class KeyBlockKey(Struct):
def __init__(self, key_block=None, tag=Tags.DEFAULT):
super(KeyBlockKey, self).__init__(tag)
self.key_block = key_block
self.validate()
def read(self, istream):
super(KeyBlockKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def write(self, ostream):
tstream = BytearrayStream()
self.key_block.write(tstream)
# Write the length and value of the template attribute
self.length = tstream.length()
super(KeyBlockKey, self).write(ostream)
ostream.write(tstream.buffer)
def validate(self):
self.__validate()
def __validate(self):
# TODO (peter-hamilton) Finish implementation.
pass
class KeyBlockKey(Struct):
def __init__(self, key_block=None, tag=Tags.DEFAULT):
super(KeyBlockKey, self).__init__(tag)
self.key_block = key_block
self.validate()
def read(self, istream, kmip_version=enums.KMIPVersion.KMIP_1_0):
super(KeyBlockKey, self).read(istream, kmip_version=kmip_version)
tstream = BytearrayStream(istream.read(self.length))
self.key_block = KeyBlock()
self.key_block.read(tstream, kmip_version=kmip_version)
self.is_oversized(tstream)
self.validate()
def write(self, ostream, kmip_version=enums.KMIPVersion.KMIP_1_0):
tstream = BytearrayStream()
self.key_block.write(tstream, kmip_version=kmip_version)
# Write the length and value of the template attribute
self.length = tstream.length()
super(KeyBlockKey, self).write(ostream, kmip_version=kmip_version)
ostream.write(tstream.buffer)
def validate(self):
self.__validate()
def __validate(self):
# TODO (peter-hamilton) Finish implementation.
pass
def _build_key_block(self, value):
key_type = value.get('key_format_type')
key_compression_type = value.get('key_compression_type')
key_value = value.get('key_value')
cryptographic_algorithm = value.get('cryptographic_algorithm')
cryptographic_length = value.get('cryptographic_length')
key_wrapping_data = value.get('key_wrapping_data')
key_format_type = KeyFormatType(key_type)
key_comp_type = None
if key_compression_type is not None:
key_comp_type = KeyBlock.KeyCompressionType(key_compression_type)
key_material = KeyMaterial(key_value)
key_value = KeyValue(key_material)
crypto_algorithm = None
if cryptographic_algorithm is not None:
crypto_algorithm = CryptographicAlgorithm(cryptographic_algorithm)
crypto_length = None
if cryptographic_length is not None:
crypto_length = CryptographicLength(cryptographic_length)
key_wrap_data = None
if key_wrapping_data:
# TODO (peter-hamilton) This currently isn't used in the tests
# TODO (peter-hamilton) but needs to be updated to properly
# TODO (peter-hamilton) create a KeyWrappingData object.
key_wrap_data = KeyWrappingData(**key_wrapping_data)
key_block = KeyBlock(key_format_type, key_comp_type, key_value,
crypto_algorithm, crypto_length, key_wrap_data)
return key_block
def read(self, istream, kmip_version=enums.KMIPVersion.KMIP_1_0):
super(KeyBlockKey, self).read(istream, kmip_version=kmip_version)
tstream = BytearrayStream(istream.read(self.length))
self.key_block = KeyBlock()
self.key_block.read(tstream, kmip_version=kmip_version)
self.is_oversized(tstream)
self.validate()
def read(self, istream):
super(KeyBlockKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def read(self, istream, kmip_version=enums.KMIPVersion.KMIP_1_0):
super(SecretData, self).read(istream, kmip_version=kmip_version)
tstream = BytearrayStream(istream.read(self.length))
self.secret_data_type = SecretData.SecretDataType()
self.key_block = KeyBlock()
self.secret_data_type.read(tstream, kmip_version=kmip_version)
self.key_block.read(tstream, kmip_version=kmip_version)
self.is_oversized(tstream)
self.validate()
def read(self, istream):
super(SecretData, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.secret_data_type = SecretData.SecretDataType()
self.key_block = KeyBlock()
self.secret_data_type.read(tstream)
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
class SecretData(Struct):
class SecretDataType(Enumeration):
ENUM_TYPE = enums.SecretDataType
def __init__(self, value=None):
super(SecretData.SecretDataType, self).__init__(
value, Tags.SECRET_DATA_TYPE)
def __init__(self,
secret_data_type=None,
key_block=None):
super(SecretData, self).__init__(Tags.SECRET_DATA)
self.secret_data_type = secret_data_type
self.key_block = key_block
self.validate()
def read(self, istream):
super(SecretData, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.secret_data_type = SecretData.SecretDataType()
self.key_block = KeyBlock()
self.secret_data_type.read(tstream)
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def write(self, ostream):
tstream = BytearrayStream()
self.secret_data_type.write(tstream)
self.key_block.write(tstream)
# Write the length and value of the template attribute
self.length = tstream.length()
super(SecretData, self).write(ostream)
ostream.write(tstream.buffer)
def validate(self):
self.__validate()
def __validate(self):
# TODO (peter-hamilton) Finish implementation.
pass
def _get_kmip_secret(self, secret_dto):
"""Builds a KMIP object from a SecretDTO
This is needed for register calls. The Barbican object needs to be
converted to KMIP object before it can be stored
:param secret_dto: SecretDTO of secret to be stored
:returns: KMIP object
"""
secret_type = secret_dto.type
object_type, key_format_type = (self._map_type_ss_to_kmip(secret_type))
normalized_secret = self._normalize_secret(secret_dto.secret,
secret_type)
kmip_object = None
if object_type == enums.ObjectType.CERTIFICATE:
kmip_object = Certificate(
certificate_type=enums.CertificateTypeEnum.X_509,
certificate_value=normalized_secret)
elif object_type == enums.ObjectType.OPAQUE_DATA:
opaque_type = Opaque.OpaqueDataType(enums.OpaqueDataType.NONE)
opaque_value = Opaque.OpaqueDataValue(normalized_secret)
kmip_object = Opaque(opaque_type, opaque_value)
elif (object_type == enums.ObjectType.SYMMETRIC_KEY
or object_type == enums.ObjectType.SECRET_DATA
or object_type == enums.ObjectType.PRIVATE_KEY
or object_type == enums.ObjectType.PUBLIC_KEY):
key_material = KeyMaterial(normalized_secret)
key_value = KeyValue(key_material)
key_spec = secret_dto.key_spec
algorithm = None
if key_spec.alg is not None:
algorithm_name = self._map_algorithm_ss_to_kmip(
key_spec.alg.lower())
algorithm = CryptographicAlgorithm(algorithm_name)
bit_length = None
if key_spec.bit_length is not None:
bit_length = CryptographicLength(key_spec.bit_length)
key_block = KeyBlock(
key_format_type=misc.KeyFormatType(key_format_type),
key_compression_type=None,
key_value=key_value,
cryptographic_algorithm=algorithm,
cryptographic_length=bit_length,
key_wrapping_data=None)
if object_type == enums.ObjectType.SYMMETRIC_KEY:
kmip_object = SymmetricKey(key_block)
elif object_type == enums.ObjectType.PRIVATE_KEY:
kmip_object = PrivateKey(key_block)
elif object_type == enums.ObjectType.PUBLIC_KEY:
kmip_object = PublicKey(key_block)
elif object_type == enums.ObjectType.SECRET_DATA:
kind = SecretData.SecretDataType(enums.SecretDataType.PASSWORD)
return SecretData(secret_data_type=kind, key_block=key_block)
return kmip_object
def _gen_symmetric_key(self, bit_length, crypto_alg):
key_format_type = KeyFormatType(KeyFormatTypeEnum.RAW)
key_material = KeyMaterial(os.urandom(int(bit_length/8)))
key_value = KeyValue(key_material)
crypto_length = CryptographicLength(bit_length)
key_block = KeyBlock(key_format_type, None, key_value, crypto_alg,
crypto_length, None)
return SymmetricKey(key_block)
class SecretData(Struct):
class SecretDataType(Enumeration):
def __init__(self, value=None):
super(SecretData.SecretDataType, self).__init__(
enums.SecretDataType, value, Tags.SECRET_DATA_TYPE)
def __init__(self,
secret_data_type=None,
key_block=None):
super(SecretData, self).__init__(Tags.SECRET_DATA)
self.secret_data_type = secret_data_type
self.key_block = key_block
self.validate()
def read(self, istream, kmip_version=enums.KMIPVersion.KMIP_1_0):
super(SecretData, self).read(istream, kmip_version=kmip_version)
tstream = BytearrayStream(istream.read(self.length))
self.secret_data_type = SecretData.SecretDataType()
self.key_block = KeyBlock()
self.secret_data_type.read(tstream, kmip_version=kmip_version)
self.key_block.read(tstream, kmip_version=kmip_version)
self.is_oversized(tstream)
self.validate()
def write(self, ostream, kmip_version=enums.KMIPVersion.KMIP_1_0):
tstream = BytearrayStream()
self.secret_data_type.write(tstream, kmip_version=kmip_version)
self.key_block.write(tstream, kmip_version=kmip_version)
# Write the length and value of the template attribute
self.length = tstream.length()
super(SecretData, self).write(ostream, kmip_version=kmip_version)
ostream.write(tstream.buffer)
def validate(self):
self.__validate()
def __validate(self):
# TODO (peter-hamilton) Finish implementation.
pass
def read(self, istream):
super(KeyBlockKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def build_key_block(key_format_type, key_value, cryptographic_algorithm,
cryptographic_length):
key_material = KeyMaterial(key_value)
key_value = KeyValue(key_material)
return KeyBlock(key_format_type=KeyFormatType(key_format_type),
key_compression_type=None,
key_value=key_value,
cryptographic_algorithm=cryptographic_algorithm,
cryptographic_length=cryptographic_length,
key_wrapping_data=None)
def read(self, istream):
super(SecretData, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.secret_data_type = SecretData.SecretDataType()
self.key_block = KeyBlock()
self.secret_data_type.read(tstream)
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def _get_symmetric_key(self):
# only need usage attribute
attrs = [self._get_attrs()[1]]
key_format_type = KeyFormatType(KeyFormatTypeEnum.RAW)
key_material = KeyMaterial(self.key)
key_value = KeyValue(key_material, attrs)
crypto_alg = CryptographicAlgorithm(self.algorithm_name)
crypto_length = CryptographicLength(self.key_length)
usage = CryptographicUsageMask(self.usage_mask)
key_block = KeyBlock(key_format_type, None, key_value, crypto_alg,
crypto_length, usage)
return SymmetricKey(key_block)
def read(self, istream):
super(SplitKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.split_key_parts = SplitKey.SplitKeyParts()
self.split_key_parts.read(tstream)
self.key_part_identifier = SplitKey.KeyPartIdentifier()
self.key_part_identifier.read(tstream)
self.split_key_threshold = SplitKey.SplitKeyThreshold()
self.split_key_threshold.read(tstream)
if self.is_tag_next(Tags.PRIME_FIELD_SIZE, tstream):
self.prime_field_size = SplitKey.PrimeFieldSize()
self.prime_field_size.read(tstream)
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def read(self, istream):
super(SplitKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.split_key_parts = SplitKey.SplitKeyParts()
self.split_key_parts.read(tstream)
self.key_part_identifier = SplitKey.KeyPartIdentifier()
self.key_part_identifier.read(tstream)
self.split_key_threshold = SplitKey.SplitKeyThreshold()
self.split_key_threshold.read(tstream)
if self.is_tag_next(Tags.PRIME_FIELD_SIZE, tstream):
self.prime_field_size = SplitKey.PrimeFieldSize()
self.prime_field_size.read(tstream)
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
class SplitKey(Struct):
class SplitKeyParts(Integer):
def __init__(self, value=None):
super(SplitKey.SplitKeyParts, self).__init__(
value, Tags.SPLIT_KEY_PARTS)
class KeyPartIdentifier(Integer):
def __init__(self, value=None):
super(SplitKey.KeyPartIdentifier, self).__init__(
value, Tags.KEY_PART_IDENTIFIER)
class SplitKeyThreshold(Integer):
def __init__(self, value=None):
super(SplitKey.SplitKeyThreshold, self).__init__(
value, Tags.SPLIT_KEY_THRESHOLD)
class SplitKeyMethod(Enumeration):
def __init__(self, value=None):
super(SplitKey.SplitKeyMethod, self).__init__(
enums.SplitKeyMethod, value, Tags.SPLIT_KEY_METHOD)
class PrimeFieldSize(BigInteger):
def __init__(self, value=None):
super(SplitKey.PrimeFieldSize, self).__init__(
value, Tags.PRIME_FIELD_SIZE)
def __init__(self,
split_key_parts=None,
key_part_identifier=None,
split_key_threshold=None,
split_key_method=None,
prime_field_size=None,
key_block=None):
super(SplitKey, self).__init__(Tags.SPLIT_KEY)
self.split_key_parts = split_key_parts
self.key_part_identifier = key_part_identifier
self.split_key_threshold = split_key_threshold
self.split_key_method = split_key_method
self.prime_field_size = prime_field_size
self.key_block = key_block
self.validate()
def read(self, istream):
super(SplitKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.split_key_parts = SplitKey.SplitKeyParts()
self.split_key_parts.read(tstream)
self.key_part_identifier = SplitKey.KeyPartIdentifier()
self.key_part_identifier.read(tstream)
self.split_key_threshold = SplitKey.SplitKeyThreshold()
self.split_key_threshold.read(tstream)
if self.is_tag_next(Tags.PRIME_FIELD_SIZE, tstream):
self.prime_field_size = SplitKey.PrimeFieldSize()
self.prime_field_size.read(tstream)
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def write(self, ostream):
tstream = BytearrayStream()
self.split_key_parts.write(tstream)
self.key_part_identifier.write(tstream)
self.split_key_threshold.write(tstream)
self.split_key_method.write(tstream)
if self.prime_field_size is not None:
self.prime_field_size.write(tstream)
self.key_block.write(tstream)
# Write the length and value of the template attribute
self.length = tstream.length()
super(SplitKey, self).write(ostream)
ostream.write(tstream.buffer)
def validate(self):
self.__validate()
def __validate(self):
# TODO (peter-hamilton) Finish implementation.
pass
def test_passphrase_register_get_destroy(self):
"""
Tests that passphrases can be properly registered, retrieved,
and destroyed
"""
# properties copied from test case example :
# http://docs.oasis-open.org/kmip/testcases/v1.1/cn01/kmip-testcases-v1.1-cn01.html#_Toc333488777
pass_obj_type = ObjectType.SECRET_DATA
mask_flags = [CryptographicUsageMask.VERIFY]
attribute_type = AttributeType.CRYPTOGRAPHIC_USAGE_MASK
usage_mask = self.attr_factory.create_attribute(
attribute_type, mask_flags)
name = Attribute.AttributeName('Name')
pass_name = 'Integration Test - Register-Get-Destroy Passphrase'
pass_name_value = Name.NameValue(pass_name)
name_type = Name.NameType(NameType.UNINTERPRETED_TEXT_STRING)
pass_value = Name(name_value=pass_name_value, name_type=name_type)
pass_name_attr = Attribute(attribute_name=name,
attribute_value=pass_value)
pass_attributes = [usage_mask, pass_name_attr]
pass_template_attribute = TemplateAttribute(attributes=pass_attributes)
pass_format_type = SecretData.SecretDataType(SecretDataType.PASSWORD)
key_format_type = KeyFormatType(KeyFormatTypeEnum.OPAQUE)
key_data = b'\x70\x65\x65\x6b\x2d\x61\x2d\x62\x6f\x6f\x21\x21'
key_material = KeyMaterial(key_data)
key_value = KeyValue(key_material)
key_block = KeyBlock(key_format_type=key_format_type,
key_compression_type=None,
key_value=key_value,
key_wrapping_data=None)
pass_obj = SecretData(secret_data_type=pass_format_type,
key_block=key_block)
pass_result = self.client.register(pass_obj_type,
pass_template_attribute,
pass_obj,
credential=None)
self._check_result_status(pass_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_uuid(pass_result.uuid.value, str)
# Check that the returned key bytes match what was provided
pass_uuid = pass_result.uuid.value
pass_result = self.client.get(uuid=pass_uuid, credential=None)
self._check_result_status(pass_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_object_type(pass_result.object_type.value, ObjectType,
ObjectType.SECRET_DATA)
self._check_uuid(pass_result.uuid.value, str)
# Check the secret type
pass_secret = pass_result.secret
pass_secret_expected = SecretData
self.assertIsInstance(pass_secret, pass_secret_expected)
pass_material = pass_result.secret.key_block.key_value.key_material\
.value
expected = key_data
self.assertEqual(expected, pass_material)
self.logger.debug('Destroying cert: ' + pass_name +
'\nWith " "UUID: ' + pass_result.uuid.value)
pass_result = self.client.destroy(pass_result.uuid.value)
self._check_result_status(pass_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_uuid(pass_result.uuid.value, str)
# Verify the secret was destroyed
pass_result_destroyed_result = self.client.get(uuid=pass_uuid,
credential=None)
self._check_result_status(pass_result_destroyed_result, ResultStatus,
ResultStatus.OPERATION_FAILED)
expected = ResultReason
pass_observed = type(pass_result_destroyed_result.result_reason.value)
self.assertEqual(expected, pass_observed)
def test_public_key_register_get_destroy(self):
"""
Tests that public keys are properly registered, retrieved,
and destroyed.
"""
pub_key_object_type = ObjectType.PUBLIC_KEY
mask_flags = [
CryptographicUsageMask.ENCRYPT, CryptographicUsageMask.DECRYPT
]
attribute_type = AttributeType.CRYPTOGRAPHIC_USAGE_MASK
usage_mask = self.attr_factory.create_attribute(
attribute_type, mask_flags)
name = Attribute.AttributeName('Name')
key_name = 'Integration Test - Register-Get-Destroy Key -'
pub_name_value = Name.NameValue(key_name + " Public")
name_type = Name.NameType(NameType.UNINTERPRETED_TEXT_STRING)
pub_value = Name(name_value=pub_name_value, name_type=name_type)
pub_name = Attribute(attribute_name=name, attribute_value=pub_value)
pub_key_attributes = [usage_mask, pub_name]
public_template_attribute = TemplateAttribute(
attributes=pub_key_attributes)
key_format_type = KeyFormatType(KeyFormatTypeEnum.RAW)
key_data = (
b'\x30\x81\x9F\x30\x0D\x06\x09\x2A\x86\x48\x86\xF7\x0D\x01\x01\x01'
b'\x05\x00\x03\x81\x8D\x00\x30\x81\x89\x02\x81\x81\x00\x93\x04\x51'
b'\xC9\xEC\xD9\x4F\x5B\xB9\xDA\x17\xDD\x09\x38\x1B\xD2\x3B\xE4\x3E'
b'\xCA\x8C\x75\x39\xF3\x01\xFC\x8A\x8C\xD5\xD5\x27\x4C\x3E\x76\x99'
b'\xDB\xDC\x71\x1C\x97\xA7\xAA\x91\xE2\xC5\x0A\x82\xBD\x0B\x10\x34'
b'\xF0\xDF\x49\x3D\xEC\x16\x36\x24\x27\xE5\x8A\xCC\xE7\xF6\xCE\x0F'
b'\x9B\xCC\x61\x7B\xBD\x8C\x90\xD0\x09\x4A\x27\x03\xBA\x0D\x09\xEB'
b'\x19\xD1\x00\x5F\x2F\xB2\x65\x52\x6A\xAC\x75\xAF\x32\xF8\xBC\x78'
b'\x2C\xDE\xD2\xA5\x7F\x81\x1E\x03\xEA\xF6\x7A\x94\x4D\xE5\xE7\x84'
b'\x13\xDC\xA8\xF2\x32\xD0\x74\xE6\xDC\xEA\x4C\xEC\x9F\x02\x03\x01'
b'\x00\x01')
key_material = KeyMaterial(key_data)
key_value = KeyValue(key_material)
algorithm_value = CryptoAlgorithmEnum.RSA
cryptographic_algorithm = CryptographicAlgorithm(algorithm_value)
cryptographic_length = CryptographicLength(2048)
key_block = KeyBlock(key_format_type=key_format_type,
key_compression_type=None,
key_value=key_value,
cryptographic_algorithm=cryptographic_algorithm,
cryptographic_length=cryptographic_length,
key_wrapping_data=None)
pub_secret = PublicKey(key_block)
pub_key_result = self.client.register(pub_key_object_type,
public_template_attribute,
pub_secret,
credential=None)
self._check_result_status(pub_key_result, ResultStatus,
ResultStatus.SUCCESS)
# Check that the returned key bytes match what was provided
pub_uuid = pub_key_result.uuid.value
pub_key_result = self.client.get(uuid=pub_uuid, credential=None)
self._check_result_status(pub_key_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_object_type(pub_key_result.object_type.value, ObjectType,
ObjectType.PUBLIC_KEY)
self._check_uuid(pub_key_result.uuid.value, str)
# Check the secret type
pub_secret = pub_key_result.secret
pub_expected = PublicKey
self.assertIsInstance(pub_secret, pub_expected)
pub_key_block = pub_key_result.secret.key_block
pub_key_value = pub_key_block.key_value
pub_key_material = pub_key_value.key_material
expected = key_data
pub_observed = pub_key_material.value
self.assertEqual(expected, pub_observed)
self.logger.debug('Destroying key: ' + key_name + " Public" +
'\nWith " "UUID: ' + pub_key_result.uuid.value)
pub_result = self.client.destroy(pub_key_result.uuid.value)
self._check_result_status(pub_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_uuid(pub_result.uuid.value, str)
pub_key_destroyed_result = self.client.get(uuid=pub_uuid,
credential=None)
self._check_result_status(pub_key_destroyed_result, ResultStatus,
ResultStatus.OPERATION_FAILED)
expected = ResultReason
pub_observed = type(pub_key_destroyed_result.result_reason.value)
self.assertEqual(expected, pub_observed)
def test_private_key_register_get_destroy(self):
"""
Tests that private keys are properly registered, retrieved,
and destroyed.
"""
priv_key_object_type = ObjectType.PRIVATE_KEY
mask_flags = [
CryptographicUsageMask.ENCRYPT, CryptographicUsageMask.DECRYPT
]
attribute_type = AttributeType.CRYPTOGRAPHIC_USAGE_MASK
usage_mask = self.attr_factory.create_attribute(
attribute_type, mask_flags)
name = Attribute.AttributeName('Name')
key_name = 'Integration Test - Register-Get-Destroy Key -'
priv_name_value = Name.NameValue(key_name + " Private")
name_type = Name.NameType(NameType.UNINTERPRETED_TEXT_STRING)
priv_value = Name(name_value=priv_name_value, name_type=name_type)
priv_name = Attribute(attribute_name=name, attribute_value=priv_value)
priv_key_attributes = [usage_mask, priv_name]
private_template_attribute = TemplateAttribute(
attributes=priv_key_attributes)
key_format_type = KeyFormatType(KeyFormatTypeEnum.RAW)
key_data = (
b'\x30\x82\x02\x76\x02\x01\x00\x30\x0D\x06\x09\x2A\x86\x48\x86\xF7'
b'\x0D\x01\x01\x01\x05\x00\x04\x82\x02\x60\x30\x82\x02\x5C\x02\x01'
b'\x00\x02\x81\x81\x00\x93\x04\x51\xC9\xEC\xD9\x4F\x5B\xB9\xDA\x17'
b'\xDD\x09\x38\x1B\xD2\x3B\xE4\x3E\xCA\x8C\x75\x39\xF3\x01\xFC\x8A'
b'\x8C\xD5\xD5\x27\x4C\x3E\x76\x99\xDB\xDC\x71\x1C\x97\xA7\xAA\x91'
b'\xE2\xC5\x0A\x82\xBD\x0B\x10\x34\xF0\xDF\x49\x3D\xEC\x16\x36\x24'
b'\x27\xE5\x8A\xCC\xE7\xF6\xCE\x0F\x9B\xCC\x61\x7B\xBD\x8C\x90\xD0'
b'\x09\x4A\x27\x03\xBA\x0D\x09\xEB\x19\xD1\x00\x5F\x2F\xB2\x65\x52'
b'\x6A\xAC\x75\xAF\x32\xF8\xBC\x78\x2C\xDE\xD2\xA5\x7F\x81\x1E\x03'
b'\xEA\xF6\x7A\x94\x4D\xE5\xE7\x84\x13\xDC\xA8\xF2\x32\xD0\x74\xE6'
b'\xDC\xEA\x4C\xEC\x9F\x02\x03\x01\x00\x01\x02\x81\x80\x0B\x6A\x7D'
b'\x73\x61\x99\xEA\x48\xA4\x20\xE4\x53\x7C\xA0\xC7\xC0\x46\x78\x4D'
b'\xCB\xEA\xA6\x3B\xAE\xBC\x0B\xC1\x32\x78\x74\x49\xCD\xE8\xD7\xCA'
b'\xD0\xC0\xC8\x63\xC0\xFE\xFB\x06\xC3\x06\x2B\xEF\xC5\x00\x33\xEC'
b'\xF8\x7B\x4E\x33\xA9\xBE\x7B\xCB\xC8\xF1\x51\x1A\xE2\x15\xE8\x0D'
b'\xEB\x5D\x8A\xF2\xBD\x31\x31\x9D\x78\x21\x19\x66\x40\x93\x5A\x0C'
b'\xD6\x7C\x94\x59\x95\x79\xF2\x10\x0D\x65\xE0\x38\x83\x1F\xDA\xFB'
b'\x0D\xBE\x2B\xBD\xAC\x00\xA6\x96\xE6\x7E\x75\x63\x50\xE1\xC9\x9A'
b'\xCE\x11\xA3\x6D\xAB\xAC\x3E\xD3\xE7\x30\x96\x00\x59\x02\x41\x00'
b'\xDD\xF6\x72\xFB\xCC\x5B\xDA\x3D\x73\xAF\xFC\x4E\x79\x1E\x0C\x03'
b'\x39\x02\x24\x40\x5D\x69\xCC\xAA\xBC\x74\x9F\xAA\x0D\xCD\x4C\x25'
b'\x83\xC7\x1D\xDE\x89\x41\xA7\xB9\xAA\x03\x0F\x52\xEF\x14\x51\x46'
b'\x6C\x07\x4D\x4D\x33\x8F\xE6\x77\x89\x2A\xCD\x9E\x10\xFD\x35\xBD'
b'\x02\x41\x00\xA9\x8F\xBC\x3E\xD6\xB4\xC6\xF8\x60\xF9\x71\x65\xAC'
b'\x2F\x7B\xB6\xF2\xE2\xCB\x19\x2A\x9A\xBD\x49\x79\x5B\xE5\xBC\xF3'
b'\x7D\x8E\xE6\x9A\x6E\x16\x9C\x24\xE5\xC3\x2E\x4E\x7F\xA3\x32\x65'
b'\x46\x14\x07\xF9\x52\xBA\x49\xE2\x04\x81\x8A\x2F\x78\x5F\x11\x3F'
b'\x92\x2B\x8B\x02\x40\x25\x3F\x94\x70\x39\x0D\x39\x04\x93\x03\x77'
b'\x7D\xDB\xC9\x75\x0E\x9D\x64\x84\x9C\xE0\x90\x3E\xAE\x70\x4D\xC9'
b'\xF5\x89\xB7\x68\x0D\xEB\x9D\x60\x9F\xD5\xBC\xD4\xDE\xCD\x6F\x12'
b'\x05\x42\xE5\xCF\xF5\xD7\x6F\x2A\x43\xC8\x61\x5F\xB5\xB3\xA9\x21'
b'\x34\x63\x79\x7A\xA9\x02\x41\x00\xA1\xDD\xF0\x23\xC0\xCD\x94\xC0'
b'\x19\xBB\x26\xD0\x9B\x9E\x3C\xA8\xFA\x97\x1C\xB1\x6A\xA5\x8B\x9B'
b'\xAF\x79\xD6\x08\x1A\x1D\xBB\xA4\x52\xBA\x53\x65\x3E\x28\x04\xBA'
b'\x98\xFF\x69\xE8\xBB\x1B\x3A\x16\x1E\xA2\x25\xEA\x50\x14\x63\x21'
b'\x6A\x8D\xAB\x9B\x88\xA7\x5E\x5F\x02\x40\x61\x78\x64\x6E\x11\x2C'
b'\xF7\x9D\x92\x1A\x8A\x84\x3F\x17\xF6\xE7\xFF\x97\x4F\x68\x81\x22'
b'\x36\x5B\xF6\x69\x0C\xDF\xC9\x96\xE1\x89\x09\x52\xEB\x38\x20\xDD'
b'\x18\x90\xEC\x1C\x86\x19\xE8\x7A\x2B\xD3\x8F\x9D\x03\xB3\x7F\xAC'
b'\x74\x2E\xFB\x74\x8C\x78\x85\x94\x2C\x39')
key_material = KeyMaterial(key_data)
key_value = KeyValue(key_material)
algorithm_value = CryptoAlgorithmEnum.RSA
cryptographic_algorithm = CryptographicAlgorithm(algorithm_value)
cryptographic_length = CryptographicLength(2048)
key_block = KeyBlock(key_format_type=key_format_type,
key_compression_type=None,
key_value=key_value,
cryptographic_algorithm=cryptographic_algorithm,
cryptographic_length=cryptographic_length,
key_wrapping_data=None)
priv_secret = PrivateKey(key_block)
priv_key_result = self.client.register(priv_key_object_type,
private_template_attribute,
priv_secret,
credential=None)
self._check_result_status(priv_key_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_uuid(priv_key_result.uuid.value, str)
# Check that the returned key bytes match what was provided
priv_uuid = priv_key_result.uuid.value
priv_key_result = self.client.get(uuid=priv_uuid, credential=None)
self._check_result_status(priv_key_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_object_type(priv_key_result.object_type.value, ObjectType,
ObjectType.PRIVATE_KEY)
self._check_uuid(priv_key_result.uuid.value, str)
# Check the secret type
priv_secret = priv_key_result.secret
priv_expected = PrivateKey
self.assertIsInstance(priv_secret, priv_expected)
priv_key_block = priv_key_result.secret.key_block
priv_key_value = priv_key_block.key_value
priv_key_material = priv_key_value.key_material
expected = key_data
priv_observed = priv_key_material.value
self.assertEqual(expected, priv_observed)
self.logger.debug('Destroying key: ' + key_name + " Private" +
'\nWith " "UUID: ' + priv_key_result.uuid.value)
priv_result = self.client.destroy(priv_key_result.uuid.value)
self._check_result_status(priv_result, ResultStatus,
ResultStatus.SUCCESS)
self._check_uuid(priv_result.uuid.value, str)
# Verify the secret was destroyed
priv_key_destroyed_result = self.client.get(uuid=priv_uuid,
credential=None)
self._check_result_status(priv_key_destroyed_result, ResultStatus,
ResultStatus.OPERATION_FAILED)
expected = ResultReason
priv_observed = type(priv_key_destroyed_result.result_reason.value)
self.assertEqual(expected, priv_observed)
def test_symmetric_key_register_get_destroy(self):
"""
Tests that symmetric keys are properly registered, retrieved,
and destroyed.
"""
object_type = ObjectType.SYMMETRIC_KEY
algorithm_value = CryptoAlgorithmEnum.AES
mask_flags = [
CryptographicUsageMask.ENCRYPT, CryptographicUsageMask.DECRYPT
]
attribute_type = AttributeType.CRYPTOGRAPHIC_USAGE_MASK
usage_mask = self.attr_factory.create_attribute(
attribute_type, mask_flags)
name = Attribute.AttributeName('Name')
key_name = 'Integration Test - Register-Get-Destroy Key'
name_value = Name.NameValue(key_name)
name_type = Name.NameType(NameType.UNINTERPRETED_TEXT_STRING)
value = Name(name_value=name_value, name_type=name_type)
name = Attribute(attribute_name=name, attribute_value=value)
attributes = [usage_mask, name]
template_attribute = TemplateAttribute(attributes=attributes)
key_format_type = KeyFormatType(KeyFormatTypeEnum.RAW)
key_data = (
b'\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00'
b'\x00')
key_material = KeyMaterial(key_data)
key_value = KeyValue(key_material)
cryptographic_algorithm = CryptographicAlgorithm(algorithm_value)
cryptographic_length = CryptographicLength(128)
key_block = KeyBlock(key_format_type=key_format_type,
key_compression_type=None,
key_value=key_value,
cryptographic_algorithm=cryptographic_algorithm,
cryptographic_length=cryptographic_length,
key_wrapping_data=None)
secret = SymmetricKey(key_block)
result = self.client.register(object_type,
template_attribute,
secret,
credential=None)
self._check_result_status(result, ResultStatus, ResultStatus.SUCCESS)
self._check_uuid(result.uuid.value, str)
# Check that the returned key bytes match what was provided
uuid = result.uuid.value
result = self.client.get(uuid=uuid, credential=None)
self._check_result_status(result, ResultStatus, ResultStatus.SUCCESS)
self._check_object_type(result.object_type.value, ObjectType,
ObjectType.SYMMETRIC_KEY)
self._check_uuid(result.uuid.value, str)
# Check the secret type
secret = result.secret
expected = SymmetricKey
self.assertIsInstance(secret, expected)
key_block = result.secret.key_block
key_value = key_block.key_value
key_material = key_value.key_material
expected = key_data
observed = key_material.value
self.assertEqual(expected, observed)
self.logger.debug('Destroying key: ' + key_name + '\nWith UUID: ' +
result.uuid.value)
result = self.client.destroy(result.uuid.value)
self._check_result_status(result, ResultStatus, ResultStatus.SUCCESS)
self._check_uuid(result.uuid.value, str)
# Verify the secret was destroyed
result = self.client.get(uuid=uuid, credential=None)
self._check_result_status(result, ResultStatus,
ResultStatus.OPERATION_FAILED)
expected = ResultReason
observed = type(result.result_reason.value)
self.assertEqual(expected, observed)
expected = ResultReason.ITEM_NOT_FOUND
observed = result.result_reason.value
self.assertEqual(expected, observed)
def test_register(self):
credential_type = CredentialType.USERNAME_AND_PASSWORD
credential_value = {'Username': '******', 'Password': '******'}
credential = self.cred_factory.create_credential(
credential_type, credential_value)
object_type = ObjectType.SYMMETRIC_KEY
algorithm_value = CryptoAlgorithmEnum.AES
mask_flags = [
CryptographicUsageMask.ENCRYPT, CryptographicUsageMask.DECRYPT
]
attribute_type = AttributeType.CRYPTOGRAPHIC_USAGE_MASK
usage_mask = self.attr_factory.create_attribute(
attribute_type, mask_flags)
attributes = [usage_mask]
template_attribute = TemplateAttribute(attributes=attributes)
key_format_type = KeyFormatType(KeyFormatTypeEnum.RAW)
key_data = (
b'\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00\x00'
b'\x00')
key_material = KeyMaterial(key_data)
key_value = KeyValue(key_material)
cryptographic_algorithm = CryptographicAlgorithm(algorithm_value)
cryptographic_length = CryptographicLength(128)
key_block = KeyBlock(key_format_type=key_format_type,
key_compression_type=None,
key_value=key_value,
cryptographic_algorithm=cryptographic_algorithm,
cryptographic_length=cryptographic_length,
key_wrapping_data=None)
secret = SymmetricKey(key_block)
result = self.client.register(object_type, template_attribute, secret,
credential)
self._check_result_status(result.result_status.value, ResultStatus,
ResultStatus.SUCCESS)
self._check_uuid(result.uuid.value, str)
# Check the template attribute type
self._check_template_attribute(result.template_attribute,
TemplateAttribute, 1,
[[str, 'Unique Identifier', str, None]])
# Check that the returned key bytes match what was provided
uuid = result.uuid.value
result = self.client.get(uuid=uuid, credential=credential)
self._check_result_status(result.result_status.value, ResultStatus,
ResultStatus.SUCCESS)
self._check_object_type(result.object_type.value, ObjectType,
ObjectType.SYMMETRIC_KEY)
self._check_uuid(result.uuid.value, str)
# Check the secret type
secret = result.secret
expected = SymmetricKey
message = utils.build_er_error(result.__class__, 'type', expected,
secret, 'secret')
self.assertIsInstance(secret, expected, message)
key_block = result.secret.key_block
key_value = key_block.key_value
key_material = key_value.key_material
expected = key_data
observed = key_material.value
message = utils.build_er_error(key_material.__class__, 'value',
expected, observed, 'value')
self.assertEqual(expected, observed, message)
class SplitKey(Struct):
class SplitKeyParts(Integer):
def __init__(self, value=None):
super(SplitKey.SplitKeyParts,
self).__init__(value, Tags.SPLIT_KEY_PARTS)
class KeyPartIdentifier(Integer):
def __init__(self, value=None):
super(SplitKey.KeyPartIdentifier,
self).__init__(value, Tags.KEY_PART_IDENTIFIER)
class SplitKeyThreshold(Integer):
def __init__(self, value=None):
super(SplitKey.SplitKeyThreshold,
self).__init__(value, Tags.SPLIT_KEY_THRESHOLD)
class SplitKeyMethod(Enumeration):
def __init__(self, value=None):
super(SplitKey.SplitKeyMethod,
self).__init__(enums.SplitKeyMethod, value,
Tags.SPLIT_KEY_METHOD)
class PrimeFieldSize(BigInteger):
def __init__(self, value=None):
super(SplitKey.PrimeFieldSize,
self).__init__(value, Tags.PRIME_FIELD_SIZE)
def __init__(self,
split_key_parts=None,
key_part_identifier=None,
split_key_threshold=None,
split_key_method=None,
prime_field_size=None,
key_block=None):
super(SplitKey, self).__init__(Tags.SPLIT_KEY)
self.split_key_parts = split_key_parts
self.key_part_identifier = key_part_identifier
self.split_key_threshold = split_key_threshold
self.split_key_method = split_key_method
self.prime_field_size = prime_field_size
self.key_block = key_block
self.validate()
def read(self, istream):
super(SplitKey, self).read(istream)
tstream = BytearrayStream(istream.read(self.length))
self.split_key_parts = SplitKey.SplitKeyParts()
self.split_key_parts.read(tstream)
self.key_part_identifier = SplitKey.KeyPartIdentifier()
self.key_part_identifier.read(tstream)
self.split_key_threshold = SplitKey.SplitKeyThreshold()
self.split_key_threshold.read(tstream)
if self.is_tag_next(Tags.PRIME_FIELD_SIZE, tstream):
self.prime_field_size = SplitKey.PrimeFieldSize()
self.prime_field_size.read(tstream)
self.key_block = KeyBlock()
self.key_block.read(tstream)
self.is_oversized(tstream)
self.validate()
def write(self, ostream):
tstream = BytearrayStream()
self.split_key_parts.write(tstream)
self.key_part_identifier.write(tstream)
self.split_key_threshold.write(tstream)
self.split_key_method.write(tstream)
if self.prime_field_size is not None:
self.prime_field_size.write(tstream)
self.key_block.write(tstream)
# Write the length and value of the template attribute
self.length = tstream.length()
super(SplitKey, self).write(ostream)
ostream.write(tstream.buffer)
def validate(self):
self.__validate()
def __validate(self):
# TODO (peter-hamilton) Finish implementation.
pass