Exemplo n.º 1
0
  public static void main(String args[]) throws Exception {
    // 参数
    String cacert = args[0];
    String lfcert = args[1];
    // CA "Xu Yingxiao"的证书
    CertificateFactory cf = CertificateFactory.getInstance("X.509");
    FileInputStream in1 = new FileInputStream(cacert);
    java.security.cert.Certificate cac = cf.generateCertificate(in1);
    in1.close();
    // 用户"Liu Fang"的签名证书
    FileInputStream in2 = new FileInputStream(lfcert);
    java.security.cert.Certificate lfc = cf.generateCertificate(in2);
    in2.close();

    PublicKey pbk = cac.getPublicKey();
    boolean pass = false;
    try {
      lfc.verify(pbk);
      pass = true;
    } catch (Exception e) {
      pass = false;
      System.out.println(e);
    }
    if (pass) {
      System.out.println("The Certificate is signed by the CA Xu Yingxiao");
    } else {
      System.out.println("!!!The Certificate is not signed by the CA Xu Yingxiao");
    }
  }
Exemplo n.º 2
0
  /**
   * Callback method from _scanKeychain. If a trusted certificate is found, this method will be
   * called.
   */
  private void createTrustedCertEntry(
      String alias, long keychainItemRef, long creationDate, byte[] derStream) {
    TrustedCertEntry tce = new TrustedCertEntry();

    try {
      CertificateFactory cf = CertificateFactory.getInstance("X.509");
      InputStream input = new ByteArrayInputStream(derStream);
      X509Certificate cert = (X509Certificate) cf.generateCertificate(input);
      input.close();
      tce.cert = cert;
      tce.certRef = keychainItemRef;

      // Make a creation date.
      if (creationDate != 0) tce.date = new Date(creationDate);
      else tce.date = new Date();

      int uniqueVal = 1;
      String originalAlias = alias;

      while (entries.containsKey(alias.toLowerCase())) {
        alias = originalAlias + " " + uniqueVal;
        uniqueVal++;
      }

      entries.put(alias.toLowerCase(), tce);
    } catch (Exception e) {
      // The certificate will be skipped.
      System.err.println("KeychainStore Ignored Exception: " + e);
    }
  }
Exemplo n.º 3
0
 MyX509TrustManager() throws java.security.GeneralSecurityException {
   TrustManagerFactory tmf = TrustManagerFactory.getInstance("PKIX");
   KeyStore ks = KeyStore.getInstance("JKS");
   CertificateFactory cf = CertificateFactory.getInstance("X.509");
   try {
     ks.load(null, null);
     File cacert = new File(cafile);
     if (!cacert.exists() || !cacert.canRead()) return;
     InputStream caStream = new FileInputStream(cafile);
     X509Certificate ca = (X509Certificate) cf.generateCertificate(caStream);
     ks.setCertificateEntry("CA", ca);
     PKIXBuilderParameters params = new PKIXBuilderParameters(ks, new X509CertSelector());
     File crlcert = new File(crlfile);
     if (!crlcert.exists() || !crlcert.canRead()) {
       params.setRevocationEnabled(false);
     } else {
       InputStream crlStream = new FileInputStream(crlfile);
       Collection<? extends CRL> crls = cf.generateCRLs(crlStream);
       CertStoreParameters csp = new CollectionCertStoreParameters(crls);
       CertStore store = CertStore.getInstance("Collection", csp);
       params.addCertStore(store);
       params.setRevocationEnabled(true);
     }
     tmf.init(new CertPathTrustManagerParameters(params));
   } catch (java.io.FileNotFoundException e) {
     vlog.error(e.toString());
   } catch (java.io.IOException e) {
     vlog.error(e.toString());
   }
   tm = (X509TrustManager) tmf.getTrustManagers()[0];
 }
Exemplo n.º 4
0
 private void initCommon() {
   if (TRY_VALIDATOR == false) {
     return;
   }
   trustedSubjects = new HashMap<X500Principal, List<PublicKey>>();
   for (Iterator t = trustedCerts.iterator(); t.hasNext(); ) {
     X509Certificate cert = (X509Certificate) t.next();
     X500Principal dn = cert.getSubjectX500Principal();
     List<PublicKey> keys;
     if (trustedSubjects.containsKey(dn)) {
       keys = trustedSubjects.get(dn);
     } else {
       keys = new ArrayList<PublicKey>();
       trustedSubjects.put(dn, keys);
     }
     keys.add(cert.getPublicKey());
   }
   try {
     factory = CertificateFactory.getInstance("X.509");
   } catch (CertificateException e) {
     throw new RuntimeException("Internal error", e);
   }
   plugin = variant.equals(VAR_PLUGIN_CODE_SIGNING);
 }
Exemplo n.º 5
0
  private X509Certificate[] doValidate(X509Certificate[] chain, PKIXBuilderParameters params)
      throws CertificateException {
    try {
      setDate(params);

      // do the validation
      CertPathValidator validator = CertPathValidator.getInstance("PKIX");
      CertPath path = factory.generateCertPath(Arrays.asList(chain));
      certPathLength = chain.length;
      PKIXCertPathValidatorResult result =
          (PKIXCertPathValidatorResult) validator.validate(path, params);

      return toArray(path, result.getTrustAnchor());
    } catch (GeneralSecurityException e) {
      if (e instanceof CertPathValidatorException) {
        // check cause
        Throwable cause = e.getCause();
        if (cause != null && cause instanceof OCSPResponse.UnreliableException) {
          throw new ValidatorException(ValidatorException.T_OCSP_RESPONSE_UNRELIABLE);
        }
      }
      throw new ValidatorException("PKIX path validation failed: " + e.toString(), e);
    }
  }
Exemplo n.º 6
0
  /**
   * Callback method from _scanKeychain. If an identity is found, this method will be called to
   * create Java certificate and private key objects from the keychain data.
   */
  private void createKeyEntry(
      String alias,
      long creationDate,
      long secKeyRef,
      long[] secCertificateRefs,
      byte[][] rawCertData)
      throws IOException, NoSuchAlgorithmException, UnrecoverableKeyException {
    KeyEntry ke = new KeyEntry();

    // First, store off the private key information.  This is the easy part.
    ke.protectedPrivKey = null;
    ke.keyRef = secKeyRef;

    // Make a creation date.
    if (creationDate != 0) ke.date = new Date(creationDate);
    else ke.date = new Date();

    // Next, create X.509 Certificate objects from the raw data.  This is complicated
    // because a certificate's public key may be too long for Java's default encryption strength.
    List<CertKeychainItemPair> createdCerts = new ArrayList<>();

    try {
      CertificateFactory cf = CertificateFactory.getInstance("X.509");

      for (int i = 0; i < rawCertData.length; i++) {
        try {
          InputStream input = new ByteArrayInputStream(rawCertData[i]);
          X509Certificate cert = (X509Certificate) cf.generateCertificate(input);
          input.close();

          // We successfully created the certificate, so track it and its corresponding
          // SecCertificateRef.
          createdCerts.add(new CertKeychainItemPair(secCertificateRefs[i], cert));
        } catch (CertificateException e) {
          // The certificate will be skipped.
          System.err.println("KeychainStore Ignored Exception: " + e);
        }
      }
    } catch (CertificateException e) {
      e.printStackTrace();
    } catch (IOException ioe) {
      ioe.printStackTrace(); // How would this happen?
    }

    // We have our certificates in the List, so now extract them into an array of
    // Certificates and SecCertificateRefs.
    CertKeychainItemPair[] objArray = createdCerts.toArray(new CertKeychainItemPair[0]);
    Certificate[] certArray = new Certificate[objArray.length];
    long[] certRefArray = new long[objArray.length];

    for (int i = 0; i < objArray.length; i++) {
      CertKeychainItemPair addedItem = objArray[i];
      certArray[i] = addedItem.mCert;
      certRefArray[i] = addedItem.mCertificateRef;
    }

    ke.chain = certArray;
    ke.chainRefs = certRefArray;

    // If we don't have already have an item with this item's alias
    // create a new one for it.
    int uniqueVal = 1;
    String originalAlias = alias;

    while (entries.containsKey(alias.toLowerCase())) {
      alias = originalAlias + " " + uniqueVal;
      uniqueVal++;
    }

    entries.put(alias.toLowerCase(), ke);
  }
Exemplo n.º 7
0
  /**
   * Uses the provided PKI method to find the corresponding public key and verify the provided
   * signature.
   *
   * @param paymentRequest Payment request to verify.
   * @param trustStore KeyStore of trusted root certificate authorities.
   * @return verification data, or null if no PKI method was specified in the {@link
   *     Protos.PaymentRequest}.
   * @throws PaymentProtocolException if payment request could not be verified.
   */
  @Nullable
  public static PkiVerificationData verifyPaymentRequestPki(
      Protos.PaymentRequest paymentRequest, KeyStore trustStore) throws PaymentProtocolException {
    List<X509Certificate> certs = null;
    try {
      final String pkiType = paymentRequest.getPkiType();
      if ("none".equals(pkiType))
        // Nothing to verify. Everything is fine. Move along.
        return null;

      String algorithm;
      if ("x509+sha256".equals(pkiType)) algorithm = "SHA256withRSA";
      else if ("x509+sha1".equals(pkiType)) algorithm = "SHA1withRSA";
      else throw new PaymentProtocolException.InvalidPkiType("Unsupported PKI type: " + pkiType);

      Protos.X509Certificates protoCerts =
          Protos.X509Certificates.parseFrom(paymentRequest.getPkiData());
      if (protoCerts.getCertificateCount() == 0)
        throw new PaymentProtocolException.InvalidPkiData(
            "No certificates provided in message: server config error");

      // Parse the certs and turn into a certificate chain object. Cert factories can parse both DER
      // and base64.
      // The ordering of certificates is defined by the payment protocol spec to be the same as what
      // the Java
      // crypto API requires - convenient!
      CertificateFactory certificateFactory = CertificateFactory.getInstance("X.509");
      certs = Lists.newArrayList();
      for (ByteString bytes : protoCerts.getCertificateList())
        certs.add((X509Certificate) certificateFactory.generateCertificate(bytes.newInput()));
      CertPath path = certificateFactory.generateCertPath(certs);

      // Retrieves the most-trusted CAs from keystore.
      PKIXParameters params = new PKIXParameters(trustStore);
      // Revocation not supported in the current version.
      params.setRevocationEnabled(false);

      // Now verify the certificate chain is correct and trusted. This let's us get an identity
      // linked pubkey.
      CertPathValidator validator = CertPathValidator.getInstance("PKIX");
      PKIXCertPathValidatorResult result =
          (PKIXCertPathValidatorResult) validator.validate(path, params);
      PublicKey publicKey = result.getPublicKey();
      // OK, we got an identity, now check it was used to sign this message.
      Signature signature = Signature.getInstance(algorithm);
      // Note that we don't use signature.initVerify(certs.get(0)) here despite it being the most
      // obvious
      // way to set it up, because we don't care about the constraints specified on the
      // certificates: any
      // cert that links a key to a domain name or other identity will do for us.
      signature.initVerify(publicKey);
      Protos.PaymentRequest.Builder reqToCheck = paymentRequest.toBuilder();
      reqToCheck.setSignature(ByteString.EMPTY);
      signature.update(reqToCheck.build().toByteArray());
      if (!signature.verify(paymentRequest.getSignature().toByteArray()))
        throw new PaymentProtocolException.PkiVerificationException(
            "Invalid signature, this payment request is not valid.");

      // Signature verifies, get the names from the identity we just verified for presentation to
      // the user.
      final X509Certificate cert = certs.get(0);
      String displayName = X509Utils.getDisplayNameFromCertificate(cert, true);
      if (displayName == null)
        throw new PaymentProtocolException.PkiVerificationException(
            "Could not extract name from certificate");
      // Everything is peachy. Return some useful data to the caller.
      return new PkiVerificationData(displayName, publicKey, result.getTrustAnchor());
    } catch (InvalidProtocolBufferException e) {
      // Data structures are malformed.
      throw new PaymentProtocolException.InvalidPkiData(e);
    } catch (CertificateException e) {
      // The X.509 certificate data didn't parse correctly.
      throw new PaymentProtocolException.PkiVerificationException(e);
    } catch (NoSuchAlgorithmException e) {
      // Should never happen so don't make users have to think about it. PKIX is always present.
      throw new RuntimeException(e);
    } catch (InvalidAlgorithmParameterException e) {
      throw new RuntimeException(e);
    } catch (CertPathValidatorException e) {
      // The certificate chain isn't known or trusted, probably, the server is using an SSL root we
      // don't
      // know about and the user needs to upgrade to a new version of the software (or import a root
      // cert).
      throw new PaymentProtocolException.PkiVerificationException(e, certs);
    } catch (InvalidKeyException e) {
      // Shouldn't happen if the certs verified correctly.
      throw new PaymentProtocolException.PkiVerificationException(e);
    } catch (SignatureException e) {
      // Something went wrong during hashing (yes, despite the name, this does not mean the sig was
      // invalid).
      throw new PaymentProtocolException.PkiVerificationException(e);
    } catch (KeyStoreException e) {
      throw new RuntimeException(e);
    }
  }
Exemplo n.º 8
0
  /**
   * Uses the provided PKI method to find the corresponding public key and verify the provided
   * signature. Returns null if no PKI method was specified in the {@link Protos.PaymentRequest}.
   */
  public @Nullable PkiVerificationData verifyPki() throws PaymentRequestException {
    try {
      if (pkiVerificationData != null) return pkiVerificationData;
      if (paymentRequest.getPkiType().equals("none"))
        // Nothing to verify. Everything is fine. Move along.
        return null;

      String algorithm;
      if (paymentRequest.getPkiType().equals("x509+sha256")) algorithm = "SHA256withRSA";
      else if (paymentRequest.getPkiType().equals("x509+sha1")) algorithm = "SHA1withRSA";
      else
        throw new PaymentRequestException.InvalidPkiType(
            "Unsupported PKI type: " + paymentRequest.getPkiType());

      Protos.X509Certificates protoCerts =
          Protos.X509Certificates.parseFrom(paymentRequest.getPkiData());
      if (protoCerts.getCertificateCount() == 0)
        throw new PaymentRequestException.InvalidPkiData(
            "No certificates provided in message: server config error");

      // Parse the certs and turn into a certificate chain object. Cert factories can parse both DER
      // and base64.
      // The ordering of certificates is defined by the payment protocol spec to be the same as what
      // the Java
      // crypto API requires - convenient!
      CertificateFactory certificateFactory = CertificateFactory.getInstance("X.509");
      List<X509Certificate> certs = Lists.newArrayList();
      for (ByteString bytes : protoCerts.getCertificateList())
        certs.add((X509Certificate) certificateFactory.generateCertificate(bytes.newInput()));
      CertPath path = certificateFactory.generateCertPath(certs);

      // Retrieves the most-trusted CAs from keystore.
      PKIXParameters params = new PKIXParameters(createKeyStore(trustStorePath));
      // Revocation not supported in the current version.
      params.setRevocationEnabled(false);

      // Now verify the certificate chain is correct and trusted. This let's us get an identity
      // linked pubkey.
      CertPathValidator validator = CertPathValidator.getInstance("PKIX");
      PKIXCertPathValidatorResult result =
          (PKIXCertPathValidatorResult) validator.validate(path, params);
      PublicKey publicKey = result.getPublicKey();
      // OK, we got an identity, now check it was used to sign this message.
      Signature signature = Signature.getInstance(algorithm);
      // Note that we don't use signature.initVerify(certs.get(0)) here despite it being the most
      // obvious
      // way to set it up, because we don't care about the constraints specified on the
      // certificates: any
      // cert that links a key to a domain name or other identity will do for us.
      signature.initVerify(publicKey);
      Protos.PaymentRequest.Builder reqToCheck = paymentRequest.toBuilder();
      reqToCheck.setSignature(ByteString.EMPTY);
      signature.update(reqToCheck.build().toByteArray());
      if (!signature.verify(paymentRequest.getSignature().toByteArray()))
        throw new PaymentRequestException.PkiVerificationException(
            "Invalid signature, this payment request is not valid.");

      // Signature verifies, get the names from the identity we just verified for presentation to
      // the user.
      X500Principal principal = certs.get(0).getSubjectX500Principal();
      // At this point the Java crypto API falls flat on its face and dies - there's no clean way to
      // get the
      // different parts of the certificate name except for parsing the string. That's hard because
      // of various
      // custom escaping rules and the usual crap. So, use Bouncy Castle to re-parse the string into
      // binary form
      // again and then look for the names we want. Fail!
      org.spongycastle.asn1.x500.X500Name name = new X500Name(principal.getName());
      String entityName = null, orgName = null;
      for (RDN rdn : name.getRDNs()) {
        AttributeTypeAndValue pair = rdn.getFirst();
        if (pair.getType().equals(RFC4519Style.cn))
          entityName = ((ASN1String) pair.getValue()).getString();
        else if (pair.getType().equals(RFC4519Style.o))
          orgName = ((ASN1String) pair.getValue()).getString();
      }
      if (entityName == null && orgName == null)
        throw new PaymentRequestException.PkiVerificationException(
            "Invalid certificate, no CN or O fields");
      // Everything is peachy. Return some useful data to the caller.
      PkiVerificationData data =
          new PkiVerificationData(entityName, orgName, publicKey, result.getTrustAnchor());
      // Cache the result so we don't have to re-verify if this method is called again.
      pkiVerificationData = data;
      return data;
    } catch (InvalidProtocolBufferException e) {
      // Data structures are malformed.
      throw new PaymentRequestException.InvalidPkiData(e);
    } catch (CertificateException e) {
      // The X.509 certificate data didn't parse correctly.
      throw new PaymentRequestException.PkiVerificationException(e);
    } catch (NoSuchAlgorithmException e) {
      // Should never happen so don't make users have to think about it. PKIX is always present.
      throw new RuntimeException(e);
    } catch (InvalidAlgorithmParameterException e) {
      throw new RuntimeException(e);
    } catch (CertPathValidatorException e) {
      // The certificate chain isn't known or trusted, probably, the server is using an SSL root we
      // don't
      // know about and the user needs to upgrade to a new version of the software (or import a root
      // cert).
      throw new PaymentRequestException.PkiVerificationException(e);
    } catch (InvalidKeyException e) {
      // Shouldn't happen if the certs verified correctly.
      throw new PaymentRequestException.PkiVerificationException(e);
    } catch (SignatureException e) {
      // Something went wrong during hashing (yes, despite the name, this does not mean the sig was
      // invalid).
      throw new PaymentRequestException.PkiVerificationException(e);
    } catch (IOException e) {
      throw new PaymentRequestException.PkiVerificationException(e);
    } catch (KeyStoreException e) {
      throw new RuntimeException(e);
    }
  }