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This reverts commit da51566b256e0c0536d5b986e676863b0526bf5e.
Fixes #15321
Reviewed-by: Tim Hudson <tjh@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/15364)
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Reviewed-by: Tomas Mraz <tomas@openssl.org>
Reviewed-by: Paul Dale <pauli@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/14592)
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ARM Cortex-A57 and Cortex-A72 cores running in 32-bit mode are affected
by silicon errata #1742098 [0] and #1655431 [1], respectively, where the
second instruction of a AES instruction pair may execute twice if an
interrupt is taken right after the first instruction consumes an input
register of which a single 32-bit lane has been updated the last time it
was modified.
This is not such a rare occurrence as it may seem: in counter mode, only
the least significant 32-bit word is incremented in the absence of a
carry, which makes our counter mode implementation susceptible to these
errata.
So let's shuffle the counter assignments around a bit so that the most
recent updates when the AES instruction pair executes are 128-bit wide.
[0] ARM-EPM-049219 v23 Cortex-A57 MPCore Software Developers Errata Notice
[1] ARM-EPM-012079 v11.0 Cortex-A72 MPCore Software Developers Errata Notice
Signed-off-by: Ard Biesheuvel <ard.biesheuvel@arm.com>
Reviewed-by: Paul Dale <paul.dale@oracle.com>
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/13504)
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Aes-xts mode can be optimized by interleaving 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 left blocks < 5, treat them as tail blocks.
Detailed implementation has 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 2x uplift, for some arches such as A57,
the improvement even reaches more than 2x uplift. We collect many
performance datas on different micro-archs such as thunderx2,
ampere-emag, a72, a75, a57, a53 and N1, all of which reach 0.5-2x uplift.
The following table lists the encryption performance data on aarch64,
take a72, a75, a57, a53 and N1 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-xts@16 8.899913518 5.949087263 49.60%
evp-aes-128-xts@64 4.525512668 3.389141845 33.53%
evp-aes-128-xts@256 3.502906908 1.633573479 114.43%
evp-aes-128-xts@1024 3.174210419 1.155952639 174.60%
evp-aes-128-xts@8192 3.053019303 1.028134888 196.95%
evp-aes-128-xts@16384 3.025292462 1.02021169 196.54%
evp-aes-256-xts@16 9.971105023 6.754233758 47.63%
evp-aes-256-xts@64 4.931479093 3.786527393 30.24%
evp-aes-256-xts@256 3.746788153 1.943975947 92.74%
evp-aes-256-xts@1024 3.401743802 1.477394648 130.25%
evp-aes-256-xts@8192 3.278769327 1.32950421 146.62%
evp-aes-256-xts@16384 3.27093296 1.325276257 146.81%
A75:
Before optimization After optimization Improve
evp-aes-128-xts@16 8.397965173 5.126839098 63.80%
evp-aes-128-xts@64 4.176860631 2.59817764 60.76%
evp-aes-128-xts@256 3.069126585 1.284561028 138.92%
evp-aes-128-xts@1024 2.805962699 0.932754655 200.83%
evp-aes-128-xts@8192 2.725820131 0.829820397 228.48%
evp-aes-128-xts@16384 2.71521905 0.823251591 229.82%
evp-aes-256-xts@16 11.24790935 7.383914448 52.33%
evp-aes-256-xts@64 5.294128847 3.048641998 73.66%
evp-aes-256-xts@256 3.861649617 1.570359905 145.91%
evp-aes-256-xts@1024 3.537646797 1.200493533 194.68%
evp-aes-256-xts@8192 3.435353012 1.085345319 216.52%
evp-aes-256-xts@16384 3.437952563 1.097963822 213.12%
A57:
Before optimization After optimization Improve
evp-aes-128-xts@16 10.57455446 7.165438012 47.58%
evp-aes-128-xts@64 5.418185447 3.721241202 45.60%
evp-aes-128-xts@256 3.855184592 1.747145379 120.66%
evp-aes-128-xts@1024 3.477199757 1.253049735 177.50%
evp-aes-128-xts@8192 3.36768104 1.091943159 208.41%
evp-aes-128-xts@16384 3.360373443 1.088942789 208.59%
evp-aes-256-xts@16 12.54559459 8.745489036 43.45%
evp-aes-256-xts@64 6.542808937 4.326387568 51.23%
evp-aes-256-xts@256 4.62668822 2.119908754 118.25%
evp-aes-256-xts@1024 4.161716505 1.557335554 167.23%
evp-aes-256-xts@8192 4.032462227 1.377749511 192.68%
evp-aes-256-xts@16384 4.023293877 1.371558933 193.34%
A53:
Before optimization After optimization Improve
evp-aes-128-xts@16 18.07842135 13.96980808 29.40%
evp-aes-128-xts@64 7.933818397 6.07159276 30.70%
evp-aes-128-xts@256 5.264604704 2.611155744 101.60%
evp-aes-128-xts@1024 4.606660117 1.722713454 167.40%
evp-aes-128-xts@8192 4.405160115 1.454379201 202.90%
evp-aes-128-xts@16384 4.401592028 1.442279392 205.20%
evp-aes-256-xts@16 20.07084054 16.00803726 25.40%
evp-aes-256-xts@64 9.192647294 6.883876732 33.50%
evp-aes-256-xts@256 6.336143161 3.108140452 103.90%
evp-aes-256-xts@1024 5.62502952 2.097960651 168.10%
evp-aes-256-xts@8192 5.412085608 1.807294191 199.50%
evp-aes-256-xts@16384 5.403062591 1.790135764 201.80%
N1:
Before optimization After optimization Improve
evp-aes-128-xts@16 6.48147613 4.209415473 53.98%
evp-aes-128-xts@64 2.847744115 1.950757468 45.98%
evp-aes-128-xts@256 2.085711968 1.061903238 96.41%
evp-aes-128-xts@1024 1.842014669 0.798486302 130.69%
evp-aes-128-xts@8192 1.760449052 0.713853939 146.61%
evp-aes-128-xts@16384 1.760763546 0.707702009 148.80%
evp-aes-256-xts@16 7.264142817 5.265970454 37.94%
evp-aes-256-xts@64 3.251356212 2.41176323 34.81%
evp-aes-256-xts@256 2.380488469 1.342095742 77.37%
evp-aes-256-xts@1024 2.08853022 1.041718215 100.49%
evp-aes-256-xts@8192 2.027432668 0.944571334 114.64%
evp-aes-256-xts@16384 2.00740782 0.941991415 113.10%
Add more XTS test cases to cover the cipher stealing mode and cases of different
number of blocks.
CustomizedGitHooks: yes
Change-Id: I93ee31b2575e1413764e27b599af62994deb4c96
Reviewed-by: Paul Dale <paul.dale@oracle.com>
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/11399)
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For example, FreeBSD prepends "FreeBSD" to version string, e.g.,
FreeBSD clang version 11.0.0 (git@github.com:llvm/llvm-project.git llvmorg-11.0.0-rc2-0-g414f32a9e86)
Target: x86_64-unknown-freebsd13.0
Thread model: posix
InstalledDir: /usr/bin
This prevented us from properly detecting AVX support, etc.
CLA: trivial
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Paul Dale <paul.dale@oracle.com>
Reviewed-by: Ben Kaduk <kaduk@mit.edu>
(Merged from https://github.com/openssl/openssl/pull/12725)
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Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/11616)
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Signed-off-by: Patrick Steuer <patrick.steuer@de.ibm.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/11234)
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Since pointer in x32 is 4 bytes, add x86_64-support.pl to define
pointer_size and pointer_register based on flavour to support
stuctures like:
struct { void *ptr; int blocks; }
This fixes 90-test_sslapi.t on x32. Verified with
$ ./Configure shared linux-x86_64
$ make
$ make test
and
$ ./Configure shared linux-x32
$ make
$ make test
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/10988)
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In https://github.com/openssl/openssl/pull/10883, I'd meant to exclude
the perlasm drivers since they aren't opening pipes and do not
particularly need it, but I only noticed x86_64-xlate.pl, so
arm-xlate.pl and ppc-xlate.pl got the change.
That seems to have been fine, so be consistent and also apply the change
to x86_64-xlate.pl. Checking for errors is generally a good idea.
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: David Benjamin <davidben@google.com>
(Merged from https://github.com/openssl/openssl/pull/10930)
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FIXES #10692 #10638
a bug for aarch64 bigendian with instructions 'st1' and 'ld1' on AES-GCM mode.
CLA: trivial
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Paul Dale <paul.dale@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10751)
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To support Intel CET, all indirect branch targets must start with
endbranch. Here is a patch to add endbranch to function entries
in x86_64 assembly codes which are indirect branch targets as
discovered by running openssl testsuite on Intel CET machine and
visual inspection.
Verified with
$ CC="gcc -Wl,-z,cet-report=error" ./Configure shared linux-x86_64 -fcf-protection
$ make
$ make test
and
$ CC="gcc -mx32 -Wl,-z,cet-report=error" ./Configure shared linux-x32 -fcf-protection
$ make
$ make test # <<< passed with https://github.com/openssl/openssl/pull/10988
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10982)
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Fixes #10998
Reviewed-by: Shane Lontis <shane.lontis@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/11000)
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If one of the perlasm xlate drivers crashes, OpenSSL's build will
currently swallow the error and silently truncate the output to however
far the driver got. This will hopefully fail to build, but better to
check such things.
Handle this by checking for errors when closing STDOUT (which is a pipe
to the xlate driver).
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Tomas Mraz <tmraz@fedoraproject.org>
(Merged from https://github.com/openssl/openssl/pull/10883)
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Fixes #10853
Reviewed-by: Paul Dale <paul.dale@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/10855)
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We store a secondary frame pointer info for the debugger
in the red zone. This fixes a crash in the unwinder when
this function is interrupted.
Additionally the missing cfi function annotation is added
to aesni_cbc_sha256_enc_shaext.
[extended tests]
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10674)
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Reviewed-by: Kurt Roeckx <kurt@roeckx.be>
(Merged from https://github.com/openssl/openssl/pull/10655)
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Reviewed-by: Kurt Roeckx <kurt@roeckx.be>
(Merged from https://github.com/openssl/openssl/pull/10653)
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Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Kurt Roeckx <kurt@roeckx.be>
(Merged from https://github.com/openssl/openssl/pull/10650)
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Reported-by: misspell-fixer <https://github.com/vlajos/misspell-fixer>
CLA: trivial
Reviewed-by: Matthias St. Pierre <Matthias.St.Pierre@ncp-e.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/10544)
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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)
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They now generally conform to the following argument sequence:
script.pl "$(PERLASM_SCHEME)" [ C preprocessor arguments ... ] \
$(PROCESSOR) <output file>
However, in the spirit of being able to use these scripts manually,
they also allow for no argument, or for only the flavour, or for only
the output file. This is done by only using the last argument as
output file if it's a file (it has an extension), and only using the
first argument as flavour if it isn't a file (it doesn't have an
extension).
While we're at it, we make all $xlate calls the same, i.e. the $output
argument is always quoted, and we always die on error when trying to
start $xlate.
There's a perl lesson in this, regarding operator priority...
This will always succeed, even when it fails:
open FOO, "something" || die "ERR: $!";
The reason is that '||' has higher priority than list operators (a
function is essentially a list operator and gobbles up everything
following it that isn't lower priority), and since a non-empty string
is always true, so that ends up being exactly the same as:
open FOO, "something";
This, however, will fail if "something" can't be opened:
open FOO, "something" or die "ERR: $!";
The reason is that 'or' has lower priority that list operators,
i.e. it's performed after the 'open' call.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/9884)
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CLA: trivial
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Matthias St. Pierre <Matthias.St.Pierre@ncp-e.com>
(Merged from https://github.com/openssl/openssl/pull/9288)
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The 32 bit counter behaviour is necessary and was intentional.
This reverts commit e9f148c9356b18995298f37bafbf1836a3fce078.
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8958)
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The kernel self-tests picked up an issue with CTR mode. The issue was
detected with a test vector with an IV of
FFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFD: after 3 increments it should wrap
around to 0.
There are two paths that increment IVs: the bulk (8 at a time) path,
and the individual path which is used when there are fewer than 8 AES
blocks to process.
In the bulk path, the IV is incremented with vadduqm: "Vector Add
Unsigned Quadword Modulo", which does 128-bit addition.
In the individual path, however, the IV is incremented with vadduwm:
"Vector Add Unsigned Word Modulo", which instead does 4 32-bit
additions. Thus the IV would instead become
FFFFFFFFFFFFFFFFFFFFFFFF00000000, throwing off the result.
Use vadduqm.
This was probably a typo originally, what with q and w being
adjacent.
CLA: trivial
Reviewed-by: Richard Levitte <levitte@openssl.org>
Reviewed-by: Paul Dale <paul.dale@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/8942)
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Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8776)
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Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8776)
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There are two copy-paste errors in handling CTR mode. When dealing
with a 2 or 3 block tail, the code branches to the CBC decryption exit
path, rather than to the CTR exit path.
This can lead to data corruption: in the Linux kernel we have a copy
of this file, and the bug leads to corruption of the IV, which leads
to data corruption when we call the encryption function again later to
encrypt subsequent blocks.
Originally reported to the Linux kernel by Ondrej Mosnáček <omosnacek@gmail.com>
CLA: trivial
Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Paul Dale <paul.dale@oracle.com>
(Merged from https://github.com/openssl/openssl/pull/8510)
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registers. As the AES table is already 1K aligned we can
use it everywhere and speedup table address calculation by
10%. Performance numbers:
decryption 16B 64B 256B 1024B 8192B
-------------------------------------------------------------------
aes-256-cbc 5636.84k 6443.26k 6689.02k 6752.94k 6766.59k bef.
aes-256-cbc 6200.31k 7195.71k 7504.30k 7585.11k 7599.45k aft.
-------------------------------------------------------------------
aes-128-cbc 7313.85k 8653.67k 9079.55k 9188.35k 9205.08k bef.
aes-128-cbc 7925.38k 9557.99k 10092.37k 10232.15k 10272.77k aft.
encryption 16B 64B 256B 1024B 8192B
-------------------------------------------------------------------
aes-256 cbc 6009.65k 6592.70k 6766.59k 6806.87k 6815.74k bef.
aes-256 cbc 6643.93k 7388.69k 7605.33k 7657.81k 7675.90k aft.
-------------------------------------------------------------------
aes-128 cbc 7862.09k 8892.48k 9214.04k 9291.78k 9311.57k bef.
aes-128 cbc 8639.29k 9881.17k 10265.86k 10363.56k 10392.92k aft.
Reviewed-by: Paul Dale <paul.dale@oracle.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8206)
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The add/double shortcut in ecp_nistz256-x86_64.pl left one instruction
point that did not unwind, and the "slow" path in AES_cbc_encrypt was
not annotated correctly. For the latter, add
.cfi_{remember,restore}_state support to perlasm.
Next, fill in a bunch of functions that are missing no-op .cfi_startproc
and .cfi_endproc blocks. libunwind cannot unwind those stack frames
otherwise.
Finally, work around a bug in libunwind by not encoding rflags. (rflags
isn't a callee-saved register, so there's not much need to annotate it
anyway.)
These were found as part of ABI testing work in BoringSSL.
Reviewed-by: Richard Levitte <levitte@openssl.org>
GH: #8109
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"Windows friendliness" means a) unified PIC-ification, unified across
all platforms; b) unified commantary delimiter; c) explicit ldur/stur,
as Visual Studio assembler can't automatically encode ldr/str as
ldur/stur when needed.
Reviewed-by: Paul Dale <paul.dale@oracle.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8256)
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"Windows friendliness" means a) flipping .thumb and .text directives,
b) always generate Thumb-2 code when asked(*); c) Windows-specific
references to external OPENSSL_armcap_P.
(*) so far *some* modules were compiled as .code 32 even if Thumb-2
was targeted. It works at hardware level because processor can alternate
between the modes with no overhead. But clang --target=arm-windows's
builtin assembler just refuses to compile .code 32...
Reviewed-by: Paul Dale <paul.dale@oracle.com>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8252)
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ARMv8.3 adds pointer authentication extension, which in this case allows
to ensure that, when offloaded to stack, return address is same at return
as at entry to the subroutine. The new instructions are nops on processors
that don't implement the extension, so that the vetification is backward
compatible.
Reviewed-by: Kurt Roeckx <kurt@roeckx.be>
Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/8205)
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Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/7771)
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Make it just say "the License", which refers back to the standard
boilerplate.
Reviewed-by: Matt Caswell <matt@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/7764)
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Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/7176)
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Reviewed-by: Rich Salz <rsalz@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/6583)
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As it turns out originally published results were skewed by "turbo"
mode. VM apparently remains oblivious to dynamic frequency scaling,
and reports that processor operates at "base" frequency at all times.
While actual frequency gets increased under load.
Reviewed-by: Rich Salz <rsalz@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/6406)
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Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/6371)
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Reviewed-by: Rich Salz <rsalz@openssl.org>
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Reviewed-by: Richard Levitte <levitte@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/5689)
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Current endianness detection is somewhat opportunistic and can fail
in cross-compile scenario. Since we are more likely to cross-compile
for little-endian now, adjust the default accordingly.
Reviewed-by: Rich Salz <rsalz@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/5613)
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Thumb2 addresses are a bit a mess, depending on whether a label is
interpreted as a function pointer value (for use with BX and BLX) or as
a program counter value (for use with PC-relative addressing). Clang's
integrated assembler mis-assembles this code. See
https://crbug.com/124610#c54 for details.
Instead, use the ADR pseudo-instruction which has clear semantics and
should be supported by every assembler that handles the OpenSSL Thumb2
code. (In other files, the ADR vs SUB conditionals are based on
__thumb2__ already. For some reason, this one is based on __APPLE__, I'm
guessing to deal with an older version of clang assembler.)
It's unclear to me which of clang or binutils is "correct" or if this is
even a well-defined notion beyond "whatever binutils does". But I will
note that https://github.com/openssl/openssl/pull/4669 suggests binutils
has also changed behavior around this before.
Reviewed-by: Andy Polyakov <appro@openssl.org>
Reviewed-by: Rich Salz <rsalz@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/5431)
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Reviewed-by: Tim Hudson <tjh@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/5038)
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Signed-off-by: Patrick Steuer <patrick.steuer@de.ibm.com>
Reviewed-by: Andy Polyakov <appro@openssl.org>
Reviewed-by: Tim Hudson <tjh@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/4634)
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Signed-off-by: Patrick Steuer <patrick.steuer@de.ibm.com>
Reviewed-by: Andy Polyakov <appro@openssl.org>
Reviewed-by: Tim Hudson <tjh@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/4634)
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[skip ci]
Reviewed-by: Tim Hudson <tjh@openssl.org>
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Around 138 distinct errors found and fixed; thanks!
Reviewed-by: Kurt Roeckx <kurt@roeckx.be>
Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Rich Salz <rsalz@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/3459)
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It's not clear if it's a feature or bug, but binutils-2.29[.1]
interprets 'adr' instruction with Thumb2 code reference differently,
in a way that affects calculation of addresses of constants' tables.
Reviewed-by: Tim Hudson <tjh@openssl.org>
Reviewed-by: Bernd Edlinger <bernd.edlinger@hotmail.de>
(Merged from https://github.com/openssl/openssl/pull/4669)
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Extend the s390x capability vector to store the longer facility list
available from z13 onwards. The bits indicating the vector extensions
are set to zero, if the kernel does not enable the vector facility.
Also add capability bits returned by the crypto instructions' query
functions.
Signed-off-by: Patrick Steuer <patrick.steuer@de.ibm.com>
Reviewed-by: Andy Polyakov <appro@openssl.org>
Reviewed-by: Tim Hudson <tjh@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/4542)
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An instruction's QUERY function is executed at initialization, iff the required
MSA level is installed. Therefore, it is sufficient to check the bits returned
by the QUERY functions. The MSA level does not have to be checked at every
function call.
crypto/aes/asm/aes-s390x.pl: The AES key schedule must be computed if the
required KM or KMC function codes are not available. Formally, the availability
of a KMC function code does not imply the availability of the corresponding KM
function code.
Signed-off-by: Patrick Steuer <patrick.steuer@de.ibm.com>
Reviewed-by: Andy Polyakov <appro@openssl.org>
Reviewed-by: Rich Salz <rsalz@openssl.org>
(Merged from https://github.com/openssl/openssl/pull/4501)
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