/src/openssl35/include/crypto/md32_common.h
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1 | | /* |
2 | | * Copyright 1999-2022 The OpenSSL Project Authors. All Rights Reserved. |
3 | | * |
4 | | * Licensed under the Apache License 2.0 (the "License"). You may not use |
5 | | * this file except in compliance with the License. You can obtain a copy |
6 | | * in the file LICENSE in the source distribution or at |
7 | | * https://www.openssl.org/source/license.html |
8 | | */ |
9 | | |
10 | | /*- |
11 | | * This is a generic 32 bit "collector" for message digest algorithms. |
12 | | * Whenever needed it collects input character stream into chunks of |
13 | | * 32 bit values and invokes a block function that performs actual hash |
14 | | * calculations. |
15 | | * |
16 | | * Porting guide. |
17 | | * |
18 | | * Obligatory macros: |
19 | | * |
20 | | * DATA_ORDER_IS_BIG_ENDIAN or DATA_ORDER_IS_LITTLE_ENDIAN |
21 | | * this macro defines byte order of input stream. |
22 | | * HASH_CBLOCK |
23 | | * size of a unit chunk HASH_BLOCK operates on. |
24 | | * HASH_LONG |
25 | | * has to be at least 32 bit wide. |
26 | | * HASH_CTX |
27 | | * context structure that at least contains following |
28 | | * members: |
29 | | * typedef struct { |
30 | | * ... |
31 | | * HASH_LONG Nl,Nh; |
32 | | * either { |
33 | | * HASH_LONG data[HASH_LBLOCK]; |
34 | | * unsigned char data[HASH_CBLOCK]; |
35 | | * }; |
36 | | * unsigned int num; |
37 | | * ... |
38 | | * } HASH_CTX; |
39 | | * data[] vector is expected to be zeroed upon first call to |
40 | | * HASH_UPDATE. |
41 | | * HASH_UPDATE |
42 | | * name of "Update" function, implemented here. |
43 | | * HASH_TRANSFORM |
44 | | * name of "Transform" function, implemented here. |
45 | | * HASH_FINAL |
46 | | * name of "Final" function, implemented here. |
47 | | * HASH_BLOCK_DATA_ORDER |
48 | | * name of "block" function capable of treating *unaligned* input |
49 | | * message in original (data) byte order, implemented externally. |
50 | | * HASH_MAKE_STRING |
51 | | * macro converting context variables to an ASCII hash string. |
52 | | * |
53 | | * MD5 example: |
54 | | * |
55 | | * #define DATA_ORDER_IS_LITTLE_ENDIAN |
56 | | * |
57 | | * #define HASH_LONG MD5_LONG |
58 | | * #define HASH_CTX MD5_CTX |
59 | | * #define HASH_CBLOCK MD5_CBLOCK |
60 | | * #define HASH_UPDATE MD5_Update |
61 | | * #define HASH_TRANSFORM MD5_Transform |
62 | | * #define HASH_FINAL MD5_Final |
63 | | * #define HASH_BLOCK_DATA_ORDER md5_block_data_order |
64 | | */ |
65 | | |
66 | | #ifndef OSSL_CRYPTO_MD32_COMMON_H |
67 | | #define OSSL_CRYPTO_MD32_COMMON_H |
68 | | #pragma once |
69 | | |
70 | | #include <openssl/crypto.h> |
71 | | |
72 | | #if !defined(DATA_ORDER_IS_BIG_ENDIAN) && !defined(DATA_ORDER_IS_LITTLE_ENDIAN) |
73 | | #error "DATA_ORDER must be defined!" |
74 | | #endif |
75 | | |
76 | | #ifndef HASH_CBLOCK |
77 | | #error "HASH_CBLOCK must be defined!" |
78 | | #endif |
79 | | #ifndef HASH_LONG |
80 | | #error "HASH_LONG must be defined!" |
81 | | #endif |
82 | | #ifndef HASH_CTX |
83 | | #error "HASH_CTX must be defined!" |
84 | | #endif |
85 | | |
86 | | #ifndef HASH_UPDATE |
87 | | #error "HASH_UPDATE must be defined!" |
88 | | #endif |
89 | | #ifndef HASH_TRANSFORM |
90 | | #error "HASH_TRANSFORM must be defined!" |
91 | | #endif |
92 | | #ifndef HASH_FINAL |
93 | | #error "HASH_FINAL must be defined!" |
94 | | #endif |
95 | | |
96 | | #ifndef HASH_BLOCK_DATA_ORDER |
97 | | #error "HASH_BLOCK_DATA_ORDER must be defined!" |
98 | | #endif |
99 | | |
100 | 1.36G | #define ROTATE(a, n) (((a) << (n)) | (((a) & 0xffffffff) >> (32 - (n)))) |
101 | | |
102 | | #ifndef PEDANTIC |
103 | | #if defined(__GNUC__) && __GNUC__ >= 2 && !defined(OPENSSL_NO_ASM) && !defined(OPENSSL_NO_INLINE_ASM) |
104 | | #if defined(__riscv_zbb) || defined(__riscv_zbkb) |
105 | | #if __riscv_xlen == 64 |
106 | | #undef ROTATE |
107 | | #define ROTATE(x, n) ({ MD32_REG_T ret; \ |
108 | | asm ("roriw %0, %1, %2" \ |
109 | | : "=r"(ret) \ |
110 | | : "r"(x), "i"(32 - (n))); ret; }) |
111 | | #endif |
112 | | #if __riscv_xlen == 32 |
113 | | #undef ROTATE |
114 | | #define ROTATE(x, n) ({ MD32_REG_T ret; \ |
115 | | asm ("rori %0, %1, %2" \ |
116 | | : "=r"(ret) \ |
117 | | : "r"(x), "i"(32 - (n))); ret; }) |
118 | | #endif |
119 | | #endif |
120 | | #endif |
121 | | #endif |
122 | | |
123 | | #if defined(DATA_ORDER_IS_BIG_ENDIAN) |
124 | | |
125 | 9.55M | #define HOST_c2l(c, l) (l = (((unsigned long)(*((c)++))) << 24), \ |
126 | 9.55M | l |= (((unsigned long)(*((c)++))) << 16), \ |
127 | 9.55M | l |= (((unsigned long)(*((c)++))) << 8), \ |
128 | 9.55M | l |= (((unsigned long)(*((c)++))))) |
129 | 7.02G | #define HOST_l2c(l, c) (*((c)++) = (unsigned char)(((l) >> 24) & 0xff), \ |
130 | 7.02G | *((c)++) = (unsigned char)(((l) >> 16) & 0xff), \ |
131 | 7.02G | *((c)++) = (unsigned char)(((l) >> 8) & 0xff), \ |
132 | 7.02G | *((c)++) = (unsigned char)(((l)) & 0xff), \ |
133 | 7.02G | l) |
134 | | |
135 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) |
136 | | |
137 | 52.1M | #define HOST_c2l(c, l) (l = (((unsigned long)(*((c)++)))), \ |
138 | 52.1M | l |= (((unsigned long)(*((c)++))) << 8), \ |
139 | 52.1M | l |= (((unsigned long)(*((c)++))) << 16), \ |
140 | 52.1M | l |= (((unsigned long)(*((c)++))) << 24)) |
141 | 24.4M | #define HOST_l2c(l, c) (*((c)++) = (unsigned char)(((l)) & 0xff), \ |
142 | 24.4M | *((c)++) = (unsigned char)(((l) >> 8) & 0xff), \ |
143 | 24.4M | *((c)++) = (unsigned char)(((l) >> 16) & 0xff), \ |
144 | 24.4M | *((c)++) = (unsigned char)(((l) >> 24) & 0xff), \ |
145 | 24.4M | l) |
146 | | |
147 | | #endif |
148 | | |
149 | | /* |
150 | | * Time for some action :-) |
151 | | */ |
152 | | |
153 | | int HASH_UPDATE(HASH_CTX *c, const void *data_, size_t len) |
154 | 873M | { |
155 | 873M | const unsigned char *data = data_; |
156 | 873M | unsigned char *p; |
157 | 873M | HASH_LONG l; |
158 | 873M | size_t n; |
159 | | |
160 | 873M | if (len == 0) |
161 | 0 | return 1; |
162 | | |
163 | 873M | l = (c->Nl + (((HASH_LONG)len) << 3)) & 0xffffffffUL; |
164 | 873M | if (l < c->Nl) /* overflow */ |
165 | 0 | c->Nh++; |
166 | 873M | c->Nh += (HASH_LONG)(len >> 29); /* might cause compiler warning on |
167 | | * 16-bit */ |
168 | 873M | c->Nl = l; |
169 | | |
170 | 873M | n = c->num; |
171 | 873M | if (n != 0) { |
172 | 434M | p = (unsigned char *)c->data; |
173 | | |
174 | 434M | if (len >= HASH_CBLOCK || len + n >= HASH_CBLOCK) { |
175 | 217M | memcpy(p + n, data, HASH_CBLOCK - n); |
176 | 217M | HASH_BLOCK_DATA_ORDER(c, p, 1); |
177 | 217M | n = HASH_CBLOCK - n; |
178 | 217M | data += n; |
179 | 217M | len -= n; |
180 | 217M | c->num = 0; |
181 | | /* |
182 | | * We use memset rather than OPENSSL_cleanse() here deliberately. |
183 | | * Using OPENSSL_cleanse() here could be a performance issue. It |
184 | | * will get properly cleansed on finalisation so this isn't a |
185 | | * security problem. |
186 | | */ |
187 | 217M | memset(p, 0, HASH_CBLOCK); /* keep it zeroed */ |
188 | 217M | } else { |
189 | 217M | memcpy(p + n, data, len); |
190 | 217M | c->num += (unsigned int)len; |
191 | 217M | return 1; |
192 | 217M | } |
193 | 434M | } |
194 | | |
195 | 656M | n = len / HASH_CBLOCK; |
196 | 656M | if (n > 0) { |
197 | 1.69M | HASH_BLOCK_DATA_ORDER(c, data, n); |
198 | 1.69M | n *= HASH_CBLOCK; |
199 | 1.69M | data += n; |
200 | 1.69M | len -= n; |
201 | 1.69M | } |
202 | | |
203 | 656M | if (len != 0) { |
204 | 439M | p = (unsigned char *)c->data; |
205 | 439M | c->num = (unsigned int)len; |
206 | 439M | memcpy(p, data, len); |
207 | 439M | } |
208 | 656M | return 1; |
209 | 873M | } Unexecuted instantiation: MD4_Update Line | Count | Source | 154 | 788k | { | 155 | 788k | const unsigned char *data = data_; | 156 | 788k | unsigned char *p; | 157 | 788k | HASH_LONG l; | 158 | 788k | size_t n; | 159 | | | 160 | 788k | if (len == 0) | 161 | 0 | return 1; | 162 | | | 163 | 788k | l = (c->Nl + (((HASH_LONG)len) << 3)) & 0xffffffffUL; | 164 | 788k | if (l < c->Nl) /* overflow */ | 165 | 0 | c->Nh++; | 166 | 788k | c->Nh += (HASH_LONG)(len >> 29); /* might cause compiler warning on | 167 | | * 16-bit */ | 168 | 788k | c->Nl = l; | 169 | | | 170 | 788k | n = c->num; | 171 | 788k | if (n != 0) { | 172 | 203k | p = (unsigned char *)c->data; | 173 | | | 174 | 203k | if (len >= HASH_CBLOCK || len + n >= HASH_CBLOCK) { | 175 | 86.0k | memcpy(p + n, data, HASH_CBLOCK - n); | 176 | 86.0k | HASH_BLOCK_DATA_ORDER(c, p, 1); | 177 | 86.0k | n = HASH_CBLOCK - n; | 178 | 86.0k | data += n; | 179 | 86.0k | len -= n; | 180 | 86.0k | c->num = 0; | 181 | | /* | 182 | | * We use memset rather than OPENSSL_cleanse() here deliberately. | 183 | | * Using OPENSSL_cleanse() here could be a performance issue. It | 184 | | * will get properly cleansed on finalisation so this isn't a | 185 | | * security problem. | 186 | | */ | 187 | 86.0k | memset(p, 0, HASH_CBLOCK); /* keep it zeroed */ | 188 | 117k | } else { | 189 | 117k | memcpy(p + n, data, len); | 190 | 117k | c->num += (unsigned int)len; | 191 | 117k | return 1; | 192 | 117k | } | 193 | 203k | } | 194 | | | 195 | 670k | n = len / HASH_CBLOCK; | 196 | 670k | if (n > 0) { | 197 | 78.9k | HASH_BLOCK_DATA_ORDER(c, data, n); | 198 | 78.9k | n *= HASH_CBLOCK; | 199 | 78.9k | data += n; | 200 | 78.9k | len -= n; | 201 | 78.9k | } | 202 | | | 203 | 670k | if (len != 0) { | 204 | 622k | p = (unsigned char *)c->data; | 205 | 622k | c->num = (unsigned int)len; | 206 | 622k | memcpy(p, data, len); | 207 | 622k | } | 208 | 670k | return 1; | 209 | 788k | } |
Line | Count | Source | 154 | 1.90M | { | 155 | 1.90M | const unsigned char *data = data_; | 156 | 1.90M | unsigned char *p; | 157 | 1.90M | HASH_LONG l; | 158 | 1.90M | size_t n; | 159 | | | 160 | 1.90M | if (len == 0) | 161 | 0 | return 1; | 162 | | | 163 | 1.90M | l = (c->Nl + (((HASH_LONG)len) << 3)) & 0xffffffffUL; | 164 | 1.90M | if (l < c->Nl) /* overflow */ | 165 | 0 | c->Nh++; | 166 | 1.90M | c->Nh += (HASH_LONG)(len >> 29); /* might cause compiler warning on | 167 | | * 16-bit */ | 168 | 1.90M | c->Nl = l; | 169 | | | 170 | 1.90M | n = c->num; | 171 | 1.90M | if (n != 0) { | 172 | 551 | p = (unsigned char *)c->data; | 173 | | | 174 | 551 | if (len >= HASH_CBLOCK || len + n >= HASH_CBLOCK) { | 175 | 197 | memcpy(p + n, data, HASH_CBLOCK - n); | 176 | 197 | HASH_BLOCK_DATA_ORDER(c, p, 1); | 177 | 197 | n = HASH_CBLOCK - n; | 178 | 197 | data += n; | 179 | 197 | len -= n; | 180 | 197 | c->num = 0; | 181 | | /* | 182 | | * We use memset rather than OPENSSL_cleanse() here deliberately. | 183 | | * Using OPENSSL_cleanse() here could be a performance issue. It | 184 | | * will get properly cleansed on finalisation so this isn't a | 185 | | * security problem. | 186 | | */ | 187 | 197 | memset(p, 0, HASH_CBLOCK); /* keep it zeroed */ | 188 | 354 | } else { | 189 | 354 | memcpy(p + n, data, len); | 190 | 354 | c->num += (unsigned int)len; | 191 | 354 | return 1; | 192 | 354 | } | 193 | 551 | } | 194 | | | 195 | 1.90M | n = len / HASH_CBLOCK; | 196 | 1.90M | if (n > 0) { | 197 | 1.89k | HASH_BLOCK_DATA_ORDER(c, data, n); | 198 | 1.89k | n *= HASH_CBLOCK; | 199 | 1.89k | data += n; | 200 | 1.89k | len -= n; | 201 | 1.89k | } | 202 | | | 203 | 1.90M | if (len != 0) { | 204 | 1.90M | p = (unsigned char *)c->data; | 205 | 1.90M | c->num = (unsigned int)len; | 206 | 1.90M | memcpy(p, data, len); | 207 | 1.90M | } | 208 | 1.90M | return 1; | 209 | 1.90M | } |
Line | Count | Source | 154 | 1.59M | { | 155 | 1.59M | const unsigned char *data = data_; | 156 | 1.59M | unsigned char *p; | 157 | 1.59M | HASH_LONG l; | 158 | 1.59M | size_t n; | 159 | | | 160 | 1.59M | if (len == 0) | 161 | 0 | return 1; | 162 | | | 163 | 1.59M | l = (c->Nl + (((HASH_LONG)len) << 3)) & 0xffffffffUL; | 164 | 1.59M | if (l < c->Nl) /* overflow */ | 165 | 0 | c->Nh++; | 166 | 1.59M | c->Nh += (HASH_LONG)(len >> 29); /* might cause compiler warning on | 167 | | * 16-bit */ | 168 | 1.59M | c->Nl = l; | 169 | | | 170 | 1.59M | n = c->num; | 171 | 1.59M | if (n != 0) { | 172 | 168k | p = (unsigned char *)c->data; | 173 | | | 174 | 168k | if (len >= HASH_CBLOCK || len + n >= HASH_CBLOCK) { | 175 | 74.2k | memcpy(p + n, data, HASH_CBLOCK - n); | 176 | 74.2k | HASH_BLOCK_DATA_ORDER(c, p, 1); | 177 | 74.2k | n = HASH_CBLOCK - n; | 178 | 74.2k | data += n; | 179 | 74.2k | len -= n; | 180 | 74.2k | c->num = 0; | 181 | | /* | 182 | | * We use memset rather than OPENSSL_cleanse() here deliberately. | 183 | | * Using OPENSSL_cleanse() here could be a performance issue. It | 184 | | * will get properly cleansed on finalisation so this isn't a | 185 | | * security problem. | 186 | | */ | 187 | 74.2k | memset(p, 0, HASH_CBLOCK); /* keep it zeroed */ | 188 | 94.2k | } else { | 189 | 94.2k | memcpy(p + n, data, len); | 190 | 94.2k | c->num += (unsigned int)len; | 191 | 94.2k | return 1; | 192 | 94.2k | } | 193 | 168k | } | 194 | | | 195 | 1.50M | n = len / HASH_CBLOCK; | 196 | 1.50M | if (n > 0) { | 197 | 476k | HASH_BLOCK_DATA_ORDER(c, data, n); | 198 | 476k | n *= HASH_CBLOCK; | 199 | 476k | data += n; | 200 | 476k | len -= n; | 201 | 476k | } | 202 | | | 203 | 1.50M | if (len != 0) { | 204 | 1.32M | p = (unsigned char *)c->data; | 205 | 1.32M | c->num = (unsigned int)len; | 206 | 1.32M | memcpy(p, data, len); | 207 | 1.32M | } | 208 | 1.50M | return 1; | 209 | 1.59M | } |
Line | Count | Source | 154 | 869M | { | 155 | 869M | const unsigned char *data = data_; | 156 | 869M | unsigned char *p; | 157 | 869M | HASH_LONG l; | 158 | 869M | size_t n; | 159 | | | 160 | 869M | if (len == 0) | 161 | 0 | return 1; | 162 | | | 163 | 869M | l = (c->Nl + (((HASH_LONG)len) << 3)) & 0xffffffffUL; | 164 | 869M | if (l < c->Nl) /* overflow */ | 165 | 0 | c->Nh++; | 166 | 869M | c->Nh += (HASH_LONG)(len >> 29); /* might cause compiler warning on | 167 | | * 16-bit */ | 168 | 869M | c->Nl = l; | 169 | | | 170 | 869M | n = c->num; | 171 | 869M | if (n != 0) { | 172 | 433M | p = (unsigned char *)c->data; | 173 | | | 174 | 433M | if (len >= HASH_CBLOCK || len + n >= HASH_CBLOCK) { | 175 | 216M | memcpy(p + n, data, HASH_CBLOCK - n); | 176 | 216M | HASH_BLOCK_DATA_ORDER(c, p, 1); | 177 | 216M | n = HASH_CBLOCK - n; | 178 | 216M | data += n; | 179 | 216M | len -= n; | 180 | 216M | c->num = 0; | 181 | | /* | 182 | | * We use memset rather than OPENSSL_cleanse() here deliberately. | 183 | | * Using OPENSSL_cleanse() here could be a performance issue. It | 184 | | * will get properly cleansed on finalisation so this isn't a | 185 | | * security problem. | 186 | | */ | 187 | 216M | memset(p, 0, HASH_CBLOCK); /* keep it zeroed */ | 188 | 216M | } else { | 189 | 216M | memcpy(p + n, data, len); | 190 | 216M | c->num += (unsigned int)len; | 191 | 216M | return 1; | 192 | 216M | } | 193 | 433M | } | 194 | | | 195 | 652M | n = len / HASH_CBLOCK; | 196 | 652M | if (n > 0) { | 197 | 1.13M | HASH_BLOCK_DATA_ORDER(c, data, n); | 198 | 1.13M | n *= HASH_CBLOCK; | 199 | 1.13M | data += n; | 200 | 1.13M | len -= n; | 201 | 1.13M | } | 202 | | | 203 | 652M | if (len != 0) { | 204 | 435M | p = (unsigned char *)c->data; | 205 | 435M | c->num = (unsigned int)len; | 206 | 435M | memcpy(p, data, len); | 207 | 435M | } | 208 | 652M | return 1; | 209 | 869M | } |
Line | Count | Source | 154 | 7.63k | { | 155 | 7.63k | const unsigned char *data = data_; | 156 | 7.63k | unsigned char *p; | 157 | 7.63k | HASH_LONG l; | 158 | 7.63k | size_t n; | 159 | | | 160 | 7.63k | if (len == 0) | 161 | 0 | return 1; | 162 | | | 163 | 7.63k | l = (c->Nl + (((HASH_LONG)len) << 3)) & 0xffffffffUL; | 164 | 7.63k | if (l < c->Nl) /* overflow */ | 165 | 0 | c->Nh++; | 166 | 7.63k | c->Nh += (HASH_LONG)(len >> 29); /* might cause compiler warning on | 167 | | * 16-bit */ | 168 | 7.63k | c->Nl = l; | 169 | | | 170 | 7.63k | n = c->num; | 171 | 7.63k | if (n != 0) { | 172 | 529 | p = (unsigned char *)c->data; | 173 | | | 174 | 529 | if (len >= HASH_CBLOCK || len + n >= HASH_CBLOCK) { | 175 | 199 | memcpy(p + n, data, HASH_CBLOCK - n); | 176 | 199 | HASH_BLOCK_DATA_ORDER(c, p, 1); | 177 | 199 | n = HASH_CBLOCK - n; | 178 | 199 | data += n; | 179 | 199 | len -= n; | 180 | 199 | c->num = 0; | 181 | | /* | 182 | | * We use memset rather than OPENSSL_cleanse() here deliberately. | 183 | | * Using OPENSSL_cleanse() here could be a performance issue. It | 184 | | * will get properly cleansed on finalisation so this isn't a | 185 | | * security problem. | 186 | | */ | 187 | 199 | memset(p, 0, HASH_CBLOCK); /* keep it zeroed */ | 188 | 330 | } else { | 189 | 330 | memcpy(p + n, data, len); | 190 | 330 | c->num += (unsigned int)len; | 191 | 330 | return 1; | 192 | 330 | } | 193 | 529 | } | 194 | | | 195 | 7.30k | n = len / HASH_CBLOCK; | 196 | 7.30k | if (n > 0) { | 197 | 3.49k | HASH_BLOCK_DATA_ORDER(c, data, n); | 198 | 3.49k | n *= HASH_CBLOCK; | 199 | 3.49k | data += n; | 200 | 3.49k | len -= n; | 201 | 3.49k | } | 202 | | | 203 | 7.30k | if (len != 0) { | 204 | 3.93k | p = (unsigned char *)c->data; | 205 | 3.93k | c->num = (unsigned int)len; | 206 | 3.93k | memcpy(p, data, len); | 207 | 3.93k | } | 208 | 7.30k | return 1; | 209 | 7.63k | } |
|
210 | | |
211 | | void HASH_TRANSFORM(HASH_CTX *c, const unsigned char *data) |
212 | 1.66M | { |
213 | 1.66M | HASH_BLOCK_DATA_ORDER(c, data, 1); |
214 | 1.66M | } Unexecuted instantiation: MD4_Transform Unexecuted instantiation: MD5_Transform Unexecuted instantiation: RIPEMD160_Transform Line | Count | Source | 212 | 1.33M | { | 213 | 1.33M | HASH_BLOCK_DATA_ORDER(c, data, 1); | 214 | 1.33M | } |
Line | Count | Source | 212 | 326k | { | 213 | 326k | HASH_BLOCK_DATA_ORDER(c, data, 1); | 214 | 326k | } |
Unexecuted instantiation: ossl_sm3_transform |
215 | | |
216 | | int HASH_FINAL(unsigned char *md, HASH_CTX *c) |
217 | 761M | { |
218 | 761M | unsigned char *p = (unsigned char *)c->data; |
219 | 761M | size_t n = c->num; |
220 | | |
221 | 761M | p[n] = 0x80; /* there is always room for one */ |
222 | 761M | n++; |
223 | | |
224 | 761M | if (n > (HASH_CBLOCK - 8)) { |
225 | 111k | memset(p + n, 0, HASH_CBLOCK - n); |
226 | 111k | n = 0; |
227 | 111k | HASH_BLOCK_DATA_ORDER(c, p, 1); |
228 | 111k | } |
229 | 761M | memset(p + n, 0, HASH_CBLOCK - 8 - n); |
230 | | |
231 | 761M | p += HASH_CBLOCK - 8; |
232 | | #if defined(DATA_ORDER_IS_BIG_ENDIAN) |
233 | 758M | (void)HOST_l2c(c->Nh, p); |
234 | 758M | (void)HOST_l2c(c->Nl, p); |
235 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) |
236 | 3.65M | (void)HOST_l2c(c->Nl, p); |
237 | 3.65M | (void)HOST_l2c(c->Nh, p); |
238 | | #endif |
239 | 761M | p -= HASH_CBLOCK; |
240 | 761M | HASH_BLOCK_DATA_ORDER(c, p, 1); |
241 | 761M | c->num = 0; |
242 | 761M | OPENSSL_cleanse(p, HASH_CBLOCK); |
243 | | |
244 | | #ifndef HASH_MAKE_STRING |
245 | | #error "HASH_MAKE_STRING must be defined!" |
246 | | #else |
247 | 761M | HASH_MAKE_STRING(c, md); |
248 | 755M | #endif |
249 | | |
250 | 755M | return 1; |
251 | 761M | } Unexecuted instantiation: MD4_Final Line | Count | Source | 217 | 1.13M | { | 218 | 1.13M | unsigned char *p = (unsigned char *)c->data; | 219 | 1.13M | size_t n = c->num; | 220 | | | 221 | 1.13M | p[n] = 0x80; /* there is always room for one */ | 222 | 1.13M | n++; | 223 | | | 224 | 1.13M | if (n > (HASH_CBLOCK - 8)) { | 225 | 19.1k | memset(p + n, 0, HASH_CBLOCK - n); | 226 | 19.1k | n = 0; | 227 | 19.1k | HASH_BLOCK_DATA_ORDER(c, p, 1); | 228 | 19.1k | } | 229 | 1.13M | memset(p + n, 0, HASH_CBLOCK - 8 - n); | 230 | | | 231 | 1.13M | p += HASH_CBLOCK - 8; | 232 | | #if defined(DATA_ORDER_IS_BIG_ENDIAN) | 233 | | (void)HOST_l2c(c->Nh, p); | 234 | | (void)HOST_l2c(c->Nl, p); | 235 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) | 236 | 1.13M | (void)HOST_l2c(c->Nl, p); | 237 | 1.13M | (void)HOST_l2c(c->Nh, p); | 238 | 1.13M | #endif | 239 | 1.13M | p -= HASH_CBLOCK; | 240 | 1.13M | HASH_BLOCK_DATA_ORDER(c, p, 1); | 241 | 1.13M | c->num = 0; | 242 | 1.13M | OPENSSL_cleanse(p, HASH_CBLOCK); | 243 | | | 244 | | #ifndef HASH_MAKE_STRING | 245 | | #error "HASH_MAKE_STRING must be defined!" | 246 | | #else | 247 | 1.13M | HASH_MAKE_STRING(c, md); | 248 | 1.13M | #endif | 249 | | | 250 | 1.13M | return 1; | 251 | 1.13M | } |
Line | Count | Source | 217 | 2.51M | { | 218 | 2.51M | unsigned char *p = (unsigned char *)c->data; | 219 | 2.51M | size_t n = c->num; | 220 | | | 221 | 2.51M | p[n] = 0x80; /* there is always room for one */ | 222 | 2.51M | n++; | 223 | | | 224 | 2.51M | if (n > (HASH_CBLOCK - 8)) { | 225 | 221 | memset(p + n, 0, HASH_CBLOCK - n); | 226 | 221 | n = 0; | 227 | 221 | HASH_BLOCK_DATA_ORDER(c, p, 1); | 228 | 221 | } | 229 | 2.51M | memset(p + n, 0, HASH_CBLOCK - 8 - n); | 230 | | | 231 | 2.51M | p += HASH_CBLOCK - 8; | 232 | | #if defined(DATA_ORDER_IS_BIG_ENDIAN) | 233 | | (void)HOST_l2c(c->Nh, p); | 234 | | (void)HOST_l2c(c->Nl, p); | 235 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) | 236 | 2.51M | (void)HOST_l2c(c->Nl, p); | 237 | 2.51M | (void)HOST_l2c(c->Nh, p); | 238 | 2.51M | #endif | 239 | 2.51M | p -= HASH_CBLOCK; | 240 | 2.51M | HASH_BLOCK_DATA_ORDER(c, p, 1); | 241 | 2.51M | c->num = 0; | 242 | 2.51M | OPENSSL_cleanse(p, HASH_CBLOCK); | 243 | | | 244 | | #ifndef HASH_MAKE_STRING | 245 | | #error "HASH_MAKE_STRING must be defined!" | 246 | | #else | 247 | 2.51M | HASH_MAKE_STRING(c, md); | 248 | 2.51M | #endif | 249 | | | 250 | 2.51M | return 1; | 251 | 2.51M | } |
Line | Count | Source | 217 | 2.28M | { | 218 | 2.28M | unsigned char *p = (unsigned char *)c->data; | 219 | 2.28M | size_t n = c->num; | 220 | | | 221 | 2.28M | p[n] = 0x80; /* there is always room for one */ | 222 | 2.28M | n++; | 223 | | | 224 | 2.28M | if (n > (HASH_CBLOCK - 8)) { | 225 | 84.1k | memset(p + n, 0, HASH_CBLOCK - n); | 226 | 84.1k | n = 0; | 227 | 84.1k | HASH_BLOCK_DATA_ORDER(c, p, 1); | 228 | 84.1k | } | 229 | 2.28M | memset(p + n, 0, HASH_CBLOCK - 8 - n); | 230 | | | 231 | 2.28M | p += HASH_CBLOCK - 8; | 232 | 2.28M | #if defined(DATA_ORDER_IS_BIG_ENDIAN) | 233 | 2.28M | (void)HOST_l2c(c->Nh, p); | 234 | 2.28M | (void)HOST_l2c(c->Nl, p); | 235 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) | 236 | | (void)HOST_l2c(c->Nl, p); | 237 | | (void)HOST_l2c(c->Nh, p); | 238 | | #endif | 239 | 2.28M | p -= HASH_CBLOCK; | 240 | 2.28M | HASH_BLOCK_DATA_ORDER(c, p, 1); | 241 | 2.28M | c->num = 0; | 242 | 2.28M | OPENSSL_cleanse(p, HASH_CBLOCK); | 243 | | | 244 | | #ifndef HASH_MAKE_STRING | 245 | | #error "HASH_MAKE_STRING must be defined!" | 246 | | #else | 247 | 2.28M | HASH_MAKE_STRING(c, md); | 248 | 2.28M | #endif | 249 | | | 250 | 2.28M | return 1; | 251 | 2.28M | } |
Line | Count | Source | 217 | 755M | { | 218 | 755M | unsigned char *p = (unsigned char *)c->data; | 219 | 755M | size_t n = c->num; | 220 | | | 221 | 755M | p[n] = 0x80; /* there is always room for one */ | 222 | 755M | n++; | 223 | | | 224 | 755M | if (n > (HASH_CBLOCK - 8)) { | 225 | 8.26k | memset(p + n, 0, HASH_CBLOCK - n); | 226 | 8.26k | n = 0; | 227 | 8.26k | HASH_BLOCK_DATA_ORDER(c, p, 1); | 228 | 8.26k | } | 229 | 755M | memset(p + n, 0, HASH_CBLOCK - 8 - n); | 230 | | | 231 | 755M | p += HASH_CBLOCK - 8; | 232 | 755M | #if defined(DATA_ORDER_IS_BIG_ENDIAN) | 233 | 755M | (void)HOST_l2c(c->Nh, p); | 234 | 755M | (void)HOST_l2c(c->Nl, p); | 235 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) | 236 | | (void)HOST_l2c(c->Nl, p); | 237 | | (void)HOST_l2c(c->Nh, p); | 238 | | #endif | 239 | 755M | p -= HASH_CBLOCK; | 240 | 755M | HASH_BLOCK_DATA_ORDER(c, p, 1); | 241 | 755M | c->num = 0; | 242 | 755M | OPENSSL_cleanse(p, HASH_CBLOCK); | 243 | | | 244 | | #ifndef HASH_MAKE_STRING | 245 | | #error "HASH_MAKE_STRING must be defined!" | 246 | | #else | 247 | 755M | HASH_MAKE_STRING(c, md); | 248 | 755M | #endif | 249 | | | 250 | 755M | return 1; | 251 | 755M | } |
Line | Count | Source | 217 | 3.77k | { | 218 | 3.77k | unsigned char *p = (unsigned char *)c->data; | 219 | 3.77k | size_t n = c->num; | 220 | | | 221 | 3.77k | p[n] = 0x80; /* there is always room for one */ | 222 | 3.77k | n++; | 223 | | | 224 | 3.77k | if (n > (HASH_CBLOCK - 8)) { | 225 | 59 | memset(p + n, 0, HASH_CBLOCK - n); | 226 | 59 | n = 0; | 227 | 59 | HASH_BLOCK_DATA_ORDER(c, p, 1); | 228 | 59 | } | 229 | 3.77k | memset(p + n, 0, HASH_CBLOCK - 8 - n); | 230 | | | 231 | 3.77k | p += HASH_CBLOCK - 8; | 232 | 3.77k | #if defined(DATA_ORDER_IS_BIG_ENDIAN) | 233 | 3.77k | (void)HOST_l2c(c->Nh, p); | 234 | 3.77k | (void)HOST_l2c(c->Nl, p); | 235 | | #elif defined(DATA_ORDER_IS_LITTLE_ENDIAN) | 236 | | (void)HOST_l2c(c->Nl, p); | 237 | | (void)HOST_l2c(c->Nh, p); | 238 | | #endif | 239 | 3.77k | p -= HASH_CBLOCK; | 240 | 3.77k | HASH_BLOCK_DATA_ORDER(c, p, 1); | 241 | 3.77k | c->num = 0; | 242 | 3.77k | OPENSSL_cleanse(p, HASH_CBLOCK); | 243 | | | 244 | | #ifndef HASH_MAKE_STRING | 245 | | #error "HASH_MAKE_STRING must be defined!" | 246 | | #else | 247 | 3.77k | HASH_MAKE_STRING(c, md); | 248 | 3.77k | #endif | 249 | | | 250 | 3.77k | return 1; | 251 | 3.77k | } |
|
252 | | |
253 | | #ifndef MD32_REG_T |
254 | | #if defined(__alpha) || defined(__sparcv9) || defined(__mips) |
255 | | #define MD32_REG_T long |
256 | | /* |
257 | | * This comment was originally written for MD5, which is why it |
258 | | * discusses A-D. But it basically applies to all 32-bit digests, |
259 | | * which is why it was moved to common header file. |
260 | | * |
261 | | * In case you wonder why A-D are declared as long and not |
262 | | * as MD5_LONG. Doing so results in slight performance |
263 | | * boost on LP64 architectures. The catch is we don't |
264 | | * really care if 32 MSBs of a 64-bit register get polluted |
265 | | * with eventual overflows as we *save* only 32 LSBs in |
266 | | * *either* case. Now declaring 'em long excuses the compiler |
267 | | * from keeping 32 MSBs zeroed resulting in 13% performance |
268 | | * improvement under SPARC Solaris7/64 and 5% under AlphaLinux. |
269 | | * Well, to be honest it should say that this *prevents* |
270 | | * performance degradation. |
271 | | */ |
272 | | #else |
273 | | /* |
274 | | * Above is not absolute and there are LP64 compilers that |
275 | | * generate better code if MD32_REG_T is defined int. The above |
276 | | * pre-processor condition reflects the circumstances under which |
277 | | * the conclusion was made and is subject to further extension. |
278 | | */ |
279 | | #define MD32_REG_T int |
280 | | #endif |
281 | | #endif |
282 | | |
283 | | #endif |