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Rebuild FFmpeg 4.3.1 (patched), discord-rpc, Opus, and OpenSSL 1.1.1i as Universal binaries

Browse Source 
https://github.com/cgutman/moonlight-deps
4c2815b5f2045ef0e8b098ed2fa8c4f9c1f5cd77

Built locally with Xcode 12.3 with ARM64 targets enabled
This commit is contained in:
Cameron Gutman
2020-12-27 00:14:39 -06:00
parent bc39c721e3
commit c923d643b9
129 changed files with 11387 additions and 8441 deletions
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libs/mac/include/openssl/bn.h
+76 -112
View File
@@ -1,5 +1,6 @@
/*
* Copyright 1995-2016 The OpenSSL Project Authors. All Rights Reserved.
* Copyright 1995-2020 The OpenSSL Project Authors. All Rights Reserved.
* Copyright (c) 2002, Oracle and/or its affiliates. All rights reserved
*
* Licensed under the OpenSSL license (the "License"). You may not use
* this file except in compliance with the License. You can obtain a copy
@@ -7,20 +8,6 @@
* https://www.openssl.org/source/license.html
*/
/* ====================================================================
* Copyright 2002 Sun Microsystems, Inc. ALL RIGHTS RESERVED.
*
* Portions of the attached software ("Contribution") are developed by
* SUN MICROSYSTEMS, INC., and are contributed to the OpenSSL project.
*
* The Contribution is licensed pursuant to the Eric Young open source
* license provided above.
*
* The binary polynomial arithmetic software is originally written by
* Sheueling Chang Shantz and Douglas Stebila of Sun Microsystems Laboratories.
*
*/
#ifndef HEADER_BN_H
# define HEADER_BN_H
@@ -31,6 +18,7 @@
# include <openssl/opensslconf.h>
# include <openssl/ossl_typ.h>
# include <openssl/crypto.h>
# include <openssl/bnerr.h>
#ifdef __cplusplus
extern "C" {
@@ -68,7 +56,7 @@ extern "C" {
* avoid leaking exponent information through timing,
* BN_mod_exp_mont() will call BN_mod_exp_mont_consttime,
* BN_div() will call BN_div_no_branch,
* BN_mod_inverse() will call BN_mod_inverse_no_branch.
* BN_mod_inverse() will call bn_mod_inverse_no_branch.
*/
# define BN_FLG_CONSTTIME 0x04
# define BN_FLG_SECURE 0x08
@@ -119,25 +107,76 @@ void *BN_GENCB_get_arg(BN_GENCB *cb);
* on the size of the number */
/*
* number of Miller-Rabin iterations for an error rate of less than 2^-80 for
* random 'b'-bit input, b >= 100 (taken from table 4.4 in the Handbook of
* Applied Cryptography [Menezes, van Oorschot, Vanstone; CRC Press 1996];
* original paper: Damgaard, Landrock, Pomerance: Average case error
* estimates for the strong probable prime test. -- Math. Comp. 61 (1993)
* 177-194)
* BN_prime_checks_for_size() returns the number of Miller-Rabin iterations
* that will be done for checking that a random number is probably prime. The
* error rate for accepting a composite number as prime depends on the size of
* the prime |b|. The error rates used are for calculating an RSA key with 2 primes,
* and so the level is what you would expect for a key of double the size of the
* prime.
*
* This table is generated using the algorithm of FIPS PUB 186-4
* Digital Signature Standard (DSS), section F.1, page 117.
* (https://dx.doi.org/10.6028/NIST.FIPS.186-4)
*
* The following magma script was used to generate the output:
* securitybits:=125;
* k:=1024;
* for t:=1 to 65 do
* for M:=3 to Floor(2*Sqrt(k-1)-1) do
* S:=0;
* // Sum over m
* for m:=3 to M do
* s:=0;
* // Sum over j
* for j:=2 to m do
* s+:=(RealField(32)!2)^-(j+(k-1)/j);
* end for;
* S+:=2^(m-(m-1)*t)*s;
* end for;
* A:=2^(k-2-M*t);
* B:=8*(Pi(RealField(32))^2-6)/3*2^(k-2)*S;
* pkt:=2.00743*Log(2)*k*2^-k*(A+B);
* seclevel:=Floor(-Log(2,pkt));
* if seclevel ge securitybits then
* printf "k: %5o, security: %o bits (t: %o, M: %o)\n",k,seclevel,t,M;
* break;
* end if;
* end for;
* if seclevel ge securitybits then break; end if;
* end for;
*
* It can be run online at:
* http://magma.maths.usyd.edu.au/calc
*
* And will output:
* k: 1024, security: 129 bits (t: 6, M: 23)
*
* k is the number of bits of the prime, securitybits is the level we want to
* reach.
*
* prime length | RSA key size | # MR tests | security level
* -------------+--------------|------------+---------------
* (b) >= 6394 | >= 12788 | 3 | 256 bit
* (b) >= 3747 | >= 7494 | 3 | 192 bit
* (b) >= 1345 | >= 2690 | 4 | 128 bit
* (b) >= 1080 | >= 2160 | 5 | 128 bit
* (b) >= 852 | >= 1704 | 5 | 112 bit
* (b) >= 476 | >= 952 | 5 | 80 bit
* (b) >= 400 | >= 800 | 6 | 80 bit
* (b) >= 347 | >= 694 | 7 | 80 bit
* (b) >= 308 | >= 616 | 8 | 80 bit
* (b) >= 55 | >= 110 | 27 | 64 bit
* (b) >= 6 | >= 12 | 34 | 64 bit
*/
# define BN_prime_checks_for_size(b) ((b) >= 1300 ? 2 : \
(b) >= 850 ? 3 : \
(b) >= 650 ? 4 : \
(b) >= 550 ? 5 : \
(b) >= 450 ? 6 : \
(b) >= 400 ? 7 : \
(b) >= 350 ? 8 : \
(b) >= 300 ? 9 : \
(b) >= 250 ? 12 : \
(b) >= 200 ? 15 : \
(b) >= 150 ? 18 : \
/* b >= 100 */ 27)
# define BN_prime_checks_for_size(b) ((b) >= 3747 ? 3 : \
(b) >= 1345 ? 4 : \
(b) >= 476 ? 5 : \
(b) >= 400 ? 6 : \
(b) >= 347 ? 7 : \
(b) >= 308 ? 8 : \
(b) >= 55 ? 27 : \
/* b >= 6 */ 34)
# define BN_num_bytes(a) ((BN_num_bits(a)+7)/8)
@@ -166,8 +205,10 @@ void BN_CTX_start(BN_CTX *ctx);
BIGNUM *BN_CTX_get(BN_CTX *ctx);
void BN_CTX_end(BN_CTX *ctx);
int BN_rand(BIGNUM *rnd, int bits, int top, int bottom);
int BN_pseudo_rand(BIGNUM *rnd, int bits, int top, int bottom);
int BN_priv_rand(BIGNUM *rnd, int bits, int top, int bottom);
int BN_rand_range(BIGNUM *rnd, const BIGNUM *range);
int BN_priv_rand_range(BIGNUM *rnd, const BIGNUM *range);
int BN_pseudo_rand(BIGNUM *rnd, int bits, int top, int bottom);
int BN_pseudo_rand_range(BIGNUM *rnd, const BIGNUM *range);
int BN_num_bits(const BIGNUM *a);
int BN_num_bits_word(BN_ULONG l);
@@ -491,83 +532,6 @@ BIGNUM *BN_get_rfc3526_prime_8192(BIGNUM *bn);
int BN_bntest_rand(BIGNUM *rnd, int bits, int top, int bottom);
/* BEGIN ERROR CODES */
/*
* The following lines are auto generated by the script mkerr.pl. Any changes
* made after this point may be overwritten when the script is next run.
*/
int ERR_load_BN_strings(void);
/* Error codes for the BN functions. */
/* Function codes. */
# define BN_F_BNRAND 127
# define BN_F_BN_BLINDING_CONVERT_EX 100
# define BN_F_BN_BLINDING_CREATE_PARAM 128
# define BN_F_BN_BLINDING_INVERT_EX 101
# define BN_F_BN_BLINDING_NEW 102
# define BN_F_BN_BLINDING_UPDATE 103
# define BN_F_BN_BN2DEC 104
# define BN_F_BN_BN2HEX 105
# define BN_F_BN_COMPUTE_WNAF 142
# define BN_F_BN_CTX_GET 116
# define BN_F_BN_CTX_NEW 106
# define BN_F_BN_CTX_START 129
# define BN_F_BN_DIV 107
# define BN_F_BN_DIV_RECP 130
# define BN_F_BN_EXP 123
# define BN_F_BN_EXPAND_INTERNAL 120
# define BN_F_BN_GENCB_NEW 143
# define BN_F_BN_GENERATE_DSA_NONCE 140
# define BN_F_BN_GENERATE_PRIME_EX 141
# define BN_F_BN_GF2M_MOD 131
# define BN_F_BN_GF2M_MOD_EXP 132
# define BN_F_BN_GF2M_MOD_MUL 133
# define BN_F_BN_GF2M_MOD_SOLVE_QUAD 134
# define BN_F_BN_GF2M_MOD_SOLVE_QUAD_ARR 135
# define BN_F_BN_GF2M_MOD_SQR 136
# define BN_F_BN_GF2M_MOD_SQRT 137
# define BN_F_BN_LSHIFT 145
# define BN_F_BN_MOD_EXP2_MONT 118
# define BN_F_BN_MOD_EXP_MONT 109
# define BN_F_BN_MOD_EXP_MONT_CONSTTIME 124
# define BN_F_BN_MOD_EXP_MONT_WORD 117
# define BN_F_BN_MOD_EXP_RECP 125
# define BN_F_BN_MOD_EXP_SIMPLE 126
# define BN_F_BN_MOD_INVERSE 110
# define BN_F_BN_MOD_INVERSE_NO_BRANCH 139
# define BN_F_BN_MOD_LSHIFT_QUICK 119
# define BN_F_BN_MOD_SQRT 121
# define BN_F_BN_MPI2BN 112
# define BN_F_BN_NEW 113
# define BN_F_BN_RAND 114
# define BN_F_BN_RAND_RANGE 122
# define BN_F_BN_RSHIFT 146
# define BN_F_BN_SET_WORDS 144
# define BN_F_BN_USUB 115
/* Reason codes. */
# define BN_R_ARG2_LT_ARG3 100
# define BN_R_BAD_RECIPROCAL 101
# define BN_R_BIGNUM_TOO_LONG 114
# define BN_R_BITS_TOO_SMALL 118
# define BN_R_CALLED_WITH_EVEN_MODULUS 102
# define BN_R_DIV_BY_ZERO 103
# define BN_R_ENCODING_ERROR 104
# define BN_R_EXPAND_ON_STATIC_BIGNUM_DATA 105
# define BN_R_INPUT_NOT_REDUCED 110
# define BN_R_INVALID_LENGTH 106
# define BN_R_INVALID_RANGE 115
# define BN_R_INVALID_SHIFT 119
# define BN_R_NOT_A_SQUARE 111
# define BN_R_NOT_INITIALIZED 107
# define BN_R_NO_INVERSE 108
# define BN_R_NO_SOLUTION 116
# define BN_R_PRIVATE_KEY_TOO_LARGE 117
# define BN_R_P_IS_NOT_PRIME 112
# define BN_R_TOO_MANY_ITERATIONS 113
# define BN_R_TOO_MANY_TEMPORARY_VARIABLES 109
# ifdef __cplusplus
}