This saves about 30% on the Integer multiply operations. For example, RSA 1024 encryption goes from 0.068 to 0.044 ms/op. RSA 2048 goes from 0.170 to 0.100 ms/op. We should have taken this sooner. Ugh...
* Test fix ARM headers
This problem has been festering for some time. The header file includes are slightly different than the ISA options. Some platforms need an include, others don't.
* Fix cryptest-android.sh and cryptest-ios.sh
* Fix MSVC ARM32 and ARM64 compile
* Split ARM32 and ARM64 recipes in GNUmakefile
Cryptogams is Andy Polyakov's project used to create high speed crypto algorithms and share them with other developers. Cryptogams has a dual license. First is the OpenSSL license because Andy contributes to OpenSSL. Second is a BSD license for those who want a more permissive license.
Andy's implementation runs about 45% faster than C/C++ code. Testing on a 1.8 GHz Cortex-A17 shows Cryptograms at 45 cpb, and C++ at 79 cpb.
The integration instructions are documented at [Cryptogams SHA](https://wiki.openssl.org/index.php/Cryptogams_SHA) on the OpenSSL wiki.
Cryptogams is Andy Polyakov's project used to create high speed crypto algorithms and share them with other developers. Cryptogams has a dual license. First is the OpenSSL license because Andy contributes to OpenSSL. Second is a BSD license for those who want a more permissive license.
Andy's implementation runs about 45% faster than C/C++ code. Testing on a 1 GHz Cortex-A7 shows Cryptograms at 17 cpb, and C++ at 30 cpb.
The integration instructions are documented at [Cryptogams SHA](https://wiki.openssl.org/index.php/Cryptogams_SHA) on the OpenSSL wiki.
Add ARM SHA1 asm implementation from Cryptogams.
Cryptogams is Andy Polyakov's project used to create high speed crypto algorithms and share them with other developers. Cryptogams has a dual license. First is the OpenSSL license because Andy contributes to OpenSSL. Second is a BSD license for those who want a more permissive license.
Andy's implementation runs about 30% faster than C/C++ code. Testing on a 1 GHz Cortex-A7 shows Cryptograms at 16 cpb, and C++ at 23 cpb.
The integration instructions are documented at [Cryptogams SHA](https://wiki.openssl.org/index.php/Cryptogams_SHA) on the OpenSSL wiki.
The makefile tries to pre-qualify NEON (for lack of a better term), and sets IS_NEON accordingly. If IS_NEON=1, then we go on to perform test compiles to see if -mfloat-abi=X -mfpu=neon (and friends) actually work. Effectively we are performing a test to see if we should perform another test.
The IS_NEON flag predates our compile time feature tests. It was kind of helpful when we were trying to sort out if a platform and compiler options supported NEON without a compile test. That was an absolute mess and we quickly learned we needed a real compile time feature test (which we now have).
Additionally, Debian and Fedora ARMEL builds are failing because we are misdetecting NEON availability. It looks like we fail to set IS_NEON properly, so we never get into the code paths that set either (1) -mfloat-abi=X -mfpu=neon or (2) -DCRYPTOPP_DISABLE_NEON or -DCRYPTOPP_DISABLE_ASM. Later, the makefile builds a *_simd.cpp and the result is an error that NEON needs to be activated (or disabled).
This commit removes IS_NEON so we immediately move to compile time feature tests.
