Use of the low level RIPEMD160 functions has been informally discouraged for a
long time. We now formally deprecate them.
Applications should instead use the EVP APIs, e.g. EVP_Digest,
EVP_DigestInit_ex, EVP_DigestUpdate and EVP_DigestFinal_ex.
Reviewed-by: Matt Caswell <matt@openssl.org>
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/10789)
Applications should instead use the higher level EVP APIs, e.g.
EVP_Encrypt*() and EVP_Decrypt*().
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Paul Dale <paul.dale@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10740)
A few provider implementations need this to build correctly with a
'no-deprecated' configuration.
Reviewed-by: Matthias St. Pierre <Matthias.St.Pierre@ncp-e.com>
(Merged from https://github.com/openssl/openssl/pull/10766)
Use of the low level AES functions has been informally discouraged for a
long time. We now formally deprecate them.
Applications should instead use the EVP APIs, e.g. EVP_EncryptInit_ex,
EVP_EncryptUpdate, EVP_EncryptFinal_ex, and the equivalently named decrypt
functions.
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/10580)
Also Add ability for providers to dynamically exclude cipher algorithms.
Cipher algorithms are only returned from providers if their capable() method is either NULL,
or the method returns 1.
This is mainly required for ciphers that only have hardware implementations.
If there is no hardware support, then the algorithm needs to be not available.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10146)
The new serializer code broke no-dh builds so we add some more guards to fix it.
Reviewed-by: Bernd Edlinger <bernd.edlinger@hotmail.de>
(Merged from https://github.com/openssl/openssl/pull/10644)
The AES_GCM specialisation was defined in the common cipher header
providers/implementations/include/prov/ciphercommon_gcm.h, when it
should in fact be in a local providers/implementations/ciphers/
header.
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10606)
The AES_CCM specialisation was defined in the common cipher header
providers/implementations/include/prov/ciphercommon_ccm.h, when it
should in fact be in a local providers/implementations/ciphers/
header.
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10606)
Aes-ecb mode can be optimized by inverleaving cipher operation on
several blocks and loop unrolling. Interleaving needs one ideal
unrolling factor, here we adopt the same factor with aes-cbc,
which is described as below:
If blocks number > 5, select 5 blocks as one iteration,every
loop, decrease the blocks number by 5.
If 3 < left blocks < 5 select 3 blocks as one iteration, every
loop, decrease the block number by 3.
If left blocks < 3, treat them as tail blocks.
Detailed implementation will have a little adjustment for squeezing
code space.
With this way, for small size such as 16 bytes, the performance is
similar as before, but for big size such as 16k bytes, the performance
improves a lot, even reaches to 100%, for some arches such as A57,
the improvement even exceeds 100%. The following table will list the
encryption performance data on aarch64, take a72 and a57 as examples.
Performance value takes the unit of cycles per byte, takes the format
as comparision of values. List them as below:
A72:
Before optimization After optimization Improve
evp-aes-128-ecb@16 17.26538237 16.82663866 2.61%
evp-aes-128-ecb@64 5.50528499 5.222637557 5.41%
evp-aes-128-ecb@256 2.632700213 1.908442892 37.95%
evp-aes-128-ecb@1024 1.876102047 1.078018868 74.03%
evp-aes-128-ecb@8192 1.6550392 0.853982929 93.80%
evp-aes-128-ecb@16384 1.636871283 0.847623957 93.11%
evp-aes-192-ecb@16 17.73104961 17.09692468 3.71%
evp-aes-192-ecb@64 5.78984398 5.418545192 6.85%
evp-aes-192-ecb@256 2.872005308 2.081815274 37.96%
evp-aes-192-ecb@1024 2.083226672 1.25095642 66.53%
evp-aes-192-ecb@8192 1.831992057 0.995916251 83.95%
evp-aes-192-ecb@16384 1.821590009 0.993820525 83.29%
evp-aes-256-ecb@16 18.0606306 17.96963317 0.51%
evp-aes-256-ecb@64 6.19651997 5.762465812 7.53%
evp-aes-256-ecb@256 3.176991394 2.24642538 41.42%
evp-aes-256-ecb@1024 2.385991919 1.396018192 70.91%
evp-aes-256-ecb@8192 2.147862636 1.142222597 88.04%
evp-aes-256-ecb@16384 2.131361787 1.135944617 87.63%
A57:
Before optimization After optimization Improve
evp-aes-128-ecb@16 18.61045121 18.36456218 1.34%
evp-aes-128-ecb@64 6.438628994 5.467959461 17.75%
evp-aes-128-ecb@256 2.957452881 1.97238604 49.94%
evp-aes-128-ecb@1024 2.117096219 1.099665054 92.52%
evp-aes-128-ecb@8192 1.868385973 0.837440804 123.11%
evp-aes-128-ecb@16384 1.853078526 0.822420027 125.32%
evp-aes-192-ecb@16 19.07021756 18.50018552 3.08%
evp-aes-192-ecb@64 6.672351486 5.696088921 17.14%
evp-aes-192-ecb@256 3.260427769 2.131449916 52.97%
evp-aes-192-ecb@1024 2.410522832 1.250529718 92.76%
evp-aes-192-ecb@8192 2.17921605 0.973225504 123.92%
evp-aes-192-ecb@16384 2.162250997 0.95919871 125.42%
evp-aes-256-ecb@16 19.3008384 19.12743654 0.91%
evp-aes-256-ecb@64 6.992950658 5.92149541 18.09%
evp-aes-256-ecb@256 3.576361743 2.287619504 56.34%
evp-aes-256-ecb@1024 2.726671027 1.381267599 97.40%
evp-aes-256-ecb@8192 2.493583657 1.110959913 124.45%
evp-aes-256-ecb@16384 2.473916816 1.099967073 124.91%
Change-Id: Iccd23d972e0d52d22dc093f4c208f69c9d5a0ca7
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10518)
The idea to have all these things in providers/common was viable as
long as the implementations was spread around their main providers.
This is, however, no longer the case, so we move the common blocks
closer to the source that use them.
Reviewed-by: Paul Dale <paul.dale@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10564)
In TLSv1.2 a pre-master secret value is passed from the client to the
server encrypted using RSA PKCS1 type 2 padding in a ClientKeyExchange
message. As well as the normal formatting rules for RSA PKCA1 type 2
padding TLS imposes some additional rules about what constitutes a well
formed key. Specifically it must be exactly the right length and
encode the TLS version originally requested by the client (as opposed to
the actual negotiated version) in its first two bytes.
All of these checks need to be done in constant time and, if they fail,
then the TLS implementation is supposed to continue anyway with a random
key (and therefore the connection will fail later on). This avoids
padding oracle type attacks.
This commit implements this within the RSA padding code so that we keep
all the constant time padding logic in one place. A later commit will
remove it from libssl.
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/10411)
This also adds the missing accessor RSA_get0_pss_params(), so those
parameters can be included in the PKCS#8 data structure without
needing to know the inside of the RSA structure.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10394)
To support generic output of public keys wrapped in a X509_PUBKEY,
additional PEM and i2d/d2i routines are added for that type.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10394)
If we call EVP_EncryptUpdate/EVP_DecryptUpdate with length 0 we should
be able to handle it. Most importantly we shouldn't get different
results if we do this compared to if we don't!
An exception is made for CCM mode which has special handling for this in
the low level cipher function.
Fixes#8675
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10530)
EVP_CIPHER_CTX_set_keylen() was succeeding even though a bad key length
is passed to it. This is because the set_ctx_params() were all accepting
this parameter and blindly changing the keylen even though the cipher did
not accept a variable key length. Even removing this didn't entirely
resolve the issue because set_ctx_params() functions succeed even if
passed a parameter they do not recognise.
This should fix various issues found by OSSfuzz/Cryptofuzz.
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10449)
Speed test, aes-siv related cases fail on both x86 and arm.
The return value of siv_init() causes this problem, remove
the iv check to fix it.
Verify it locally, the result is pass.
Fixes#10416
Change-Id: If1a18599f3d0f56f22a1ce4f8f114b8db0f68cca
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10419)
Fixes#10438
issue found by clusterfuzz/ossfuzz
The dest was getting a copy of the src structure which contained a pointer that should point to an offset inside itself - because of the copy it was pointing to the original structure.
The setup for a ctx is mainly done by the initkey method in the PROV_CIPHER_HW structure. Because of this it makes sense that the structure should also contain a copyctx method that is use to resolve any pointers that need to be setup.
A dup_ctx has been added to the cipher_enc tests in evp_test. It does a dup after setup and then frees the original ctx. This detects any floating pointers in the duplicated context that were pointing back to the freed ctx.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10443)
Exporting data from a provider owned domainparams or key is quite an
ordeal, with having to figure out what parameter keys an
implementation supports, call the export function a first time to find
out how large each parameter buffer must be, allocate the necessary
space for it, and call the export function again.
So how about letting the export function build up the key data params
and call back with that? This change implements exactly such a
mechanism.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10414)
Signed-off-by: Simo Sorce <simo@redhat.com>
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/9949)
Implement SP800-108 section 5.2 with CMAC support. As a side effect,
enable 5.1 with CMAC and 5.2 with HMAC. Add test vectors from RFC 6803.
Add OSSL_KDF_PARAM_CIPHER and PROV_R_INVALID_SEED_LENGTH.
Signed-off-by: Robbie Harwood <rharwood@redhat.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10143)
Not needed any more, since the presence of the OSSL_FUNC_CIPHER_CIPHER
function is enough to tell that there's a custom cipher function.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10137)
This involves gcm_cipher() (providers/common/ciphers/cipher_gcm.c),
ccm_cipher() (providers/common/ciphers/cipher_ccm.c), and
tdes_wrap_cipher() (providers/common/ciphers/cipher_tdes_wrap.c)
These are generic implementations of the OSSL_FUNC_CIPHER_CIPHER
function, which returned -1 on error when they should return 0.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10137)
