/**
     * Stores a file authentication configuration.
     * The parameters are encrypted before storage for security.
     *
     * @param fileAuthentication the file authentication configuration to store
     */
    public void store(final FileAuthentication fileAuthentication) {
        fileAuthentication.setParameters(ParameterUtil.encrypt(fileAuthentication.getParameters()));

	return key, err
}

// EncryptSinglePart encrypts an io.Reader which must be the
// body of a single-part PUT request.
func EncryptSinglePart(r io.Reader, key ObjectKey) io.Reader {
	r, err := sio.EncryptReader(r, sio.Config{MinVersion: sio.Version20, Key: key[:]})
	if err != nil {
		logger.CriticalIf(context.Background(), errors.New("Unable to encrypt io.Reader using object key"))
	}
	return r
}

	}
	files.OptimizeSize()
	zipInfo, err := files.Serialize()
	if err != nil {
		return nil, err
	}
	at := archiveType
	zipInfoStr := string(zipInfo)
	if opts.EncryptFn != nil {
		at = archiveTypeEnc
		zipInfoStr = string(opts.EncryptFn(archiveTypeEnc, zipInfo))
	}
	srcInfo.UserDefined[archiveTypeMetadataKey] = at
	popts := ObjectOptions{
		MTime:     srcInfo.ModTime,
		VersionID: srcInfo.VersionID,

    }

    /**
     * Stores a web configuration.
     * Configuration parameters are encrypted before storage.
     *
     * @param webConfig The web configuration to store
     */
    public void store(final WebConfig webConfig) {
        webConfig.setConfigParameter(ParameterUtil.encrypt(webConfig.getConfigParameter()));
        webConfigBhv.insertOrUpdate(webConfig, op -> {

            } else if (this.server.encryptedPasswords) {
                // encrypted
                try {
                    this.password = pwAuth.getAnsiHash(this.ctx, this.server.encryptionKey);
                } catch (final GeneralSecurityException e) {
                    throw new RuntimeCIFSException("Failed to encrypt password", e);
                }
                this.passwordLength = this.password.length;

	exit_1
fi

# Stat the SSEC objects from source site
echo "Stat minio1/test-bucket/encrypted"
./mc stat --no-list minio1/test-bucket/encrypted --enc-c "minio1/test-bucket/encrypted=${TEST_MINIO_ENC_KEY}" --insecure --json
stat_out1=$(./mc stat --no-list minio1/test-bucket/encrypted --enc-c "minio1/test-bucket/encrypted=${TEST_MINIO_ENC_KEY}" --insecure --json)
src_obj1_etag=$(echo "${stat_out1}" | jq '.etag')

1a) Send encrypted data key and master key ID to KMS.
1b) Receive decrypted data key.
2)  Decrypt encrypted object key with the KEK derived from the data key.
3a) Receive new plain data key from the KMS using the master key ID of the server config.
3b) Receive encrypted form of the data key from the KMS.
4)  Derive a new KEK from the new data key and re-encrypt the OEK with it.

	exit_1
fi

# Stat the SSEC objects from source site
echo "Stat minio1/test-bucket/encrypted"
./mc stat --no-list minio1/test-bucket/encrypted --enc-c "minio1/test-bucket/encrypted=${TEST_MINIO_ENC_KEY}" --insecure --json
stat_out1=$(./mc stat --no-list minio1/test-bucket/encrypted --enc-c "minio1/test-bucket/encrypted=${TEST_MINIO_ENC_KEY}" --insecure --json)
src_obj1_etag=$(echo "${stat_out1}" | jq '.etag')

        String encrypted = context.reader.readLine("Enter the password to decrypt: ");
        if (secDispatcher.isAnyEncryptedString(encrypted)) {
            context.terminal.writer().println(secDispatcher.decrypt(encrypted));
            return OK;
        } else {
            context.terminal.writer().println(messageBuilderFactory.builder().error("Malformed encrypted string"));
            return BAD_OPERATION;

		}
	}
}

var ssecIsEncryptedTests = []struct {
	Metadata  map[string]string
	Encrypted bool
}{
	{Encrypted: false, Metadata: map[string]string{MetaMultipart: ""}},                             // 0
	{Encrypted: false, Metadata: map[string]string{MetaIV: ""}},                                    // 1
	{Encrypted: false, Metadata: map[string]string{MetaAlgorithm: ""}},                             // 2