void cmsLab2XYZEncoded(WORD Lab[3], WORD XYZ[3])
{
double L, a, b;
double X, Y, Z, x, y, z;
L = ((double) Lab[0] * 100.0) / 65280.0;
if (L==0.0) {
XYZ[0] = 0; XYZ[1] = 0; XYZ[2] = 0;
return;
}
a = ((double) Lab[1] / 256.0) - 128.0;
b = ((double) Lab[2] / 256.0) - 128.0;
y = (L + 16.) / 116.0;
x = y + 0.002 * a;
z = y - 0.005 * b;
X = f_1(x) * D50X;
Y = f_1(y) * D50Y;
Z = f_1(z) * D50Z;
// Convert to 1.15 fixed format PCS
XYZ[0] = _cmsClampWord((int) floor(X * 32768.0 + 0.5));
XYZ[1] = _cmsClampWord((int) floor(Y * 32768.0 + 0.5));
XYZ[2] = _cmsClampWord((int) floor(Z * 32768.0 + 0.5));
}
// --------------------------------------------------
// Approx function Value - solution_set's value at x_pos
double Individual::approx_func(){
double x = get_x_pos();
double a, b;
a = f_1(x, solution_set.at(0), solution_set.at(1));
b = f_2(x, solution_set.at(2), solution_set.at(3));
approx_value = (a + b);
//cout << endl << "Approximate Value is: " << approx_value << endl;
return approx_value;
}
// -------------------------------------------------- // TODO - MOVE to Function
// Real Function Value - real coefficient_set's value at x_pos
double Individual::real_func(){
double x = get_x_pos();
double a, b;
a = f_1(x, real_set.at(0), real_set.at(1));
b = f_2(x, real_set.at(2), real_set.at(3));
real_value = (a + b);
//cout << endl << "real value is: " << real_value << endl;
return real_value;
}
int main(){
int a;
void (*f_1)()=NULL;
void (*f_2)()=NULL;
void * lib=NULL;
printf("What version of the functions you whant to use?\n");
printf("\t1 - Normal (test1)\n");
printf("\t2 - Optimized (test2)\n");
scanf("%d", &a);
if (a == 1){
printf("running the normal versions from \n");
/* call func_1 from test1 */
/* call func_2 from test1 */
lib = dlopen("/home/rui/psis/lab1/rui/V_VI/test1.so", RTLD_LAZY);
if (!lib)
{
printf("%s\n", dlerror());
exit(1);
}
}else{
if(a== 2){
printf("runnin the normal versions\n");
/* call func_1 from test2 */
/* call func_2 from test2 */
lib = dlopen("/home/rui/psis/lab1/rui/V_VI/test2.so", RTLD_LAZY);
if (!lib)
{
printf("%s\n", dlerror());
exit(1);
}
}else{
printf("Not running anything\n");
exit(3);
}
}
f_1 = dlsym(lib, "func_1");
f_2 = dlsym(lib, "func_2");
f_1();
f_2();
exit(0);
}
void LCMSEXPORT cmsLab2XYZ(LPcmsCIEXYZ WhitePoint, LPcmsCIEXYZ xyz, const cmsCIELab* Lab)
{
double x, y, z;
if (Lab -> L <= 0) {
xyz -> X = 0;
xyz -> Y = 0;
xyz -> Z = 0;
return;
}
if (WhitePoint == NULL)
WhitePoint = cmsD50_XYZ();
y = (Lab-> L + 16.0) / 116.0;
x = y + 0.002 * Lab -> a;
z = y - 0.005 * Lab -> b;
xyz -> X = f_1(x) * WhitePoint -> X;
xyz -> Y = f_1(y) * WhitePoint -> Y;
xyz -> Z = f_1(z) * WhitePoint -> Z;
}
/* heres another comment */
int
f(int a, float *b)
{
switch (a)
{
case 0:
return f_0(b);
break;
case 1:
return f_1(b);
break;
default:
return 1;
break;
}
}
ats_ptr_type
__ats_fun_2 (ats_ptr_type env0, ats_bool_type arg0) {
/* local vardec */
ATSlocal (ats_ptr_type, tmp12) ;
ATSlocal (ats_ptr_type, tmp13) ;
// ATSlocal_void (tmp14) ;
__ats_lab___ats_fun_2:
if (arg0) {
/* ats_ptr_type tmp13 ; */
/* tmp14 = */ f_1 (env0, (&tmp13)) ;
tmp12 = tmp13 ;
} else {
/* tmp12 = */ atslib_closedir_exn (env0) ;
} /* end of [if] */
return (tmp12) ;
} /* end of [__ats_fun_2] */
FIT_TEST_CASE()
{
int const x = 1;
int const y = 2;
FIT_TEST_CHECK( fit::lazy(f_1())( fit::lazy(f_1())(std::placeholders::_1))(x) == 1L );
FIT_TEST_CHECK( fit::lazy(f_1())( fit::lazy(f_2())(std::placeholders::_1, std::placeholders::_2))(x, y) == 21L );
FIT_TEST_CHECK( fit::lazy(f_2())( fit::lazy(f_1())(std::placeholders::_1), fit::lazy(f_1())(std::placeholders::_1))(x) == 11L );
FIT_TEST_CHECK( fit::lazy(f_2())( fit::lazy(f_1())(std::placeholders::_1), fit::lazy(f_1())( std::placeholders::_2))(x, y) == 21L );
FIT_TEST_CHECK( fit::lazy(f_1())( fit::lazy(f_0())())() == 17041L );
FIT_STATIC_TEST_CHECK( fit::lazy(f_1())( fit::lazy(f_1())(test_placeholder<1>()))(x) == 1L );
FIT_STATIC_TEST_CHECK( fit::lazy(f_1())( fit::lazy(f_2())(test_placeholder<1>(), test_placeholder<2>()))(x, y) == 21L );
FIT_STATIC_TEST_CHECK( fit::lazy(f_2())( fit::lazy(f_1())(test_placeholder<1>()), fit::lazy(f_1())(test_placeholder<1>()))(x) == 11L );
FIT_STATIC_TEST_CHECK( fit::lazy(f_2())( fit::lazy(f_1())(test_placeholder<1>()), fit::lazy(f_1())( test_placeholder<2>()))(x, y) == 21L );
FIT_STATIC_TEST_CHECK( fit::lazy(f_1())( fit::lazy(f_0())())() == 17041L );
FIT_TEST_CHECK( (fit::lazy(fv_1())( fit::lazy(f_1())(std::placeholders::_1))(x), (global_result == 1L)) );
FIT_TEST_CHECK( (fit::lazy(fv_1())( fit::lazy(f_2())(std::placeholders::_1, std::placeholders::_2))(x, y), (global_result == 21L)) );
FIT_TEST_CHECK( (fit::lazy(fv_2())( fit::lazy(f_1())(std::placeholders::_1), fit::lazy(f_1())(std::placeholders::_1))(x), (global_result == 11L)) );
FIT_TEST_CHECK( (fit::lazy(fv_2())( fit::lazy(f_1())(std::placeholders::_1), fit::lazy(f_1())( std::placeholders::_2))(x, y), (global_result == 21L)) );
FIT_TEST_CHECK( (fit::lazy(fv_1())( fit::lazy(f_0())())(), (global_result == 17041L)) );
}
