#include "crypt-port.h" #include "crypt-base.h" #include #include #include #include static const char *const entropy[] = { "\x58\x35\xcd\x26\x03\xab\x2c\x14\x92\x13\x1e\x59\xb0\xbc\xfe\xd5", "\x9b\x35\xa2\x45\xeb\x68\x9e\x8f\xd9\xa9\x09\x71\xcc\x4d\x21\x44", "\x25\x13\xc5\x94\xc3\x93\x1d\xf4\xfd\xd4\x4f\xbd\x10\xe5\x28\x08", "\xa0\x2d\x35\x70\xa8\x0b\xc3\xad\xdf\x61\x69\xb3\x19\xda\x7e\x8d", 0 }; #if INCLUDE_des || INCLUDE_des_big static const char *const des_expected_output[] = { "Mp", "Pp", "ZH", "Uh"}; #endif #if INCLUDE_des_xbsd static const char *const bsdi_expected_output[] = { "_J9..MJHn", "_J9..PKXc", "_J9..ZAFl", "_J9..UqGB" }; static const char *const bsdi_expected_output_r[] = { "_DT0.MJHn", "_DT0.PKXc", "_DT0.ZAFl", "_DT0.UqGB" }; #endif #if INCLUDE_md5 static const char *const md5_expected_output[] = { "$1$MJHnaAke", "$1$PKXc3hCO", "$1$ZAFlICwY", "$1$UqGBkVu0" }; #endif #if INCLUDE_nthash static const char *const nthash_expected_output[] = { "$3$__not_used__c809a450df09a3", "$3$__not_used__30d0d6f834c0c3", "$3$__not_used__0eeeebb83d6fe4", "$3$__not_used__1c690d6a9ef88c" }; #endif #if INCLUDE_sunmd5 static const char *const sunmd5_expected_output[] = { "$md5,rounds=55349$BPm.fm03$", "$md5,rounds=72501$WKoucttX$", "$md5,rounds=42259$3HtkHq/x$", "$md5,rounds=73773$p.5e9AQf$", }; static const char *const sunmd5_expected_output_r[] = { "$md5,rounds=4294920244$BPm.fm03$", "$md5,rounds=4294937396$WKoucttX$", "$md5,rounds=4294907154$3HtkHq/x$", "$md5,rounds=4294938668$p.5e9AQf$", }; #endif #if INCLUDE_sha1 static const char *const sha1_expected_output[] = { "$sha1$248488$ggu.H673kaZ5$", "$sha1$248421$SWqudaxXA5L0$", "$sha1$257243$RAtkIrDxEovH$", "$sha1$250464$1j.eVxRfNAPO$", }; static const char *const sha1_expected_output_r[] = { "$sha1$3643984551$ggu.H673kaZ5$", "$sha1$4200450659$SWqudaxXA5L0$", "$sha1$3946507480$RAtkIrDxEovH$", "$sha1$3486175838$1j.eVxRfNAPO$", }; #endif #if INCLUDE_sha256 static const char *const sha256_expected_output[] = { "$5$MJHnaAkegEVYHsFK", "$5$PKXc3hCOSyMqdaEQ", "$5$ZAFlICwYRETzIzIj", "$5$UqGBkVu01rurVZqg" }; static const char *const sha256_expected_output_r[] = { "$5$rounds=10191$MJHnaAkegEVYHsFK", "$5$rounds=10191$PKXc3hCOSyMqdaEQ", "$5$rounds=10191$ZAFlICwYRETzIzIj", "$5$rounds=10191$UqGBkVu01rurVZqg" }; #endif #if INCLUDE_sha512 static const char *const sha512_expected_output[] = { "$6$MJHnaAkegEVYHsFK", "$6$PKXc3hCOSyMqdaEQ", "$6$ZAFlICwYRETzIzIj", "$6$UqGBkVu01rurVZqg" }; static const char *const sha512_expected_output_r[] = { "$6$rounds=10191$MJHnaAkegEVYHsFK", "$6$rounds=10191$PKXc3hCOSyMqdaEQ", "$6$rounds=10191$ZAFlICwYRETzIzIj", "$6$rounds=10191$UqGBkVu01rurVZqg" }; #endif #if INCLUDE_bcrypt static const char *const bcrypt_a_expected_output[] = { "$2a$05$UBVLHeMpJ/QQCv3XqJx8zO", "$2a$05$kxUgPcrmlm9XoOjvxCyfP.", "$2a$05$HPNDjKMRFdR7zC87CMSmA.", "$2a$05$mAyzaIeJu41dWUkxEbn8hO" }; static const char *const bcrypt_b_expected_output[] = { "$2b$05$UBVLHeMpJ/QQCv3XqJx8zO", "$2b$05$kxUgPcrmlm9XoOjvxCyfP.", "$2b$05$HPNDjKMRFdR7zC87CMSmA.", "$2b$05$mAyzaIeJu41dWUkxEbn8hO" }; static const char *const bcrypt_x_expected_output[] = { "$2x$05$UBVLHeMpJ/QQCv3XqJx8zO", "$2x$05$kxUgPcrmlm9XoOjvxCyfP.", "$2x$05$HPNDjKMRFdR7zC87CMSmA.", "$2x$05$mAyzaIeJu41dWUkxEbn8hO" }; static const char *const bcrypt_y_expected_output[] = { "$2y$05$UBVLHeMpJ/QQCv3XqJx8zO", "$2y$05$kxUgPcrmlm9XoOjvxCyfP.", "$2y$05$HPNDjKMRFdR7zC87CMSmA.", "$2y$05$mAyzaIeJu41dWUkxEbn8hO" }; #endif struct testcase { const char *prefix; const char *const *expected_output; unsigned int expected_len; unsigned int expected_auto_len; unsigned long rounds; }; static const struct testcase testcases[] = { #if INCLUDE_des || INCLUDE_des_big { "", des_expected_output, 2, 0, 0 }, // DES doesn't have variable round count. #endif #if INCLUDE_des_xbsd { "_", bsdi_expected_output, 9, 0, 0 }, { "_", bsdi_expected_output_r, 9, 0, 10191 }, #endif #if INCLUDE_md5 { "$1$", md5_expected_output, 11, 0, 0 }, // MD5/BSD doesn't have variable round count. #endif #if INCLUDE_nthash { "$3$", nthash_expected_output, 29, 0, 0 }, // NTHASH doesn't have variable round count. #endif #if INCLUDE_sunmd5 { "$md5", sunmd5_expected_output, 27, 0, 0 }, // SHA1/PBKDF always emits a round count, but we need to test its // behavior on very large inputs. (This number is the largest // supported round count.) { "$md5", sunmd5_expected_output_r, 32, 0, 4294963199ul }, #endif #if INCLUDE_sha1 { "$sha1", sha1_expected_output, 26, 34, 0 }, // SHA1/PBKDF always emits a round count, but we need to test its // behavior on very large inputs. (The behavior should be the // same whether or not ULONG_MAX > UINT32_MAX.) { "$sha1", sha1_expected_output_r, 30, 38, ULONG_MAX }, #endif #if INCLUDE_sha256 { "$5$", sha256_expected_output, 19, 0, 0 }, { "$5$", sha256_expected_output_r, 32, 0, 10191 }, #endif #if INCLUDE_sha512 { "$6$", sha512_expected_output, 19, 0, 0 }, { "$6$", sha512_expected_output_r, 32, 0, 10191 }, #endif #if INCLUDE_bcrypt { "$2a$", bcrypt_a_expected_output, 29, 0, 0 }, { "$2b$", bcrypt_b_expected_output, 29, 0, 0 }, { "$2x$", bcrypt_x_expected_output, 29, 0, 0 }, { "$2y$", bcrypt_y_expected_output, 29, 0, 0 }, // bcrypt gensalt always emits a round count. #endif { 0, 0, 0, 0, 0 } }; int main (void) { int status = 0; unsigned int ent; const struct testcase *tcase; char output[CRYPT_GENSALT_OUTPUT_SIZE]; char prev_output[CRYPT_GENSALT_OUTPUT_SIZE]; for (tcase = testcases; tcase->prefix; tcase++) { XCRYPT_SECURE_MEMSET (prev_output, CRYPT_GENSALT_OUTPUT_SIZE); for (ent = 0; ent < ARRAY_SIZE (entropy); ent++) { XCRYPT_SECURE_MEMSET (output, CRYPT_GENSALT_OUTPUT_SIZE); char *salt = crypt_gensalt_rn (tcase->prefix, tcase->rounds, entropy[ent], 16, output, CRYPT_GENSALT_OUTPUT_SIZE); if (salt == 0) { if (entropy[ent] == 0 && errno == ENOSYS) { fprintf (stderr, "UNSUPPORTED: %s/auto-entropy -> ENOSYS\n", tcase->prefix); } else { fprintf (stderr, "ERROR: %s/%u -> 0\n", tcase->prefix, ent); status = 1; } continue; } size_t slen = strlen (salt); unsigned int expected_len = (!entropy[ent] && tcase->expected_auto_len) ? tcase->expected_auto_len : tcase->expected_len; if (slen != expected_len) { fprintf (stderr, "ERROR: %s/%u -> %s (expected len=%u got %zu)\n", tcase->prefix, ent, salt, expected_len, slen); status = 1; } else if (strncmp (salt, tcase->prefix, strlen (tcase->prefix))) { fprintf (stderr, "ERROR: %s/%u -> %s (prefix wrong)\n", tcase->prefix, ent, salt); status = 1; } else if (!strcmp (salt, prev_output)) { fprintf (stderr, "ERROR: %s/%u -> %s (same as prev)\n", tcase->prefix, ent, salt); status = 1; } else if (entropy[ent] && strcmp (salt, tcase->expected_output[ent])) { fprintf (stderr, "ERROR: %s/%u -> %s (expected %s)\n", tcase->prefix, ent, salt, tcase->expected_output[ent]); status = 1; } else fprintf (stderr, " ok: %s/%u -> %s\n", tcase->prefix, ent, salt); XCRYPT_SECURE_MEMSET (prev_output, CRYPT_GENSALT_OUTPUT_SIZE); strncpy (prev_output, salt, CRYPT_GENSALT_OUTPUT_SIZE -1 ); } } /* Currently, passing a null pointer as the prefix argument to crypt_gensalt is supposed to produce a bcrypt-mode-2b setting string. */ { char *setting1, *setting2; setting1 = crypt_gensalt_ra ("$2b$", 0, entropy[0], 16); setting2 = crypt_gensalt_ra (0, 0, entropy[0], 16); if ((setting1 == 0 && setting2 != 0) || (setting1 != 0 && setting2 == 0) || (setting1 != 0 && setting2 != 0 && strcmp (setting1, setting2))) { printf ("FAILED: crypt_gensalt defaulting to $2b$\n" " $2b$ -> %s\n" " null -> %s\n", setting1, setting2); status = 1; } free (setting1); free (setting2); } #if INCLUDE_bcrypt /* FIXME: This test is a little too specific. It used to be in test-bcrypt.c and I'm not sure what it's meant to be testing. */ { char *setting1, *setting2; const char *which = "$2a$05$CCCCCCCCCCCCCCCCCCCCC.E5YPO9kmyuRGyh0XouQYb4YMJKvyOeW"; setting1 = crypt_gensalt (which, 12, "CCCCCCCCCCCCCCCCCCCCC", 21); if (!setting1 || strncmp (setting1, "$2a$12$", 7)) { printf ("FAILED (crypt_gensalt: wrong prefix) s1=%s\n", setting1); status = 1; } setting2 = crypt_gensalt_ra (setting1, 12, "CCCCCCCCCCCCCCCCCCCCC", 21); if (strcmp (setting1, setting2)) { printf ("FAILED (crypt_gensalt_ra/1: s1=%s s2=%s)\n", setting1, setting2); status = 1; } setting1 = crypt_gensalt_ra (setting2, 12, "DCCCCCCCCCCCCCCCCCCCC", 21); if (!strcmp (setting1, setting2)) { printf ("FAILED (crypt_gensalt_ra/2: s1=%s s2=%s)\n", setting1, setting2); status = 1; } free (setting1); free (setting2); } #endif return status; }