range resp.ToolCalls {
switch c.Name {
case "mcp_call", "email_send":
return true
}
if strings.HasPrefix(c.Name, "http_") {
return true
}
}
return false
}
// TokenStats returns the running totals tallied from OnStep.
// Safe to call concurrently. Returned values are a snapshot at call
// time. Used by the executors to populate RunStats before Close
// finalises the audit row.
//
// Why: the executor needs the totals AND a model name to compute cost,
// but cost calculation is a different concern from audit persistence.
// Exposing this getter lets the cost calculation live in the executor
// where the model is known.
func (w *Writer) TokenStats() (input, output, thinking int64) {
if w == nil {
return 0, 0, 0
}
w.mu.Lock()
defer w.mu.Unlock()
return w.inputTokens, w.outputTokens, w.thinkingTokens
}
// OnTool records a "tool_call" event with the tool name and a
// "tool_result" event with the result length. Tool count is incremented
// for each call. The executors call this once per executed tool call
// from their step observers (call + matching result content).
func (w *Writer) OnTool(call llm.ToolCall, result string) {
if w == nil || w.storage == nil {
return
}
w.calls.Add(1)
w.appendLog("tool_call", map[string]any{
"name": call.Name,
"args": string(call.Arguments),
"id": call.ID,
})
w.appendLog("tool_result", map[string]any{
"name": call.Name,
"id": call.ID,
"result": truncate(result, 4000),
"truncated": len(result) > 4000,
})
}
// LogEvent records a custom event mid-run. The executor uses this for
// diagnostic events (e.g. "compaction_setup" / "compaction_fired")
// outside the canonical step / tool_call / tool_result / error set.
// Nil-safe: no-op when receiver or storage is nil.
//
// Why: skill_run_logs is the only sink Steve can read from SQL, so
// diagnostics intended for post-hoc debugging belong here. slog goes
// to mort.log which is harder to reach from outside the host.
func (w *Writer) LogEvent(eventType string, payload map[string]any) {
if w == nil || w.storage == nil {
return
}
w.appendLog(eventType, payload)
}
// LogError records an "error" event mid-run. Distinct from the terminal
// status set by Close.
func (w *Writer) LogError(msg string) {
if w == nil || w.storage == nil {
return
}
w.appendLog("error", map[string]any{"message": msg})
}
// Close finishes the run. The caller assembles a RunStats; the writer
// fills in ToolCalls (which is bookkept on the writer itself) and
// hands the full record to FinishRun.
//
// Idempotent: subsequent calls are no-ops.
//
// Why a struct vs the old positional form: v5 adds four token + cost
// fields on top of the legacy six. The struct keeps call sites readable
// and lets future fields slot in without churning every caller.
//
// Why context.WithoutCancel: the run's terminal status MUST land in
// the audit row regardless of the run ctx's state. Pre-fix, child
// skill runs invoked via skill_invoke / skill_invoke_parallel inherited
// the parent agent's runCtx as their outer ctx; when the parent
// timed out at MaxRuntime, every in-flight child's FinishRun fired
// with that already-cancelled ctx and the row was left in
// status=running forever. Detaching here is defence in depth — the
// caller (skillexec.runInner / agentexec.runInner) ALSO detaches at
// the call site, but a cancelled ctx in the writer's hands MUST NOT
// drop the audit write. The short timeout (auditFinishTimeout) bounds
// the write so a hung DB doesn't pin the run goroutine indefinitely.
func (w *Writer) Close(ctx context.Context, stats RunStats) {
if w == nil || w.storage == nil {
return
}
w.mu.Lock()
defer w.mu.Unlock()
if w.closed {
return
}
w.closed = true
stats.ToolCalls = int(w.calls.Load())
// Detach from the caller's deadline + cancellation. Run cleanup
// must complete even when the run ctx is dead. The fresh
// auditFinishTimeout caps how long we'll wait on the storage.
finishCtx, cancel := context.WithTimeout(context.WithoutCancel(ctx), auditFinishTimeout)
defer cancel()
if err := w.storage.FinishRun(finishCtx, w.runID, stats); err != nil {
slog.Warn("skillaudit: FinishRun failed", "run_id", w.runID, "error", err)
}
}
// auditFinishTimeout caps how long Close will wait on the storage's
// FinishRun call after detaching from the caller's ctx. 10s is generous
// for a single-row UPDATE against MySQL — anything longer suggests a
// hung connection that the run goroutine shouldn't keep waiting on.
const auditFinishTimeout = 10 * time.Second
// ToolCallsCount returns how many tool invocations OnTool has seen so
// far. Useful for budget enforcement.
func (w *Writer) ToolCallsCount() int { return int(w.calls.Load()) }
func (w *Writer) appendLog(eventType string, payload map[string]any) {
seq := int(w.sequence.Add(1))
log := SkillRunLog{
RunID: w.runID,
Sequence: seq,
EventType: eventType,
Payload: payload,
CreatedAt: time.Now(),
}
if err := w.storage.AppendLog(context.Background(), log); err != nil {
slog.Warn("skillaudit: AppendLog failed", "run_id", w.runID, "seq", seq, "type", eventType, "error", err)
}
}
func truncate(s string, max int) string {
if len(s) <= max {
return s
}
return s[:max] + fmt.Sprintf("…[+%d bytes]", len(s)-max)
}