/////////////////////////////////////////////////////////
// main testing function
/////////////////////////////////////////////////////////
int main(int argc, const char * const argv[])
{
(void)argc;
(void)argv;
boolean_T pass;
int coreid, k;
float filt[200];
float tmp[2];
/////////////////////////////////////////////////////////
// main test loop
// each core loops over a kernel instance
/////////////////////////////////////////////////////////
coreid = get_core_id();
printf("starting %d kernel iterations... (coreid = %d)\n",KERNEL_ITS,coreid);
if (coreid>3)
coreid=coreid-4;
synch_barrier();
perf_begin();
for(k = 0; k < getKernelIts(); k++)
{
// matlab kernel
mlButter(fv1, *(float (*)[200])&fv0[200 * coreid], filt);
}
synch_barrier();
perf_end();
/////////////////////////////////////////////////////////
// check results
/////////////////////////////////////////////////////////
synch_barrier();
tmp[0] = sum(filt);
tmp[1] = var(filt);
pass = checkRes(tmp, *(float (*)[4])&fv2[coreid << 2]);
flagPassFail(pass, get_core_id());
/////////////////////////////////////////////////////////
// synchronize and exit
/////////////////////////////////////////////////////////
return !pass;
}
int main()
{
int coreid, i, error = 0;
coreid = get_core_id();
// set start value of jrand function
next = 1;
if (coreid == 0)
{
int f=0;
initialize_aes();
// 1 iterations of enc+dec
for (f=0;f<1;f++){
compute_aes();
//check output
for (i = 0; i < 16; i++){
if (encoutbuf[i] != check_encoutbuf[i]) {
error+=1;
/* printf("Error occured in encryption\n",0,0,0,0); */
//printf("encrypted: %d, expected: %d\n",encoutbuf[i],check_encoutbuf[i],0,0);
}
if (decoutbuf[i] != check_decoutbuf[i]) {
error+=1;
/* printf("Error occured in decryption\n",0,0,0,0); */
//printf("decrypted: %d, expected: %d\n",decoutbuf[i],check_decoutbuf[i],0,0);
}
}
}
int *DEFAULT_RESULT;
if (error == 0) {
//printf ("OOOOOOK!!!!!!\n",0,0,0,0);
DEFAULT_RESULT = (int*)0x10003ffc;
*(DEFAULT_RESULT) = 1;
}
else {
//printf ("Not OK!! %d\n",error,0,0,0);
DEFAULT_RESULT = (int*)0x10003ffc;
*(DEFAULT_RESULT) = error;
}
}
synch_barrier();
eoc(0);
}
/////////////////////////////////////////////////////////
// main testing function
/////////////////////////////////////////////////////////
int main(int argc, const char * const argv[])
{
(void)argc;
(void)argv;
boolean_T pass, flag;
int coreid;
float omega, ampl, runningPhase;
float sig[200];
int k;
int i;
float y;
int ix;
float xbar;
float r;
float b_y;
float tmp[2];
float golden[4];
boolean_T c_y;
boolean_T exitg1;
/////////////////////////////////////////////////////////
// main test loop
// each core loops over a kernel instance
/////////////////////////////////////////////////////////
coreid = get_core_id();
printf("starting %d kernel iterations... (coreid = %d)\n",KERNEL_ITS,coreid);
if (coreid>3)
coreid=coreid-4;
synch_barrier();
perf_begin();
omega = fv1[coreid];
ampl = fv2[coreid];
for(k = 0; k < getKernelIts(); k++)
{
runningPhase = omega;
// matlab kernel
for (i = 0; i < 200; i++) {
sig[i] = ampl * fSin(runningPhase);
runningPhase += omega;
if(runningPhase > pi2[0])
{
runningPhase -= pi2[0];
}
}
}
synch_barrier();
perf_end();
/////////////////////////////////////////////////////////
// check results
/////////////////////////////////////////////////////////
synch_barrier();
y = sig[0];
ix = 0;
xbar = sig[0];
for (k = 0; k < 199; k++) {
y += sig[k + 1];
ix++;
xbar += sig[ix];
}
xbar = fDiv(xbar,200.0F);
ix = 0;
r = sig[0] - xbar;
b_y = r * r;
for (k = 0; k < 199; k++) {
ix++;
r = sig[ix] - xbar;
b_y += r * r;
}
b_y = fDiv(b_y,199.0F);
tmp[0] = y;
tmp[1] = b_y;
pass = true;
for (k = 0; k < 2; k++) {
for (ix = 0; ix < 2; ix++) {
golden[ix + (k << 1)] = fv0[(ix + (k << 1)) + (coreid << 2)];
}
flag = true;
flag = flag && (tmp[k] <= golden[k << 1]);
flag = flag && (tmp[k] >= golden[1 + (k << 1)]);
printErrors(!flag, k, tmp[k] ,golden[k << 1], golden[1 + (k << 1)]);
pass = pass && flag;
}
flagPassFail(pass, get_core_id());
/////////////////////////////////////////////////////////
// synchronize and exit
/////////////////////////////////////////////////////////
return !pass;
}
/////////////////////////////////////////////////////////
// main testing function
/////////////////////////////////////////////////////////
int main(int argc, const char * const argv[])
{
(void)argc;
(void)argv;
int coreid, k;
boolean_T pass;
float V[25];
float s[5];
float U[25];
int b_k;
float y[25];
float b_y;
float c_y;
float d_y;
float tmp[3];
init_fp_regs();
/////////////////////////////////////////////////////////
// main test loop
// each core loops over a kernel instance
/////////////////////////////////////////////////////////
coreid = get_core_id();
printf("starting %d kernel iterations... (coreid = %d)\n",KERNEL_ITS,coreid);
if (coreid>3)
coreid=coreid-4;
synch_barrier();
perf_begin();
for(k = 0; k < getKernelIts(); k++)
{
// call matlab kernel
eml_xgesvd(*(float (*)[25])&fv0[25 * coreid], U, s, V);
}
synch_barrier();
perf_end();
/////////////////////////////////////////////////////////
// check results
/////////////////////////////////////////////////////////
synch_barrier();
for (b_k = 0; b_k < 25; b_k++) {
y[b_k] = fAbs(U[b_k]);
}
b_y = y[0];
c_y = s[0];
for (b_k = 0; b_k < 4; b_k++) {
c_y += s[b_k + 1];
}
for (b_k = 0; b_k < 24; b_k++) {
b_y += y[b_k + 1];
}
for (b_k = 0; b_k < 25; b_k++) {
y[b_k] = fAbs(V[b_k]);
}
d_y = y[0];
for (b_k = 0; b_k < 24; b_k++) {
d_y += y[b_k + 1];
}
tmp[0] = b_y;
tmp[1] = c_y;
tmp[2] = d_y;
pass = true;
for (b_k = 0; b_k < 3; b_k++) {
pass = pass && (tmp[b_k] <= fv1[(0 + (b_k << 1)) + 6 * coreid]);
pass = pass && (tmp[b_k] >= fv1[(1 + (b_k << 1)) + 6 * coreid]);
}
flagPassFail(pass, get_core_id());
synch_barrier();
/////////////////////////////////////////////////////////
// synchronize and exit
/////////////////////////////////////////////////////////
return !pass;
}
/////////////////////////////////////////////////////////
// main testing function
/////////////////////////////////////////////////////////
int main(int argc, const char * const argv[])
{
(void)argc;
(void)argv;
int coreid;
int it;
int k;
boolean_T pass, flag;
float y[100];
int ix;
float b_y;
float xbar;
float r;
float c_y;
float tmp[2];
float golden[4];
/////////////////////////////////////////////////////////
// main test loop
// each core loops over a kernel instance
/////////////////////////////////////////////////////////
coreid = get_core_id();
printf("starting %d kernel iterations... (coreid = %d)\n",KERNEL_ITS,coreid);
if (coreid>3)
coreid=coreid-4;
synch_barrier();
perf_begin();
for(it = 0; it < KERNEL_ITS; it++)
{
// matlab kernel
for (ix = 0; ix < 100; ix++) {
y[ix] = (real32_T)fLog(fv0[ix + 100 * coreid]);
}
}
synch_barrier();
perf_end();
synch_barrier();
/////////////////////////////////////////////////////////
// check results
/////////////////////////////////////////////////////////
pass = true;
b_y = y[0];
ix = 0;
xbar = y[0];
for (k = 0; k < 99; k++) {
b_y += y[k + 1];
ix++;
xbar += y[ix];
}
xbar *= 1.0F/100.0F;
ix = 0;
r = y[0] - xbar;
c_y = r * r;
for (k = 0; k < 99; k++) {
ix++;
r = y[ix] - xbar;
c_y += r * r;
}
c_y *= 1.0F/99.0F;
tmp[0] = b_y;
tmp[1] = c_y;
pass = true;
for (ix = 0; ix < 2; ix++) {
for (k = 0; k < 2; k++) {
golden[k + (ix << 1)] = fv1[(k + (ix << 1)) + (coreid << 2)];
}
flag = true;
flag = flag && (tmp[ix] <= golden[ix << 1]);
flag = flag && (tmp[ix] >= golden[1 + (ix << 1)]);
printErrors(!flag, ix, tmp[ix] ,golden[(ix << 1)] ,golden[1 + (ix << 1)]);
pass = pass && flag;
}
flagPassFail(pass, get_core_id());
synch_barrier();
/////////////////////////////////////////////////////////
// synchronize and exit
/////////////////////////////////////////////////////////
return !pass;
}
/////////////////////////////////////////////////////////
// main testing function
/////////////////////////////////////////////////////////
int main(int argc, const char * const argv[])
{
(void)argc;
(void)argv;
int coreid;
int it;
boolean_T pass;
boolean_T flag;
float y[10];
int ix;
float b_y;
int b_k;
float xbar;
float r;
float c_y;
float check[2];
float golden[4];
/////////////////////////////////////////////////////////
// main test loop
// each core loops over a kernel instance
/////////////////////////////////////////////////////////
coreid = get_core_id();
printf("starting %d kernel iterations... (coreid = %d)\n",KERNEL_ITS,coreid);
if (coreid>3)
coreid=coreid-4;
synch_barrier();
perf_begin();
for(it = 0; it < getKernelIts(); it++)
{
// matlab kernel
for (ix = 0; ix < 10; ix++) {
b_y = 0.0F;
for (b_k = 0; b_k < 10; b_k++) {
b_y += fv1[(ix + 10 * b_k) + 100 * coreid] * fv0[b_k + 10 * coreid];
}
y[ix] = b_y + fv3[coreid] * fv2[ix + 10 * coreid];
}
}
synch_barrier();
perf_end();
synch_barrier();
/////////////////////////////////////////////////////////
// check results
/////////////////////////////////////////////////////////
b_y = y[0];
ix = 0;
xbar = y[0];
for (b_k = 0; b_k < 9; b_k++) {
b_y += y[b_k + 1];
ix++;
xbar += y[ix];
}
xbar *= 1.0F/10.0F;
ix = 0;
r = y[0] - xbar;
c_y = r * r;
for (b_k = 0; b_k < 9; b_k++) {
ix++;
r = y[ix] - xbar;
c_y += r * r;
}
c_y *= 1.0F/9.0F;
check[0] = b_y;
check[1] = c_y;
pass = true;
for (ix = 0; ix < 2; ix++) {
for (b_k = 0; b_k < 2; b_k++) {
golden[b_k + (ix << 1)] = fv4[(b_k + (ix << 1)) + (coreid << 2)];
}
flag = true;
flag = pass && (check[ix] <= golden[ix << 1]);
flag = pass && (check[ix] >= golden[1 + (ix << 1)]);
printErrors(!flag, ix, check[ix], golden[ix<<1], golden[1+(ix<<1)]);
pass = pass && flag;
}
flagPassFail(pass, get_core_id());
/////////////////////////////////////////////////////////
// synchronize and exit
/////////////////////////////////////////////////////////
return !pass;
}