void test_pass(void) {
#ifdef COLOR
util_print("[%c[%d;%dm", CMD_SET, CMD_ATTR, PASS_COLOR);
util_print("PASS");
util_print("%c[%dm]\n", CMD_SET, CMD_RESET);
#else
util_print("[PASS]\n");
#endif
}
void test_fail(void) {
#ifdef COLOR
util_print("[%c[%d;%dm", CMD_SET, CMD_ATTR, FAIL_COLOR);
util_print("FAIL");
util_print("%c[%dm]\n", CMD_SET, CMD_RESET);
#else
util_print("[FAIL]\n");
#endif
}
void dv_print(dv_t a, int digits) {
int i;
/* Suppress possible unused parameter warning. */
(void) a;
for (i = digits - 1; i >= 0; i--) {
util_print("%.*lX", (int)(2 * sizeof(dig_t)), (unsigned long int)a[i]);
}
util_print("\n");
return;
}
void fb_param_print(void) {
int fa, fb, fc;
fb_poly_get_rdc(&fa, &fb, &fc);
if (fb == 0) {
util_banner("Irreducible trinomial:", 0);
util_print(" z^%d + z^%d + 1\n", FB_BITS, fa);
} else {
util_banner("Irreducible pentanomial:", 0);
util_print(" z^%d + z^%d + z^%d + z^%d + 1\n", FB_BITS, fa, fb, fc);
}
}
void bench_print(void) {
ctx_t *ctx = core_get();
#if TIMER == POSIX || TIMER == ANSI || (OPSYS == DUINO && TIMER == HREAL)
util_print("%lld microsec", ctx->total);
#elif TIMER == CYCLE
util_print("%lld cycles", ctx->total);
#else
util_print("%lld nanosec", ctx->total);
#endif
if (ctx->total < 0) {
util_print(" (overflow or bad overhead estimation)\n");
} else {
util_print("\n");
}
}
void dv_print(dig_t *a, int digits) {
int i;
/* Suppress possible unused parameter warning. */
(void)a;
for (i = digits - 1; i >= 0; i--) {
#if WORD == 64
util_print("%.*" PRIX64, (int)(2 * (DIGIT / 8)), (uint64_t)a[i]);
#else
util_print("%.*" PRIX32, (int)(2 * (DIGIT / 8)), (uint32_t)a[i]);
#endif
}
util_print("\n");
return;
}
void fp_param_print(void) {
util_banner("Prime modulus:", 0);
util_print(" ");
#if ALLOC == AUTO
fp_print(fp_prime_get());
#else
fp_print((const fp_t)fp_prime_get());
#endif
}
void dv_print(dig_t *a, int digits) {
int i;
/* Suppress possible unused parameter warning. */
(void)a;
for (i = digits - 1; i >= 0; i--) {
util_print_dig(a[i], 1);
}
util_print("\n");
return;
}
void bn_print(const bn_t a) {
int i;
if (a->sign == BN_NEG) {
util_print("-");
}
if (a->used == 0) {
util_print("0\n");
} else {
#if WORD == 64
util_print_dig(a->dp[a->used - 1], 0);
for (i = a->used - 2; i >= 0; i--) {
util_print_dig(a->dp[i], 1);
}
#else
util_print_dig(a->dp[a->used - 1], 0);
for (i = a->used - 2; i >= 0; i--) {
util_print_dig(a->dp[i], 1);
}
#endif
util_print("\n");
}
}
void fp_print(const fp_t a) {
int i;
bn_t t;
bn_null(t);
TRY {
bn_new(t);
#if FP_RDC == MONTY
if (a != fp_prime_get()) {
fp_prime_back(t, a);
} else {
bn_read_raw(t, a, RLC_FP_DIGS);
}
#else
bn_read_raw(t, a, RLC_FP_DIGS);
#endif
for (i = RLC_FP_DIGS - 1; i > 0; i--) {
if (i >= t->used) {
util_print_dig(0, 1);
} else {
util_print_dig(t->dp[i], 1);
}
util_print(" ");
}
util_print_dig(t->dp[0], 1);
util_print("\n");
} CATCH_ANY {
THROW(ERR_CAUGHT);
}
FINALLY {
bn_free(t);
}
}
void conf_print(void) {
#ifndef QUIET
util_print("-- RELIC " VERSION " configuration:\n\n");
#if ALLOC == STATIC
util_print("** Allocation mode: STATIC\n\n");
#elif ALLOC == DYNAMIC
util_print("** Allocation mode: DYNAMIC\n\n");
#elif ALLOC == STACK
util_print("** Allocation mode: STACK\n\n");
#elif ALLOC == AUTO
util_print("** Allocation mode: AUTO\n\n");
#endif
#if ARITH == EASY
util_print("** Arithmetic backend: easy\n\n");
#elif ARITH == GMP
util_print("** Arithmetic backend: gmp\n\n");
#else
util_print("** Arithmetic backend: " QUOTE(ARITH) "\n\n");
#endif
#ifdef LABEL
util_print("** Configured label: " QUOTE(LABEL) "\n\n");
#endif
#if BENCH > 1
util_print("** Benchmarking options:\n");
util_print(" Number of times: %d\n", BENCH * BENCH);
#ifdef OVERH
util_print(" Estimated overhead: ");
bench_overhead();
#endif
util_print("\n");
#endif
#ifdef WITH_BN
util_print("** Multiple precision module options:\n");
util_print(" Precision: %d bits, %d words\n", BN_BITS, BN_DIGS);
util_print(" Arithmetic method: " BN_METHD "\n\n");
#endif
#ifdef WITH_FP
util_print("** Prime field module options:\n");
util_print(" Prime size: %d bits, %d words\n", FP_BITS, FP_DIGS);
util_print(" Arithmetic method: " FP_METHD "\n\n");
#endif
#ifdef WITH_FPX
util_print("** Prime field extension module options:\n");
util_print(" Arithmetic method: " FPX_METHD "\n\n");
#endif
#ifdef WITH_EP
util_print("** Prime elliptic curve module options:\n");
util_print(" Arithmetic method: " EP_METHD "\n\n");
#endif
#ifdef WITH_PP
util_print("** Bilinear pairing module options:\n");
util_print(" Arithmetic method: " PP_METHD "\n\n");
#endif
#ifdef WITH_FB
util_print("** Binary field module options:\n");
util_print(" Polynomial size: %d bits, %d words\n", FB_BITS, FB_DIGS);
util_print(" Arithmetic method: " FB_METHD "\n\n");
#endif
#ifdef WITH_EB
util_print("** Binary elliptic curve module options:\n");
util_print(" Arithmetic method: " EB_METHD "\n\n");
#endif
#ifdef WITH_EC
util_print("** Elliptic Curve Cryptography module options:\n");
util_print(" Arithmetic method: " EC_METHD "\n\n");
#endif
#ifdef WITH_ED
util_print("** Edwards Curve Cryptography module options:\n");
util_print(" Arithmetic method: " ED_METHD "\n\n");
#endif
#ifdef WITH_MD
util_print("** Hash function module options:\n");
util_print(" Chosen method: " MD_METHD "\n\n");
#endif
#endif
}