int main(int argc,char **argv)
{char pattern[128],line[128],errbuff[128];
int error,n,j,k,nloop,acc_loop = 0;
double before_t,after_t,diff_t,acc_t = 0;
regex_t *r; regmatch_t *m;
printf("Copyright 1997 by George J. Carrette.\n");
printf("Regex test driver. For more info see:\n");
printf("http://people.delphi.com/gjc/winregex.html\n");
if ((argc > 1) && (argv[1][0]))
{if (!(infile = fopen(argv[1],"r")))
{perror(argv[1]);
return(1);}}
r = (regex_t *) malloc(sizeof(regex_t));
if (prompt("nloop",pattern,sizeof(pattern),"default 1"))
nloop = atol(pattern);
if (nloop <= 0) nloop = 1;
while(prompt("Pattern",pattern,sizeof(pattern),
"quit, or try ^([0-9]+)(\\-| |$)(.*)$"))
{memset(r,0,sizeof(regex_t));
if ((error = regcomp(r,pattern,REG_EXTENDED)))
{regerror(error,r,errbuff,sizeof(errbuff));
printf("regcomp: %s\n",errbuff);}
else
{printf("Compiled with %d nsub\n",r->re_nsub);
n = r->re_nsub + 1;
m = (regmatch_t *) malloc(sizeof(regmatch_t) * n);
while(prompt("Data",line,sizeof(line),pattern))
{before_t = myclock();
for(k=0;k<nloop;++k) error = regexec(r,line,n,m,0);
after_t = myclock();
diff_t = after_t - before_t;
acc_loop += nloop;
acc_t += diff_t;
printf("%d loops, %.3f seconds, %.1f micro-seconds per loop\n",
nloop,diff_t,
diff_t * 1000000 / nloop);
if (error)
{regerror(error,r,errbuff,sizeof(errbuff));
printf("regexec: %s\n",errbuff);}
else
for(j=0;j<n;++j)
printf("%d[%d,%d] = %.*s\n",
j,m[j].rm_so,m[j].rm_eo,
(m[j].rm_so >= 0)
? (m[j].rm_eo - m[j].rm_so) : 0,
(m[j].rm_so >= 0)
? &line[m[j].rm_so] : "");}
free(m);
regfree(r);}}
free(r);
if (infile) fclose(infile);
if (acc_loop)
printf("%d total loops. %.1f seconds, %.1f micro-seconds per loop\n",
acc_loop,acc_t, acc_t * 100000 / acc_loop);
return(0);}
static gboolean
resize_window (GstPipeline * pipeline)
{
width = (sin (myclock () / 300.0) * 200) + 640;
height = (sin (myclock () / 300.0) * 200) + 480;
XResizeWindow (disp, win, width, height);
XSync (disp, FALSE);
return TRUE;
}
int CDXL_hal::dxl_hal_timeout(void)
{
long time;
time = myclock() - glStartTime;
if(time > gfRcvWaitTime)
return 1;
else if(time < 0)
glStartTime = myclock();
return 0;
}
int main(int argc, char *args[]) {
screen_t screen;
struct timeb tb;
struct tm *t;
init();
while (1) {
ftime(&tb);
t = localtime(&tb.time);
clear_clock(screen);
doppelpunkt(2,screen);
myclock(t->tm_hour,t->tm_min, screen);
//putpixel(10,20,1,screen);
draw_screen(screen);
sleep(10);
}
clr();
return 0;
}
int main(int argc, char *argv[])
{
double start, end, timechk;
if(argc != 2)
{
fprintf(stderr, "usage: %s Count\nn", argv[0]);
return __LINE__;
}
start = myclock();
decode_data_to_json(argv[1]);
end = myclock();
timechk = end - start;
printf("time: %f\n", timechk);
return 0;
}
static gboolean
move_window (GstPipeline * pipeline)
{
x += 5;
y = disp_height - height + (sin (myclock () / 300.0) * height);
if (x > disp_width)
x = 0;
XMoveWindow (disp, win, x, y);
XSync (disp, FALSE);
return TRUE;
}
int
main(int argc, char **argv)
{
int problem;
iters = init_iters;
while (1)
{
numtps = 1; /* set pre-run breakpoint here */
/* Keep trying the speed test, with more iterations, until
we get to a reasonable number. */
while (problem = trace_speed_test())
{
/* If iteration isn't working, give up. */
if (iters > max_iters)
{
printf ("Gone over %d iterations, giving up\n", max_iters);
break;
}
if (problem < 0)
{
printf ("Negative times, giving up\n", max_iters);
break;
}
iters *= 2;
printf ("Doubled iterations to %d\n", iters);
}
printf ("Tracepoint time is %d ns\n", nspertp);
/* This is for the benefit of interactive testing and attaching,
keeps the program from pegging the machine. */
sleep (1); /* set post-run breakpoint here */
/* Issue a little bit of output periodically, so we can see if
program is alive or hung. */
printf ("%s keeping busy, clock=%llu\n", argv[0], myclock ());
}
return 0;
}
void
dm_learn (document *data, double *lambda, double **alpha,
int nmixtures, int nlex, int emmax, int remmax, double epsilon)
{
document *dp;
double *d0, *f, **p;
double *s, **mu, **eps, *beta;
double aimv, z, t1, t2;
double ppl, sppl, pplp = 0, spplp = 0;
int i, j, m, n, t, v;
int start, elapsed, step, steps = 0;
/* initialize seed */
srand(time(NULL));
/* initialize lambda */
for (i = 0; i < nmixtures; i++)
lambda[i] = 1.0 / (double)nmixtures;
/* count data length, allocate p */
for (dp = data, n = 0; (dp->len) != -1; dp++, n++)
;
if ((p = dmatrix(n, nmixtures)) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate p.\n");
return;
}
/* allocate d0, and cache */
if ((d0 = (double *)calloc(n, sizeof(double))) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate d0.\n");
return;
}
for (dp = data, i = 0; (dp->len) != -1; dp++, i++)
{
for (j = 0, z = 0; j < dp->len; j++)
z += dp->cnt[j];
d0[i] = z;
}
/* allocate eps */
if ((eps = dmatrix(nmixtures,nlex)) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate eps.\n");
return;
}
/* allocate beta, and initialize */
if ((beta = (double *)calloc(nlex, sizeof(double))) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate beta.\n");
return;
}
for (v = 0; v < nlex; v++)
beta[v] = INITIAL_PCOUNT;
/* allocate s, mu */
if ((s = (double *)calloc(nmixtures, sizeof(double))) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate s.\n");
return;
}
if ((mu = dmatrix(nmixtures, nlex)) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate mu.\n");
return;
}
/* initialize s, mu */
for (m = 0; m < nmixtures; m++)
s[m] = INITIAL_PCOUNT * nlex;
if ((f = (double *)calloc(nlex, sizeof(double))) == NULL) {
fprintf(stderr, "dm_learn:: can't allocate f.\n");
return;
}
for (dp = data, z = 0; (dp->len) != -1; dp++)
{
for (j = 0; j < dp->len; j++)
{
f[dp->id[j]] += dp->cnt[j];
z += dp->cnt[j];
}
}
for (i = 0; i < nlex; i++)
f[i] /= z;
for (m = 0; m < nmixtures; m++)
dirrand(mu[m], f, nlex, INITIAL_PCOUNT * nlex * 100);
for (m = 0; m < nmixtures; m++) {
for (v = 0; v < nlex; v++)
mu[m][v] += INITIAL_PCOUNT;
for (v = 0; v < nlex; v++)
mu[m][v] /= (1 + INITIAL_PCOUNT * nlex);
}
printf("number of documents = %d\n", n);
printf("number of words = %d\n", nlex);
printf("number of mixtures = %d\n", nmixtures);
printf("convergence criterion = %.6g %%\n", epsilon * 100);
/*
* learn main
*
*/
start = myclock();
for (t = 0; t < emmax; t++)
{
/*
* E step
*
*/
for (step = 1; step <= remmax; step++)
{
/* inner REM E step */
printf("iteration %d/%d [REM %d+%d]..\t",
t + 1, emmax, step, steps);
fflush(stdout);
for (dp = data, i = 0; (dp->len) != -1; dp++, i++)
{
for (m = 0; m < nmixtures; m++)
{
for (j = 0, z = 0; j < dp->len; j++) {
if (dp->cnt[j] == 1) {
z += log(s[m]*mu[m][dp->id[j]]);
} else {
z += lgamma(s[m]*mu[m][dp->id[j]] + dp->cnt[j])
- lgamma(s[m]*mu[m][dp->id[j]]);
}
}
p[i][m] = log(lambda[m])
+ lgamma(s[m]) - lgamma(s[m] + d0[i])
+ z;
}
/* normalize, and exp */
for (m = 0, z = 0; m < nmixtures; m++)
z = logsumexp(z, p[i][m], (m == 0));
for (m = 0; m < nmixtures; m++)
p[i][m] = exp(p[i][m] - z);
}
/* inner REM M step */
for (m = 0; m < nmixtures; m++)
{
for (v = 0; v < nlex; v++)
eps[m][v] = beta[v];
t1 = t2 = 0;
for (dp = data, i = 0; (dp->len) != -1; dp++, i++)
{
for (j = 0, z = 0; j < dp->len; j++)
{
v = dp->id[j];
if (dp->cnt[j] == 1) {
aimv = 1;
} else {
aimv = s[m]*mu[m][v] *
(psi(s[m]*mu[m][v] + dp->cnt[j])
- psi(s[m]*mu[m][v]));
}
eps[m][v] += p[i][m] * aimv;
z += aimv;
}
t1 += p[i][m] * z;
t2 += p[i][m] * (psi(s[m] + d0[i]) - psi(s[m]));
}
/* update s */
s[m] = t1 / t2;
/* update mu */
for (v = 0, z = 0; v < nlex; v++)
z += eps[m][v];
for (v = 0; v < nlex; v++)
mu[m][v] = eps[m][v] / z;
}
ppl = dm_ppl(data, lambda, s, mu, d0, nmixtures, nlex);
printf("PPL = %.6g\r", ppl); fflush(stdout);
if (fabs(pplp - ppl) / pplp < 1.0e-3)
break; /* inner loop converged */
else
pplp = ppl;
}
steps += step;
/*
* M step
*
*/
/* MLE lambda */
for (m = 0; m < nmixtures; m++)
lambda[m] = 0;
for (dp = data, i = 0; (dp->len) != -1; dp++, i++)
{
for (m = 0; m < nmixtures; m++)
lambda[m] += p[i][m];
}
/* normalize */
for (m = 0, z = 0; m < nmixtures; m++)
z += lambda[m];
for (m = 0; m < nmixtures; m++)
lambda[m] /= z;
/* compute alpha */
for (m = 0; m < nmixtures; m++)
for (v = 0; v < nlex; v++)
alpha[m][v] = s[m] * mu[m][v];
/* MLE beta */
newton_beta (beta, eps, nmixtures, nlex, 0);
/* converged? */
sppl = dm_ppl(data, lambda, s, mu, d0, nmixtures, nlex);
elapsed = myclock() - start;
if ((t > 1) && (spplp - sppl) / spplp < epsilon) {
printf("\nconverged. [%s]\n", rtime(elapsed));
free_dmatrix(mu, nmixtures);
free_dmatrix(eps, nmixtures);
free_dmatrix(p, n);
free(beta);
free(d0);
free(s);
free(f);
return;
}
spplp = sppl;
/*
* ETA
*
*/
printf("iteration %2d/%d [REM %d+%d].. \t",
t + 1, emmax, step, steps);
printf("PPL = %.6g\t", sppl);
printf("ETA:%s (%d sec/step)\r",
rtime(elapsed * ((double) emmax / (t + 1) - 1)),
(int)((double) elapsed / (t + 1) + 0.5));
}
printf("\nmaximum iteration reached. exiting..\n");
free_dmatrix(mu, nmixtures);
free_dmatrix(eps, nmixtures);
free_dmatrix(p, n);
free(beta);
free(d0);
free(s);
free(f);
return;
}
int main( int argc, char *argv[] )
{
IDirectFB *dfb;
IDirectFBDisplayLayer *layer;
IDirectFBSurface *bgsurface;
IDirectFBImageProvider *provider;
IDirectFBWindow *window1;
IDirectFBWindow *window2;
IDirectFBSurface *window_surface1;
IDirectFBSurface *window_surface2;
IDirectFBEventBuffer *buffer;
DFBDisplayLayerConfig layer_config;
#if ((DIRECTFB_MAJOR_VERSION == 0) && (DIRECTFB_MINOR_VERSION == 9) && (DIRECTFB_MICRO_VERSION < 23))
DFBCardCapabilities caps;
#else
DFBGraphicsDeviceDescription caps;
#endif
IDirectFBWindow* upper;
DFBWindowID id1;
IDirectFBFont *font;
int fontheight;
int err;
int quit = 0;
DFBCHECK(DirectFBInit( &argc, &argv ));
DFBCHECK(DirectFBCreate( &dfb ));
#if ((DIRECTFB_MAJOR_VERSION == 0) && (DIRECTFB_MINOR_VERSION == 9) && (DIRECTFB_MICRO_VERSION < 23))
dfb->GetCardCapabilities( dfb, &caps );
#else
dfb->GetDeviceDescription( dfb, &caps );
#endif
dfb->GetDisplayLayer( dfb, DLID_PRIMARY, &layer );
if (!((caps.blitting_flags & DSBLIT_BLEND_ALPHACHANNEL) &&
(caps.blitting_flags & DSBLIT_BLEND_COLORALPHA )))
{
layer_config.flags = DLCONF_BUFFERMODE;
layer_config.buffermode = DLBM_BACKSYSTEM;
layer->SetConfiguration( layer, &layer_config );
}
layer->GetConfiguration( layer, &layer_config );
layer->EnableCursor ( layer, 1 );
{
DFBFontDescription desc;
desc.flags = DFDESC_HEIGHT;
desc.height = layer_config.width/50;
DFBCHECK(dfb->CreateFont( dfb, PACKAGE_DATA_DIR"/grunge.ttf", &desc, &font ));
font->GetHeight( font, &fontheight );
}
{
DFBSurfaceDescription desc;
DFBCHECK(dfb->CreateImageProvider( dfb,
PACKAGE_DATA_DIR"/bg.png",
&provider ));
desc.flags = DSDESC_WIDTH | DSDESC_HEIGHT;
desc.width = layer_config.width;
desc.height = layer_config.height;
DFBCHECK(dfb->CreateSurface( dfb, &desc, &bgsurface ) );
provider->RenderTo( provider, bgsurface, NULL );
provider->Release( provider );
DFBCHECK(bgsurface->SetFont( bgsurface, font ));
bgsurface->SetColor( bgsurface, 0xCF, 0xCF, 0xFF, 0xFF );
bgsurface->DrawString( bgsurface,
"Move the mouse over a window to activate it.",
-1, 10, 0, DSTF_LEFT | DSTF_TOP );
bgsurface->SetColor( bgsurface, 0xFF, 0xCF, 0xFF, 0xFF );
bgsurface->DrawString( bgsurface,
"You can drag them around, too, if you want.",
-1, 10 , 40, DSTF_LEFT | DSTF_TOP );
bgsurface->SetColor( bgsurface, 0xCF, 0xCF, 0xFF, 0xFF );
bgsurface->DrawString( bgsurface,
"The one with funky stuff happening and things flying around is an evas.",
-1, 10, 80, DSTF_LEFT | DSTF_TOP );
layer->SetBackgroundImage( layer, bgsurface );
layer->SetBackgroundMode( layer, DLBM_IMAGE );
}
{
DFBWindowDescription desc;
desc.flags = ( DWDESC_POSX | DWDESC_POSY |
DWDESC_WIDTH | DWDESC_HEIGHT | DWDESC_CAPS );
desc.posx = 20;
desc.posy = 120;
desc.width = 200;
desc.height = 200;
desc.caps = DWCAPS_ALPHACHANNEL;
DFBCHECK( layer->CreateWindow( layer, &desc, &window2 ) );
window2->GetSurface( window2, &window_surface2 );
window2->SetOpacity( window2, 0xFF );
window2->CreateEventBuffer( window2, &buffer );
{
window_surface2->SetColor( window_surface2,
0x00, 0x30, 0x10, 0xc0 );
window_surface2->DrawRectangle( window_surface2, 0, 0,
desc.width, desc.height );
window_surface2->SetColor( window_surface2,
0x80, 0xa0, 0x00, 0x90 );
window_surface2->FillRectangle( window_surface2, 1, 1,
desc.width-2, desc.height-2 );
DFBCHECK(window_surface2->SetFont(window_surface2, font ));
window_surface2->SetColor( window_surface2, 0xCF, 0xFF, 0xCF, 0xFF );
window_surface2->DrawString( window_surface2,
"Pants!",
-1,10, fontheight + 5, DSTF_LEFT | DSTF_TOP );
}
window_surface2->Flip( window_surface2, NULL, 0 );
}
{
DFBWindowDescription desc;
desc.flags = ( DWDESC_POSX | DWDESC_POSY |
DWDESC_WIDTH | DWDESC_HEIGHT | DWDESC_CAPS );
desc.posx = 200;
desc.posy = 200;
desc.width = 240;
desc.height = 320;
desc.caps = DWCAPS_ALPHACHANNEL;
DFBCHECK(layer->CreateWindow( layer, &desc, &window1 ) );
window1->GetSurface( window1, &window_surface1 );
window_surface1->SetColor( window_surface1, 0xFF, 0x20, 0x20, 0x90 );
window_surface1->DrawRectangle( window_surface1, 0, 0,
desc.width, desc.height );
window_surface1->Flip( window_surface1, NULL, 0 );
window1->SetOpacity( window1, 0xFF );
window1->GetID( window1, &id1 );
window1->AttachEventBuffer( window1, buffer );
}
window1->RequestFocus( window1 );
window1->RaiseToTop( window1 );
upper = window1;
{
evas_init();
evas = evas_new();
evas_output_method_set(evas, evas_render_method_lookup("directfb"));
evas_output_size_set(evas, 240, 320);
evas_output_viewport_set(evas, 0, 0, 240, 320);
{
Evas_Engine_Info_DirectFB *einfo;
einfo = (Evas_Engine_Info_DirectFB *) evas_engine_info_get(evas);
einfo->info.dfb = dfb;
einfo->info.surface = window_surface1;
einfo->info.flags = DSDRAW_BLEND;
evas_engine_info_set(evas, (Evas_Engine_Info *) einfo);
}
setup();
evas_render(evas);
start_time = get_time();
}
while (!quit) {
static IDirectFBWindow* active = NULL;
static int grabbed = 0;
static int startx = 0;
static int starty = 0;
static int endx = 0;
static int endy = 0;
DFBWindowEvent evt;
buffer->WaitForEventWithTimeout( buffer, 0, 10 );
while (buffer->GetEvent( buffer, DFB_EVENT(&evt) ) == DFB_OK) {
IDirectFBWindow* window;
if (evt.window_id == id1)
window = window1;
else
window = window2;
if (active) {
switch (evt.type) {
case DWET_BUTTONDOWN:
if (!grabbed && evt.button == DIBI_LEFT) {
grabbed = 1;
layer->GetCursorPosition( layer,
&startx, &starty );
window->GrabPointer( window );
}
break;
case DWET_BUTTONUP:
switch (evt.button) {
case DIBI_LEFT:
if (grabbed) {
window->UngrabPointer( window );
grabbed = 0;
}
break;
case DIBI_MIDDLE:
upper->LowerToBottom( upper );
upper = (upper == window1) ? window2 : window1;
break;
case DIBI_RIGHT:
quit = DIKS_DOWN;
break;
default:
break;
}
break;
case DWET_KEYDOWN:
if (grabbed)
break;
switch (evt.key_id) {
case DIKI_RIGHT:
active->Move (active, 1, 0);
break;
case DIKI_LEFT:
active->Move (active, -1, 0);
break;
case DIKI_UP:
active->Move (active, 0, -1);
break;
case DIKI_DOWN:
active->Move (active, 0, 1);
break;
default:
break;
}
break;
case DWET_LOSTFOCUS:
if (!grabbed)
active = NULL;
break;
default:
break;
}
}
else if (evt.type == DWET_GOTFOCUS)
active = window;
switch (evt.type) {
case DWET_MOTION:
endx = evt.cx;
endy = evt.cy;
break;
case DWET_KEYDOWN:
switch (evt.key_symbol) {
case DIKS_ESCAPE:
case DIKS_SMALL_Q:
case DIKS_CAPITAL_Q:
case DIKS_BACK:
case DIKS_STOP:
quit = 1;
break;
default:
break;
}
break;
default:
break;
}
}
if (active) {
if (grabbed) {
active->Move( active, endx - startx, endy - starty);
startx = endx;
starty = endy;
}
active->SetOpacity( active,
(sin( myclock()/300.0 ) * 85) + 170 );
}
loop();
{
Eina_List *updates;
updates = evas_render_updates(evas);
/* efficient update.. only flip the rectangle regions that changed! */
if (updates)
{
DFBRegion region;
Eina_List *l;
for (l = updates; l; l = l->next)
{
Evas_Rectangle *rect;
rect = l->data;
region.x1 = rect->x;
region.y1 = rect->y;
region.x2 = rect->x + rect->w - 1;
region.y2 = rect->y + rect->h - 1;
window_surface1->Flip(window_surface1, ®ion,
DSFLIP_BLIT);
}
evas_render_updates_free(updates);
}
}
}
buffer->Release( buffer );
window_surface2->Release( window_surface2 );
window_surface1->Release( window_surface1 );
window2->Release( window2 );
window1->Release( window1 );
layer->Release( layer );
bgsurface->Release( bgsurface );
dfb->Release( dfb );
evas_shutdown();
return 0;
}
int
trace_speed_test (void)
{
int i;
/* Overall loop run time deltas under 1 ms are likely noise and
should be ignored. */
mindelta = 1000;
// The bodies of the two loops following must be identical.
now2 = myclock ();
globfoo2 = 1;
for (i = 0; i < iters; ++i)
{
globfoo2 *= 45;
globfoo2 += globfoo + globfoo3;
globfoo2 *= globfoo + globfoo3;
globfoo2 -= globarr[4] + globfoo3;
globfoo2 *= globfoo + globfoo3;
globfoo2 += globfoo + globfoo3;
}
now3 = myclock ();
total1 = now3 - now2;
now4 = myclock ();
globfoo2 = 1;
for (i = 0; i < iters; ++i)
{
globfoo2 *= 45;
globfoo2 += globfoo + globfoo3; /* set tracepoint here */
globfoo2 *= globfoo + globfoo3;
globfoo2 -= globarr[4] + globfoo3;
globfoo2 *= globfoo + globfoo3;
globfoo2 += globfoo + globfoo3;
}
now5 = myclock ();
total2 = now5 - now4;
/* Report on the test results. */
nspertp = 0;
idelta = total2 - total1;
printf ("Loops took %d usec and %d usec, delta is %d usec, %d iterations\n",
total1, total2, idelta, iters);
/* If the second loop seems to run faster, things are weird so give up. */
if (idelta < 0)
return -1;
if (idelta > mindelta
/* Total test time should be between 15 and 30 seconds. */
&& (total1 + total2) > (15 * 1000000)
&& (total1 + total2) < (30 * 1000000))
{
nsdelta = (((unsigned long long) idelta) * 1000) / iters;
printf ("Second loop took %d ns longer per iter than first\n", nsdelta);
nspertp = nsdelta / numtps;
printf ("%d ns per tracepoint\n", nspertp);
printf ("Base iteration time %d ns\n",
((int) (((unsigned long long) total1) * 1000) / iters));
printf ("Total test time %d secs\n", ((int) ((now5 - now2) / 1000000)));
/* Speed test ran with no problem. */
return 0;
}
/* The test run was too brief, or otherwise not useful. */
return 1;
}
/* MAIN PROGRAM */
int main() {
int i, j, k;
int tag = 1; /* tape tag */
int taskCount = 0;
int pFW, pRV, pTR, degree, keep; /* forward/reverse parameters */
int evalCount; /* # of evaluations */
/****************************************************************************/
/* READ CONTROL PARAMETERS FROM FILE */
int controlParameters[cpCount];
FILE* controlFile;
/*------------------------------------------------------------------------*/
/* open file to read */
if ((controlFile = fopen(controlFileName,"r")) == NULL) {
fprintf(stdout,"ERROR: Could not open control file %s\n",
controlFileName);
exit(-1);
}
/*------------------------------------------------------------------------*/
/* read all values */
for (i=0; i<cpCount; i++)
fscanf(controlFile,"%d%*[^\n]",&controlParameters[i]);
indepDim = controlParameters[cpDimension];
pFW = controlParameters[cpVecCountFW];
pRV = controlParameters[cpVecCountRV];
pTR = controlParameters[cpVecCountTR];
degree = controlParameters[cpDegree];
evalCount = controlParameters[cpAverageCount];
/*------------------------------------------------------------------------*/
/* close control file */
fclose(controlFile);
/****************************************************************************/
/* VARIABLES & INITIALIZATION */
/*------------------------------------------------------------------------*/
/* Initialize all problem parameters (including dimension) */
initProblemParameters();
/*------------------------------------------------------------------------*/
/* Initialize the independent variables */
double* indeps = new double[indepDim];
initIndependents(indeps);
/*------------------------------------------------------------------------*/
/* Check main parameters */
if (evalCount <= 0) {
fprintf(stdout," # of evaluations to average over = ? ");
fscanf(stdin,"%d",&evalCount);
fprintf(stdout,"\n");
}
if ((degree <= 1) &&
(controlParameters[cpHosFW] || controlParameters[cpHovFW] ||
controlParameters[cpHosRV] || controlParameters[cpHovRV] ||
controlParameters[cpTensor])) {
fprintf(stdout," degree = ? ");
fscanf(stdin,"%d",°ree);
fprintf(stdout,"\n");
}
keep = degree + 1;
if ((pFW < 1) &&
(controlParameters[cpFovFW] || controlParameters[cpHovFW])) {
fprintf(stdout," # of vectors in vector forward mode = ? ");
fscanf(stdin,"%d",&pFW);
fprintf(stdout,"\n");
}
if ((pRV < 1) &&
(controlParameters[cpFovRV] || controlParameters[cpHovRV])) {
fprintf(stdout," # of vectors in vector reverse mode = ? ");
fscanf(stdin,"%d",&pRV);
fprintf(stdout,"\n");
}
if ((pTR < 1) &&
(controlParameters[cpTensor])) {
fprintf(stdout," # of vectors in tensor mode = ? ");
fscanf(stdin,"%d",&pTR);
fprintf(stdout,"\n");
}
/*------------------------------------------------------------------------*/
/* Necessary variable */
double depOrig=0.0, depTape; /* function value */
double ***XPPP, **XPP;
double ***YPPP, **YPP, *YP;
double ***ZPPP, **ZPP, *ZP;
double *UP, u;
double *VP;
double *WP;
double *JP;
short **nzPP;
int retVal=0; /* return value */
double t00, t01, t02, t03; /* time values */
double **TPP;
double **SPP;
double **HPP;
int dim;
/****************************************************************************/
/* NORMALIZE TIMER */
/****************************************************************************/
/* 0. ORIGINAL FUNCTION EVALUATION */
/* ---> always */
fprintf(stdout,"\nTASK %d: Original function evaluation\n",
taskCount++);
t00 = myclock();
for (i=0; i<evalCount; i++)
depOrig = originalScalarFunction(indeps);
t01 = myclock();
double timeUnit;
if (t01-t00) {
timeUnit = 1.0/(t01-t00);
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,1.0,
(t01-t00)/evalCount);
} else {
fprintf(stdout," !!! zero timing !!!\n");
fprintf(stdout," set time unit to 1.0\n");
timeUnit = 1;
}
/****************************************************************************/
/* 1. TAPING THE FUNCTION */
/* ---> always */
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: Taping the function\n",
taskCount++);
t00 = myclock();
/* NOTE: taping will be performed ONCE only */
depTape = tapingScalarFunction(tag,indeps);
t01 = myclock();
size_t tape_stats[STAT_SIZE];
tapestats(tag,tape_stats);
fprintf(stdout,"\n independents %zu\n",tape_stats[NUM_INDEPENDENTS]);
fprintf(stdout," dependents %zu\n",tape_stats[NUM_DEPENDENTS]);
fprintf(stdout," operations %zu\n",tape_stats[NUM_OPERATIONS]);
fprintf(stdout," operations buffer size %zu\n",tape_stats[OP_BUFFER_SIZE]);
fprintf(stdout," locations buffer size %zu\n",tape_stats[LOC_BUFFER_SIZE]);
fprintf(stdout," constants buffer size %zu\n",tape_stats[VAL_BUFFER_SIZE]);
fprintf(stdout," maxlive %zu\n",tape_stats[NUM_MAX_LIVES]);
fprintf(stdout," valstack size %zu\n\n",tape_stats[TAY_STACK_SIZE]);
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit*evalCount,
(t01-t00));
/****************************************************************************/
/* 2. ZOS_FORWARD */
if (controlParameters[cpZosFW]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: forward(tag, m=1, n=%d, keep, X[n], Y[m])\n",
taskCount++,indepDim);
fprintf(stdout," ---> zos_forward\n");
/*----------------------------------------------------------------------*/
/* NO KEEP */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,0,indeps,&depTape);
t01 = myclock();
fprintf(stdout," NO KEEP");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* KEEP */
t02 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,1,indeps,&depTape);
t03 = myclock();
fprintf(stdout," KEEP ");
fprintf(stdout,TIMEFORMAT,(t03-t02)*timeUnit,
(t03-t02)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpZosFW] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
fprintf(stdout," Should be the same values:\n");
fprintf(stdout," (original) %12.8E =? %12.8E (forward from tape)\n",
depOrig,depTape);
}
}
/****************************************************************************/
/* 3. FOS_FORWARD */
if (controlParameters[cpFosFW]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: forward(tag, m=1, n=%d, d=1, keep, X[n][d+1], Y[d+1])\n",
taskCount++,indepDim);
fprintf(stdout," ---> fos_forward\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
XPP = new double*[indepDim];
for (i=0; i<indepDim; i++) {
XPP[i] = new double[2];
XPP[i][0] = indeps[i];
XPP[i][1] = (double)rand();
}
YP = new double[2];
/*----------------------------------------------------------------------*/
/* NO KEEP */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,1,0,XPP,YP);
t01 = myclock();
fprintf(stdout," NO KEEP");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* KEEP */
t02 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,1,2,XPP,YP);
t03 = myclock();
fprintf(stdout," KEEP ");
fprintf(stdout,TIMEFORMAT,(t03-t02)*timeUnit,
(t03-t02)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpFosFW] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
fprintf(stdout," Should be the same values:\n");
fprintf(stdout," (original) %12.8E =? %12.8E (forward from tape)\n",
depOrig,YP[0]);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<indepDim; i++)
delete[] XPP[i];
delete[] XPP;
delete[] YP;
}
/****************************************************************************/
/* 4. HOS_FORWARD */
if (controlParameters[cpHosFW]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: forward(tag, m=1, n=%d, d=%d, keep, X[n][d+1], Y[d+1])\n",
taskCount++,indepDim,degree);
fprintf(stdout," ---> hos_forward\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
XPP = new double*[indepDim];
for (i=0; i<indepDim; i++) {
XPP[i] = new double[1+degree];
XPP[i][0] = indeps[i];
for (j=1; j<=degree; j++)
XPP[i][j] = (double)rand();
}
YP = new double[1+degree];
/*----------------------------------------------------------------------*/
/* NO KEEP */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,degree,0,XPP,YP);
t01 = myclock();
fprintf(stdout," NO KEEP");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* KEEP */
t02 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,degree,keep,XPP,YP);
t03 = myclock();
fprintf(stdout," KEEP ");
fprintf(stdout,TIMEFORMAT,(t03-t02)*timeUnit,
(t03-t02)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpHosFW] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
fprintf(stdout," Should be the same values:\n");
fprintf(stdout," (original) %12.8E =? %12.8E (forward from tape)\n",
depOrig,YP[0]);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<indepDim; i++)
delete[] XPP[i];
delete[] XPP;
delete[] YP;
}
/****************************************************************************/
/* 5. FOV_FORWARD */
if (controlParameters[cpFovFW]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: forward(tag, m=1, n=%d, p=%d, x[n], X[n][p], y[m], Y[m][p])\n",
taskCount++,indepDim,pFW);
fprintf(stdout," ---> fov_forward\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
XPP = new double*[indepDim];
for (i=0; i<indepDim; i++) {
XPP[i] = new double[pFW];
for (j=0; j<pFW; j++)
XPP[i][j] = (double)rand();
}
YP = new double[1];
YPP = new double*[1];
YPP[0] = new double[pFW];
/*----------------------------------------------------------------------*/
/* always NO KEEP */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,pFW,indeps,XPP,YP,YPP);
t01 = myclock();
fprintf(stdout," (NO KEEP)");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpFovFW] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<indepDim; i++)
delete[] XPP[i];
delete[] XPP;
delete[] YP;
delete[] YPP[0];
delete[] YPP;
}
/****************************************************************************/
/* 6. HOV_FORWARD */
if (controlParameters[cpHovFW]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: forward(tag, m=1, n=%d, d=%d, p=%d, x[n], X[n][p][d], y[m], Y[m][p][d])\n",
taskCount++,indepDim,degree,pFW);
fprintf(stdout," ---> hov_forward\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
XPPP = new double**[indepDim];
for (i=0; i<indepDim; i++) {
XPPP[i] = new double*[pFW];
for (j=0; j<pFW; j++) {
XPPP[i][j] = new double[degree];
for (k=0; k<degree; k++)
XPPP[i][j][k] = (double)rand();
}
}
YP = new double[1];
YPPP = new double**[1];
YPPP[0] = new double*[pFW];
for (j=0; j<pFW; j++)
YPPP[0][j] = new double[degree];
/*----------------------------------------------------------------------*/
/* always NO KEEP */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = forward(tag,1,indepDim,degree,pFW,indeps,XPPP,YP,YPPP);
t01 = myclock();
fprintf(stdout," (NO KEEP)");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpHovFW] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<indepDim; i++) {
for (j=0; j<pFW; j++)
delete[] XPPP[i][j];
delete[] XPPP[i];
}
delete[] XPPP;
delete[] YP;
for (j=0; j<pFW; j++)
delete[] YPPP[0][j];
delete[] YPPP[0];
delete[] YPPP;
}
/****************************************************************************/
/* 7. FOS_REVERSE */
if (controlParameters[cpFosRV]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: reverse(tag, m=1, n=%d, d=0, u, Z[n])\n",
taskCount++,indepDim);
fprintf(stdout," ---> fos_reverse\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
ZP = new double[indepDim];
u = (double)rand();
/*----------------------------------------------------------------------*/
/* Forward with keep*/
forward(tag,1,indepDim,1,indeps,&depTape);
/*----------------------------------------------------------------------*/
/* Reverse */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = reverse(tag,1,indepDim,0,u,ZP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpFosRV] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] ZP;
}
/****************************************************************************/
/* 8. HOS_REVERSE */
if (controlParameters[cpHosRV]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: reverse(tag, m=1, n=%d, d=%d, u, Z[n][d+1])\n",
taskCount++,indepDim,degree);
fprintf(stdout," ---> hos_reverse\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
ZPP = new double*[indepDim];
for (i=0; i<indepDim; i++)
ZPP[i] = new double[degree+1];
u = (double)rand();
XPP = new double*[indepDim];
for (i=0; i<indepDim; i++) {
XPP[i] = new double[1+degree];
XPP[i][0] = indeps[i];
for (j=1; j<=degree; j++)
XPP[i][j] = (double)rand();
}
YP = new double[1+degree];
/*----------------------------------------------------------------------*/
/* Forward with keep*/
forward(tag,1,indepDim,degree,keep,XPP,YP);
/*----------------------------------------------------------------------*/
/* Reverse */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = reverse(tag,1,indepDim,degree,u,ZPP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpHosRV] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<indepDim; i++)
delete[] ZPP[i];
delete[] ZPP;
for (i=0; i<indepDim; i++)
delete[] XPP[i];
delete[] XPP;
delete[] YP;
}
/****************************************************************************/
/* 9. FOV_REVERSE */
if (controlParameters[cpFovRV]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: reverse(tag, m=1, n=%d, d=0, p=%d, U[p], Z[p][n])\n",
taskCount++,indepDim,pRV);
fprintf(stdout," ---> fov_reverse\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
ZPP = new double*[pRV];
for (i=0; i<pRV; i++)
ZPP[i] = new double[indepDim];
UP = new double[pRV];
for (i=0; i<pRV; i++)
UP[i] = (double)rand();
/*----------------------------------------------------------------------*/
/* Forward with keep*/
forward(tag,1,indepDim,1,indeps,&depTape);
/*----------------------------------------------------------------------*/
/* Reverse */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = reverse(tag,1,indepDim,0,pRV,UP,ZPP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpFovRV] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<pRV; i++)
delete[] ZPP[i];
delete[] ZPP;
delete[] UP;
}
/****************************************************************************/
/* 10. HOV_REVERSE */
if (controlParameters[cpHovRV]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: reverse(tag, m=1, n=%d, d=%d, p=%d, U[p], Z[p][n][d+1], nz[p][n])\n",
taskCount++,indepDim,degree,pRV);
fprintf(stdout," ---> hov_reverse\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
ZPPP = new double**[pRV];
for (i=0; i<pRV; i++) {
ZPPP[i] = new double*[indepDim];
for (j=0; j<indepDim; j++)
ZPPP[i][j] = new double[degree+1];
}
UP = new double[pRV];
for (i=0; i<pRV; i++)
UP[i] = (double)rand();
XPP = new double*[indepDim];
for (i=0; i<indepDim; i++) {
XPP[i] = new double[1+degree];
XPP[i][0] = indeps[i];
for (j=1; j<=degree; j++)
XPP[i][j] = (double)rand();
}
YP = new double[1+degree];
nzPP = new short*[pRV];
for (i=0; i<pRV; i++)
nzPP[i] = new short[indepDim];
/*----------------------------------------------------------------------*/
/* Forward with keep*/
forward(tag,1,indepDim,degree,keep,XPP,YP);
/*----------------------------------------------------------------------*/
/* Reverse without nonzero pattern*/
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = reverse(tag,1,indepDim,degree,pRV,UP,ZPPP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Reverse with nonzero pattern*/
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = reverse(tag,1,indepDim,degree,pRV,UP,ZPPP,nzPP);
t01 = myclock();
fprintf(stdout," (NZ)");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpHovRV] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<pRV; i++) {
for (j=0; j<indepDim; j++)
delete[] ZPPP[i][j];
delete[] ZPPP[i];
delete[] nzPP[i];
}
delete[] ZPPP;
delete[] nzPP;
delete[] UP;
for (i=0; i<indepDim; i++)
delete[] XPP[i];
delete[] XPP;
delete[] YP;
}
/****************************************************************************/
/* 11. FUNCTION */
if (controlParameters[cpFunction]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: function(tag, m=1, n=%d, X[n], Y[m])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Function evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = function(tag,1,indepDim,indeps,&depTape);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpFunction] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
fprintf(stdout," Should be the same values:\n");
fprintf(stdout," (original) %12.8E =? %12.8E (forward from tape)\n",
depOrig,depTape);
}
}
/****************************************************************************/
/* 12. JACOBIAN */
if (controlParameters[cpJacobian]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: gradient(tag, n=%d, X[n], G[n])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
JP = new double[indepDim];
/*----------------------------------------------------------------------*/
/* Gradient evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = gradient(tag,indepDim,indeps,JP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpJacobian] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] JP;
}
/****************************************************************************/
/* 13. VECJAC */
if (controlParameters[cpVecJac]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: vec_jac(tag, m=1, n=%d, repeat, X[n], U[m], V[n])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
UP = new double[1];
UP[0] = (double)rand();
VP = new double[indepDim];
/*----------------------------------------------------------------------*/
/* Evaluation without repeat */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = vec_jac(tag,1,indepDim,0,indeps,UP,VP);
t01 = myclock();
fprintf(stdout,"(no repeat)");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Evaluation with repeat */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = vec_jac(tag,1,indepDim,1,indeps,UP,VP);
t01 = myclock();
fprintf(stdout," (repeat)");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpVecJac] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] UP;
delete[] VP;
}
/****************************************************************************/
/* 14. JACVEC */
if (controlParameters[cpJacVec]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: jac_vec(tag, m=1, n=%d, X[n], V[n], U[m])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
UP = new double[1];
VP = new double[indepDim];
for (i=0; i<indepDim; i++)
VP[i] = (double)rand();
/*----------------------------------------------------------------------*/
/* Evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = jac_vec(tag,1,indepDim,indeps,VP,UP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpJacVec] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] UP;
delete[] VP;
}
/****************************************************************************/
/* 15. HESSIAN */
if (controlParameters[cpHessian]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: hessian(tag, n=%d, X[n], lower triangle of H[n][n])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
HPP = new double*[indepDim];
for (i=0; i<indepDim; i++)
HPP[i] = new double[indepDim];
/*----------------------------------------------------------------------*/
/* Evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = hessian(tag,indepDim,indeps,HPP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpHessian] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
for (i=0; i<indepDim; i++)
delete[] HPP[i];
delete[] HPP;
}
/****************************************************************************/
/* 16. HESSVEC */
if (controlParameters[cpHessVec]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: hess_vec(tag, n=%d, X[n], V[n], W[n])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
VP = new double[indepDim];
for (i=0; i<indepDim; i++)
VP[i] = (double)rand();
WP = new double[indepDim];
/*----------------------------------------------------------------------*/
/* Evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = hess_vec(tag,indepDim,indeps,VP,WP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpHessVec] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] VP;
delete[] WP;
}
/****************************************************************************/
/* 17. LAGHESSVEC */
if (controlParameters[cpLagHessVec]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: lagra_hess_vec(tag, m=1, n=%d, X[n], U[m], V[n], W[n])\n",
taskCount++,indepDim);
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
UP = new double[1];
UP[0] = (double)rand();
VP = new double[indepDim];
for (i=0; i<indepDim; i++)
VP[i] = (double)rand();
WP = new double[indepDim];
/*----------------------------------------------------------------------*/
/* Evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
retVal = lagra_hess_vec(tag,1,indepDim,indeps,UP,VP,WP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpLagHessVec] > 1) {
fprintf(stdout,"\n Return value: %d\n",retVal);
}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] VP;
delete[] WP;
delete[] UP;
}
/****************************************************************************/
/* 18. TENSOR */
if (controlParameters[cpTensor]) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: tensor_eval(tag, m =1, n=%d, d=%d, p=%d, X[n], tensor[m][dim], S[n][p])\n",
taskCount++,indepDim,degree, pTR);
fprintf(stdout,"\n dim = ((p+d) over d)\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
dim = binomi(pTR+degree,degree);
TPP = new double*[1];
TPP[0] = new double[dim];
SPP = new double*[indepDim];
for (i=0; i<indepDim; i++) {
SPP[i] = new double[pTR];
for (j=0; j<pTR; j++)
SPP[i][j]=(i==j)?1.0:0.0;
}
/*----------------------------------------------------------------------*/
/* tensor evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
tensor_eval(tag,1,indepDim,degree,pTR,indeps,TPP,SPP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpTensor] > 1) {}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] TPP[0];
delete[] TPP;
for (i=0; i<indepDim; i++)
delete[] SPP[i];
delete[] SPP;
}
/****************************************************************************/
/* 19. INVERSE TENSOR */
if (controlParameters[cpInvTensor] && (1==indepDim)) {
fprintf(stdout,"--------------------------------------------------------");
fprintf(stdout,"\nTASK %d: inverse_tensor_eval(tag, m=n=1, d=%d, p=%d, X[n], tensor[m][dim], S[n][p])\n",
taskCount++,degree, pTR);
fprintf(stdout,"\n dim = ((p+d) over d)\n");
/*----------------------------------------------------------------------*/
/* Allocation & initialisation of tensors */
dim = binomi(pTR+degree,degree);
TPP = new double*[1];
TPP[0] = new double[dim];
SPP = new double*[1];
SPP[0] = new double[pTR];
for (j=0; j<pTR; j++)
SPP[0][j]=(0==j)?1.0:0.0;
/*----------------------------------------------------------------------*/
/* tensor evaluation */
t00 = myclock();
for (i=0; i<evalCount; i++)
inverse_tensor_eval(tag,1,degree,pTR,indeps,TPP,SPP);
t01 = myclock();
fprintf(stdout," ");
fprintf(stdout,TIMEFORMAT,(t01-t00)*timeUnit,
(t01-t00)/evalCount);
/*----------------------------------------------------------------------*/
/* Debug infos */
if (controlParameters[cpInvTensor] > 1) {}
/*----------------------------------------------------------------------*/
/* Free tensors */
delete[] TPP[0];
delete[] TPP;
delete[] SPP[0];
delete[] SPP;
}
return 1;
}
/* MAIN PROGRAM */
int main() {
int n,i,it;
size_t tape_stats[STAT_SIZE];
/*--------------------------------------------------------------------------*/
/* Input */
fprintf(stdout,"SPEELPENNINGS PRODUCT Type 1 (ADOL-C Example)\n\n");
fprintf(stdout,"number of independent variables = ? \n");
scanf("%d",&n);
int itu;
fprintf(stdout,"number of evaluations = ? \n");
scanf("%d",&itu);
/*--------------------------------------------------------------------------*/
double yp=0.0; /* 0. time (undifferentiated double code) */
double *xp = new double[n];
/* Init */
for (i=0;i<n;i++)
xp[i] = (i+1.0)/(2.0+i);
double t00 = myclock(1);
for (it=0; it<itu; it++) {
yp = 1.0;
for (i=0; i<n; i++)
yp *= xp[i];
}
double t01 = myclock();
/*--------------------------------------------------------------------------*/
double yout=0; /* 1. time (tracing ! no keep) */
double t10 = myclock();
trace_on(TAG);
adouble* x;
x = new adouble[n];
adouble y;
y = 1;
for (i=0; i<n; i++) {
x[i] <<= xp[i];
y *= x[i];
}
y >>= yout;
delete [] x;
trace_off();
double t11 = myclock();
fprintf(stdout,"%E =? %E function values should be the same \n",yout,yp);
/*--------------------------------------------------------------------------*/
tapestats(TAG,tape_stats);
fprintf(stdout,"\n independents %zu\n",tape_stats[NUM_INDEPENDENTS]);
fprintf(stdout," dependents %zu\n",tape_stats[NUM_DEPENDENTS]);
fprintf(stdout," operations %zu\n",tape_stats[NUM_OPERATIONS]);
fprintf(stdout," operations buffer size %zu\n",tape_stats[OP_BUFFER_SIZE]);
fprintf(stdout," locations buffer size %zu\n",tape_stats[LOC_BUFFER_SIZE]);
fprintf(stdout," constants buffer size %zu\n",tape_stats[VAL_BUFFER_SIZE]);
fprintf(stdout," maxlive %zu\n",tape_stats[NUM_MAX_LIVES]);
fprintf(stdout," valstack size %zu\n\n",tape_stats[TAY_STACK_SIZE]);
/*--------------------------------------------------------------------------*/
double **r = new double*[1];
r[0] = new double[1];
r[0][0] = yp;
double err;
double *z = new double[n];
double *g = new double[n];
double* h = new double[n];
double *ind = new double[n];
/*--------------------------------------------------------------------------*/
double t60 = myclock(); /* 6. time (forward no keep) */
for (it=0; it<itu; it++)
forward(TAG,1,n,0,xp,*r);
double t61 = myclock();
/*--------------------------------------------------------------------------*/
double t20 = myclock(); /* 2. time (forward+keep) */
for (it=0; it<itu; it++)
forward(TAG,1,n,1,xp,*r);
double t21 = myclock();
/*--------------------------------------------------------------------------*/
double t30 = myclock(); /* 3. time (reverse) */
for (it=0; it<itu; it++)
reverse(TAG,1,n,0,1.0,g);
double t31 = myclock();
err=0;
for (i=0; i<n; i++) // Compare with deleted product
{ err = maxabs(err,xp[i]*g[i]/r[0][0] - 1.0);
ind[i] = xp[i];
}
fprintf(stdout,"%E = maximum relative errors in gradient (fw+rv)\n",err);
/*--------------------------------------------------------------------------*/
double t40 = myclock(); /* 4. time (gradient) */
for (it=0; it<itu; it++)
gradient(TAG,n,ind,z); //last argument lagrange is ommitted
double t41 = myclock();
err = 0;
for (i=0; i<n; i++) // Compare with previous numerical result
err = maxabs(err,g[i]/z[i] - 1.0);
fprintf(stdout,"%E = gradient error should be exactly zero \n",err);
/*--------------------------------------------------------------------------*/
double *tan = new double[n]; /* 5. time (first row of Hessian) */
for (i=1; i<n; i++)
tan[i] = 0.0 ;
tan[0]=1.0;
double t50 = myclock();
for (it=0; it<itu; it++)
hess_vec(TAG,n,ind,tan,h); // Computes Hessian times direction tan.
double t51 = myclock();
err = abs(h[0]);
for (i=1; i<n; i++) //Compare with doubly deleted product
err = maxabs(err,xp[0]*h[i]/g[i]-1.0);
fprintf(stdout,"%E = maximum relative error in Hessian column \n",err);
/*--------------------------------------------------------------------------*/
double h1n = h[n-1]; /* Check for symmetry */
tan[0]=0;
tan[n-1]=1;
hess_vec(TAG,n,ind,tan,h); // Computes Hessian times direction tan.
fprintf(stdout,
"%E = %E (1,n) and (n,1) entry should be the same\n",h1n,h[0]);
/*--------------------------------------------------------------------------*/
/* output of results */
if (t01-t00) {
double rtu = 1.0/(t01-t00);
fprintf(stdout,"\n\n times for ");
fprintf(stdout,"\n unitime : \t%E seconds",(t01-t00)/itu);
fprintf(stdout,"\n tracing : \t%E",(t11-t10)*rtu*itu);
fprintf(stdout," units \t%E seconds",(t11-t10));
fprintf(stdout,
"\n----------------------------------------------------------");
fprintf(stdout,"\n forward (no keep): \t%E",(t61-t60)*rtu);
fprintf(stdout," units \t%E seconds",(t61-t60)/itu);
fprintf(stdout,"\n forward + keep : \t%E",(t21-t20)*rtu);
fprintf(stdout," units \t%E seconds",(t21-t20)/itu);
fprintf(stdout,"\n reverse : \t%E",(t31-t30)*rtu);
fprintf(stdout," units \t%E seconds",(t31-t30)/itu);
fprintf(stdout,
"\n----------------------------------------------------------");
fprintf(stdout,"\n gradient : \t%E",(t41-t40)*rtu);
fprintf(stdout," units \t%E seconds",(t41-t40)/itu);
fprintf(stdout,"\n hess*vec : \t%E",(t51-t50)*rtu);
fprintf(stdout," units \t%E seconds\n",(t51-t50)/itu);
} else
fprintf(stdout,"\n-> zero timing due to small problem dimension \n");
return 1;
}
int main(int argc, char ** argv)
{
udpt = udp_throw_init(0);
if (!udpt) {
fprintf(stderr,"ERROR: unable to generate data\n");
return -1;
}
read_cmd_options(argc,argv);
// initialize RNG and seeds
// use different keyoffsets in parallel, so key spaces are disjoint
if (!kseed) kseed = (unsigned int) time(NULL);
kseed += whichgen;
vseed += whichgen;
srand(kseed);
keyoffset += whichgen*keyoffset;
// create power-law distribution
fprintf(stdout,"initializing power-law distribution ...\n");
power_law_distribution_t * power =
power_law_initialize(concentration,maxkeys,RAND_MAX);
// packet buffer length of 64 bytes per datum is ample
int buflen = 64*perpacket;
char *buf = (char *) malloc(buflen*sizeof(char));
memset(buf,0,buflen);
// generate the datums in packets
fprintf(stdout,"starting generator ...\n");
fflush(stdout);
// plot
//int *ycount = (int *) malloc(maxkeys*sizeof(int));
//for (int i = 0; i < maxkeys; i++) ycount[i] = 0;
double timestart = myclock();
for (uint64_t i = 0; i < npacket; i++) {
// packet header
int offset = snprintf(buf,buflen,"packet %" PRIu64 "\n",i*numgen+whichgen);
// generate one packet with perpacket datums
uint64_t key;
for (int j = 0; j < perpacket; j++) {
uint64_t rn = rand_r(&kseed);
while ((key = power_law_simulate(rn,power)) >= maxkeys)
rn = rand_r(&kseed);
// plot
//ycount[key]++;
key += keyoffset;
uint32_t value = 0;
uint32_t bias = 0;
if ((evahash((uint8_t*) &key,sizeof(uint64_t),mask) & 0xFF) == 0x11) {
bias = 1;
value = ((rand_r(&vseed) & 0xF) == 0);
} else value = rand_r(&vseed) & 0x1;
offset += snprintf(buf+offset,buflen-offset,
"%" PRIu64 ",%u,%u\n",key,value,bias);
}
// write packet to UDP port(s)
udp_throw_data(udpt,buf,offset);
// sleep if rate is throttled
if (rate) {
double n = 1.0*(i+1)*perpacket;
double elapsed = myclock() - timestart;
double actual_rate = n/elapsed;
if (actual_rate > rate) {
double delay = n/rate - elapsed;
usleep(1.0e6*delay);
}
}
}
double timestop = myclock();
// plot
//FILE *fp = fopen("tmp.plot","w");
//for (int i = 0; i < maxkeys; i++)
// fprintf(fp,"%d %d\n",i,ycount[i]);
//fclose(fp);
uint64_t ndatum = npacket * perpacket;
fprintf(stdout,"packets emitted = %" PRIu64 "\n",npacket);
fprintf(stdout,"datums emitted = %" PRIu64 "\n",ndatum);
fprintf(stdout,"elapsed time (secs) = %g\n",timestop-timestart);
fprintf(stdout,"generation rate (datums/sec) = %g\n",
ndatum/(timestop-timestart));
fclose(stdout);
power_law_destroy(power);
// loop on sending one-integer STOP packets, STOPRATE per sec
// allows receivers to shut down cleanly, even if behind
int offset = snprintf(buf,buflen,"%d\n",whichgen);
while (1) {
udp_throw_data(udpt,buf,offset);
usleep(1000000/STOPRATE);
}
udp_throw_destroy(udpt);
return 0;
}
int main(int argc, char **argv)
{
udpt = udp_throw_init(0);
if (!udpt) {
fprintf(stderr,"ERROR: unable to generate data\n");
return -1;
}
read_cmd_options(argc,argv);
// initialize RNG and seeds
// using different kseed in parallel will create disjoint key spaces
if (!kseed) kseed = (unsigned int) time(NULL);
kseed += whichgen;
vseed += whichgen;
srand(kseed);
// create active set
fprintf(stdout,"building active set ...\n");
active_ring_t *aring = build_rings(16384,NACTIVE,65536,kseed,vseed,mask);
// packet buffer length of 64 bytes per datum is ample
int buflen = 64*perpacket;
char *buf = (char *) malloc(buflen*sizeof(char));
memset(buf,0,buflen);
// generate the datums in packets
fprintf(stdout,"starting generator ...\n");
fflush(stdout);
double timestart = myclock();
for (uint64_t i = 0; i < npacket; i++) {
// packet header
int offset = snprintf(buf,buflen,"packet %" PRIu64 "\n",i*numgen+whichgen);
// create packet containing perpacket datums
offset = print_packet(aring,perpacket,buf,buflen,offset);
// write the packet to UDP port(s)
udp_throw_data(udpt,buf,offset);
// sleep if rate is throttled
if (rate) {
double n = 1.0*(i+1)*perpacket;
double elapsed = myclock() - timestart;
double actual_rate = n/elapsed;
if (actual_rate > rate) {
double delay = n/rate - elapsed;
usleep(1.0e6*delay);
}
}
}
double timestop = myclock();
print_stats(aring);
uint64_t ndatum = npacket * perpacket;
fprintf(stdout,"packets emitted = %" PRIu64 "\n",npacket);
fprintf(stdout,"datums emitted = %" PRIu64 "\n",ndatum);
fprintf(stdout,"elapsed time (secs) = %g\n",timestop-timestart);
fprintf(stdout,"generation rate (datums/sec) = %g\n",
ndatum/(timestop-timestart));
fclose(stdout);
// loop on sending one-integer STOP packets, STOPRATE per sec
// allows receivers to shut down cleanly, even if behind
int offset = snprintf(buf,buflen,"%d\n",whichgen);
while (1) {
udp_throw_data(udpt,buf,offset);
usleep(1000000/STOPRATE);
}
udp_throw_destroy(udpt);
return 0;
}
void CDXL_hal::dxl_hal_set_timeout( int NumRcvByte )
{
glStartTime = myclock();
gfRcvWaitTime = (float)(gfByteTransTime*(float)NumRcvByte + 5.0f);
}