Files
certctl/internal/api/router/router_est_profiles_test.go
shankar0123 8b75e0311b chore: rename Go module path to github.com/certctl-io/certctl
Mechanical sed across the main go.mod's module declaration, the f5-mock-icontrol
sub-module's go.mod, every Go file's import path (361 files), and a rebuild of
the checked-in f5-mock-icontrol binary so its embedded build-info reflects the
new module path. No behavior change.

Choice B from cowork/transfer-certctl-to-org.md, executed 2026-05-04. Choice A
(keep module path declared as github.com/shankar0123/certctl regardless of
repo URL) shipped on the day of the org transfer (2026-05-03) since we had no
external Go consumers; this commit closes that deferral.

Backward-compat: GitHub HTTP redirects continue to forward
github.com/shankar0123/certctl → github.com/certctl-io/certctl at the URL
level, but Go's module proxy uses the path declared in go.mod as the
canonical name. Pre-fix, anyone trying `go get github.com/certctl-io/certctl/...`
hit a "module path mismatch" error because go.mod said
github.com/shankar0123/certctl and the URL they fetched it from said
certctl-io/certctl. Post-fix, the canonical name and the URL agree, so
go get / go install / external Go consumers / Go-tooling integrations
work cleanly via either the new path (preferred) or the old path (which
redirects and Go follows the redirect for source fetch).

Anyone still importing the old path inside their own code keeps working
provided they update their go.mod's `require` line to match — the module
path declared in their consumer's go.sum / go.mod is the authoritative
import name, so a mass sed across their import statements is the migration
on the consumer side. No external consumers exist today.

Diff shape:
  361 *.go files  — import path replacement only
    2 go.mod     — module declaration replacement only
    1 binary     — deploy/test/f5-mock-icontrol/f5-mock-icontrol rebuilt
                   so embedded build-info reflects the new path (8618965 vs
                   8618933 bytes; 32-byte diff is the build-info change)

  Total: 364 files, 730 insertions / 730 deletions, net-zero size, pure
  mechanical substitution.

Verification:
  gofmt: 17 files needed re-alignment after sed (the new path is one char
    shorter than the old, so column-aligned import groups drifted). Applied
    `gofmt -w` to fix.
  go mod tidy: clean exit on both modules.
  go vet ./...: clean exit.
  go build ./...: clean exit.
  go test -short -count=1 on representative packages: all green
    (internal/domain, internal/validation, internal/crypto, internal/crypto/signer,
    cmd/agent). Test output now reads `ok github.com/certctl-io/certctl/...`
    confirming the module path resolves correctly.
  binary: f5-mock-icontrol rebuilt; `strings | grep shankar0123` returns
    nothing; `strings | grep certctl-io/certctl` shows the new module path
    embedded in build-info.

Files intentionally NOT touched in this commit:
  README.md / CHANGELOG.md / docs/ / etc. — already swept to certctl-io
    URLs in commit 0729ee4 (the post-transfer URL refresh). This commit is
    purely the Go-tooling layer.
  Scarf pixels (`shankar0123.docker.scarf.sh/...`) — Scarf-account
    namespace, not a Go import or GitHub repo URL. Stays.

This is a non-blocking, non-customer-impacting change. Operators pulling
container images, running `make verify`, hitting the API, or installing the
agent see no functional difference. Only Go-tooling consumers (none today)
are affected, and they're enabled — not broken — by this commit.
2026-05-04 00:30:29 +00:00

193 lines
8.2 KiB
Go

package router
import (
"context"
"net/http"
"net/http/httptest"
"testing"
"github.com/certctl-io/certctl/internal/api/handler"
"github.com/certctl-io/certctl/internal/domain"
)
// EST RFC 7030 hardening master bundle Phase 1: per-profile EST router
// registration. Pins:
//
// 1. Empty PathID maps to /.well-known/est/ (legacy backward-compat).
// 2. Non-empty PathID maps to /.well-known/est/<pathID>/.
// 3. Multi-profile registration produces 4N routes (cacerts + simpleenroll
// + simplereenroll + csrattrs per profile).
// 4. Each registered route reaches the right handler instance — no
// cross-profile bleed-through (proven by the per-profile mock
// GetCACerts response carrying the profile tag).
//
// The mock service is a minimal ESTService implementation that records
// which profile served the request via the GetCACerts response — the test
// asserts it sees the right per-profile string echoed back, which would
// only happen if the right handler was wired to the right path.
// estProfileMockService is a per-profile-tagged mock ESTService for
// router-level tests. The CA cert PEM string carries the profile tag so
// the caller can verify which profile's handler served a given request.
type estProfileMockService struct {
tag string
}
func (s *estProfileMockService) GetCACerts(_ context.Context) (string, error) {
// Return a syntactically-valid PEM that embeds the profile tag in the
// cert body. The handler converts this PEM to PKCS#7 via PEMToDERChain
// — for the cross-bleed test we only need to confirm the right service
// was reached. Use a minimal PEM that won't parse as a real cert (the
// test asserts on the error path, which still routes through the right
// service mock).
return "-----BEGIN CERTIFICATE-----\nPROFILE=" + s.tag + "\n-----END CERTIFICATE-----\n", nil
}
func (s *estProfileMockService) SimpleEnroll(_ context.Context, _ string) (*domain.ESTEnrollResult, error) {
return &domain.ESTEnrollResult{CertPEM: "-----BEGIN CERTIFICATE-----\nPROFILE=" + s.tag + "\n-----END CERTIFICATE-----\n"}, nil
}
func (s *estProfileMockService) SimpleReEnroll(_ context.Context, _ string) (*domain.ESTEnrollResult, error) {
return &domain.ESTEnrollResult{CertPEM: "-----BEGIN CERTIFICATE-----\nPROFILE=" + s.tag + "\n-----END CERTIFICATE-----\n"}, nil
}
func (s *estProfileMockService) SimpleServerKeygen(_ context.Context, _ string) (*domain.ESTServerKeygenResult, error) {
return nil, nil
}
func (s *estProfileMockService) GetCSRAttrs(_ context.Context) ([]byte, error) {
// Return non-empty bytes so the handler returns 200 + the body. The body
// won't carry a profile tag (csrattrs is base64-encoded ASN.1; sticking
// a literal in here would not survive the encoding round-trip), but the
// 200 vs 204 status itself is enough to prove the right service was
// reached — the legacy mock returns 204 (nil bytes), this mock returns
// 200, and a wrong-handler bleed would produce the wrong status.
return []byte("PROFILE=" + s.tag), nil
}
func TestRouter_RegisterESTHandlers_LegacyEmptyPathIDMapsToRoot(t *testing.T) {
r := New()
svc := &estProfileMockService{tag: "legacy"}
r.RegisterESTHandlers(map[string]handler.ESTHandler{
"": handler.NewESTHandler(svc),
})
// /.well-known/est/cacerts is a GET. The handler will fail at the
// PEM-to-DER step because our mock returns a malformed PEM, but the
// service WAS reached (the 500 we get back is from the handler's
// pkcs7 conversion, not from a routing error). Use csrattrs instead
// — it's GET and our mock returns clean bytes.
req := httptest.NewRequest(http.MethodGet, "/.well-known/est/csrattrs", nil)
w := httptest.NewRecorder()
r.ServeHTTP(w, req)
if w.Code != http.StatusOK {
t.Fatalf("GET /.well-known/est/csrattrs — code %d, want 200 (legacy root should be registered; body=%q)", w.Code, w.Body.String())
}
}
func TestRouter_RegisterESTHandlers_NonEmptyPathIDMapsToSubpath(t *testing.T) {
r := New()
r.RegisterESTHandlers(map[string]handler.ESTHandler{
"corp": handler.NewESTHandler(&estProfileMockService{tag: "corp"}),
})
// /.well-known/est/corp/csrattrs should reach the corp handler.
req := httptest.NewRequest(http.MethodGet, "/.well-known/est/corp/csrattrs", nil)
w := httptest.NewRecorder()
r.ServeHTTP(w, req)
if w.Code != http.StatusOK {
t.Fatalf("GET /.well-known/est/corp/csrattrs — code %d, want 200 (per-profile route should be registered; body=%q)", w.Code, w.Body.String())
}
// /.well-known/est/ root must NOT be registered when only non-empty PathIDs exist.
req = httptest.NewRequest(http.MethodGet, "/.well-known/est/csrattrs", nil)
w = httptest.NewRecorder()
r.ServeHTTP(w, req)
if w.Code != http.StatusNotFound && w.Code != http.StatusMethodNotAllowed {
t.Errorf("/.well-known/est/csrattrs without legacy profile — code %d, want 404 or 405 (no handler should be registered)", w.Code)
}
}
// TestRouter_RegisterESTHandlers_MultipleProfilesNoCrossBleed pins the
// load-bearing dispatch invariant: each profile's PathID routes to its OWN
// handler instance. A regression that mis-wired the dispatch would surface
// as profile A's traffic hitting profile B's mock, observable here because
// each mock embeds its tag in the response.
func TestRouter_RegisterESTHandlers_MultipleProfilesNoCrossBleed(t *testing.T) {
r := New()
r.RegisterESTHandlers(map[string]handler.ESTHandler{
"": handler.NewESTHandler(&estProfileMockService{tag: "default"}),
"corp": handler.NewESTHandler(&estProfileMockService{tag: "corp"}),
"iot": handler.NewESTHandler(&estProfileMockService{tag: "iot"}),
})
cases := []struct {
path string
wantTag string
}{
{"/.well-known/est/csrattrs", "default"},
{"/.well-known/est/corp/csrattrs", "corp"},
{"/.well-known/est/iot/csrattrs", "iot"},
}
for _, tc := range cases {
t.Run(tc.path, func(t *testing.T) {
req := httptest.NewRequest(http.MethodGet, tc.path, nil)
w := httptest.NewRecorder()
r.ServeHTTP(w, req)
if w.Code != http.StatusOK {
t.Fatalf("code %d, want 200 (body=%q)", w.Code, w.Body.String())
}
// The handler base64-encodes csrattrs bytes; decode our literal
// to confirm the right profile's mock was hit.
body := w.Body.String()
// PROFILE=<tag> is emitted by the mock; the handler base64-
// encodes the bytes in the body. Two checks: status was 200
// (above) AND the base64-decoded body would carry the tag.
// We don't decode here — the SCEP equivalent uses substring
// match against the raw body too; for EST the raw body IS
// base64 of "PROFILE=<tag>". Decode-and-match is the
// same verification operation; substring against the raw
// base64 works because each profile's tag has a unique
// base64 prefix.
if !contains(body, base64Tag(tc.wantTag)) {
t.Errorf("body = %q, want base64-encoded PROFILE=%s prefix", body, tc.wantTag)
}
})
}
}
func TestRouter_RegisterESTHandlers_EmptyMapRegistersNoRoutes(t *testing.T) {
r := New()
r.RegisterESTHandlers(map[string]handler.ESTHandler{})
req := httptest.NewRequest(http.MethodGet, "/.well-known/est/csrattrs", nil)
w := httptest.NewRecorder()
r.ServeHTTP(w, req)
if w.Code != http.StatusNotFound && w.Code != http.StatusMethodNotAllowed {
t.Errorf("/.well-known/est/csrattrs with no profiles registered — code %d, want 404 or 405", w.Code)
}
}
// base64Tag returns the base64-encoded form of "PROFILE=<tag>" — used by
// the cross-bleed test to verify the mock's response made it through the
// handler's base64 encoding step. Local helper to avoid importing
// encoding/base64 just for this; the encoding is tiny and stable.
func base64Tag(tag string) string {
// stdlib produces "UFJPRklMRT0=" for "PROFILE=" — but each tag
// changes the suffix, so we match on the stable prefix only.
// "PROFILE=" → standard base64 "UFJPRklMRT0=" (when alone).
// "PROFILE=corp" → "UFJPRklMRT1jb3Jw"
// "PROFILE=iot" → "UFJPRklMRT1pb3Q="
// "PROFILE=default" → "UFJPRklMRT1kZWZhdWx0"
// All share the prefix "UFJPRklMRT" (= base64 of "PROFILE"). The tag
// suffix differs, which is what cross-bleed would change.
switch tag {
case "default":
return "UFJPRklMRT1kZWZhdWx0"
case "corp":
return "UFJPRklMRT1jb3Jw"
case "iot":
return "UFJPRklMRT1pb3Q"
}
return "UFJPRklMRT" // safe fallback prefix
}