def create_signup_info(cls, originator_public_key_hash,
most_recent_wait_certificate_id):
with cls._lock:
# First we need to create a public/private key pair for the PoET
# enclave to use.
cls._poet_private_key = signing.generate_privkey()
cls._poet_public_key = \
signing.generate_pubkey(cls._poet_private_key)
cls._active_wait_timer = None
# We are going to fake out sealing the signup data. Note that
# the signing module uses strings for both private (WIF encoded)
# and public (hex encoded) key canonical formats. Therefore, we
# don't have to encode before putting in the signup data. This
# also means that on the flip side (unsealing signup data and
# verifying signatures using public keys), we don't have to decode
# before using.
signup_data = {
'poet_public_key': cls._poet_public_key,
'poet_private_key': cls._poet_private_key
}
sealed_signup_data = \
base64.b64encode(bytes(dict2json(signup_data).encode()))
# Build up a fake SGX quote containing:
# 1. The basename
# 2. The report body that contains:
# a. The enclave measurement
# b. The report data SHA256(SHA256(OPK)|PPK)
sgx_basename = \
sgx_structs.SgxBasename(name=cls.__VALID_BASENAME__)
sgx_measurement = \
sgx_structs.SgxMeasurement(
m=cls.__VALID_ENCLAVE_MEASUREMENT__)
hash_input = \
'{0}{1}'.format(
originator_public_key_hash.upper(),
cls._poet_public_key.upper()).encode()
report_data = hashlib.sha256(hash_input).digest()
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
mr_enclave=sgx_measurement,
report_data=sgx_report_data)
sgx_quote = \
sgx_structs.SgxQuote(
basename=sgx_basename,
report_body=sgx_report_body)
# Create a fake PSE manifest. A base64 encoding of the
# originator public key hash should suffice.
pse_manifest = \
base64.b64encode(originator_public_key_hash.encode())
timestamp = datetime.datetime.now().isoformat()
# Fake our "proof" data.
verification_report = {
'epidPseudonym':
originator_public_key_hash,
'id':
base64.b64encode(
hashlib.sha256(
timestamp.encode()).hexdigest().encode()).decode(),
'isvEnclaveQuoteStatus':
'OK',
'isvEnclaveQuoteBody':
base64.b64encode(sgx_quote.serialize_to_bytes()).decode(),
'pseManifestStatus':
'OK',
'pseManifestHash':
base64.b64encode(
hashlib.sha256(
pse_manifest).hexdigest().encode()).decode(),
'nonce':
most_recent_wait_certificate_id,
'timestamp':
timestamp
}
# Serialize the verification report, sign it, and then put
# in the proof data
verification_report_json = dict2json(verification_report)
signature = \
cls._report_private_key.sign(
verification_report_json.encode(),
padding.PKCS1v15(),
hashes.SHA256())
proof_data_dict = {
'evidence_payload': {
'pse_manifest': pse_manifest.decode()
},
'verification_report': verification_report_json,
'signature': base64.b64encode(signature).decode()
}
proof_data = dict2json(proof_data_dict)
return \
EnclaveSignupInfo(
poet_public_key=signup_data['poet_public_key'],
proof_data=proof_data,
anti_sybil_id=originator_public_key_hash,
sealed_signup_data=sealed_signup_data)
def create_signup_info(cls,
originator_public_key_hash,
nonce):
with cls._lock:
# First we need to create a public/private key pair for the PoET
# enclave to use.
# Counter ID is a placeholder for a hardware counter in a TEE.
poet_private_key = Secp256k1PrivateKey.new_random()
poet_public_key = \
cls._context.get_public_key(poet_private_key)
counter_id = None
# Simulate sealing (encrypting) the signup data.
signup_data = {
'poet_private_key': poet_private_key.as_hex(),
'poet_public_key': poet_public_key.as_hex(),
'counter_id': counter_id
}
sealed_signup_data = \
base64.b64encode(
dict2json(signup_data).encode()).decode('utf-8')
# Build up a fake SGX quote containing:
# 1. The basename
# 2. The report body that contains:
# a. The enclave measurement
# b. The report data SHA256(SHA256(OPK)|PPK)
sgx_basename = \
sgx_structs.SgxBasename(name=cls.__VALID_BASENAME__)
sgx_measurement = \
sgx_structs.SgxMeasurement(
m=cls.__VALID_ENCLAVE_MEASUREMENT__)
hash_input = \
'{0}{1}'.format(
originator_public_key_hash.upper(),
poet_public_key.as_hex().upper()).encode()
report_data = hashlib.sha256(hash_input).digest()
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
mr_enclave=sgx_measurement,
report_data=sgx_report_data)
sgx_quote = \
sgx_structs.SgxQuote(
basename=sgx_basename,
report_body=sgx_report_body)
# Create a fake PSE manifest. A base64 encoding of the
# originator public key hash should suffice.
pse_manifest = \
base64.b64encode(originator_public_key_hash.encode())
timestamp = datetime.datetime.now().isoformat()
# Fake our "proof" data.
verification_report = {
'epidPseudonym': cls._anti_sybil_id,
'id': base64.b64encode(
hashlib.sha256(
timestamp.encode()).hexdigest().encode()).decode(),
'isvEnclaveQuoteStatus': 'OK',
'isvEnclaveQuoteBody':
base64.b64encode(sgx_quote.serialize_to_bytes()).decode(),
'pseManifestStatus': 'OK',
'pseManifestHash':
hashlib.sha256(base64.b64decode(pse_manifest)).hexdigest(),
'nonce': nonce,
'timestamp': timestamp
}
# Serialize the verification report, sign it, and then put
# in the proof data
verification_report_json = dict2json(verification_report)
signature = \
cls._report_private_key.sign(
verification_report_json.encode(),
padding.PKCS1v15(),
hashes.SHA256())
proof_data_dict = {
'evidence_payload': {
'pse_manifest': pse_manifest.decode()
},
'verification_report': verification_report_json,
'signature': base64.b64encode(signature).decode()
}
proof_data = dict2json(proof_data_dict)
return \
EnclaveSignupInfo(
poet_public_key=signup_data['poet_public_key'],
proof_data=proof_data,
anti_sybil_id=cls._anti_sybil_id,
sealed_signup_data=sealed_signup_data)
def do_sgx_report_body():
sgx_report_body = sgx_structs.SgxReportBody()
# Simply verify that buffer of correct size unpacks without error
sgx_report_body.parse_from_bytes(
create_random_buffer(sgx_structs.SgxReportBody.STRUCT_SIZE))
# The report body is laid out as follows:
#
# sgx_cpu_svn_t cpu_svn; /* 0 */
# sgx_misc_select_t misc_select; /* 16 */
# uint8_t reserved1[28]; /* 20 */
# sgx_attributes_t attributes; /* 48 */
# sgx_measurement_t mr_enclave; /* 64 */
# uint8_t reserved2[32]; /* 96 */
# sgx_measurement_t mr_signer; /* 128 */
# uint8_t reserved3[96]; /* 160 */
# sgx_prod_id_t isv_prod_id; /* 256 */
# sgx_isv_svn_t isv_svn; /* 258 */
# uint8_t reserved4[60]; /* 260 */
# sgx_report_data_t report_data; /* 320 */
# sgx_cpu_svn = sgx_structs.SgxCpuSvn(cpu_svn=svn)
# sgx_attributes = sgx_structs.SgxAttributes(flags=flags, xfrm=xfrm)
# sgx_measurement_mr_enclave = sgx_structs.SgxMeasurement(m=mr_enclave)
# sgx_measurement_mr_signer = sgx_structs.SgxMeasurement(m=mr_signer)
# sgx_report_data = sgx_structs.SgxReportData(d=report_data)
# Verify sgx_report_body unpacks properly
svn = create_random_buffer(sgx_structs.SgxCpuSvn.STRUCT_SIZE)
misc_select = 0x00010203
reserved1 = b'\x00' * 28
flags = 0x0405060708090a0b
xfrm = 0x0c0d0e0f10111213
mr_enclave = create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved2 = b'\x00' * 32
mr_signer = create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved3 = b'\x00' * 96
isv_prod_id = 0x1415
isv_svn = 0x1617
reserved4 = b'\x00' * 60
report_data = create_random_buffer(
sgx_structs.SgxReportData.STRUCT_SIZE)
report_body = \
struct.pack(
'<{}sL{}sQQ{}s{}s{}s{}sHH{}s{}s'.format(
len(svn),
len(reserved1),
len(mr_enclave),
len(reserved2),
len(mr_signer),
len(reserved3),
len(reserved4),
len(report_data)
),
svn,
misc_select,
reserved1,
flags,
xfrm,
mr_enclave,
reserved2,
mr_signer,
reserved3,
isv_prod_id,
isv_svn,
reserved4,
report_data)
sgx_report_body.parse_from_bytes(report_body)
# Reset the object using the field values and verify that we
# get expected serialized buffer
sgx_cpu_svn = sgx_structs.SgxCpuSvn(svn=svn)
sgx_attributes = sgx_structs.SgxAttributes(flags=flags, xfrm=xfrm)
sgx_measurement_mr_enclave = sgx_structs.SgxMeasurement(m=mr_enclave)
sgx_measurement_mr_signer = sgx_structs.SgxMeasurement(m=mr_signer)
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
cpu_svn=sgx_cpu_svn,
misc_select=misc_select,
attributes=sgx_attributes,
mr_enclave=sgx_measurement_mr_enclave,
mr_signer=sgx_measurement_mr_signer,
isv_prod_id=isv_prod_id,
isv_svn=isv_svn,
report_data=sgx_report_data)
assert report_body == sgx_report_body.serialize_to_bytes()
def do_sgx_quote():
sgx_quote = sgx_structs.SgxQuote()
# typedef uint8_t sgx_epid_group_id_t[4];
# typedef uint16_t sgx_isv_svn_t;
# uint16_t version; /* 0 */
# uint16_t sign_type; /* 2 */
# sgx_epid_group_id_t epid_group_id; /* 4 */
# sgx_isv_svn_t qe_svn; /* 8 */
# sgx_isv_svn_t pce_svn; /* 10 */
# uint32_t extended_epid_group_id; /* 12 */
# sgx_basename_t basename; /* 16 */
# sgx_report_body_t report_body; /* 48 */
# uint32_t signature_len; /* 432 */
# uint8_t signature[]; /* 436 */
# Verify sgx_quote unpacks properly
version = 0x0102
sign_type = 0x0304
epid_group_id = create_random_buffer(4)
qe_svn = 0x0506
pce_svn = 0x0708
extended_epid_group_id = 0x090a0b0c
basename = \
create_random_buffer(
sgx_structs.SgxBasename.STRUCT_SIZE)
svn = \
create_random_buffer(
sgx_structs.SgxCpuSvn.STRUCT_SIZE)
misc_select = 0x0d0e0f10
reserved1 = b'\x00' * 28
flags = 0x1112131415161718
xfrm = 0x191a1b1c1d1e1f20
mr_enclave = \
create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved2 = b'\x00' * 32
mr_signer = \
create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved3 = b'\x00' * 96
isv_prod_id = 0x2122
isv_svn = 0x2324
reserved4 = b'\x00' * 60
report_data = \
create_random_buffer(
sgx_structs.SgxReportData.STRUCT_SIZE)
report_body = \
struct.pack(
'<{}sL{}sQQ{}s{}s{}s{}sHH{}s{}s'.format(
len(svn),
len(reserved1),
len(mr_enclave),
len(reserved2),
len(mr_signer),
len(reserved3),
len(reserved4),
len(report_data)
),
svn,
misc_select,
reserved1,
flags,
xfrm,
mr_enclave,
reserved2,
mr_signer,
reserved3,
isv_prod_id,
isv_svn,
reserved4,
report_data)
quote = \
struct.pack(
'<HH{}sHHL{}s{}s'.format(
len(epid_group_id),
len(basename),
len(report_body)),
version,
sign_type,
epid_group_id,
qe_svn,
pce_svn,
extended_epid_group_id,
basename,
report_body)
sgx_quote.parse_from_bytes(quote)
# Add a few bytes so that the signature length is partial. Should
# fail.
bad_quote = quote[:]
for _ in range(3):
bad_quote += create_random_buffer(1)
with pytest.raises(ValueError):
sgx_quote.parse_from_bytes(bad_quote)
# Add a non-zero signature length, but don't add a signature. Should
# fail.
bad_quote = struct.pack('<{}sL'.format(len(quote)), quote, 4)
with pytest.raises(ValueError):
sgx_quote.parse_from_bytes(bad_quote)
# Add a signature that is too short
short_signature = create_random_buffer(31)
bad_quote = \
struct.pack(
'<{}sL{}s'.format(
len(quote),
len(short_signature)),
quote,
len(short_signature) + 1,
short_signature)
with pytest.raises(ValueError):
sgx_quote.parse_from_bytes(bad_quote)
# Add a signature length of zero without a signature and verify
unsigned_quote = struct.pack('<{}sL'.format(len(quote)), quote, 0)
sgx_quote.parse_from_bytes(unsigned_quote)
# Add a good signature and verify
signature = create_random_buffer(32)
signed_quote = \
struct.pack(
'<{}sL{}s'.format(
len(quote),
len(signature)),
quote,
len(signature),
signature)
sgx_quote.parse_from_bytes(signed_quote)
# Reset the object using the field values and verify that we
# get expected serialized buffer
sgx_basename = sgx_structs.SgxBasename(name=basename)
sgx_cpu_svn = sgx_structs.SgxCpuSvn(svn=svn)
sgx_attributes = sgx_structs.SgxAttributes(flags=flags, xfrm=xfrm)
sgx_measurement_mr_enclave = sgx_structs.SgxMeasurement(m=mr_enclave)
sgx_measurement_mr_signer = sgx_structs.SgxMeasurement(m=mr_signer)
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
cpu_svn=sgx_cpu_svn,
misc_select=misc_select,
attributes=sgx_attributes,
mr_enclave=sgx_measurement_mr_enclave,
mr_signer=sgx_measurement_mr_signer,
isv_prod_id=isv_prod_id,
isv_svn=isv_svn,
report_data=sgx_report_data)
sgx_quote = sgx_structs.SgxQuote(
version=version,
sign_type=sign_type,
epid_group_id=epid_group_id,
qe_svn=qe_svn,
pce_svn=pce_svn,
extended_epid_group_id=extended_epid_group_id,
basename=sgx_basename,
report_body=sgx_report_body)
assert quote == sgx_quote.serialize_to_bytes()[:len(quote)]
# Verify that zero signature serializes successfully
zero_sign_quote = struct.pack('<{}sL'.format(len(quote)), quote, 0)
assert zero_sign_quote == sgx_quote.serialize_to_bytes()
# Verify that non-zero signature serializes successfully
non_zero_sign_quote = \
struct.pack(
'<{}sL{}s'.format(
len(quote),
len(signature)),
quote,
len(signature),
signature)
sgx_quote.signature_len = len(signature)
sgx_quote.signature = signature
assert non_zero_sign_quote == sgx_quote.serialize_to_bytes()
def do_sgx_report():
sgx_report = sgx_structs.SgxReport()
# Simply verify that buffer of correct size unpacks without error
sgx_report.parse_from_bytes(
create_random_buffer(sgx_structs.SgxReport.STRUCT_SIZE))
# The report body is laid out as follows:
#
# sgx_report_body_t body; /* 0 */
# sgx_key_id_t key_id; /* 384 */
# sgx_mac_t mac; /* 416 */
# Verify sgx_report unpacks properly
svn = \
create_random_buffer(
sgx_structs.SgxCpuSvn.STRUCT_SIZE)
misc_select = 0x00010203
reserved1 = b'\x00' * 28
flags = 0x0405060708090a0b
xfrm = 0x0c0d0e0f10111213
mr_enclave = \
create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved2 = b'\x00' * 32
mr_signer = \
create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved3 = b'\x00' * 96
isv_prod_id = 0x1415
isv_svn = 0x1617
reserved4 = b'\x00' * 60
report_data = \
create_random_buffer(
sgx_structs.SgxReportData.STRUCT_SIZE)
report_body = \
struct.pack(
'<{}sL{}sQQ{}s{}s{}s{}sHH{}s{}s'.format(
len(svn),
len(reserved1),
len(mr_enclave),
len(reserved2),
len(mr_signer),
len(reserved3),
len(reserved4),
len(report_data)
),
svn,
misc_select,
reserved1,
flags,
xfrm,
mr_enclave,
reserved2,
mr_signer,
reserved3,
isv_prod_id,
isv_svn,
reserved4,
report_data)
key_id = \
create_random_buffer(
sgx_structs.SgxKeyId.STRUCT_SIZE)
mac = create_random_buffer(16)
report = \
struct.pack(
'<{}s{}s{}s'.format(
len(report_body),
len(key_id),
len(mac)),
report_body,
key_id,
mac)
sgx_report.parse_from_bytes(report)
# Reset the object using the field values and verify that we
# get expected serialized buffer
sgx_cpu_svn = sgx_structs.SgxCpuSvn(svn=svn)
sgx_attributes = sgx_structs.SgxAttributes(flags=flags, xfrm=xfrm)
sgx_measurement_mr_enclave = sgx_structs.SgxMeasurement(m=mr_enclave)
sgx_measurement_mr_signer = sgx_structs.SgxMeasurement(m=mr_signer)
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
cpu_svn=sgx_cpu_svn,
misc_select=misc_select,
attributes=sgx_attributes,
mr_enclave=sgx_measurement_mr_enclave,
mr_signer=sgx_measurement_mr_signer,
isv_prod_id=isv_prod_id,
isv_svn=isv_svn,
report_data=sgx_report_data)
sgx_key_id = sgx_structs.SgxKeyId(identifier=key_id)
sgx_report = \
sgx_structs.SgxReport(
body=sgx_report_body,
key_id=sgx_key_id,
mac=mac)
assert report == sgx_report.serialize_to_bytes()
def create_signup_info(self, originator_public_key_hash, nonce,
pse_manifest_status='OK'):
# currently not used
# _active_wait_timer = None
# We are going to fake out the sealing the signup data.
signup_data = {
'poet_public_key': self.poet_public_key,
'poet_private_key': self._poet_private_key
}
# Build up a fake SGX quote containing:
# 1. The basename
# 2. The report body that contains:
# a. The enclave measurement
# b. The report data SHA256(SHA256(OPK)|PPK)
sgx_basename = \
sgx_structs.SgxBasename(name=self.__VALID_BASENAME__)
sgx_measurement = \
sgx_structs.SgxMeasurement(
m=self.__VALID_ENCLAVE_MEASUREMENT__)
hash_input = \
'{0}{1}'.format(
originator_public_key_hash.upper(),
self.poet_public_key.upper()).encode()
report_data = hashlib.sha256(hash_input).digest()
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
mr_enclave=sgx_measurement,
report_data=sgx_report_data)
sgx_quote = \
sgx_structs.SgxQuote(
basename=sgx_basename,
report_body=sgx_report_body)
# Create a fake PSE manifest. A base64 encoding of the
# originator public key hash should suffice.
pse_manifest = \
base64.b64encode(originator_public_key_hash.encode())
timestamp = '2017-02-16T15:21:24.437048'
# Fake our "proof" data.
verification_report = OrderedDict([
('epidPseudonym', originator_public_key_hash),
('id', base64.b64encode(
hashlib.sha256(
timestamp.encode()).hexdigest().encode()).decode()),
('isvEnclaveQuoteStatus', 'OK'),
('isvEnclaveQuoteBody',
base64.b64encode(sgx_quote.serialize_to_bytes()).decode()),
('pseManifestStatus', pse_manifest_status),
('pseManifestHash',
hashlib.sha256(base64.b64decode(pse_manifest)).hexdigest()),
('nonce', nonce),
('timestamp', timestamp)
])
proof_data = \
self.create_proof_data(
verification_report=verification_report,
evidence_payload={
'pse_manifest': pse_manifest.decode()
})
return \
SignUpInfo(
poet_public_key=signup_data['poet_public_key'],
proof_data=proof_data,
anti_sybil_id=originator_public_key_hash,
nonce=nonce)
def test_sgx_report(self):
sgx_report = sgx_structs.SgxReport()
# Test with None and invalid types
with self.assertRaises(TypeError):
sgx_report.parse_from_bytes(None)
with self.assertRaises(TypeError):
sgx_report.parse_from_bytes([])
with self.assertRaises(TypeError):
sgx_report.parse_from_bytes({})
with self.assertRaises(TypeError):
sgx_report.parse_from_bytes(1)
with self.assertRaises(TypeError):
sgx_report.parse_from_bytes(1.0)
with self.assertRaises(TypeError):
sgx_report.parse_from_bytes('')
# Test an empty string, a string that is one too short, and a string
# that is one too long
with self.assertRaises(ValueError):
sgx_report.parse_from_bytes(b'')
with self.assertRaises(ValueError):
sgx_report.parse_from_bytes(
b'\x00' * (sgx_structs.SgxReport.STRUCT_SIZE - 1))
with self.assertRaises(ValueError):
sgx_report.parse_from_bytes(
b'\x00' * (sgx_structs.SgxReport.STRUCT_SIZE + 1))
# Simply verify that buffer of correct size unpacks without error
sgx_report.parse_from_bytes(
TestSgxStructs.create_random_buffer(
sgx_structs.SgxReport.STRUCT_SIZE))
# The report body is laid out as follows:
#
# sgx_report_body_t body; /* 0 */
# sgx_key_id_t key_id; /* 384 */
# sgx_mac_t mac; /* 416 */
# Verify sgx_report unpacks properly
svn = \
TestSgxStructs.create_random_buffer(
sgx_structs.SgxCpuSvn.STRUCT_SIZE)
misc_select = 0x00010203
reserved1 = b'\x00' * 28
flags = 0x0405060708090a0b
xfrm = 0x0c0d0e0f10111213
mr_enclave = \
TestSgxStructs.create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved2 = b'\x00' * 32
mr_signer = \
TestSgxStructs.create_random_buffer(
sgx_structs.SgxMeasurement.STRUCT_SIZE)
reserved3 = b'\x00' * 96
isv_prod_id = 0x1415
isv_svn = 0x1617
reserved4 = b'\x00' * 60
report_data = \
TestSgxStructs.create_random_buffer(
sgx_structs.SgxReportData.STRUCT_SIZE)
report_body = \
struct.pack(
'<{}sL{}sQQ{}s{}s{}s{}sHH{}s{}s'.format(
len(svn),
len(reserved1),
len(mr_enclave),
len(reserved2),
len(mr_signer),
len(reserved3),
len(reserved4),
len(report_data)
),
svn,
misc_select,
reserved1,
flags,
xfrm,
mr_enclave,
reserved2,
mr_signer,
reserved3,
isv_prod_id,
isv_svn,
reserved4,
report_data)
key_id = \
TestSgxStructs.create_random_buffer(
sgx_structs.SgxKeyId.STRUCT_SIZE)
mac = TestSgxStructs.create_random_buffer(16)
report = \
struct.pack(
'<{}s{}s{}s'.format(
len(report_body),
len(key_id),
len(mac)),
report_body,
key_id,
mac)
sgx_report.parse_from_bytes(report)
self.assertTrue(sgx_report.body.cpu_svn.svn == svn)
self.assertTrue(sgx_report.body.misc_select == misc_select)
self.assertTrue(sgx_report.body.attributes.flags == flags)
self.assertTrue(sgx_report.body.attributes.xfrm == xfrm)
self.assertTrue(sgx_report.body.mr_enclave.m == mr_enclave)
self.assertTrue(sgx_report.body.mr_signer.m == mr_signer)
self.assertTrue(sgx_report.body.isv_prod_id == isv_prod_id)
self.assertTrue(sgx_report.body.isv_svn == isv_svn)
self.assertTrue(sgx_report.body.report_data.d == report_data)
self.assertTrue(sgx_report.key_id.id == key_id)
self.assertTrue(sgx_report.mac == mac)
# Reset the object using the field values and verify that we
# get expected serialized buffer
sgx_cpu_svn = sgx_structs.SgxCpuSvn(svn=svn)
sgx_attributes = sgx_structs.SgxAttributes(flags=flags, xfrm=xfrm)
sgx_measurement_mr_enclave = sgx_structs.SgxMeasurement(m=mr_enclave)
sgx_measurement_mr_signer = sgx_structs.SgxMeasurement(m=mr_signer)
sgx_report_data = sgx_structs.SgxReportData(d=report_data)
sgx_report_body = \
sgx_structs.SgxReportBody(
cpu_svn=sgx_cpu_svn,
misc_select=misc_select,
attributes=sgx_attributes,
mr_enclave=sgx_measurement_mr_enclave,
mr_signer=sgx_measurement_mr_signer,
isv_prod_id=isv_prod_id,
isv_svn=isv_svn,
report_data=sgx_report_data)
sgx_key_id = sgx_structs.SgxKeyId(identifier=key_id)
sgx_report = \
sgx_structs.SgxReport(
body=sgx_report_body,
key_id=sgx_key_id,
mac=mac)
self.assertEqual(report, sgx_report.serialize_to_bytes())
