int main (void)
{
test_c ('?');
test_d_i (0xdeadbeef, 0xdeadbeefL);
test_x ('?', 0xdead, 0xdeadbeef);
test_a_double (0.0);
test_e_double (0.0);
test_f_double (0.0);
test_g_double (0.0);
test_a_long_double ();
test_e_long_double (0.0);
test_f_long_double ();
test_g_long_double ();
test_s (0);
test_n ();
test_percent ();
if (nfails)
{
__builtin_printf ("%u out of %u tests failed\n", nfails, ntests);
__builtin_abort ();
}
return 0;
}
int main(int argc, char **args) {
(void) argc; (void) args;
test_s();
test_S();
test1();
return 0;
}
RealMat derivative4order(const PetscReal r, const PetscReal s, const PetscReal t,
const PetscInt order) {
PetscInt size = (order + 1) * (order + 1) * (order + 1);
RealVec test_r(size), test_s(size), test_t(size);
if (order == 1) {
interpolate_r_derivative_order1_hex(s, t, test_r.data());
interpolate_s_derivative_order1_hex(r, t, test_s.data());
interpolate_t_derivative_order1_hex(r, s, test_t.data());
} else if (order == 2) {
interpolate_r_derivative_order2_hex(r, s, t, test_r.data());
interpolate_s_derivative_order2_hex(r, s, t, test_s.data());
interpolate_t_derivative_order2_hex(r, s, t, test_t.data());
} else if (order == 3) {
interpolate_r_derivative_order3_hex(r, s, t, test_r.data());
interpolate_s_derivative_order3_hex(r, s, t, test_s.data());
interpolate_t_derivative_order3_hex(r, s, t, test_t.data());
} else if (order == 4) {
interpolate_r_derivative_order4_hex(r, s, t, test_r.data());
interpolate_s_derivative_order4_hex(r, s, t, test_s.data());
interpolate_t_derivative_order4_hex(r, s, t, test_t.data());
} else if (order == 5) {
interpolate_r_derivative_order5_hex(r, s, t, test_r.data());
interpolate_s_derivative_order5_hex(r, s, t, test_s.data());
interpolate_t_derivative_order5_hex(r, s, t, test_t.data());
} else if (order == 6) {
interpolate_r_derivative_order6_hex(r, s, t, test_r.data());
interpolate_s_derivative_order6_hex(r, s, t, test_s.data());
interpolate_t_derivative_order6_hex(r, s, t, test_t.data());
} else if (order == 7) {
interpolate_r_derivative_order7_hex(r, s, t, test_r.data());
interpolate_s_derivative_order7_hex(r, s, t, test_s.data());
interpolate_t_derivative_order7_hex(r, s, t, test_t.data());
}
#if HEX_MAX_ORDER > 7
else if (order == 8) {
interpolate_r_derivative_order8_hex(r, s, t, test_r.data());
interpolate_s_derivative_order8_hex(r, s, t, test_s.data());
interpolate_t_derivative_order8_hex(r, s, t, test_t.data());
} else if (order == 9) {
interpolate_r_derivative_order9_hex(r, s, t, test_r.data());
interpolate_s_derivative_order9_hex(r, s, t, test_s.data());
interpolate_t_derivative_order9_hex(r, s, t, test_t.data());
}
#endif
else {
ERROR() << "Order " << order << " not supported";
}
RealMat ret(size, 3);
ret.col(0) = test_r; ret.col(1) = test_s; ret.col(2) = test_t;
return ret;
}
/**
Run all tests on format library.
**/
static void run_tests( void )
{
test();
test_pc();
test_cC();
test_n();
test_s();
test_p();
test_di();
test_bouxX();
test_eEfFgG();
test_asterisk();
test_cont();
printf( "-----------------------\n"
"Overall: %s\n", f ? "FAIL" : "PASS" );
}
/**
Run all tests on format library.
**/
static void run_tests( void )
{
test();
test_pc();
test_cC();
test_n();
test_s();
test_p();
test_di();
test_bouxX();
test_eEfFgG();
test_k();
test_asterisk();
test_cont();
printf( "-----------------------\n"
"Summary: %s (%u failures)\n", f ? "FAIL" : "PASS", f );
}
static void TestS(void)
{
static char *strs[] = {
"",
"a",
"abc",
"abcde",
"abcdefABCDEF",
"abcdefghijklmnopqrstuvwxyz0123456789!@#$"
"ABCDEFGHIJKLMNOPQRSTUVWXYZ0123456789!@#$"
"abcdefghijklmnopqrstuvwxyz0123456789!@#$",
};
/* '0' is not relevant to printing strings */
static char *signs[] = {
"",
"-", "+", " ",
"-+", "- ", "+-", "+ ", " -", " +",
"-+ ", "- +", "+- ", "+ -", " -+", " +-",
};
static char *precs[] = {
"", "3", "5", "43",
".3", ".43",
"7.3", "7.5", "7.11", "7.43",
};
static char *formats[] = { "s" };
int f, s, n, p;
char fmt[40];
for (f = 0; f < countof(formats); f++) {
for (s = 0; s < countof(signs); s++) {
for (p = 0; p < countof(precs); p++) {
fmt[0] = '%';
fmt[1] = 0;
if (signs[s]) strcat(fmt+strlen(fmt), signs[s]);
if (precs[p]) strcat(fmt+strlen(fmt), precs[p]);
if (formats[f]) strcat(fmt+strlen(fmt), formats[f]);
for (n = 0; n < countof(strs); n++) {
test_s(fmt, strs[n]);
}
}
}
}
}
int main(int argc, const char *argv[])
{
size_t sum = 0;
common::Timer t1;
for (int i=0; i<1e4; ++i)
sum += test_v(1000).size();
std::cout << sum << " "<< t1 << "\n";
sum=0;
t1.restart();
for (int i=0; i<1e4; ++i)
sum += test_a(1000).size();
std::cout << sum << " "<< t1 << "\n";
sum=0;
t1.restart();
for (int i=0; i<1e4; ++i)
sum += test_s(1000).size();
std::cout << sum << " "<< t1 << "\n";
return 0;
}