// ---------------------------------------------------------------------
// del_test
// ---------------------------------------------------------------------
void del_test(test_t* test) {
int i;
if (test->m) matmat_delete(test->m);
for (i=0; i<test->n; i++) {
if (dc_is_reactive(test->A[i])) dc_free(test->A[i]);
else free(test->A[i]);
if (dc_is_reactive(test->B[i])) dc_free(test->B[i]);
else free(test->B[i]);
if (dc_is_reactive(test->C[i])) dc_free(test->C[i]);
else free(test->C[i]);
free(test->cA[i]);
free(test->cB[i]);
free(test->cC[i]);
}
free(test->A);
free(test->B);
free(test->C);
free(test->cA);
free(test->cB);
free(test->cC);
#if CONV || CHECK
#endif
free(test);
}
Bool
apc_dbm_create( Handle self, Bool monochrome)
{
Bool palc = 0;
objCheck false;
apcErrClear;
apt_set( aptBitmap);
apt_set( aptDeviceBitmap);
apt_set( aptCompatiblePS);
if ( !( sys ps = CreateCompatibleDC( 0))) apiErrRet;
sys lastSize. x = var w;
sys lastSize. y = var h;
if ( monochrome)
sys bm = CreateBitmap( var w, var h, 1, 1, nil);
else {
HDC dc;
if (!( dc = dc_alloc())) {
DeleteDC( sys ps);
return false;
}
if (( sys pal = palette_create( self))) {
sys stockPalette = SelectPalette( sys ps, sys pal, 1);
RealizePalette( sys ps);
palc = 1;
}
sys bm = CreateCompatibleBitmap( dc, var w, var h);
if ( guts. displayBMInfo. bmiHeader. biBitCount == 8)
apt_clear( aptCompatiblePS);
}
if ( !sys bm) {
apiErr;
if ( !monochrome) dc_free();
if ( palc) {
SelectPalette( sys ps, sys stockPalette, 1);
DeleteObject( sys stockPalette);
sys stockPalette = nil;
}
DeleteDC( sys ps);
return false;
}
if ( !monochrome) dc_free();
sys stockBM = SelectObject( sys ps, sys bm);
hwnd_enter_paint( self);
if ( monochrome) sys bpp = 1;
hash_store( imageMan, &self, sizeof( self), (void*)self);
return true;
}
void *
thread_main_dns(void *arg)
{
int dnsrequest(const char *name, uint32 *ipaddr);
int connfd, *number, count, total;
char *domain ;
uint32 *ipptr;
pthread_mutex_t *mutex;
printf("dns thread %d starting \n", (int)arg );
for(;;){
Pthread_mutex_lock(&dns_array_mutex);
while(iget == iput)
Pthread_cond_wait(&dns_array_cond,
&dns_array_mutex);
printf("thread %d working \n", pthread_self());
connfd = dns_array[iget].sockfd;
domain = dns_array[iget].domain;
number = dns_array[iget].number;
count = dns_array[iget].count;
total = dns_array[iget].total;
ipptr = dns_array[iget].ipptr;
mutex = dns_array[iget].mutex;
if(++iget == ARRAYSIZE)
iget = 0;
Pthread_mutex_unlock(&dns_array_mutex);
//do our job
if(dnsrequest(domain, ipptr + count) != 0)
inet_pton(AF_INET, "127.0.0.1", ipptr+count);
dc_free(domain); //dc_free the memory of domain
Pthread_mutex_lock(mutex);
(*number)--;
Pthread_mutex_unlock(mutex);
if((*number) == 0){
write(connfd, ipptr, total*sizeof(uint32));
printf("sended\n");
// close(connfd); //todo
dc_free(ipptr);
dc_free(number);
dc_free(mutex);
}
}
}
// ---------------------------------------------------------------------
// del_test
// ---------------------------------------------------------------------
void del_test(test_t* test) {
int i;
if (test->m) vecmat_delete(test->m);
for (i=0; i<test->R; i++) dc_free(test->M[i]);
free(test->M);
free(test->V);
dc_free(test->O);
#if CONV || CHECK
#endif
free(test);
}
void
dbm_recreate( Handle self)
{
HBITMAP bm, stock;
HDC dc, dca;
HPALETTE p = nil;
if ((( PDeviceBitmap) self)-> monochrome) return;
if ( !( dc = CreateCompatibleDC( 0))) {
apiErr;
return;
}
if (!( dca = dc_alloc())) {
DeleteDC( dc);
return;
}
if ( sys pal) {
p = SelectPalette( dc, sys pal, 1);
RealizePalette( dc);
}
if ( !( bm = CreateCompatibleBitmap( dca, var w, var h))) {
DeleteDC( dc);
dc_free();
apiErr;
return;
}
stock = SelectObject( dc, bm);
BitBlt( dc, 0, 0, var w, var h, sys ps, 0, 0, SRCCOPY);
if ( sys pal) {
SelectPalette( sys ps, sys stockPalette, 1);
sys stockPalette = p;
} else
sys stockPalette = GetCurrentObject( dc, OBJ_PAL);
if ( sys stockBM)
SelectObject( sys ps, sys stockBM);
DeleteObject( sys bm);
DeleteDC( sys ps);
sys ps = dc;
sys bm = bm;
sys stockBM = stock;
dc_free();
}
HICON
image_make_icon_handle( Handle img, Point size, Point * hotSpot)
{
PIcon i = ( PIcon) img;
HICON r;
ICONINFO ii;
int bpp = i-> type & imBPP;
Bool noSZ = i-> w != size. x || i-> h != size. y;
Bool noBPP = bpp != 1 && bpp != 4 && bpp != 8 && bpp != 24;
HDC dc;
XBITMAPINFO bi;
Bool notAnIcon = !kind_of( img, CIcon);
ii. fIcon = hotSpot ? false : true;
ii. xHotspot = hotSpot ? hotSpot-> x : 0;
ii. yHotspot = hotSpot ? hotSpot-> y : 0;
if ( noSZ || noBPP) {
i = ( PIcon)( i-> self-> dup( img));
if ( noSZ)
i-> self-> set_size(( Handle) i, size);
if ( noBPP)
i-> self-> set_type(( Handle) i,
( bpp < 4) ? 1 :
(( bpp < 8) ? 4 :
(( bpp < 24) ? 8 : 24))
);
}
if (!( dc = dc_alloc())) {
if (( Handle) i != img) Object_destroy(( Handle) i);
return NULL;
}
image_get_binfo(( Handle)i, &bi);
if ( bi. bmiHeader. biClrUsed > 0)
bi. bmiHeader. biClrUsed = bi. bmiHeader. biClrImportant = i-> palSize;
if ( !( ii. hbmColor = CreateDIBitmap( dc, &bi. bmiHeader, CBM_INIT,
i-> data, ( BITMAPINFO*) &bi, DIB_RGB_COLORS))) apiErr;
bi. bmiHeader. biBitCount = bi. bmiHeader. biPlanes = 1;
bi. bmiColors[ 0]. rgbRed = bi. bmiColors[ 0]. rgbGreen = bi. bmiColors[ 0]. rgbBlue = 0;
bi. bmiColors[ 1]. rgbRed = bi. bmiColors[ 1]. rgbGreen = bi. bmiColors[ 1]. rgbBlue = 255;
if ( !( ii. hbmMask = CreateDIBitmap( dc, &bi. bmiHeader, CBM_INIT,
notAnIcon ? NULL : i-> mask, ( BITMAPINFO*) &bi, DIB_RGB_COLORS))) apiErr;
dc_free();
if ( !( r = CreateIconIndirect( &ii))) apiErr;
DeleteObject( ii. hbmColor);
DeleteObject( ii. hbmMask);
if (( Handle) i != img) Object_destroy(( Handle) i);
return r;
}
void * dc_realloc(void * ptr, size_t size)
{
if(!ptr){
ptr = dc_alloc(size);
return ptr;
}
if(size == 0){
dc_free(ptr);
return NULL;
}
void * word_before_ptr = (void *)((uint64 *)ptr - 1);
void * new_ptr;
uint64 cap = *(uint64 *)word_before_ptr;
if(size <= POW2(cap)){
printf("dc_mm : %s","reallocate but return the original pointer.");
return ptr;
}
new_ptr = dc_alloc(size);
memcpy(new_ptr, ptr, POW2(cap));
dc_free(ptr);
printf("dc_mm : %s","reallocation finished");
return new_ptr;
}
int main( int argc, char **argv )
{
int i, j;
dc_init ();
//allocates vector...
// max N is 1024...
v=(int *)dc_malloc (4096);
//allocates MyQGraphicsRectItem vector...
vr=(MyQGraphicsRectItem **)malloc (N*sizeof (MyQGraphicsRectItem **));
/*generates random seed...*/
srand((unsigned)time (NULL));
//fills vector with values...
printf ("Generated vector: \n");
for (i=0; i<N; i++)
{
/*generates random number in (0,1)...*/
j = rand() % (N*N);
//without this printf it won't work with -O2...
//printf ("%d ", j);
v[i] = j;
}
printf ("\n");
QApplication a( argc, argv );
w=new MyWidget ();
w->show();
int ret_value=a.exec();
//frees main page...
dc_free (v);
//frees MyQGraphicsRectItem vector...
free (vr);
//deallocates constraint parameter data structs...
for (i=0; i<N; i++)
{
free (gDataArray[i]);
}
return ret_value;
}
void
image_query_bits( Handle self, Bool forceNewImage)
{
PImage i = ( PImage) self;
XBITMAPINFO xbi;
BITMAPINFO * bi;
int newBits;
HDC ops = nil;
BITMAP bitmap;
if ( forceNewImage) {
ops = sys ps;
if ( !ops) {
if ( !( sys ps = dc_alloc())) return;
}
}
if ( !GetObject( sys bm, sizeof( BITMAP), ( LPSTR) &bitmap)) {
apiErr;
return;
// if GetObject fails to get even BITMAP, there will be no good in farther run for sure.
}
if (( bitmap. bmPlanes == 1) && (
( bitmap. bmBitsPixel == 1) ||
( bitmap. bmBitsPixel == 4) ||
( bitmap. bmBitsPixel == 8) ||
( bitmap. bmBitsPixel == 24)
))
newBits = bitmap. bmBitsPixel;
else {
newBits = ( bitmap. bmBitsPixel <= 4) ? 4 :
(( bitmap. bmBitsPixel <= 8) ? 8 : 24);
}
if ( forceNewImage) {
i-> self-> create_empty( self, bitmap. bmWidth, bitmap. bmHeight, newBits);
} else {
if (( newBits != ( i-> type & imBPP)) || (( i-> type & ~imBPP) != 0))
i-> self-> create_empty( self, i-> w, i-> h, newBits);
}
bi = image_get_binfo( self, &xbi);
if ( !GetDIBits( sys ps, sys bm, 0, i-> h, i-> data, bi, DIB_RGB_COLORS)) apiErr;
if (( i-> type & imBPP) < 24) {
int j, nColors = 1 << ( i-> type & imBPP);
for ( j = 0; j < nColors; j++) {
i-> palette[ j]. r = xbi. bmiColors[ j]. rgbRed;
i-> palette[ j]. g = xbi. bmiColors[ j]. rgbGreen;
i-> palette[ j]. b = xbi. bmiColors[ j]. rgbBlue;
}
}
if ( forceNewImage) {
if ( !ops) {
dc_free();
}
sys ps = ops;
}
}
/*
* The main loop of the player thread, during playback. This is
* basically a state machine, which multiplexes data between the
* decoder thread and the output threads.
*/
static void do_play(struct player_control *pc, struct decoder_control *dc)
{
struct player player = {
.pc = pc,
.dc = dc,
.buffering = true,
.decoder_starting = false,
.paused = false,
.queued = true,
.song = NULL,
.xfade = XFADE_UNKNOWN,
.cross_fading = false,
.cross_fade_chunks = 0,
.cross_fade_tag = NULL,
.elapsed_time = 0.0,
};
player_unlock(pc);
player.pipe = music_pipe_new();
player_dc_start(&player, player.pipe);
if (!player_wait_for_decoder(&player)) {
player_dc_stop(&player);
player_command_finished(pc);
music_pipe_free(player.pipe);
event_pipe_emit(PIPE_EVENT_PLAYLIST);
player_lock(pc);
return;
}
player_lock(pc);
pc->state = PLAYER_STATE_PLAY;
player_command_finished_locked(pc);
while (true) {
player_process_command(&player);
if (pc->command == PLAYER_COMMAND_STOP ||
pc->command == PLAYER_COMMAND_EXIT ||
pc->command == PLAYER_COMMAND_CLOSE_AUDIO) {
player_unlock(pc);
audio_output_all_cancel();
break;
}
player_unlock(pc);
if (player.buffering) {
/* buffering at the start of the song - wait
until the buffer is large enough, to
prevent stuttering on slow machines */
if (music_pipe_size(player.pipe) < pc->buffered_before_play &&
!decoder_lock_is_idle(dc)) {
/* not enough decoded buffer space yet */
if (!player.paused &&
audio_format_defined(&player.play_audio_format) &&
audio_output_all_check() < 4 &&
!player_send_silence(&player))
break;
decoder_lock(dc);
/* XXX race condition: check decoder again */
player_wait_decoder(pc, dc);
decoder_unlock(dc);
player_lock(pc);
continue;
} else {
/* buffering is complete */
player.buffering = false;
}
}
if (player.decoder_starting) {
/* wait until the decoder is initialized completely */
if (!player_check_decoder_startup(&player))
break;
player_lock(pc);
continue;
}
#ifndef NDEBUG
/*
music_pipe_check_format(&play_audio_format,
player.next_song_chunk,
&dc->out_audio_format);
*/
#endif
if (decoder_lock_is_idle(dc) && player.queued &&
dc->pipe == player.pipe) {
/* the decoder has finished the current song;
make it decode the next song */
assert(dc->pipe == NULL || dc->pipe == player.pipe);
player_dc_start(&player, music_pipe_new());
}
if (player_dc_at_next_song(&player) &&
player.xfade == XFADE_UNKNOWN &&
!decoder_lock_is_starting(dc)) {
/* enable cross fading in this song? if yes,
calculate how many chunks will be required
for it */
player.cross_fade_chunks =
cross_fade_calc(pc->cross_fade_seconds, dc->total_time,
pc->mixramp_db,
pc->mixramp_delay_seconds,
dc->replay_gain_db,
dc->replay_gain_prev_db,
dc->mixramp_start,
dc->mixramp_prev_end,
&dc->out_audio_format,
&player.play_audio_format,
music_buffer_size(player_buffer) -
pc->buffered_before_play);
if (player.cross_fade_chunks > 0) {
player.xfade = XFADE_ENABLED;
player.cross_fading = false;
} else
/* cross fading is disabled or the
next song is too short */
player.xfade = XFADE_DISABLED;
}
if (player.paused) {
player_lock(pc);
if (pc->command == PLAYER_COMMAND_NONE)
player_wait(pc);
continue;
} else if (!music_pipe_empty(player.pipe)) {
/* at least one music chunk is ready - send it
to the audio output */
play_next_chunk(&player);
} else if (audio_output_all_check() > 0) {
/* not enough data from decoder, but the
output thread is still busy, so it's
okay */
/* XXX synchronize in a better way */
g_usleep(10000);
} else if (player_dc_at_next_song(&player)) {
/* at the beginning of a new song */
if (!player_song_border(&player))
break;
} else if (decoder_lock_is_idle(dc)) {
/* check the size of the pipe again, because
the decoder thread may have added something
since we last checked */
if (music_pipe_empty(player.pipe)) {
/* wait for the hardware to finish
playback */
audio_output_all_drain();
break;
}
} else {
/* the decoder is too busy and hasn't provided
new PCM data in time: send silence (if the
output pipe is empty) */
if (!player_send_silence(&player))
break;
}
player_lock(pc);
}
player_dc_stop(&player);
music_pipe_clear(player.pipe, player_buffer);
music_pipe_free(player.pipe);
if (player.cross_fade_tag != NULL)
tag_free(player.cross_fade_tag);
player_lock(pc);
if (player.queued) {
assert(pc->next_song != NULL);
pc->next_song = NULL;
}
pc->state = PLAYER_STATE_STOP;
player_unlock(pc);
event_pipe_emit(PIPE_EVENT_PLAYLIST);
player_lock(pc);
}
static gpointer
player_task(gpointer arg)
{
struct player_control *pc = arg;
struct decoder_control *dc = dc_new(pc->cond);
decoder_thread_start(dc);
player_buffer = music_buffer_new(pc->buffer_chunks);
player_lock(pc);
while (1) {
switch (pc->command) {
case PLAYER_COMMAND_QUEUE:
assert(pc->next_song != NULL);
do_play(pc, dc);
break;
case PLAYER_COMMAND_STOP:
player_unlock(pc);
audio_output_all_cancel();
player_lock(pc);
/* fall through */
case PLAYER_COMMAND_SEEK:
case PLAYER_COMMAND_PAUSE:
pc->next_song = NULL;
player_command_finished_locked(pc);
break;
case PLAYER_COMMAND_CLOSE_AUDIO:
player_unlock(pc);
audio_output_all_release();
player_lock(pc);
player_command_finished_locked(pc);
#ifndef NDEBUG
/* in the DEBUG build, check for leaked
music_chunk objects by freeing the
music_buffer */
music_buffer_free(player_buffer);
player_buffer = music_buffer_new(pc->buffer_chunks);
#endif
break;
case PLAYER_COMMAND_UPDATE_AUDIO:
player_unlock(pc);
audio_output_all_enable_disable();
player_lock(pc);
player_command_finished_locked(pc);
break;
case PLAYER_COMMAND_EXIT:
player_unlock(pc);
dc_quit(dc);
dc_free(dc);
audio_output_all_close();
music_buffer_free(player_buffer);
player_command_finished(pc);
return NULL;
case PLAYER_COMMAND_CANCEL:
pc->next_song = NULL;
player_command_finished_locked(pc);
break;
case PLAYER_COMMAND_REFRESH:
/* no-op when not playing */
player_command_finished_locked(pc);
break;
case PLAYER_COMMAND_NONE:
player_wait(pc);
break;
}
}
}
void
player_create(struct player_control *pc)
{
assert(pc->thread == NULL);
GError *e = NULL;
pc->thread = g_thread_create(player_task, pc, true, &e);
if (pc->thread == NULL)
MPD_ERROR("Failed to spawn player task: %s", e->message);
}
Bool
window_subsystem_init( char * error_buf)
{
WNDCLASSW wc;
HDC dc;
HBITMAP hbm;
OSVERSIONINFO os = { sizeof( OSVERSIONINFO)};
guts. version = GetVersion();
GetVersionEx( &os);
guts. alloc_utf8_to_wchar_visual =
(( os.dwMajorVersion > 5) || (os.dwMajorVersion == 5 && os.dwMinorVersion > 1)) ?
alloc_utf8_to_wchar_visual :
alloc_utf8_to_wchar;
guts. mainThreadId = GetCurrentThreadId();
guts. errorMode = SetErrorMode( SEM_FAILCRITICALERRORS);
guts. desktopWindow = GetDesktopWindow();
memset( &wc, 0, sizeof( wc));
wc.style = CS_HREDRAW | CS_VREDRAW | CS_DBLCLKS;
wc.lpfnWndProc = ( WNDPROC) generic_app_handler;
wc.cbClsExtra = 0;
wc.cbWndExtra = 0;
wc.hInstance = guts. instance;
wc.hIcon = LoadIcon( guts. instance, IDI_APPLICATION);
wc.hCursor = LoadCursor( NULL, IDC_ARROW);
wc.hbrBackground = (HBRUSH)NULL;
wc.lpszClassName = L"GenericApp";
RegisterClassW( &wc);
memset( &wc, 0, sizeof( wc));
wc.style = CS_HREDRAW | CS_VREDRAW | CS_DBLCLKS;
wc.lpfnWndProc = ( WNDPROC) generic_frame_handler;
wc.cbClsExtra = 0;
wc.cbWndExtra = 0;
wc.hInstance = guts. instance;
wc.hIcon = LoadIcon( guts. instance, IDI_APPLICATION);
wc.hCursor = LoadCursor( NULL, IDC_ARROW);
wc.hbrBackground = (HBRUSH)NULL;
wc.lpszClassName = L"GenericFrame";
RegisterClassW( &wc);
memset( &wc, 0, sizeof( wc));
wc.style = CS_HREDRAW | CS_VREDRAW | CS_DBLCLKS;
wc.lpfnWndProc = ( WNDPROC) generic_view_handler;
wc.cbClsExtra = 0;
wc.cbWndExtra = 0;
wc.hInstance = guts. instance;
wc.hIcon = LoadIcon( guts. instance, IDI_APPLICATION);
wc.hCursor = NULL; // LoadCursor( NULL, IDC_ARROW);
wc.hbrBackground = (HBRUSH)NULL;
wc.lpszClassName = L"Generic";
RegisterClassW( &wc);
stylusMan = hash_create();
fontMan = hash_create();
patMan = hash_create();
menuMan = hash_create();
imageMan = hash_create();
regnodeMan = hash_create();
create_font_hash();
{
LOGBRUSH b = { BS_HOLLOW, 0, 0};
Font f;
hPenHollow = CreatePen( PS_NULL, 0, 0);
hBrushHollow = CreateBrushIndirect( &b);
hPatHollow. dotsCount = 0;
hPatHollow. dotsPtr = nil;
FONTSTRUCSIZE = (char *)(&(f. name)) - (char *)(&f);
}
if (!( dc = dc_alloc())) return false;
guts. displayResolution. x = GetDeviceCaps( dc, LOGPIXELSX);
guts. displayResolution. y = GetDeviceCaps( dc, LOGPIXELSY);
{
LOGFONT lf;
HFONT sfont;
// getting most common font name
memset( &lf, 0, sizeof( lf));
lf. lfCharSet = OEM_CHARSET;
lf. lfOutPrecision = OUT_DEFAULT_PRECIS;
lf. lfClipPrecision = CLIP_DEFAULT_PRECIS;
lf. lfQuality = PROOF_QUALITY;
lf. lfPitchAndFamily = DEFAULT_PITCH;
sfont = SelectObject( dc, CreateFontIndirect( &lf));
GetTextFace( dc, 256, guts. defaultSystemFont);
// getting common fixed font name
lf. lfHeight = 320;
lf. lfPitchAndFamily = FIXED_PITCH;
DeleteObject( SelectObject( dc, CreateFontIndirect( &lf)));
GetTextFace( dc, 256, guts. defaultFixedFont);
// getting common variable font name
lf. lfPitchAndFamily = VARIABLE_PITCH;
DeleteObject( SelectObject( dc, CreateFontIndirect( &lf)));
GetTextFace( dc, 256, guts. defaultVariableFont);
DeleteObject( SelectObject( dc, sfont));
// getting system font presets
memset( &guts. windowFont, 0, sizeof( Font));
strcpy( guts. windowFont. name, DEFAULT_WIDGET_FONT);
guts. windowFont. size = DEFAULT_WIDGET_FONT_SIZE;
guts. windowFont. width = guts. windowFont. height = C_NUMERIC_UNDEF;
#ifdef FONT_CHECK
guts. windowFont. size = 12;
#endif
apc_font_pick( nilHandle, &guts. windowFont, &guts. windowFont);
guts. ncmData. cbSize = sizeof( NONCLIENTMETRICS);
SystemParametersInfo( SPI_GETNONCLIENTMETRICS, sizeof( NONCLIENTMETRICS),
( PVOID) &guts. ncmData, 0);
font_logfont2font( &guts. ncmData. lfMenuFont, &guts. menuFont, &guts. displayResolution);
font_logfont2font( &guts. ncmData. lfMessageFont, &guts. msgFont, &guts. displayResolution);
font_logfont2font( &guts. ncmData. lfCaptionFont, &guts. capFont, &guts. displayResolution);
}
memset( &guts. displayBMInfo, 0, sizeof( guts. displayBMInfo));
guts. displayBMInfo. bmiHeader. biSize = sizeof( BITMAPINFO);
if ( !( hbm = GetCurrentObject( dc, OBJ_BITMAP))) {
apiErr;
dc_free();
return false;
}
if ( !GetDIBits( dc, hbm, 0, 0, NULL, &guts. displayBMInfo, DIB_PAL_COLORS)) {
guts. displayBMInfo. bmiHeader. biBitCount = GetDeviceCaps( dc, BITSPIXEL);
guts. displayBMInfo. bmiHeader. biPlanes = GetDeviceCaps( dc, PLANES);
}
dc_free();
guts. insertMode = true;
guts. iconSizeSmall. x = GetSystemMetrics( SM_CXSMICON);
guts. iconSizeSmall. y = GetSystemMetrics( SM_CYSMICON);
guts. iconSizeLarge. x = GetSystemMetrics( SM_CXICON);
guts. iconSizeLarge. y = GetSystemMetrics( SM_CYICON);
guts. pointerSize. x = GetSystemMetrics( SM_CXCURSOR);
guts. pointerSize. y = GetSystemMetrics( SM_CYCURSOR);
list_create( &guts. transp, 8, 8);
list_create( &guts. files, 8, 8);
list_create( &guts. sockets, 8, 8);
// selecting locale layout, more or less latin-like
{
char buf[ KL_NAMELENGTH * 2] = "";
HKL current = GetKeyboardLayout( 0);
int i, j, size = GetKeyboardLayoutList( 0, nil);
HKL * kl = ( HKL *) malloc( sizeof( HKL) * size);
guts. keyLayout = nil;
if ( !GetKeyboardLayoutName( buf)) apiErr;
for ( j = 0; j < ( sizeof( keyLayouts) / sizeof( char*)); j++) {
if ( strncmp( buf + 4, keyLayouts[ j], 4) == 0) {
guts. keyLayout = current;
goto found_1;
}
}
if ( kl) {
GetKeyboardLayoutList( size, kl);
for ( i = 0; i < size; i++) {
ActivateKeyboardLayout( kl[ i], 0);
if ( !GetKeyboardLayoutName( buf)) apiErr;
for ( j = 0; j < ( sizeof( keyLayouts) / sizeof( char*)); j++) {
if ( strncmp( buf + 4, keyLayouts[ j], 4) == 0) {
guts. keyLayout = kl[ i];
goto found_2;
}
}
}
found_2:;
ActivateKeyboardLayout( current, 0);
}
found_1:;
free( kl);
}
guts. currentKeyState = guts. keyState;
memset( guts. emptyKeyState, 0, sizeof( guts. emptyKeyState));
guts. smDblClk. x = GetSystemMetrics( SM_CXDOUBLECLK);
guts. smDblClk. y = GetSystemMetrics( SM_CYDOUBLECLK);
return true;
}
int main( int argc, char **argv )
{
int i=0;
int h, k;
/*double avgAct=0.0;
int maxAct=0;
double avgFinalAct=0.0;
int maxFinalAct=0;
double avgTime=0.0;
double maxTime=0.0;*/
//initializes ww[][] (pointers to ellipses)...
for (h=0; h<N; h++)
for (k=0; k<N; k++)
ww[h][k]=NULL;
dc_init ();
//allocates vector...
// max N is 16...
//v=(int *)LWP_AllocPages (1);
//v=(int *)dc_malloc (4096);
v=(int *)dc_malloc (N*N*sizeof (int));
//installs constraints...
for (h=0; h<N; h++)
for (k=0; k<N; k++)
{
//we are assuming lots of things here...
int theData=(h<<16)+k;
//LCP_NewCons (GeneralConstraint, NULL, (void *)theData);
dc_new_cons (GeneralConstraint, (void *)theData, NULL);
}
//QApplication a( argc, argv );
MyApplication a( argc, argv );
w=new MyWidget ();
//a.setMainWidget( w );
w->show();
//sets up board...
_whiteMove (N/2-1, N/2-1);
_whiteMove (N/2, N/2);
_blackMove (N/2-1, N/2);
_blackMove (N/2, N/2-1);
gSetup=0;
//just testing...
/* printf ("\nInitial board:\n");
_printBoard ();
while (i<1)
{
int a, b;
printf ("Black move:\ni: ");
scanf ("%d", &a);
printf ("j: ");
scanf ("%d", &b);
_blackMove (a, b);
_printBoard ();
printf ("White move:\ni: ");
scanf ("%d", &a);
printf ("j: ");
scanf ("%d", &b);
_whiteMove (a, b);
_printBoard ();
i++;
}*/
replayThread = new MyThread ();
int ret_value=a.exec();
delete replayThread;
//LCP_CleanUp ();
//frees main page...
//LWP_FreePages ((void *)v, 1);
dc_free (v);
/*debugging...*/
//printf ("\n[DEBUG] LMemory_GetBlocksCount() says: %u\n", (unsigned int)LMemory_GetBlocksCount ());
// dump DC profiling info
if (dc_profile_on())
dc_dump_profile_diff(stdout,
&log_array_prof[0],
&log_array_prof[iter-1]);
else {
//computes avg and max resize evt processing time...
elapsed_time_t avg;
avg.real=0;
avg.user=0;
avg.system=0;
avg.child_user=0;
avg.child_system=0;
double max=log_array[0].real;
for (i=0; i<iter; i++)
{
avg.real=avg.real+log_array[i].real;
avg.user=avg.user+log_array[i].user;
avg.system=avg.system+log_array[i].system;
avg.child_user=avg.child_user+log_array[i].child_user;
avg.child_system=avg.child_system+log_array[i].child_system;
if (log_array[i].real>max)
max=log_array[i].real;
}
divide_elapsed_time_by(&avg, iter);
printf ("\nTotal times per move:\n");
printf ("Avg real = %f\n", avg.real);
printf ("Avg user = %f\n", avg.user);
printf ("Avg system = %f\n", avg.system);
printf ("Avg child_user = %f\n", avg.child_user);
printf ("Avg child_system = %f\n", avg.child_system);
printf ("Max real = %f\n", max);
avg.real=0;
avg.user=0;
avg.system=0;
avg.child_user=0;
avg.child_system=0;
max=inter_array[1].real;
for (i=0; i<iter; i++)
{
avg.real=avg.real+inter_array[i].real;
avg.user=avg.user+inter_array[i].user;
avg.system=avg.system+inter_array[i].system;
avg.child_user=avg.child_user+inter_array[i].child_user;
avg.child_system=avg.child_system+inter_array[i].child_system;
if (inter_array[i].real>max)
max=inter_array[i].real;
}
divide_elapsed_time_by(&avg, iter);
printf ("\nPropagation times only:\n");
printf ("Avg real = %f\n", avg.real);
printf ("Avg user = %f\n", avg.user);
printf ("Avg system = %f\n", avg.system);
printf ("Avg child_user = %f\n", avg.child_user);
printf ("Avg child_system = %f\n", avg.child_system);
printf ("Max real = %f\n", max);
}
return ret_value;
}
int main() {
dc_init();
rm_make_dump_file("test02-start-"OPT".log");
T* p = (T*)dc_malloc(sizeof(T));
p->x = 1;
dc_cons* cons_c = dc_new_cons((dc_cons_f)c, p, NULL);
dc_dump_cons(stdout, cons_c);
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_cons* cons_d = dc_new_cons((dc_cons_f)d, p, NULL);
dc_dump_cons(stdout, cons_c);
dc_dump_cons(stdout, cons_d);
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_begin_at();
p->x = 10;
p->y = 7;
dc_dump_wr_cell_list(stdout);
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_end_at();
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_dump_cons(stdout, cons_c);
dc_dump_cons(stdout, cons_d);
p->x++;
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_dump_cons(stdout, cons_c);
dc_dump_cons(stdout, cons_d);
p->y-=5;
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_dump_cons(stdout, cons_c);
dc_dump_cons(stdout, cons_d);
p->x=50;
dc_dump_cell(stdout, &p->x);
dc_dump_cell(stdout, &p->y);
dc_dump_cell(stdout, &p->z);
dc_dump_cons(stdout, cons_c);
dc_dump_cons(stdout, cons_d);
dc_free(p);
rm_make_dump_file("test02-end-"OPT".log");
return 0;
}
int main() {
int i,j,k,rows=0;
FILE *titles_file;
char str_buf[X_SIZE*2];
char **titles;
// Allocate reactive strings
X = (int*)dc_malloc(X_SIZE*sizeof(int));
if (!X) return -1;
Y = (int*)dc_malloc(Y_SIZE*sizeof(int));
if (!Y) return -1;
// Allocate DP table (dynamic programming table)
M = (int**)dc_malloc((X_SIZE+1)*sizeof(int*));
if (!M) return -1;
for (i=0; i<=X_SIZE; i++) {
M[i] = (int*)dc_malloc((Y_SIZE+1)*sizeof(int));
if (!M[i]) return -1;
}
// Init DP table
for (i=0; i<=X_SIZE; i++) M[i][0]=i;
for (j=0; j<=Y_SIZE; j++) M[0][j]=j;
// Allocate update table
#ifdef MONITOR_UPDATES
updates = (int**)malloc((X_SIZE+1)*sizeof(int*));
if (!updates) return -1;
for (i=0; i<=X_SIZE; i++) {
updates[i] = (int*)malloc((Y_SIZE+1)*sizeof(int));
if (!updates[i]) return -1;
for (j=0; j<=Y_SIZE; j++) updates[i][j]=0;
}
#endif
// Alloc and init constraint table
cons = (T**)malloc((X_SIZE+1)*sizeof(T*));
if (!cons) return -1;
for (i=0; i<=X_SIZE; i++) {
cons[i] = (T*)malloc((Y_SIZE+1)*sizeof(T));
if (!cons[i]) return -1;
if (i>0) for (j=1; j<=Y_SIZE; j++) {
cons[i][j].i = i;
cons[i][j].j = j;
M[i][j] = 0;
}
}
// open input file
if ((titles_file = fopen("../perf/benchmarks/data/titles-sapienza-sample.txt", "r")) == NULL) {
printf("Cannot open file \"%s\"\n", "titles-sapienza-sample.txt");
exit(1);
}
else printf("\nOpening file \"%s\"\n", "titles-sapienza-sample.txt");
// compute number of rows
while(fgets(str_buf, X_SIZE*2, titles_file) != NULL) rows++;
printf("Number of titles = %d\n",rows);
// fill in titles data structure
fseek(titles_file,0,SEEK_SET);
titles = (char**)malloc(rows*sizeof(char*));
if (titles==NULL) {
printf("Cannot allocate titles memory\n");
exit(1);
}
i=0;
while(fgets(str_buf, X_SIZE*2, titles_file) != NULL) {
int l = strlen(str_buf);
titles[i] = (char*)malloc((l+1)*sizeof(char));
if (titles[i]==NULL) {
printf("Cannot allocate titles memory\n");
exit(1);
}
k=0;
for (j=0;j<l;j++)
if (isalnum(str_buf[j])) titles[i][k++] = tolower(str_buf[j]);
titles[i][k] = '\0';
i++;
}
// print titles
printf("\n");
for (j=0; j<i; j++) printf("%s\n",titles[j]);
printf("\n");
// compute edit distances
for (i=0; i<3; i++) {
int min = 2*X_SIZE+1;
int min_idx = 0;
for (j=0; j<3; j++)
if (i!=j) {
string_update(titles[i],titles[j]);
if (M[X_len][Y_len]<min) {
min = M[X_len][Y_len];
min_idx = j;
}
}
printf("Min edit dist = %-4d (max overlap = %.2f)\n", min, 100.0 - 100.0*min/X_len);
}
// Free constraints and data structures
for (i=0; i<=X_len; i++) {
for (j=1; j<=Y_len; j++)
if (i>0) dc_del_cons(cons[i][j].cons);
free(cons[i]);
}
free(cons);
for (i=0; i<=X_SIZE; i++) dc_free(M[i]);
dc_free(M);
dc_free(Y);
dc_free(X);
return 0;
}
int main( int argc, char **argv )
{
int i, j;
dc_init ();
//allocates main page...
mainPage=dc_malloc (sizeof (ProtectedData));
//allocates one protected page per button...
for (i=0; i<NumButtX; i++)
for (j=0; j<NumButtY; j++)
page[i][j]=dc_malloc (sizeof (ProtectedData));
//QApplication a( argc, argv );
MyApplication a( argc, argv );
w=new MyWidget ();
w->setGeometry (0, 0, MaxXSize, MaxYSize);
w->show();
MyThread *resizeThread = new MyThread ();
resizeThread->start();
int ret_value=a.exec();
delete resizeThread;
//frees main page...
dc_free (mainPage);
//frees protected pages...
for (i=0; i<NumButtX; i++)
for (j=0; j<NumButtY; j++)
dc_free (page[i][j]);
//for (i=0; i<LOG_ENTRIES; i++)
//printf ("%f - %f\n", log_array[i].main_win_resize, log_array[i].last_button_resize);
// dump DC profiling info
if (dc_profile_on())
dc_dump_profile_diff(stdout,
&log_array_prof[numIter-4],
&log_array_prof[numIter-3]);
else {
//computes avg and max resize evt processing time...
elapsed_time_t avg;
avg.real=0;
avg.user=0;
avg.system=0;
avg.child_user=0;
avg.child_system=0;
double max=log_array[1].real;
for (i=1; i<numIter-2; i++)
{
avg.real=avg.real+log_array[i].real;
avg.user=avg.user+log_array[i].user;
avg.system=avg.system+log_array[i].system;
avg.child_user=avg.child_user+log_array[i].child_user;
avg.child_system=avg.child_system+log_array[i].child_system;
if (log_array[i].real>max)
max=log_array[i].real;
}
divide_elapsed_time_by(&avg, numIter-2);
printf ("\nTotal times per resize event:\n");
printf ("Avg real = %f\n", avg.real);
printf ("Avg user = %f\n", avg.user);
printf ("Avg system = %f\n", avg.system);
printf ("Avg child_user = %f\n", avg.child_user);
printf ("Avg child_system = %f\n", avg.child_system);
printf ("Max real = %f\n", max);
avg.real=0;
avg.user=0;
avg.system=0;
avg.child_user=0;
avg.child_system=0;
max=inter_array[1].real;
for (i=1; i<numIter-2; i++)
{
avg.real=avg.real+inter_array[i].real;
avg.user=avg.user+inter_array[i].user;
avg.system=avg.system+inter_array[i].system;
avg.child_user=avg.child_user+inter_array[i].child_user;
avg.child_system=avg.child_system+inter_array[i].child_system;
if (inter_array[i].real>max)
max=inter_array[i].real;
}
divide_elapsed_time_by(&avg, numIter-2);
printf ("\nChange propagation times only:\n");
printf ("Avg real = %f\n", avg.real);
printf ("Avg user = %f\n", avg.user);
printf ("Avg system = %f\n", avg.system);
printf ("Avg child_user = %f\n", avg.child_user);
printf ("Avg child_system = %f\n", avg.child_system);
printf ("Max real = %f\n", max);
}
return ret_value;
}