textmachine/backend/cmd/tmctl/main.go

216 lines
8.1 KiB
Go

// tmctl is the TextMachine CLI: translate / report / status / redrive.
// main.go — thin wiring (package №4): argument parsing — invocation.go,
// output renderers — render.go, .env — dotenv.go; here just the
// «parse → env → ctx → fetch → render» wiring and exit-code mapping.
package main
import (
"context"
"errors"
"fmt"
"os"
"os/signal"
"path/filepath"
"syscall"
"textmachine/backend/internal/membank"
"textmachine/backend/internal/obs"
"textmachine/backend/internal/pipeline"
"textmachine/backend/internal/store"
)
func main() {
err := run()
if err != nil {
fmt.Fprintln(os.Stderr, "tmctl:", err)
}
os.Exit(exitCode(err))
}
// exitCode maps a run() error onto the ratified shell contract (Milestone 2 / R1-FL-A): 0 clean · 2
// completed-with-flags (acceptance allows N flags; a typed sentinel
// *pipeline.CompletedWithFlags, survives %w-wraps via errors.As) · 3 bank-mining
// signature stop (*pipeline.WaveSignatureStop — the run paused before the edit wave for owner
// sign; a DELIBERATE human-in-the-loop halt, not a crash) · 1 infra failure and everything else,
// including a flag-parse error. 3 is DISTINCT from both 2 (flagged chunks) and 1 (crash) so
// exit-code automation can tell a sign-boundary pause from a real failure — a human sees the
// stderr text either way, but a script that shipped "translate && export" must NOT treat the
// pause as success (exit 0) nor as an infra crash (exit 1).
func exitCode(err error) int {
var flagged *pipeline.CompletedWithFlags
var sigStop *pipeline.WaveSignatureStop
switch {
case err == nil:
return 0
case errors.As(err, &sigStop):
return 3
case errors.As(err, &flagged):
return 2
default:
return 1
}
}
func run() error {
inv, err := parseInvocation(os.Args[1:], os.Stderr)
if err != nil {
return err
}
loadDotEnv(filepath.Join(filepath.Dir(inv.cfgPath), ".env"))
loadDotEnv(".env")
ctx, stop := signal.NotifyContext(context.Background(), os.Interrupt, syscall.SIGTERM)
defer stop()
// LogBodies is decided once at admission (privacy by default): the content
// of LLM exchanges reaches the logs only when LOG_LLM_BODIES=1 AND LOG_LEVEL=debug.
ctx = obs.WithReqInfo(ctx, obs.ReqInfo{
TraceID: obs.NewTraceID(),
LogBodies: os.Getenv("LOG_LLM_BODIES") == "1",
})
switch inv.cmd {
case "translate":
return translate(ctx, inv.cfgPath, inv.resnapshot)
case "report":
return report(inv.cfgPath)
case "status":
return status(ctx, inv.cfgPath, inv.asJSON)
case "export":
return export(inv.cfgPath, inv.asPlaintext, inv.asPairs)
case "redrive":
return redrive(ctx, inv.cfgPath, inv.resnapshot, inv.sel)
case "seed-lint":
return seedLint(inv.seedPath)
default:
return fmt.Errorf("unknown command %q (want translate|report|status|export|redrive|seed-lint)", inv.cmd)
}
}
func translate(ctx context.Context, cfgPath string, resnapshot bool) error {
r, err := pipeline.NewRunner(cfgPath, obs.NewLogger())
if err != nil {
return err
}
defer r.Close()
r.Resnapshot = resnapshot
res, err := r.TranslateBook(ctx)
if err != nil {
// R1-FL-A: the bank-mining signature stop is a typed sentinel, not an infra failure — render the
// operator's next steps to stdout (terms + signature-map path + resume guidance) and return it so
// main() maps it to the distinct exit code 3 (the Error() text also prints to stderr).
var sigStop *pipeline.WaveSignatureStop
if errors.As(err, &sigStop) {
renderSignatureStop(os.Stdout, sigStop)
}
return err
}
return renderTranslate(os.Stdout, res, func() (float64, float64, error) {
return r.Store.SpentUSD(res.BookID)
})
}
// seedLint validates a glossary seed YAML (a manual seed or the emitted mined delta) through the REAL
// loadGlossarySeed fail-louds + the shared-key collision check (WS3). $0, no store, no provider keys — a
// pre-flight the operator runs on the mined delta before the W1.5 reseed. Prints "OK" on a clean seed.
func seedLint(seedPath string) error {
if err := membank.SeedLint(seedPath); err != nil {
return err
}
fmt.Fprintf(os.Stdout, "seed-lint OK: %s is loadable (0 fail-louds, 0 shared-key collisions)\n", seedPath)
return nil
}
func report(cfgPath string) error {
// Read-only ($0): no API keys required (D20.4 — a store audit must not demand provider keys).
r, err := pipeline.NewReadOnlyRunner(cfgPath, obs.NewLogger())
if err != nil {
return err
}
defer r.Close()
// Reads via callbacks (interleaved with printing, as historically): a read failure
// mid-audit leaves the already-printed part on stdout (see renderReport).
if err := renderReport(os.Stdout,
func() ([]store.RequestLogView, error) { return r.Store.RequestLogRows(r.Book.BookID) },
func() ([]store.ChunkStatus, error) { return r.Store.ChunkStatusesForBook(r.Book.BookID) },
func() ([]store.RetrievalState, error) { return r.Store.RetrievalStatesForBook(r.Book.BookID) },
func() (float64, float64, error) { return r.Store.SpentUSD(r.Book.BookID) }); err != nil {
return err
}
// Per-run quality-report (D39 layer 5): aggregate the deterministic quality signals into a readable
// summary — the "telemetry from day one" the owner asked for (H5). Read-only ($0), never a gate.
q, err := r.QualityReport()
if err != nil {
return err
}
return renderQuality(os.Stdout, q)
}
// export prints the READ-ONLY export projection (D39 layer 6 / D39.2-open №1): every chunk's FINAL
// export text EXACTLY by prod semantics (final_hash → checkpoint → exportNormalize), so the polygon
// extractor / reader-samples read the SAME bytes the backend ships instead of the raw checkpoint. Like
// report/status it is $0 and needs no provider keys (D20.4 — an audit surface must not demand keys).
// Default output is stable JSON (the machine surface); --plaintext emits the human concatenation.
func export(cfgPath string, asPlaintext, asPairs bool) error {
r, err := pipeline.NewReadOnlyRunner(cfgPath, obs.NewLogger())
if err != nil {
return err
}
defer r.Close()
exp, err := r.Export(asPairs)
if err != nil {
return err
}
return renderExport(os.Stdout, exp, asPlaintext)
}
// status prints the READ-ONLY progress projection (D15.3): 0 LLM, 0 replay. --json emits the
// StatusReport with stable disposition/flag_reason enums for CI/IDE; the default is a human
// dashboard (unit counts, per-chapter quality passports, money, secondary ETA). BOTH modes exit 2
// (completed-with-flags) when flagged>0 (minor 1d — --json used to always exit 0), so a consumer
// never reads a clean 0 over a book that still needs attention.
func status(ctx context.Context, cfgPath string, asJSON bool) error {
// Read-only ($0): no API keys required (D20.4 — a progress projection must not demand keys).
r, err := pipeline.NewReadOnlyRunner(cfgPath, obs.NewLogger())
if err != nil {
return err
}
defer r.Close()
rep, err := r.Status(ctx)
if err != nil {
return err
}
if asJSON {
return renderStatusJSON(os.Stdout, rep)
}
return renderStatusHuman(os.Stdout, rep, cfgPath)
}
// redrive re-attacks the FLAGGED chunks matching the selector (D15.3): it resets their terminal
// flag (chunk_status + checkpoints of the flagged/skipped stages) and re-runs the durable loop
// with a FRESH retry/escalation budget, never touching DispOK work. On --dry-run it only reports
// the plan. Redrive-calls bill normally; money already spent on the discarded attempts stays
// committed (honest). By default it requires the current config to render the SAME snapshot the
// flagged rows carry (else it fails loud); passing --resnapshot wires r.Resnapshot so Redrive skips
// that drift guard and accepts the re-pin/re-pay explicitly (D20.4: the flag used to be parsed but
// silently ignored — Redrive already honoured r.Resnapshot, only the CLI never set it).
func redrive(ctx context.Context, cfgPath string, resnapshot bool, sel pipeline.RedriveSelector) error {
r, err := pipeline.NewRunner(cfgPath, obs.NewLogger())
if err != nil {
return err
}
defer r.Close()
r.Resnapshot = resnapshot
summary, res, err := r.Redrive(ctx, sel)
if err != nil {
return err
}
return renderRedrive(os.Stdout, r.Book.BookID, summary, res, func() (float64, float64, error) {
return r.Store.SpentUSD(r.Book.BookID)
})
}