package ca import ( "context" "crypto" "crypto/ecdsa" "crypto/elliptic" "crypto/rand" "crypto/x509" "crypto/x509/pkix" "encoding/asn1" "errors" "fmt" "io/ioutil" "math/big" "os" "strings" "testing" "time" "github.com/beeker1121/goque" cfsslConfig "github.com/cloudflare/cfssl/config" "github.com/cloudflare/cfssl/helpers" "github.com/cloudflare/cfssl/signer" "github.com/cloudflare/cfssl/signer/local" ct "github.com/google/certificate-transparency-go" cttls "github.com/google/certificate-transparency-go/tls" "github.com/jmhodges/clock" "github.com/prometheus/client_golang/prometheus" zlint "github.com/zmap/zlint/v2/lint" "golang.org/x/crypto/ocsp" capb "github.com/letsencrypt/boulder/ca/proto" "github.com/letsencrypt/boulder/cmd" "github.com/letsencrypt/boulder/core" corepb "github.com/letsencrypt/boulder/core/proto" berrors "github.com/letsencrypt/boulder/errors" "github.com/letsencrypt/boulder/features" "github.com/letsencrypt/boulder/goodkey" "github.com/letsencrypt/boulder/issuance" "github.com/letsencrypt/boulder/lint" blog "github.com/letsencrypt/boulder/log" "github.com/letsencrypt/boulder/metrics" "github.com/letsencrypt/boulder/policy" sapb "github.com/letsencrypt/boulder/sa/proto" "github.com/letsencrypt/boulder/test" ) var ( // * Random public key // * CN = not-example.com // * DNSNames = not-example.com, www.not-example.com CNandSANCSR = mustRead("./testdata/cn_and_san.der.csr") // CSR generated by Go: // * Random public key // * CN = not-example.com // * Includes an extensionRequest attribute for a well-formed TLS Feature extension MustStapleCSR = mustRead("./testdata/must_staple.der.csr") // CSR generated by Go: // * Random public key // * CN = not-example.com // * Includes extensionRequest attributes for *two* must-staple extensions DuplicateMustStapleCSR = mustRead("./testdata/duplicate_must_staple.der.csr") // CSR generated by Go: // * Random public key // * CN = not-example.com // * Includes an extensionRequest attribute for an unknown extension with an // empty value. That extension's OID, 2.25.123456789, is on the UUID arc. // It isn't a real randomly-generated UUID because Go represents the // components of the OID as 32-bit integers, which aren't large enough to // hold a real 128-bit UUID; this doesn't matter as far as what we're // testing here is concerned. UnsupportedExtensionCSR = mustRead("./testdata/unsupported_extension.der.csr") // CSR generated by Go: // * Random public key // * CN = not-example.com // * Includes an extensionRequest attribute for the CT poison extension // with a valid NULL value. CTPoisonExtensionCSR = mustRead("./testdata/ct_poison_extension.der.csr") // CSR generated by Go: // * Random public key // * CN = not-example.com // * Includes an extensionRequest attribute for the CT poison extension // with an invalid empty value. CTPoisonExtensionEmptyCSR = mustRead("./testdata/ct_poison_extension_empty.der.csr") // CSR generated by Go: // * Random ECDSA public key. // * CN = [none] // * DNSNames = example.com, example2.com ECDSACSR = mustRead("./testdata/ecdsa.der.csr") // OIDExtensionCTPoison is defined in RFC 6962 s3.1. OIDExtensionCTPoison = asn1.ObjectIdentifier{1, 3, 6, 1, 4, 1, 11129, 2, 4, 3} // The "certificate-for-precertificate" tests use the precertificate from a // previous "precertificate" test, in order to verify that the CA is // stateless with respect to these two operations, since a separate CA // object instance will be used for generating each. Consequently, the // "precertificate" tests must be before the "certificate-for-precertificate" // tests in this list, and we cannot run these sub-tests concurrently. // // In order to test the case where the same CA object is used for issuing // both the precertificate and the certificate, we'd need to contort // |TestIssueCertificate| quite a bit, and since it isn't clear that that // would be useful, we've avoided adding that case, at least for now. issuanceModes = []IssuanceMode{ {name: "precertificate", issueCertificateForPrecertificate: false}, {name: "certificate-for-precertificate", issueCertificateForPrecertificate: true}, } ) const arbitraryRegID int64 = 1001 // CFSSL config const rsaProfileName = "rsaEE" const ecdsaProfileName = "ecdsaEE" const caKeyFile = "../test/test-ca.key" const caCertFile = "../test/test-ca.pem" const caCertFile2 = "../test/test-ca2.pem" func mustRead(path string) []byte { b, err := ioutil.ReadFile(path) if err != nil { panic(fmt.Sprintf("unable to read %#v: %s", path, err)) } return b } type testCtx struct { pa core.PolicyAuthority certExpiry time.Duration certBackdate time.Duration serialPrefix int maxNames int ocspLifetime time.Duration cfsslProfiles cfsslConfig.Config cfsslRSAProfile string cfsslECDSAProfile string cfsslIssuers []Issuer boulderIssuers []*issuance.Issuer keyPolicy goodkey.KeyPolicy fc clock.FakeClock stats prometheus.Registerer logger *blog.Mock } type mockSA struct { certificate core.Certificate } func (m *mockSA) AddCertificate(ctx context.Context, der []byte, _ int64, _ []byte, _ *time.Time) (string, error) { m.certificate.DER = der return "", nil } func (m *mockSA) AddPrecertificate(ctx context.Context, req *sapb.AddCertificateRequest) (*corepb.Empty, error) { return &corepb.Empty{}, nil } func (m *mockSA) AddSerial(ctx context.Context, req *sapb.AddSerialRequest) (*corepb.Empty, error) { return &corepb.Empty{}, nil } func (m *mockSA) GetCertificate(ctx context.Context, serial string) (core.Certificate, error) { return core.Certificate{}, berrors.NotFoundError("cannot find the cert") } var caKey crypto.Signer var caCert *issuance.Certificate var caCert2 *issuance.Certificate var ctx = context.Background() func init() { var err error caKey, err = helpers.ParsePrivateKeyPEM(mustRead(caKeyFile)) if err != nil { panic(fmt.Sprintf("Unable to parse %s: %s", caKeyFile, err)) } caCert, err = issuance.LoadCertificate(caCertFile) if err != nil { panic(fmt.Sprintf("Unable to parse %s: %s", caCertFile, err)) } caCert2, err = issuance.LoadCertificate(caCertFile2) if err != nil { panic(fmt.Sprintf("Unable to parse %s: %s", caCertFile2, err)) } } func setup(t *testing.T) *testCtx { features.Reset() fc := clock.NewFake() fc.Add(1 * time.Hour) pa, err := policy.New(nil) test.AssertNotError(t, err, "Couldn't create PA") err = pa.SetHostnamePolicyFile("../test/hostname-policy.yaml") test.AssertNotError(t, err, "Couldn't set hostname policy") allowedExtensions := []cfsslConfig.OID{ cfsslConfig.OID(oidTLSFeature), cfsslConfig.OID(OIDExtensionCTPoison), } cfsslProfiles := cfsslConfig.Config{ Signing: &cfsslConfig.Signing{ Profiles: map[string]*cfsslConfig.SigningProfile{ rsaProfileName: { Usage: []string{"digital signature", "key encipherment", "server auth"}, IssuerURL: []string{"http://not-example.com/issuer-url"}, OCSP: "http://not-example.com/ocsp", CRL: "http://not-example.com/crl", Policies: []cfsslConfig.CertificatePolicy{ { ID: cfsslConfig.OID(asn1.ObjectIdentifier{2, 23, 140, 1, 2, 1}), }, }, ExpiryString: "8760h", Backdate: time.Hour, CSRWhitelist: &cfsslConfig.CSRWhitelist{ PublicKeyAlgorithm: true, PublicKey: true, SignatureAlgorithm: true, }, ClientProvidesSerialNumbers: true, AllowedExtensions: allowedExtensions, }, ecdsaProfileName: { Usage: []string{"digital signature", "server auth"}, IssuerURL: []string{"http://not-example.com/issuer-url"}, OCSP: "http://not-example.com/ocsp", CRL: "http://not-example.com/crl", Policies: []cfsslConfig.CertificatePolicy{ { ID: cfsslConfig.OID(asn1.ObjectIdentifier{2, 23, 140, 1, 2, 1}), }, }, ExpiryString: "8760h", Backdate: time.Hour, CSRWhitelist: &cfsslConfig.CSRWhitelist{ PublicKeyAlgorithm: true, PublicKey: true, SignatureAlgorithm: true, }, ClientProvidesSerialNumbers: true, AllowedExtensions: allowedExtensions, }, }, Default: &cfsslConfig.SigningProfile{ ExpiryString: "8760h", }, }, } cfsslIssuers := []Issuer{{caKey, caCert}} boulderProfile := func(rsa, ecdsa bool) *issuance.Profile { res, _ := issuance.NewProfile( issuance.ProfileConfig{ AllowMustStaple: true, AllowCTPoison: true, AllowSCTList: true, AllowCommonName: true, Policies: []issuance.PolicyInformation{ {OID: "2.23.140.1.2.1"}, }, MaxValidityPeriod: cmd.ConfigDuration{Duration: time.Hour * 8760}, MaxValidityBackdate: cmd.ConfigDuration{Duration: time.Hour}, }, issuance.IssuerConfig{ UseForECDSALeaves: ecdsa, UseForRSALeaves: rsa, IssuerURL: "http://not-example.com/issuer-url", OCSPURL: "http://not-example.com/ocsp", CRLURL: "http://not-example.com/crl", }, ) return res } boulderLinter, _ := lint.NewLinter(caKey, nil) boulderIssuers := []*issuance.Issuer{ // Must list ECDSA-only issuer first, so it is the default for ECDSA. { Cert: caCert2, Signer: caKey, Profile: boulderProfile(false, true), Linter: boulderLinter, Clk: fc, }, { Cert: caCert, Signer: caKey, Profile: boulderProfile(true, true), Linter: boulderLinter, Clk: fc, }, } keyPolicy := goodkey.KeyPolicy{ AllowRSA: true, AllowECDSANISTP256: true, AllowECDSANISTP384: true, } return &testCtx{ pa: pa, certExpiry: 8760 * time.Hour, certBackdate: time.Hour, serialPrefix: 17, maxNames: 2, ocspLifetime: time.Hour, cfsslProfiles: cfsslProfiles, cfsslRSAProfile: rsaProfileName, cfsslECDSAProfile: ecdsaProfileName, cfsslIssuers: cfsslIssuers, boulderIssuers: boulderIssuers, keyPolicy: keyPolicy, fc: fc, stats: metrics.NoopRegisterer, logger: blog.NewMock(), } } func TestFailNoSerialPrefix(t *testing.T) { testCtx := setup(t) _, err := NewCertificateAuthorityImpl( nil, nil, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, 0, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertError(t, err, "CA should have failed with no SerialPrefix") } type TestCertificateIssuance struct { ca *CertificateAuthorityImpl sa *mockSA req *x509.CertificateRequest mode IssuanceMode certDER []byte cert *x509.Certificate } type IssuanceMode struct { name string issueCertificateForPrecertificate bool } func TestIssuePrecertificate(t *testing.T) { for _, nonCFSSL := range []bool{true, false} { testCases := []struct { name string csr []byte subTest func(t *testing.T, i *TestCertificateIssuance) }{ {"IssuePrecertificate", CNandSANCSR, issueCertificateSubTestIssuePrecertificate}, {"ValidityUsesCAClock", CNandSANCSR, issueCertificateSubTestValidityUsesCAClock}, {"ProfileSelectionRSA", CNandSANCSR, issueCertificateSubTestProfileSelectionRSA}, {"ProfileSelectionECDSA", ECDSACSR, issueCertificateSubTestProfileSelectionECDSA}, {"MustStaple", MustStapleCSR, issueCertificateSubTestMustStaple}, {"MustStapleDuplicate", DuplicateMustStapleCSR, issueCertificateSubTestMustStaple}, {"UnknownExtension", UnsupportedExtensionCSR, issueCertificateSubTestUnknownExtension}, {"CTPoisonExtension", CTPoisonExtensionCSR, issueCertificateSubTestCTPoisonExtension}, {"CTPoisonExtensionEmpty", CTPoisonExtensionEmptyCSR, issueCertificateSubTestCTPoisonExtension}, } for _, testCase := range testCases { // The loop through |issuanceModes| must be inside the loop through // |testCases| because the "certificate-for-precertificate" tests use // the precertificates previously generated from the preceding // "precertificate" test. See also the comment above |issuanceModes|. for _, mode := range issuanceModes { ca, sa := issueCertificateSubTestSetup(t, nonCFSSL) t.Run(fmt.Sprintf("%s - %s (using boulder signer: %t)", mode.name, testCase.name, nonCFSSL), func(t *testing.T) { req, err := x509.ParseCertificateRequest(testCase.csr) test.AssertNotError(t, err, "Certificate request failed to parse") issueReq := &capb.IssueCertificateRequest{Csr: testCase.csr, RegistrationID: arbitraryRegID} var certDER []byte response, err := ca.IssuePrecertificate(ctx, issueReq) test.AssertNotError(t, err, "Failed to issue precertificate") certDER = response.DER cert, err := x509.ParseCertificate(certDER) test.AssertNotError(t, err, "Certificate failed to parse") poisonExtension := findExtension(cert.Extensions, OIDExtensionCTPoison) test.AssertEquals(t, true, poisonExtension != nil) if poisonExtension != nil { test.AssertEquals(t, poisonExtension.Critical, true) test.AssertDeepEquals(t, poisonExtension.Value, []byte{0x05, 0x00}) // ASN.1 DER NULL } i := TestCertificateIssuance{ ca: ca, sa: sa, req: req, mode: mode, certDER: certDER, cert: cert, } testCase.subTest(t, &i) }) } } } } func issueCertificateSubTestSetup(t *testing.T, boulderIssuer bool) (*CertificateAuthorityImpl, *mockSA) { testCtx := setup(t) sa := &mockSA{} var cfsslIssuers []Issuer var boulderIssuers []*issuance.Issuer if boulderIssuer { boulderIssuers = testCtx.boulderIssuers _ = features.Set(map[string]bool{"NonCFSSLSigner": true}) } else { cfsslIssuers = testCtx.cfsslIssuers } ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, cfsslIssuers, boulderIssuers, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") return ca, sa } func issueCertificateSubTestIssuePrecertificate(t *testing.T, i *TestCertificateIssuance) { cert := i.cert test.AssertEquals(t, cert.Subject.CommonName, "not-example.com") if len(cert.DNSNames) == 1 { if cert.DNSNames[0] != "not-example.com" { t.Errorf("Improper list of domain names %v", cert.DNSNames) } t.Errorf("Improper list of domain names %v", cert.DNSNames) } if len(cert.Subject.Country) > 0 { t.Errorf("Subject contained unauthorized values: %v", cert.Subject) } } func issueCertificateSubTestValidityUsesCAClock(t *testing.T, i *TestCertificateIssuance) { test.AssertEquals(t, i.cert.NotBefore, i.ca.clk.Now().Add(-1*i.ca.backdate)) test.AssertEquals(t, i.cert.NotAfter, i.cert.NotBefore.Add(i.ca.validityPeriod)) } // Test issuing when multiple issuers are present. func TestMultipleIssuers(t *testing.T) { testCtx := setup(t) // Load multiple issuers, and ensure the first one in the list is used. newIssuerCert, err := issuance.LoadCertificate("../test/test-ca2.pem") test.AssertNotError(t, err, "Failed to load new cert") newIssuers := []Issuer{ { Signer: caKey, // newIssuerCert is first, so it will be the default. Cert: newIssuerCert, }, { Signer: caKey, Cert: caCert, }, } sa := &mockSA{} ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, newIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to remake CA") issuedCert, err := ca.IssuePrecertificate(ctx, &capb.IssueCertificateRequest{Csr: CNandSANCSR, RegistrationID: arbitraryRegID}) test.AssertNotError(t, err, "Failed to issue certificate") cert, err := x509.ParseCertificate(issuedCert.DER) test.AssertNotError(t, err, "Certificate failed to parse") // Verify cert was signed by newIssuerCert, not caCert. err = cert.CheckSignatureFrom(newIssuerCert.Certificate) test.AssertNotError(t, err, "Certificate failed signature validation") } func TestECDSAAllowList(t *testing.T) { req := &capb.IssueCertificateRequest{Csr: ECDSACSR, RegistrationID: arbitraryRegID} // With allowlist containing arbitraryRegID, issuance should come from ECDSA issuer. ca, _ := issueCertificateSubTestSetup(t, true) ca.ecdsaAllowedRegIDs[arbitraryRegID] = true result, err := ca.IssuePrecertificate(ctx, req) test.AssertNotError(t, err, "Failed to issue certificate") cert, err := x509.ParseCertificate(result.DER) test.AssertNotError(t, err, "Certificate failed to parse") test.AssertByteEquals(t, cert.RawIssuer, caCert2.RawSubject) // With allowlist not containing arbitraryRegID, issuance should fall back to RSA issuer. ca, _ = issueCertificateSubTestSetup(t, true) ca.ecdsaAllowedRegIDs[2002] = true result, err = ca.IssuePrecertificate(ctx, req) test.AssertNotError(t, err, "Failed to issue certificate") cert, err = x509.ParseCertificate(result.DER) test.AssertNotError(t, err, "Certificate failed to parse") test.AssertByteEquals(t, cert.RawIssuer, caCert.RawSubject) // With empty allowlist but ECDSAForAll enabled, issuance should come from ECDSA issuer. ca, _ = issueCertificateSubTestSetup(t, true) _ = features.Set(map[string]bool{"ECDSAForAll": true}) defer features.Reset() result, err = ca.IssuePrecertificate(ctx, req) test.AssertNotError(t, err, "Failed to issue certificate") cert, err = x509.ParseCertificate(result.DER) test.AssertNotError(t, err, "Certificate failed to parse") test.AssertByteEquals(t, cert.RawIssuer, caCert2.RawSubject) } func TestOCSP(t *testing.T) { testCtx := setup(t) sa := &mockSA{} ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") issueReq := capb.IssueCertificateRequest{Csr: CNandSANCSR, RegistrationID: arbitraryRegID} cert, err := ca.IssuePrecertificate(ctx, &issueReq) test.AssertNotError(t, err, "Failed to issue") parsedCert, err := x509.ParseCertificate(cert.DER) test.AssertNotError(t, err, "Failed to parse cert") status := string(core.OCSPStatusGood) ocspResp, err := ca.GenerateOCSP(ctx, &capb.GenerateOCSPRequest{ CertDER: cert.DER, Status: status, }) test.AssertNotError(t, err, "Failed to generate OCSP") parsed, err := ocsp.ParseResponse(ocspResp.Response, caCert.Certificate) test.AssertNotError(t, err, "Failed to parse validate OCSP") test.AssertEquals(t, parsed.Status, 0) test.AssertEquals(t, parsed.RevocationReason, 0) test.AssertEquals(t, parsed.SerialNumber.Cmp(parsedCert.SerialNumber), 0) // Test that signatures are checked. _, err = ca.GenerateOCSP(ctx, &capb.GenerateOCSPRequest{ CertDER: append(cert.DER, byte(0)), Status: status, }) test.AssertError(t, err, "Generated OCSP for cert with bad signature") // Load multiple issuers, including the old issuer, and ensure OCSP is still // signed correctly. newIssuerCert, err := issuance.LoadCertificate("../test/test-ca2.pem") test.AssertNotError(t, err, "Failed to load new cert") newIssuers := []Issuer{ { Signer: caKey, // newIssuerCert is first, so it will be the default. Cert: newIssuerCert, }, { Signer: caKey, Cert: caCert, }, } ca, err = NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, newIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to remake CA") // Now issue a new precert, signed by newIssuerCert newCert, err := ca.IssuePrecertificate(ctx, &issueReq) test.AssertNotError(t, err, "Failed to issue newCert") parsedNewCert, err := x509.ParseCertificate(newCert.DER) test.AssertNotError(t, err, "Failed to parse newCert") err = parsedNewCert.CheckSignatureFrom(newIssuerCert.Certificate) t.Logf("check sig: %s", err) // ocspResp2 is a second OCSP response for `cert` (issued by caCert), and // should be signed by caCert. ocspResp2, err := ca.GenerateOCSP(ctx, &capb.GenerateOCSPRequest{ CertDER: append([]byte(nil), cert.DER...), Status: status, }) test.AssertNotError(t, err, "Failed to sign second OCSP response") _, err = ocsp.ParseResponse(ocspResp2.Response, caCert.Certificate) test.AssertNotError(t, err, "Failed to parse / validate second OCSP response") // newCertOcspResp is an OCSP response for `newCert` (issued by newIssuer), // and should be signed by newIssuer. newCertOcspResp, err := ca.GenerateOCSP(ctx, &capb.GenerateOCSPRequest{ CertDER: newCert.DER, Status: status, }) test.AssertNotError(t, err, "Failed to generate OCSP") parsedNewCertOcspResp, err := ocsp.ParseResponse(newCertOcspResp.Response, newIssuerCert.Certificate) test.AssertNotError(t, err, "Failed to parse / validate OCSP for newCert") test.AssertEquals(t, parsedNewCertOcspResp.Status, 0) test.AssertEquals(t, parsedNewCertOcspResp.RevocationReason, 0) test.AssertEquals(t, parsedNewCertOcspResp.SerialNumber.Cmp(parsedNewCert.SerialNumber), 0) } func TestInvalidCSRs(t *testing.T) { testCases := []struct { name string csrPath string check func(t *testing.T, ca *CertificateAuthorityImpl, sa *mockSA) errorMessage string errorType berrors.ErrorType }{ // Test that the CA rejects CSRs that have no names. // // CSR generated by Go: // * Random RSA public key. // * CN = [none] // * DNSNames = [none] {"RejectNoHostnames", "./testdata/no_names.der.csr", nil, "Issued certificate with no names", berrors.BadCSR}, // Test that the CA rejects CSRs that have too many names. // // CSR generated by Go: // * Random public key // * CN = [none] // * DNSNames = not-example.com, www.not-example.com, mail.example.com {"RejectTooManyHostnames", "./testdata/too_many_names.der.csr", nil, "Issued certificate with too many names", berrors.BadCSR}, // Test that the CA rejects CSRs that have public keys that are too short. // // CSR generated by Go: // * Random public key -- 512 bits long // * CN = (none) // * DNSNames = not-example.com, www.not-example.com, mail.not-example.com {"RejectShortKey", "./testdata/short_key.der.csr", nil, "Issued a certificate with too short a key.", berrors.BadCSR}, // CSR generated by Go: // * Random RSA public key. // * CN = aaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaa.com // * DNSNames = [none] {"RejectLongCommonName", "./testdata/long_cn.der.csr", nil, "Issued a certificate with a CN over 64 bytes.", berrors.BadCSR}, // CSR generated by OpenSSL: // Edited signature to become invalid. {"RejectWrongSignature", "./testdata/invalid_signature.der.csr", nil, "Issued a certificate based on a CSR with an invalid signature.", berrors.BadCSR}, // CSR generated by Go: // * Random public key // * CN = not-example.com // * Includes an extensionRequest attribute for an empty TLS Feature extension {"TLSFeatureUnknown", "./testdata/tls_feature_unknown.der.csr", issueCertificateSubTestTLSFeatureUnknown, "Issued a certificate based on a CSR with an empty TLS feature extension.", berrors.Malformed}, } for _, testCase := range testCases { testCtx := setup(t) sa := &mockSA{} ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") t.Run(testCase.name, func(t *testing.T) { serializedCSR := mustRead(testCase.csrPath) issueReq := &capb.IssueCertificateRequest{Csr: serializedCSR, RegistrationID: arbitraryRegID} _, err = ca.IssuePrecertificate(ctx, issueReq) test.AssertErrorIs(t, err, testCase.errorType) test.AssertEquals(t, signatureCountByPurpose("cert", ca.signatureCount), 0) test.AssertError(t, err, testCase.errorMessage) if testCase.check != nil { testCase.check(t, ca, sa) } }) } } func TestRejectValidityTooLong(t *testing.T) { testCtx := setup(t) sa := &mockSA{} ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") // This time is a few minutes before the notAfter in testdata/ca_cert.pem future, err := time.Parse(time.RFC3339, "2025-02-10T00:30:00Z") test.AssertNotError(t, err, "Failed to parse time") testCtx.fc.Set(future) // Test that the CA rejects CSRs that would expire after the intermediate cert _, err = ca.IssuePrecertificate(ctx, &capb.IssueCertificateRequest{Csr: CNandSANCSR, RegistrationID: arbitraryRegID}) test.AssertError(t, err, "Cannot issue a certificate that expires after the intermediate certificate") test.AssertErrorIs(t, err, berrors.InternalServer) } func TestSingleAIAEnforcement(t *testing.T) { pa, err := policy.New(nil) test.AssertNotError(t, err, "Couldn't create PA") _, err = NewCertificateAuthorityImpl( &mockSA{}, pa, cfsslConfig.Config{ Signing: &cfsslConfig.Signing{ Profiles: map[string]*cfsslConfig.SigningProfile{ rsaProfileName: { IssuerURL: []string{"http://not-example.com/issuer-url", "bad"}, Usage: []string{"digital signature", "key encipherment", "server auth"}, OCSP: "http://not-example.com/ocsp", CRL: "http://not-example.com/crl", Policies: []cfsslConfig.CertificatePolicy{ { ID: cfsslConfig.OID(asn1.ObjectIdentifier{2, 23, 140, 1, 2, 1}), }, }, ExpiryString: "8760h", Backdate: time.Hour, CSRWhitelist: &cfsslConfig.CSRWhitelist{ PublicKeyAlgorithm: true, PublicKey: true, SignatureAlgorithm: true, }, ClientProvidesSerialNumbers: true, }, }, }, }, rsaProfileName, ecdsaProfileName, nil, nil, nil, 8760*time.Hour, time.Hour, 1, 1, time.Second, goodkey.KeyPolicy{}, nil, 0, time.Second, &blog.Mock{}, metrics.NoopRegisterer, clock.New(), ) test.AssertError(t, err, "NewCertificateAuthorityImpl allowed a profile with multiple issuer_urls") test.AssertEquals(t, err.Error(), "only one issuer_url supported") } func issueCertificateSubTestProfileSelectionRSA(t *testing.T, i *TestCertificateIssuance) { // Certificates for RSA keys should be marked as usable for signatures and encryption. expectedKeyUsage := x509.KeyUsageDigitalSignature | x509.KeyUsageKeyEncipherment t.Logf("expected key usage %v, got %v", expectedKeyUsage, i.cert.KeyUsage) test.AssertEquals(t, i.cert.KeyUsage, expectedKeyUsage) } func issueCertificateSubTestProfileSelectionECDSA(t *testing.T, i *TestCertificateIssuance) { // Certificates for ECDSA keys should be marked as usable for only signatures. expectedKeyUsage := x509.KeyUsageDigitalSignature t.Logf("expected key usage %v, got %v", expectedKeyUsage, i.cert.KeyUsage) test.AssertEquals(t, i.cert.KeyUsage, expectedKeyUsage) } func countMustStaple(t *testing.T, cert *x509.Certificate) (count int) { oidTLSFeature := asn1.ObjectIdentifier{1, 3, 6, 1, 5, 5, 7, 1, 24} for _, ext := range cert.Extensions { if ext.Id.Equal(oidTLSFeature) { test.Assert(t, !ext.Critical, "Extension was marked critical") test.AssertByteEquals(t, ext.Value, mustStapleFeatureValue) count++ } } return count } func issueCertificateSubTestMustStaple(t *testing.T, i *TestCertificateIssuance) { // a TLS feature extension should put a must-staple extension into the cert. Even // if there are multiple TLS Feature extensions, only one extension should be included. test.AssertEquals(t, test.CountCounterVec(csrExtensionCategory, csrExtensionTLSFeature, i.ca.csrExtensionCount), 1) test.AssertEquals(t, test.CountCounterVec(csrExtensionCategory, csrExtensionTLSFeatureInvalid, i.ca.csrExtensionCount), 0) test.AssertEquals(t, signatureCountByPurpose("precertificate", i.ca.signatureCount), 1) test.AssertEquals(t, countMustStaple(t, i.cert), 1) } func issueCertificateSubTestTLSFeatureUnknown(t *testing.T, ca *CertificateAuthorityImpl, _ *mockSA) { test.AssertEquals(t, test.CountCounterVec(csrExtensionCategory, csrExtensionTLSFeature, ca.csrExtensionCount), 1) test.AssertEquals(t, test.CountCounterVec(csrExtensionCategory, csrExtensionTLSFeatureInvalid, ca.csrExtensionCount), 1) } func issueCertificateSubTestUnknownExtension(t *testing.T, i *TestCertificateIssuance) { // Unsupported extensions in the CSR should be silently ignored. test.AssertEquals(t, test.CountCounterVec(csrExtensionCategory, csrExtensionOther, i.ca.csrExtensionCount), 1) test.AssertEquals(t, signatureCountByPurpose("precertificate", i.ca.signatureCount), 1) // NOTE: The hard-coded value here will have to change over time as Boulder // adds new (unrequested) extensions to certificates. expectedExtensionCount := 10 test.AssertEquals(t, len(i.cert.Extensions), expectedExtensionCount) } func issueCertificateSubTestCTPoisonExtension(t *testing.T, i *TestCertificateIssuance) { // The CT poison extension in the CSR should be silently ignored like an // unknown extension, whether it has a valid or invalid value. The check // for whether or not the poison extension is present in the issued // certificate/precertificate is done in the caller. test.AssertEquals(t, test.CountCounterVec(csrExtensionCategory, csrExtensionOther, i.ca.csrExtensionCount), 1) test.AssertEquals(t, signatureCountByPurpose("precertificate", i.ca.signatureCount), 1) } func findExtension(extensions []pkix.Extension, id asn1.ObjectIdentifier) *pkix.Extension { for _, ext := range extensions { if ext.Id.Equal(id) { return &ext } } return nil } func signatureCountByPurpose(signatureType string, signatureCount *prometheus.CounterVec) int { return test.CountCounterVec("purpose", signatureType, signatureCount) } func makeSCTs() ([][]byte, error) { sct := ct.SignedCertificateTimestamp{ SCTVersion: 0, Timestamp: 2020, Signature: ct.DigitallySigned{ Signature: []byte{0}, }, } sctBytes, err := cttls.Marshal(sct) if err != nil { return nil, err } return [][]byte{sctBytes}, err } func TestIssueCertificateForPrecertificate(t *testing.T) { testCtx := setup(t) sa := &mockSA{} for _, nonCFSSL := range []bool{true, false} { _ = features.Set(map[string]bool{"NonCFSSLSigner": nonCFSSL}) ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, testCtx.boulderIssuers, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") issueReq := capb.IssueCertificateRequest{Csr: CNandSANCSR, RegistrationID: arbitraryRegID, OrderID: 0} precert, err := ca.IssuePrecertificate(ctx, &issueReq) test.AssertNotError(t, err, "Failed to issue precert") parsedPrecert, err := x509.ParseCertificate(precert.DER) test.AssertNotError(t, err, "Failed to parse precert") // Check for poison extension poisoned := false for _, ext := range parsedPrecert.Extensions { if ext.Id.Equal(signer.CTPoisonOID) && ext.Critical { poisoned = true } } test.Assert(t, poisoned, "returned precert not poisoned") sctBytes, err := makeSCTs() if err != nil { t.Fatal(err) } test.AssertNotError(t, err, "Failed to marshal SCT") cert, err := ca.IssueCertificateForPrecertificate(ctx, &capb.IssueCertificateForPrecertificateRequest{ DER: precert.DER, SCTs: sctBytes, RegistrationID: arbitraryRegID, OrderID: 0, }) test.AssertNotError(t, err, "Failed to issue cert from precert") parsedCert, err := x509.ParseCertificate(cert.Der) test.AssertNotError(t, err, "Failed to parse cert") // Check for SCT list extension list := false for _, ext := range parsedCert.Extensions { if ext.Id.Equal(signer.SCTListOID) && !ext.Critical { list = true var rawValue []byte _, err = asn1.Unmarshal(ext.Value, &rawValue) test.AssertNotError(t, err, "Failed to unmarshal extension value") sctList, err := helpers.DeserializeSCTList(rawValue) test.AssertNotError(t, err, "Failed to deserialize SCT list") test.Assert(t, len(sctList) == 1, fmt.Sprintf("Wrong number of SCTs, wanted: 1, got: %d", len(sctList))) } } test.Assert(t, list, "returned cert doesn't contain SCT list") } } // dupeSA returns a non-error to GetCertificate in order to simulate a request // to issue a final certificate with a duplicate serial. type dupeSA struct { mockSA } func (m *dupeSA) GetCertificate(ctx context.Context, serial string) (core.Certificate, error) { return core.Certificate{}, nil } // getCertErrorSA always returns an error for GetCertificate type getCertErrorSA struct { mockSA } func (m *getCertErrorSA) GetCertificate(ctx context.Context, serial string) (core.Certificate, error) { return core.Certificate{}, fmt.Errorf("i don't like it") } func TestIssueCertificateForPrecertificateDuplicateSerial(t *testing.T) { testCtx := setup(t) sa := &dupeSA{} ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") sctBytes, err := makeSCTs() if err != nil { t.Fatal(err) } issueReq := capb.IssueCertificateRequest{Csr: CNandSANCSR, RegistrationID: arbitraryRegID, OrderID: 0} precert, err := ca.IssuePrecertificate(ctx, &issueReq) test.AssertNotError(t, err, "Failed to issue precert") _, err = ca.IssueCertificateForPrecertificate(ctx, &capb.IssueCertificateForPrecertificateRequest{ DER: precert.DER, SCTs: sctBytes, RegistrationID: arbitraryRegID, OrderID: 0, }) if err == nil { t.Error("Expected error issuing duplicate serial but got none.") } if !strings.Contains(err.Error(), "issuance of duplicate final certificate requested") { t.Errorf("Wrong type of error issuing duplicate serial. Expected 'issuance of duplicate', got '%s'", err) } // Now check what happens if there is an error (e.g. timeout) while checking // for the duplicate. errorsa := &getCertErrorSA{} errorca, err := NewCertificateAuthorityImpl( errorsa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") _, err = errorca.IssueCertificateForPrecertificate(ctx, &capb.IssueCertificateForPrecertificateRequest{ DER: precert.DER, SCTs: sctBytes, RegistrationID: arbitraryRegID, OrderID: 0, }) if err == nil { t.Fatal("Expected error issuing duplicate serial but got none.") } if !strings.Contains(err.Error(), "error checking for duplicate") { t.Fatalf("Wrong type of error issuing duplicate serial. Expected 'error checking for duplicate', got '%s'", err) } } type queueSA struct { mockSA fail bool duplicate bool issued *time.Time issuedPrecert *time.Time } func (qsa *queueSA) AddCertificate(_ context.Context, _ []byte, _ int64, _ []byte, issued *time.Time) (string, error) { if qsa.fail { return "", errors.New("bad") } else if qsa.duplicate { return "", berrors.DuplicateError("is a dupe") } qsa.issued = issued return "", nil } func (qsa *queueSA) AddPrecertificate(ctx context.Context, req *sapb.AddCertificateRequest) (*corepb.Empty, error) { if qsa.fail { return nil, errors.New("bad") } else if qsa.duplicate { return nil, berrors.DuplicateError("is a dupe") } issued := time.Unix(0, req.Issued) qsa.issuedPrecert = &issued return nil, nil } // TestPrecertOrphanQueue tests that IssuePrecertificate writes precertificates // to the orphan queue if storage fails, and that `integrateOrphan` later // successfully writes those precertificates to the database. To do this, it // uses the `queueSA` mock, which allows us to flip on and off a "fail" bit that // decides whether it errors in response to storage requests. func TestPrecertOrphanQueue(t *testing.T) { tmpDir, err := ioutil.TempDir("", "orphan-queue-tmp") defer os.Remove(tmpDir) test.AssertNotError(t, err, "Failed to create temp directory") orphanQueue, err := goque.OpenQueue(tmpDir) test.AssertNotError(t, err, "Failed to open orphaned certificate queue") qsa := &queueSA{fail: true} testCtx := setup(t) fakeNow := time.Date(2019, 9, 20, 0, 0, 0, 0, time.UTC) testCtx.fc.Set(fakeNow) ca, err := NewCertificateAuthorityImpl( qsa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, orphanQueue, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") err = ca.integrateOrphan() if err != goque.ErrEmpty { t.Fatalf("Unexpected error, wanted %q, got %q", goque.ErrEmpty, err) } _, err = ca.IssuePrecertificate(context.Background(), &capb.IssueCertificateRequest{ RegistrationID: 1, OrderID: 1, Csr: CNandSANCSR, }) test.AssertError(t, err, "Expected IssuePrecertificate to fail with `failSA`") matches := testCtx.logger.GetAllMatching(`orphaning precertificate.* regID=\[1\], orderID=\[1\]`) if len(matches) != 1 { t.Errorf("no log line, or incorrect log line for orphaned precertificate:\n%s", strings.Join(testCtx.logger.GetAllMatching(".*"), "\n")) } orphanCount := test.CountCounterVec("type", "precert", ca.orphanCount) test.AssertEquals(t, orphanCount, 1) qsa.fail = false err = ca.integrateOrphan() test.AssertNotError(t, err, "integrateOrphan failed") if !qsa.issuedPrecert.Equal(fakeNow) { t.Errorf("expected issued time to be %s, got %s", fakeNow, *qsa.issued) } err = ca.integrateOrphan() if err != goque.ErrEmpty { t.Fatalf("Unexpected error, wanted %q, got %q", goque.ErrEmpty, err) } adoptedCount := test.CountCounterVec("type", "precert", ca.adoptedOrphanCount) test.AssertEquals(t, adoptedCount, 1) } func TestOrphanQueue(t *testing.T) { tmpDir, err := ioutil.TempDir("", "orphan-queue-tmp") defer os.Remove(tmpDir) test.AssertNotError(t, err, "Failed to create temp directory") orphanQueue, err := goque.OpenQueue(tmpDir) test.AssertNotError(t, err, "Failed to open orphaned certificate queue") qsa := &queueSA{fail: true} testCtx := setup(t) fakeNow, err := time.Parse("Mon Jan 2 15:04:05 2006", "Mon Jan 2 15:04:05 2006") if err != nil { t.Fatal(err) } testCtx.fc.Set(fakeNow) ca, err := NewCertificateAuthorityImpl( qsa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, orphanQueue, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") err = ca.integrateOrphan() if err != goque.ErrEmpty { t.Fatalf("Unexpected error, wanted %q, got %q", goque.ErrEmpty, err) } // generate basic test cert k, err := ecdsa.GenerateKey(elliptic.P256(), rand.Reader) test.AssertNotError(t, err, "Failed to generate test key") tmpl := &x509.Certificate{ SerialNumber: big.NewInt(1), DNSNames: []string{"test.invalid"}, NotBefore: fakeNow.Add(-time.Hour), } certDER, err := x509.CreateCertificate(rand.Reader, tmpl, tmpl, k.Public(), k) test.AssertNotError(t, err, "Failed to generate test cert") err = ca.storeCertificate( context.Background(), 1, 1, tmpl.SerialNumber, certDER, 1, ) test.AssertError(t, err, "storeCertificate didn't fail when AddCertificate failed") qsa.fail = false err = ca.integrateOrphan() test.AssertNotError(t, err, "integrateOrphan failed") if !qsa.issued.Equal(fakeNow) { t.Errorf("expected issued time to be %s, got %s", fakeNow, *qsa.issued) } err = ca.integrateOrphan() if err != goque.ErrEmpty { t.Fatalf("Unexpected error, wanted %q, got %q", goque.ErrEmpty, err) } // test with a duplicate cert ca.queueOrphan(&orphanedCert{ DER: certDER, OCSPResp: []byte{}, RegID: 1, }) qsa.duplicate = true err = ca.integrateOrphan() test.AssertNotError(t, err, "integrateOrphan failed with duplicate cert") if !qsa.issued.Equal(fakeNow) { t.Errorf("expected issued time to be %s, got %s", fakeNow, *qsa.issued) } err = ca.integrateOrphan() if err != goque.ErrEmpty { t.Fatalf("Unexpected error, wanted %q, got %q", goque.ErrEmpty, err) } // add cert to queue, and recreate queue to make sure it still has the cert qsa.fail = true qsa.duplicate = false err = ca.storeCertificate( context.Background(), 1, 1, tmpl.SerialNumber, certDER, 1, ) test.AssertError(t, err, "storeCertificate didn't fail when AddCertificate failed") err = orphanQueue.Close() test.AssertNotError(t, err, "Failed to close the queue cleanly") orphanQueue, err = goque.OpenQueue(tmpDir) test.AssertNotError(t, err, "Failed to open orphaned certificate queue") defer func() { _ = orphanQueue.Close() }() ca.orphanQueue = orphanQueue qsa.fail = false err = ca.integrateOrphan() test.AssertNotError(t, err, "integrateOrphan failed") if !qsa.issued.Equal(fakeNow) { t.Errorf("expected issued time to be %s, got %s", fakeNow, *qsa.issued) } err = ca.integrateOrphan() if err != goque.ErrEmpty { t.Fatalf("Unexpected error, wanted %q, got %q", goque.ErrEmpty, err) } } type linttrapSigner struct { lintErr error } func (s *linttrapSigner) Sign(signer.SignRequest) ([]byte, error) { return nil, s.lintErr } func (s *linttrapSigner) SignFromPrecert(*x509.Certificate, []ct.SignedCertificateTimestamp) ([]byte, error) { return nil, errors.New("SignFromPrecert not implemented for linttrapSigner") } func TestIssuePrecertificateLinting(t *testing.T) { testCtx := setup(t) sa := &mockSA{} ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") // Reconfigure the CA's cfsslSigner to be a linttrapSigner that always returns // two LintResults. rsaIssuer := ca.issuers.byAlg[x509.RSA] rsaIssuer.cfsslSigner = &linttrapSigner{ lintErr: &local.LintError{ ErrorResults: map[string]zlint.LintResult{ "foobar": { Status: zlint.Error, Details: "foobar is error", }, "foobar2": { Status: zlint.Warn, Details: "foobar2 is warning", }, }, }, } // Clear the mock logger testCtx.logger.Clear() // Attempt to issue a pre-certificate _, err = ca.IssuePrecertificate(ctx, &capb.IssueCertificateRequest{ Csr: CNandSANCSR, RegistrationID: arbitraryRegID, }) // It should error test.AssertError(t, err, "expected err from IssuePrecertificate with linttrapSigner") // The local.LintError should have been converted to an internal server error // berror with the correct message. test.AssertErrorIs(t, err, berrors.InternalServer) test.AssertEquals(t, err.Error(), "failed to sign certificate: pre-issuance linting found 2 error results") // We also expect that an AUDIT level error is logged that includes the expect // serialized JSON lintErrors regex := `ERR: \[AUDIT\] Signing failed: serial=\[.*\] err=\[pre-issuance linting found 2 error results\] lintErrors=\{"foobar":\{"result":"error","details":"foobar is error"\},"foobar2":\{"result":"warn","details":"foobar2 is warning"\}\}` matches := testCtx.logger.GetAllMatching(regex) test.AssertEquals(t, len(matches), 1) } func TestGenerateOCSPWithIssuerID(t *testing.T) { testCtx := setup(t) sa := &mockSA{} _ = features.Set(map[string]bool{"StoreIssuerInfo": true}) ca, err := NewCertificateAuthorityImpl( sa, testCtx.pa, testCtx.cfsslProfiles, testCtx.cfsslRSAProfile, testCtx.cfsslECDSAProfile, testCtx.cfsslIssuers, nil, nil, testCtx.certExpiry, testCtx.certBackdate, testCtx.serialPrefix, testCtx.maxNames, testCtx.ocspLifetime, testCtx.keyPolicy, nil, 0, time.Second, testCtx.logger, testCtx.stats, testCtx.fc) test.AssertNotError(t, err, "Failed to create CA") // GenerateOCSP with feature enabled + req contains bad IssuerID _, err = ca.GenerateOCSP(context.Background(), &capb.GenerateOCSPRequest{ IssuerID: int64(666), Serial: "DEADDEADDEADDEADDEADDEADDEADDEADDEAD", Status: string(core.OCSPStatusGood), }) test.AssertError(t, err, "GenerateOCSP didn't fail with invalid IssuerID") // GenerateOCSP with feature enabled + req contains good IssuerID rsaIssuer := ca.issuers.byAlg[x509.RSA] _, err = ca.GenerateOCSP(context.Background(), &capb.GenerateOCSPRequest{ IssuerID: int64(rsaIssuer.cert.ID()), Serial: "DEADDEADDEADDEADDEADDEADDEADDEADDEAD", Status: string(core.OCSPStatusGood), }) test.AssertNotError(t, err, "GenerateOCSP failed") // GenerateOCSP with feature enabled + req doesn't contain IssuerID issueReq := capb.IssueCertificateRequest{Csr: CNandSANCSR, RegistrationID: arbitraryRegID} cert, err := ca.IssuePrecertificate(ctx, &issueReq) test.AssertNotError(t, err, "Failed to issue") _, err = ca.GenerateOCSP(context.Background(), &capb.GenerateOCSPRequest{ CertDER: cert.DER, Status: string(core.OCSPStatusGood), }) test.AssertNotError(t, err, "GenerateOCSP failed") }