Python cryptography.hazmat.primitives.asymmetric.rsa.RSAPrivateNumbers() Examples
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Example #1
| Source File: test_host.py From pypsrp with MIT License | 6 votes |
|
def gen_rsa_keypair(public_exponent, key_size, backend):
# for a pasing test against mocked results, we need the same key
# for each run
# private key numbers
d = 21617696977064831737076881102083866512588021127782856037972563073160418492784722157229048881139551797965254106994729989171004895438848876105403145818526588448619012753150859908505079457128264842711189718538434996465875355972895683414261775421352553376878242391757860294122032733780201193753125763293334069627997366690578378643268496972715558088736335242616446993490560907175346811363459760219154246765368454269083276034064771683561116425318584728938420495690895295417261302673227504350398337950587166908640861984752151206832712112769733009288056773792011545187027621461752928443722277452545442134981026071169761569129
dmp1 = 129490813503009185789974379255770561425157574567257502592607367628590256916193790244618544180042259447193585640234142495635548617466553819050739804131538251753363069954266652888546939369520788464015077722316584767752481491358983245279072645160828476778216654224017198857901235711822454725809127201111535934753
dmq1 = 48648800397834409354931458481260042874431001732145738308246185682766008281764239801132482123299506611633669689538582946696791307965087683313609603490735622965494394760749284568774366017328170855872209094830510839953297302962573968041079091285470051311421587284299491265676844471173504726139132522742725727613
iqmp = 39631089624266744377721024140775526581242717587318543319284349361749959043577498327792652579346928867008103676271384098405811933888254575054903735904994321302658687548878487654303384553639708412577672820397125886631056454780398875240593971733447420281054575014889376749144359968455995345232769795875325417317
p = 174331130742537243408330955079815843963035167715989214203198624738597363753422194561659111132445142920926993058833709875440980890363712769908141629896643845627776407469038077862709547359496382776626050712560846670587394813048350142683947903572416102765283173128172045224943986952459084128294017448217886823253
q = 141639112913055250372907285405879139487409354087944702421480687298597773645578986399236760591500655922107321654521995138945695777437048045372013886449237695348272152351631535441304559114954968164429007883070066144736528002854651716726263900736377199146896337887655964419309789253989248300176824884184363216819
# public key numbers
e = 65537
n = 24692106711502830011203227021058444318027801046612842012663747949974978593541529463344548800446917862266219189049856550539417324579114258210080798360122994007305091566363663241781504651372764226027210216355916383975880112316706422502404691353489765771310270171473497918954906308690817673196552680498374521519566949221302301125182104198985782657283395055909134373469597836420671163965867038455758131344733786842283328454828820406016508955409107145350345035248825315933976893356673777910251028486191789752627573225093968284278302684745743589192378470115772764709506475265246795419324395050366115533203601201395969892207
public_numbers = rsa.RSAPublicNumbers(e, n)
numbers = rsa.RSAPrivateNumbers(p, q, d, dmp1, dmq1, iqmp,
public_numbers)
key = default_backend().load_rsa_private_numbers(numbers)
return key
Example #2
| Source File: test_powershell.py From pypsrp with MIT License | 6 votes |
|
def gen_rsa_keypair(public_exponent, key_size, backend):
# for a pasing test against mocked results, we need the same key
# for each run
# private key numbers
d = 21617696977064831737076881102083866512588021127782856037972563073160418492784722157229048881139551797965254106994729989171004895438848876105403145818526588448619012753150859908505079457128264842711189718538434996465875355972895683414261775421352553376878242391757860294122032733780201193753125763293334069627997366690578378643268496972715558088736335242616446993490560907175346811363459760219154246765368454269083276034064771683561116425318584728938420495690895295417261302673227504350398337950587166908640861984752151206832712112769733009288056773792011545187027621461752928443722277452545442134981026071169761569129
dmp1 = 129490813503009185789974379255770561425157574567257502592607367628590256916193790244618544180042259447193585640234142495635548617466553819050739804131538251753363069954266652888546939369520788464015077722316584767752481491358983245279072645160828476778216654224017198857901235711822454725809127201111535934753
dmq1 = 48648800397834409354931458481260042874431001732145738308246185682766008281764239801132482123299506611633669689538582946696791307965087683313609603490735622965494394760749284568774366017328170855872209094830510839953297302962573968041079091285470051311421587284299491265676844471173504726139132522742725727613
iqmp = 39631089624266744377721024140775526581242717587318543319284349361749959043577498327792652579346928867008103676271384098405811933888254575054903735904994321302658687548878487654303384553639708412577672820397125886631056454780398875240593971733447420281054575014889376749144359968455995345232769795875325417317
p = 174331130742537243408330955079815843963035167715989214203198624738597363753422194561659111132445142920926993058833709875440980890363712769908141629896643845627776407469038077862709547359496382776626050712560846670587394813048350142683947903572416102765283173128172045224943986952459084128294017448217886823253
q = 141639112913055250372907285405879139487409354087944702421480687298597773645578986399236760591500655922107321654521995138945695777437048045372013886449237695348272152351631535441304559114954968164429007883070066144736528002854651716726263900736377199146896337887655964419309789253989248300176824884184363216819
# public key numbers
e = 65537
n = 24692106711502830011203227021058444318027801046612842012663747949974978593541529463344548800446917862266219189049856550539417324579114258210080798360122994007305091566363663241781504651372764226027210216355916383975880112316706422502404691353489765771310270171473497918954906308690817673196552680498374521519566949221302301125182104198985782657283395055909134373469597836420671163965867038455758131344733786842283328454828820406016508955409107145350345035248825315933976893356673777910251028486191789752627573225093968284278302684745743589192378470115772764709506475265246795419324395050366115533203601201395969892207
public_numbers = rsa.RSAPublicNumbers(e, n)
numbers = rsa.RSAPrivateNumbers(p, q, d, dmp1, dmq1, iqmp,
public_numbers)
key = default_backend().load_rsa_private_numbers(numbers)
return key
Example #3
| Source File: jwk.py From jwcrypto with GNU Lesser General Public License v3.0 | 5 votes |
|
def _rsa_pri(self, k):
return rsa.RSAPrivateNumbers(self._decode_int(k['p']),
self._decode_int(k['q']),
self._decode_int(k['d']),
self._decode_int(k['dp']),
self._decode_int(k['dq']),
self._decode_int(k['qi']),
self._rsa_pub(k))
Example #4
| Source File: cert.py From scapy with GNU General Public License v2.0 | 5 votes |
|
def fill_and_store(self, modulus=None, modulusLen=None, pubExp=None,
prime1=None, prime2=None, coefficient=None,
exponent1=None, exponent2=None, privExp=None):
pubExp = pubExp or 65537
if None in [modulus, prime1, prime2, coefficient, privExp,
exponent1, exponent2]:
# note that the library requires every parameter
# in order to call RSAPrivateNumbers(...)
# if one of these is missing, we generate a whole new key
real_modulusLen = modulusLen or 2048
self.key = rsa.generate_private_key(public_exponent=pubExp,
key_size=real_modulusLen,
backend=default_backend())
self.pubkey = self.key.public_key()
else:
real_modulusLen = len(binrepr(modulus))
if modulusLen and real_modulusLen != modulusLen:
warning("modulus and modulusLen do not match!")
pubNum = rsa.RSAPublicNumbers(n=modulus, e=pubExp)
privNum = rsa.RSAPrivateNumbers(p=prime1, q=prime2,
dmp1=exponent1, dmq1=exponent2,
iqmp=coefficient, d=privExp,
public_numbers=pubNum)
self.key = privNum.private_key(default_backend())
self.pubkey = self.key.public_key()
# Lines below are only useful for the legacy part of pkcs1.py
pubNum = self.pubkey.public_numbers()
self._modulusLen = real_modulusLen
self._modulus = pubNum.n
self._pubExp = pubNum.e
Example #5
| Source File: cryptography_backend.py From python-jose with MIT License | 5 votes |
|
def _process_jwk(self, jwk_dict):
if not jwk_dict.get('kty') == 'RSA':
raise JWKError("Incorrect key type. Expected: 'RSA', Received: %s" % jwk_dict.get('kty'))
e = base64_to_long(jwk_dict.get('e', 256))
n = base64_to_long(jwk_dict.get('n'))
public = rsa.RSAPublicNumbers(e, n)
if 'd' not in jwk_dict:
return public.public_key(self.cryptography_backend())
else:
# This is a private key.
d = base64_to_long(jwk_dict.get('d'))
extra_params = ['p', 'q', 'dp', 'dq', 'qi']
if any(k in jwk_dict for k in extra_params):
# Precomputed private key parameters are available.
if not all(k in jwk_dict for k in extra_params):
# These values must be present when 'p' is according to
# Section 6.3.2 of RFC7518, so if they are not we raise
# an error.
raise JWKError('Precomputed private key parameters are incomplete.')
p = base64_to_long(jwk_dict['p'])
q = base64_to_long(jwk_dict['q'])
dp = base64_to_long(jwk_dict['dp'])
dq = base64_to_long(jwk_dict['dq'])
qi = base64_to_long(jwk_dict['qi'])
else:
# The precomputed private key parameters are not available,
# so we use cryptography's API to fill them in.
p, q = rsa.rsa_recover_prime_factors(n, e, d)
dp = rsa.rsa_crt_dmp1(d, p)
dq = rsa.rsa_crt_dmq1(d, q)
qi = rsa.rsa_crt_iqmp(p, q)
private = rsa.RSAPrivateNumbers(p, q, d, dp, dq, qi, public)
return private.private_key(self.cryptography_backend())
Example #6
| Source File: fields.py From PGPy with BSD 3-Clause "New" or "Revised" License | 5 votes |
|
def __privkey__(self):
return rsa.RSAPrivateNumbers(self.p, self.q, self.d,
rsa.rsa_crt_dmp1(self.d, self.p),
rsa.rsa_crt_dmq1(self.d, self.q),
rsa.rsa_crt_iqmp(self.p, self.q),
rsa.RSAPublicNumbers(self.e, self.n)).private_key(default_backend())
Example #7
| Source File: keys.py From Safejumper-for-Desktop with GNU General Public License v2.0 | 4 votes |
|
def _fromRSAComponents(cls, n, e, d=None, p=None, q=None, u=None):
"""
Build a key from RSA numerical components.
@type n: L{int}
@param n: The 'n' RSA variable.
@type e: L{int}
@param e: The 'e' RSA variable.
@type d: L{int} or L{None}
@param d: The 'd' RSA variable (optional for a public key).
@type p: L{int} or L{None}
@param p: The 'p' RSA variable (optional for a public key).
@type q: L{int} or L{None}
@param q: The 'q' RSA variable (optional for a public key).
@type u: L{int} or L{None}
@param u: The 'u' RSA variable. Ignored, as its value is determined by
p and q.
@rtype: L{Key}
@return: An RSA key constructed from the values as given.
"""
publicNumbers = rsa.RSAPublicNumbers(e=e, n=n)
if d is None:
# We have public components.
keyObject = publicNumbers.public_key(default_backend())
else:
privateNumbers = rsa.RSAPrivateNumbers(
p=p,
q=q,
d=d,
dmp1=rsa.rsa_crt_dmp1(d, p),
dmq1=rsa.rsa_crt_dmq1(d, q),
iqmp=rsa.rsa_crt_iqmp(p, q),
public_numbers=publicNumbers,
)
keyObject = privateNumbers.private_key(default_backend())
return cls(keyObject)
Example #8
| Source File: keys.py From learn_python3_spider with MIT License | 4 votes |
|
def _fromRSAComponents(cls, n, e, d=None, p=None, q=None, u=None):
"""
Build a key from RSA numerical components.
@type n: L{int}
@param n: The 'n' RSA variable.
@type e: L{int}
@param e: The 'e' RSA variable.
@type d: L{int} or L{None}
@param d: The 'd' RSA variable (optional for a public key).
@type p: L{int} or L{None}
@param p: The 'p' RSA variable (optional for a public key).
@type q: L{int} or L{None}
@param q: The 'q' RSA variable (optional for a public key).
@type u: L{int} or L{None}
@param u: The 'u' RSA variable. Ignored, as its value is determined by
p and q.
@rtype: L{Key}
@return: An RSA key constructed from the values as given.
"""
publicNumbers = rsa.RSAPublicNumbers(e=e, n=n)
if d is None:
# We have public components.
keyObject = publicNumbers.public_key(default_backend())
else:
privateNumbers = rsa.RSAPrivateNumbers(
p=p,
q=q,
d=d,
dmp1=rsa.rsa_crt_dmp1(d, p),
dmq1=rsa.rsa_crt_dmq1(d, q),
iqmp=rsa.rsa_crt_iqmp(p, q),
public_numbers=publicNumbers,
)
keyObject = privateNumbers.private_key(default_backend())
return cls(keyObject)
Example #9
| Source File: test_engine.py From PyKMIP with Apache License 2.0 | 4 votes |
|
def test_encrypt_decrypt_asymmetric(asymmetric_parameters):
"""
Test that various encryption/decryption algorithms can be used to
correctly asymmetrically encrypt data.
"""
# NOTE (peter-hamilton) Randomness included in RSA padding schemes
# makes it impossible to unit test just encryption; it's not possible
# to predict the cipher text. Instead, we test the encrypt/decrypt
# cycle to ensure that they correctly mirror each other.
backend = backends.default_backend()
public_key_numbers = rsa.RSAPublicNumbers(
asymmetric_parameters.get('public_key').get('e'),
asymmetric_parameters.get('public_key').get('n')
)
public_key = public_key_numbers.public_key(backend)
public_bytes = public_key.public_bytes(
asymmetric_parameters.get('encoding'),
serialization.PublicFormat.PKCS1
)
private_key_numbers = rsa.RSAPrivateNumbers(
p=asymmetric_parameters.get('private_key').get('p'),
q=asymmetric_parameters.get('private_key').get('q'),
d=asymmetric_parameters.get('private_key').get('d'),
dmp1=asymmetric_parameters.get('private_key').get('dmp1'),
dmq1=asymmetric_parameters.get('private_key').get('dmq1'),
iqmp=asymmetric_parameters.get('private_key').get('iqmp'),
public_numbers=public_key_numbers
)
private_key = private_key_numbers.private_key(backend)
private_bytes = private_key.private_bytes(
asymmetric_parameters.get('encoding'),
serialization.PrivateFormat.PKCS8,
serialization.NoEncryption()
)
engine = crypto.CryptographyEngine()
result = engine.encrypt(
asymmetric_parameters.get('algorithm'),
public_bytes,
asymmetric_parameters.get('plain_text'),
padding_method=asymmetric_parameters.get('padding_method'),
hashing_algorithm=asymmetric_parameters.get('hashing_algorithm')
)
result = engine.decrypt(
asymmetric_parameters.get('algorithm'),
private_bytes,
result.get('cipher_text'),
padding_method=asymmetric_parameters.get('padding_method'),
hashing_algorithm=asymmetric_parameters.get('hashing_algorithm')
)
assert asymmetric_parameters.get('plain_text') == result
