/**\brief Calculates the value from pixel offset
*/
float Slider::PixelToVal( int pixels ){
float value;
value = (TO_FLOAT(pixels) / TO_FLOAT(w)); // Ratio of the pixels
value *= (maxval - minval); // Multiply by range
value += minval; // Add Baseline
return value;
}
void en_encoder (bool state,PUCHAR encBaseAddr)
#endif
{
#ifndef WINDOWS_NT
word indexPort, dataPort;
#else
PUCHAR indexPort, dataPort;
#endif
byte colorTab[256][3];
word i, j;
if (state)
init_luts();
else
{
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
colorTab[i][j] = 0;
indexPort = encBaseAddr + 0x10 + 0x00;
dataPort = encBaseAddr + 0x10 + 0x01;
outp (indexPort, 0);
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
outp (dataPort, colorTab[i][j]);
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
{
colorTab[i][j] = (byte)TO_INT((colorTab[i][j] * TO_FLOAT(220) / 256)
+ TO_FLOAT(16) + (TO_FLOAT(1) / 2)
);
// ((double)(colorTab[i][j]*220.0/256.0)+ 16.0 + 0.5) );
}
indexPort = encBaseAddr + 0x04 + 0x00;
dataPort = encBaseAddr + 0x04 + 0x01;
outp (indexPort, 0);
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
outp (dataPort, colorTab[i][j]);
#ifndef WINDOWS_NT
inp (encBaseAddr + 0x04 + 0x03); /* To activate the CLUT */
#else
inp ((PUCHAR)(encBaseAddr + 0x04 + 0x03)); /* To activate the CLUT */
#endif
}
}
void init_luts()
{
#ifndef WINDOWS_NT
word indexPort, dataPort;
#else
PUCHAR indexPort, dataPort;
#endif
byte colorTab[256][3];
word i, j;
dword tmp;
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
colorTab[i][j] = (byte)i;
indexPort = encBaseAddr + DAC_LUT_CTRL_WR;
dataPort = encBaseAddr + DAC_LUT_DATA;
outp (indexPort, 0);
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
{
tmp = TO_INT((dword)colorTab[i][j] * gain);
if (tmp > 0xff) tmp = 0xff;
outp (dataPort, (byte)tmp);
}
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
{
tmp = TO_INT( (((dword)colorTab[i][j] * (dword)220 * gain) / (dword)256)
+ TO_FLOAT(16) + (TO_FLOAT(1) / 2)
);
if ( tmp > 0xeb )
colorTab[i][j] = 0xeb;
else
colorTab[i][j] = (byte)tmp;
}
// colorTab[i][j] = (double)(colorTab[i][j]*220.0/256.0)
// + 16.0 + 0.5;
indexPort = encBaseAddr + DENC_CLUT_CTRL_WR;
dataPort = encBaseAddr + DENC_CLUT_DATA;
outp (indexPort, 0);
for (i = 0; i < 256; i++)
for (j = 0; j < 3; j++)
outp (dataPort, colorTab[i][j]);
inp (encBaseAddr + DENC_DATA_CTRL); /* To activate the CLUT */
}
/**\brief Calculates the marker position from pixel offset.
*/
int Scrollbar::MarkerPixelToPos( int xr, int yr ){
int effectivelen;
int newpos;
int marksize = this->GetMarkerSize();
int effectivestart = bitmaps[2]->GetHeight() + marksize / 2;
effectivelen = this->h - marksize - bitmaps[1]->GetHeight() - bitmaps[2]->GetHeight();
newpos = TO_INT(TO_FLOAT(yr - effectivestart) / TO_FLOAT(effectivelen) * (maxpos - h));
return newpos;
}
/**\brief Calculates the marker position in pixel offset.
*/
int Scrollbar::MarkerPosToPixel( void ){
int markerpos;
int effectivelen;
float posratio; // 0 - 1 ratio of marker position
effectivelen = this->h - 2 * SCROLLBAR_BTN - this->GetMarkerSize();
posratio = TO_FLOAT(pos) / TO_FLOAT(maxpos - (this-> h + 2 * SCROLLBAR_PAD));
markerpos = SCROLLBAR_BTN + static_cast<int>(effectivelen* posratio);
return markerpos;
}
/**\brief Calculates the value from pixel offset
*/
float Slider::PixelToVal( int pixels ){
float value;
if ( this->maxval < this->minval )
value = (TO_FLOAT(pixels - SLIDER_MW/2 )
/ TO_FLOAT(GetW() - SLIDER_MW))
* ( minval - maxval) + maxval;
else
value = (TO_FLOAT(pixels - SLIDER_MW/2)
/ TO_FLOAT(GetW() - SLIDER_MW))
* ( maxval - minval) + minval;
return value;
}
/**\brief Calculates the marker position in pixel offset.
*/
int Scrollbar::MarkerPosToPixel( void ){
int markerpos;
int effectivelen;
float posratio; // 0 - 1 ratio of marker position
effectivelen = this->h - GetMarkerSize() - bitmaps[1]->GetHeight() - bitmaps[2]->GetHeight();
posratio = TO_FLOAT(pos) / TO_FLOAT(maxpos - (this-> h ));
markerpos = bitmaps[1]->GetHeight() + static_cast<int>(effectivelen* posratio);
return markerpos;
}
/**\brief Calculates the marker position from pixel offset.
*/
int Scrollbar::MarkerPixelToPos( int xr, int yr ){
int effectivelen;
int screenlen;
int newpos;
int marksize = this->GetMarkerSize();
int effectivestart = SCROLLBAR_BTN + marksize / 2;
effectivelen = this->h - 2 * SCROLLBAR_BTN - marksize;
screenlen = this->h + 2 * SCROLLBAR_PAD;
newpos = TO_INT(TO_FLOAT(yr - effectivestart) / TO_FLOAT(effectivelen) * (maxpos - screenlen));
return newpos;
}
FLOAT /*{ ret - floor(x)}*/
_floorf(
FLOAT x /*{ (i) - value for which to compute floorf }*/
)
{
FLOAT y;
/*{ y = |x| }*/
y = x;
if (x < (FLOAT)0.0)
{
y = -y;
}
/*{ if x > 2^24 (max 23-bit int), result = x }*/
if (y >= (FLOAT)16777216.0)
{
return x;
}
/*{ y = truncate(x) }*/
y = TO_FLOAT(TO_LONG(x));
/*{ if y > x, result = result - 1.0 }*/
if (y > x)
{
y = SUB(y, 1.0);
}
return y;
}
FLOAT /*{ ret - modf(x)}*/
_modff(
FLOAT x, /*{ (i) - value for which to compute modff }*/
FLOAT *i /*{ (o) - address to which integer part is written }*/
)
{
FLOAT y;
FLOAT fract;
/*{ y = |x| }*/
y = x;
if (x < (FLOAT)0.0)
{
y = -y;
}
/*{ if |x| > 2^24 (max 23-bit int) }*/
if (y >= (FLOAT)16777216.0)
{
/*{ int = x }*/
/*{ return fract = 0.0 }*/
*i = x;
return (FLOAT)0.0;
}
/*{ if |x| < 1 }*/
if (y < (FLOAT)1.0)
{
/*{ int = 0 }*/
/*{ return fract = x }*/
*i = (FLOAT)0.0;
return x;
}
/*{ y = truncate(|x|) }*/
y = TO_FLOAT(TO_LONG(y));
/*{ if x < 0, y = -y }*/
if (x < (FLOAT)0.0)
{
y = -y;
}
/*{ fract = x - y }*/
fract = SUB(x, y);
/*{ *i = y }*/
*i = y;
return fract;
}
void
stage1( SAMPLE *samples, float *floats )
{
uint32_t sum = 0;
float avg = 0;
SUM_DATA( SAMPLES_PER_MSG, samples, sum );
avg = (float) sum / SAMPLES_PER_MSG;
TO_FLOAT( SAMPLES_PER_MSG, samples, floats );
ADD_SCALAR( SAMPLES_PER_MSG, floats, -avg );
}
gboolean
draw_callback(GtkWidget *widget, cairo_t *cr, gpointer data)
{
guint width, height;
GdkRGBA color;
width = gtk_widget_get_allocated_width (widget);
height = gtk_widget_get_allocated_height (widget);
gtk_style_context_get_color (gtk_widget_get_style_context (widget),
0,
&color);
gdk_cairo_set_source_rgba (cr, &color);
int draw_offset = (int) gtk_adjustment_get_value(scroll_adj);
int frames = gtk_spin_button_get_value_as_int(GTK_SPIN_BUTTON(window_spin));
double x = 0.0;
double x_step = (double) width / (double) frames;
cairo_move_to(cr, x, (height/2.0 - (TO_FLOAT(snd_data[draw_offset]) * height / 2.0 )));
for(int i=1; i < frames; i++) {
x += x_step;
cairo_line_to(cr, x, (height/2.0 - (TO_FLOAT(snd_data[i+draw_offset]) * height / 2.0 )));
if(i%200 == 0) {
cairo_stroke(cr);
cairo_move_to(cr, x, (height/2.0 - (TO_FLOAT(snd_data[i+draw_offset]) * height / 2.0 )));
}
}
cairo_stroke(cr);
color.red = 1.0;
color.green = color.blue = 0.0;
color.alpha = 1.0;
gdk_cairo_set_source_rgba(cr, &color);
x = 0.0;
cairo_move_to(cr, x, (height/2.0 - (TO_FLOAT(p_pos[draw_offset]) * height / 2.0 )));
for(int i=1; i < frames; i++) {
x += x_step;
cairo_line_to(cr, x, (height/2.0 - (TO_FLOAT(p_pos[i+draw_offset]) * height / 2.0 )));
if(i%200 == 0) {
cairo_stroke(cr);
cairo_move_to(cr, x, (height/2.0 - (TO_FLOAT(p_pos[i+draw_offset]) * height / 2.0 )));
}
}
cairo_stroke(cr);
cairo_fill (cr);
return FALSE;
}
void StatusBar::Update( lua_State* L ) {
int returnvals, retpos = -1;
// Run the StatusBar Updater
returnvals = Lua::Run( lua_updater, true );
// Get the new StatusBar Status
if (returnvals == 0) {
SetName( "" );
SetRatio( 0.0f );
} else if (lua_isnumber(L, retpos) && ( lua_tonumber(L,retpos)>=0.0 && lua_tonumber(L,retpos)<=1.0) ) {
SetName( "" );
SetRatio( TO_FLOAT(lua_tonumber(L, retpos)) );
} else if (lua_isstring(L, retpos)) {
SetRatio( 0.0f );
SetName( string(lua_tostring(L, retpos)) );
} else {
LogMsg(ERR,"Error running '%s': %s", lua_updater.c_str(), lua_tostring(L, retpos));
}
lua_pop(L,returnvals);
}
/** \brief Create a new Slider
*
* \returns Lua userdata containing pointer to Slider.
*/
int UI_Lua::newSlider(lua_State *L){
int n = lua_gettop(L); // Number of arguments
if ( (n != 5) && (n != 6) && (n != 7) )
return luaL_error(L,
"Got %d arguments expected 5 or 6(x, y, w, h, label, [position], [callback] )", n);
int x = int(luaL_checknumber (L, 1));
int y = int(luaL_checknumber (L, 2));
int w = int(luaL_checknumber (L, 3));
int h = int(luaL_checknumber (L, 4));
string label = luaL_checkstring (L, 5);
float position = 0.5f;
string callback = "";
for(int index=6; index<=7; ++index )
{
if ( lua_isnumber(L, index) ) {
position = TO_FLOAT( luaL_checknumber(L, index) );
} else if ( lua_isstring(L, index) ) {
callback = luaL_checkstring(L, index);
}
}
// Allocate memory for a pointer to object
Slider **slider= (Slider**)lua_newuserdata(L, sizeof(Slider**));
luaL_getmetatable(L, EPIAR_UI);
lua_setmetatable(L, -2);
if (n == 7) {
*slider = new Slider(x,y,w,h,label,position,callback);
} else if (n == 6) {
*slider = new Slider(x,y,w,h,label,position);
} else {
*slider = new Slider(x,y,w,h,label);
}
return 1;
}
/*
* NaN: any float with maximum exponent (0x7f8) and non-zero fraction
*/
int __cdecl main(int argc, char *argv[])
{
/*
* Initialize the PAL and return FAIL if this fails
*/
if (PAL_Initialize(argc, argv) != 0)
{
return FAIL;
}
/*
* Try some trivial values
*/
if (_isnanf(0.0f))
{
Fail("_isnanf() incorrectly identified %f as NaN!\n", 0.0f);
}
if (_isnanf(1.234567f))
{
Fail("_isnanf() incorrectly identified %f as NaN!\n", 1.234567f);
}
if (_isnanf(42.0f))
{
Fail("_isnanf() incorrectly identified %f as NaN!\n", 42.0f);
}
UINT32 lneginf = 0xff800000u;
UINT32 lposinf = 0x7f800000u;
float neginf = TO_FLOAT(lneginf);
float posinf = TO_FLOAT(lposinf);
/*
* Try positive and negative infinity
*/
if (_isnanf(neginf))
{
Fail("_isnanf() incorrectly identified negative infinity as NaN!\n");
}
if (_isnanf(posinf))
{
Fail("_isnanf() incorrectly identified infinity as NaN!\n");
}
/*
* Try setting the least significant bit of the fraction,
* positive and negative
*/
UINT32 lsnan = 0xff800001u;
float snan = TO_FLOAT(lsnan);
if (!_isnanf(snan))
{
Fail("_isnanf() failed to identify %I32x as NaN!\n", lsnan);
}
UINT32 lqnan = 0x7f800001u;
float qnan = TO_FLOAT(lqnan);
if (!_isnanf(qnan))
{
Fail("_isnanf() failed to identify %I32x as NaN!\n", lqnan);
}
/*
* Try setting the most significant bit of the fraction,
* positive and negative
*/
lsnan = 0xffc00000u;
snan = TO_FLOAT(lsnan);
if (!_isnanf(snan))
{
Fail ("_isnanf() failed to identify %I32x as NaN!\n", lsnan);
}
lqnan = 0x7fc00000u;
qnan = TO_FLOAT(lqnan);
if (!_isnanf(qnan))
{
Fail ("_isnanf() failed to identify %I32x as NaN!\n", lqnan);
}
PAL_Terminate();
return PASS;
}
//////////////////////////////////////////////////////////////////////////////////////////////////////
// run a step
float Remesh::RunColorStep() {
cur_iter++;
cerr << "ITERATION ( " << cur_iter << ") " << endl;
// COMPUTE THE MESH DISPLACEMENT
for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
vi->delta = Kernel::Vector_3(0,0,0);
vi->delta_tmp = Kernel::Vector_3(0,0,0);
}
// from current to the closest destination point
for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
#if MOVE_THE_MESH
Kernel::Point_3 closest_point = dst_mesh.closestColorPoint(vi->point(), (float *)(vi->color));
//Kernel::Point_3 closest_point = dst_mesh.closestPoint(vi->point());
#else
Kernel::Point_3 tmp_point = vi->point() + vi->motion_vec;
Kernel::Point_3 closest_point = dst_mesh.closestColorPoint(tmp_point, (float *)(vi->color));
#endif
//cerr << "closest_point (" << closest_point << ") has ID " << dst_mesh.vertex_mapping[closest_point]->id << endl;
//Kernel::Vector_3 closest_normal = dst_mesh.vertex_mapping[closest_point]->normal();
//Kernel::Vector_3 closest_normal = dst_mesh.vertexMapping(closest_point)->normal();
/*
vi->delta = closest_point - vi->point();
bool is_outside = v_norm((closest_point + closest_normal*v_norm(vi->delta)) - vi->point()) < v_norm(vi->delta);
// bool is_outside = v_norm(v_normalized(closest_normal) + v_normalized(vi->delta)) < 1.4142;
// bool is_outside = v_angle(closest_normal, vi->delta) > PI/2;
double dist_sign = (is_outside?1:-1);
vi->delta = vi->normal()*v_norm(vi->delta)*(-1)*dist_sign;
*/
vi->delta = closest_point- (vi->point() + vi->motion_vec);
//vi->delta = vi->normal()* (closest_normal*(closest_point-vi->point()));
// vi->delta == v_normalized(data->mesh.computeVectorComponent(vi->normal(),vi->delta,1))*v_norm(vi->delta);
// vi->delta = v_normalized(vi->delta)*data->mesh.computeVertexStatistics(*vi,1)*0.05;
// vi->delta = vi->normal(); //*alg_dt
}
// NORMALIZE the movements
float total_movement = 0;
int total_elements = 0;
double max_delta = data->mesh.edge_avg*alg_dt;
for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
//vi->delta = v_normalized(vi->delta)*data->mesh.computeVertexStatistics(*vi,1)*0.1;
// double max_delta = data->mesh.computeVertexStatistics(*vi,1)*alg_dt;
// double min_delta = data->mesh.edge_avg/5;
// vi->delta = vi->delta;
// vi->delta = vi->delta + v_normalized(vi->delta)*(RAND_MAX/2-std::rand())*1.0/RAND_MAX*data->mesh.edge_avg/2*alg_smoothing;
// vi->delta = v_normalized(vi->delta)*max_delta;
double the_norm = v_norm(vi->delta);
if (the_norm > max_delta) {
vi->delta = v_normalized(vi->delta)*max_delta;
}
// if (the_norm < min_delta) vi->delta = v_normalized(vi->delta)*min_delta;
the_norm = v_norm(vi->delta);
if (! MOVE_THE_MESH || the_norm > max_delta*0.5) {
total_elements++;
total_movement += v_norm(vi->delta);
}
//vi->delta = vi->delta + Kernel::Vector_3((RAND_MAX/2-std::rand())*1.0/RAND_MAX, (RAND_MAX/2-std::rand())*1.0/RAND_MAX, (RAND_MAX/2-std::rand())*1.0/RAND_MAX)*data->mesh.computeVertexStatistics(*vi,1)*alg_smoothing;
// vi->delta = vi->delta + data->mesh.computeVectorComponent(vi->normal(),vi->laplacian()*alg_dt,0);
//vi->delta = vi->delta + vi->laplacian()*alg_smoothing;
}
data->mesh.diffuse(alg_smoothing, 0);
#if ADD_LENGTH_CONSTRAINT
for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
// Add a cost for preserving the smoothness and the geometry of the mesh
HV_circulator h = vi->vertex_begin();
double geom_vx = 0 ;
double geom_vy = 0 ;
double geom_vz = 0 ;
int order=0;
do
{
const float xx = TO_FLOAT ( vi->point().x() );
const float yy = TO_FLOAT ( vi->point().y() );
const float zz = TO_FLOAT ( vi->point().z() );
const float xxx = TO_FLOAT ( h->opposite()->vertex()->point().x()) ;
const float yyy = TO_FLOAT ( h->opposite()->vertex()->point().y()) ;
const float zzz = TO_FLOAT ( h->opposite()->vertex()->point().z()) ;
double d = (xx - xxx) * (xx - xxx) + (yy - yyy) * (yy - yyy) + (zz - zzz) * (zz - zzz) ;
#if MOVE_THE_MESH
double t_d2x = (xx + vi->delta[0]) - (xxx + h->opposite()->vertex()->delta[0]) ;
double t_d2y = (yy + vi->delta[1]) - (yyy + h->opposite()->vertex()->delta[1]) ;
double t_d2z = (zz + vi->delta[2]) - (zzz + h->opposite()->vertex()->delta[2]) ;
#else
double t_d2x = (xx + vi->motion_vec[0] + vi->delta[0]) - (xxx + h->opposite()->vertex()->motion_vec[0] + h->opposite()->vertex()->delta[0]) ;
double t_d2y = (yy + vi->motion_vec[1] + vi->delta[1]) - (yyy + h->opposite()->vertex()->motion_vec[1] + h->opposite()->vertex()->delta[1]) ;
double t_d2z = (zz + vi->motion_vec[2] + vi->delta[2]) - (zzz + h->opposite()->vertex()->motion_vec[2] + h->opposite()->vertex()->delta[2]) ;
#endif
double d2 = t_d2x * t_d2x + t_d2y * t_d2y + t_d2z * t_d2z;
geom_vx += t_d2x * (sqrt(d2) - sqrt(d)) / sqrt(d2) ;
geom_vy += t_d2y * (sqrt(d2) - sqrt(d)) / sqrt(d2) ;
geom_vz += t_d2z * (sqrt(d2) - sqrt(d)) / sqrt(d2) ;
order++;
}
while ( ++h != vi->vertex_begin() );
geom_vx /= order ;
geom_vy /= order ;
geom_vz /= order ;
double alpha = 1 ;
vi->delta_tmp = alpha * Vector(-geom_vx, -geom_vy, -geom_vz) ;
#if 0
if(v_norm(vi->delta_tmp) > 0.001)
std::cout << vi->delta << " + " << geom_vx << " " << geom_vy << " " << geom_vz <<std::endl ;
#endif
}
for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
double alpha1 = 0.9, alpha2 = 0.1 ;
if(v_norm(vi->delta)<0.01) { alpha2 = 0.9; alpha1 = 0.1; }
vi->delta = alpha1 * vi->delta + alpha2 * vi->delta_tmp;
}
#endif
// MOVE THE MESH
OpenGLContext::mutex.lock();
data->mesh.lock();
for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
if (alg_keepVerticesConstant) vi->delta = vi->normal()*(vi->delta*vi->normal());
vi->prev_delta = vi->delta;
#if MOVE_THE_MESH
vi->move ( vi->delta );
#else
vi->motion_vec = vi->motion_vec + vi->delta;
#endif
}
data->mesh.unlock();
#if MOVE_THE_MESH
data->mesh.updateMeshData();
#else
//for (Vertex_iterator vi = data->mesh.p.vertices_begin(); vi!=data->mesh.p.vertices_end(); vi++) {
// vi->motion_vec = vi->motion_vec + vi->laplacian() * alg_smoothing; // smooth the motion vectors
//}
#endif
OpenGLContext::mutex.unlock();
//saveOutput
if (alg_saveOutput) {
char filename[300];
sprintf(filename,"%s/output_%04d.off",alg_saveOutputPrefix,cur_iter);
data->mesh.saveFormat(filename,"off");
sprintf(filename,"%s/output_%04d.diff",alg_saveOutputPrefix,cur_iter);
data->mesh.saveVectorField(filename);
sprintf(filename,"%s/output_%04d.idx",alg_saveOutputPrefix,cur_iter);
data->mesh.saveVertexIndices(filename);
}
emit stepFinished();
return total_movement;
//return total_elements;
// return (++cur_iter < iter);
}
int __cdecl main(int argc, char **argv)
{
/*non-finite numbers*/
UINT32 lsnan = 0xffffffffu;
UINT32 lqnan = 0x7fffffffu;
UINT32 lneginf = 0xff800000u;
UINT32 lposinf = 0x7f800000u;
float snan = TO_FLOAT(lsnan);
float qnan = TO_FLOAT(lqnan);
float neginf = TO_FLOAT(lneginf);
float posinf = TO_FLOAT(lposinf);
/*finite numbers*/
UINT32 lnegunnormalized = 0x807fffffu;
UINT32 lposunnormalized = 0x007fffffu;
UINT32 lnegzero = 0x80000000u;
float negunnormalized = TO_FLOAT(lnegunnormalized);
float posunnormalized = TO_FLOAT(lposunnormalized);
float negzero = TO_FLOAT(lnegzero);
/*
* Initialize the PAL and return FAIL if this fails
*/
if (PAL_Initialize(argc, argv) != 0)
{
return FAIL;
}
/*non-finite numbers*/
if (_finitef(snan) || _finitef(qnan))
{
Fail("_finitef() found NAN to be finite.\n");
}
if (_finitef(neginf))
{
Fail("_finitef() found negative infinity to be finite.\n");
}
if (_finitef(posinf))
{
Fail("_finitef() found infinity to be finite.\n");
}
/*finite numbers*/
if (!_finitef(negunnormalized))
{
Fail("_finitef() found a negative unnormalized value to be infinite.\n");
}
if (!_finitef(posunnormalized))
{
Fail("_finitef() found an unnormalized value to be infinite.\n");
}
if (!_finitef(negzero))
{
Fail("_finitef() found negative zero to be infinite.\n");
}
if (!_finitef(+0.0f))
{
Fail("_finitef() found zero to be infinite.\n");
}
if (!_finitef(-123.456f))
{
Fail("_finitef() found %f to be infinite.\n", -123.456f);
}
if (!_finitef(+123.456f))
{
Fail("_finitef() found %f to be infinite.\n", +123.456f);
}
PAL_Terminate();
return PASS;
}