sl_def(do_print, void, sl_shparm(long, tok))
{
sl_index(i);
const char *ptr = (const char*)(void*)(long)i;
char c = *ptr;
long t = sl_getp(tok);
output_char(c, 1);
sl_setp(tok, t);
}
sl_enddef
sl_def(buf_copy, void,
sl_glparm(const uint32_t*restrict, src),
sl_glparm(uint32_t*restrict, dst))
{
sl_index(i);
sl_getp(dst)[i] = sl_getp(src)[i];
}
[[]]
//---------------------------------
// Livemore Loops -- SLC (uTC)
// M.A.Hicks, CSA Group, UvA
// Implementation based on various
// reference implementations
// including the original FORTRAN
// but mostly from
// Roy Longbottom, 1996.
//---------------------------------
// LIVERMORE KERNEL 21
// Matrix*Matrix Product
//---------------------------------
//---------------------------------
// 'Original' C:
// for ( k=0 ; k<25 ; k++ )
// {
// for ( i=0 ; i<25 ; i++ )
// {
// for ( j=0 ; j<n ; j++ )
// {
// px[j][i] += vy[k][i] * cx[j][k];
// }
// }
// }
//---------------------------------
//cell to calculate is computed by taking the remainder
//and result of dividing the thread index by the matrix
//width.
sl_def(cell, void,
sl_glparm(size_t, n),
sl_glparm(const double*restrict, VY),
sl_glparm(const double*restrict, CX),
sl_glparm(double*restrict, PX))
{
sl_index(ij);
const size_t n = sl_getp(n);
double (*restrict PX)[n][25] = (double (*)[n][25])(double*)sl_getp(PX);
const double (*restrict CX)[n][25] = (const double (*)[n][25])(const double*)sl_getp(CX);
const double (*restrict VY)[25][25] = (const double (*)[25][25])(const double*)sl_getp(VY);
long i = ij % 25;
long j = ij / 25;
//N.B. can easily make the following into a new family,
//but requires a reduction over the number of cores
long k;
double px_ij = (*PX)[j][i];
for (k = 0; k < 25; ++k)
px_ij += (*VY)[k][i] * (*CX)[j][k];
//save result
(*PX)[j][i] = px_ij;
}
sl_def(foo, void, sl_shfparm(double, sarg))
{
sl_index(i);
double x = sl_getp(sarg);
double x2 = x;
if (i == 0)
sl_setp(sarg, x2);
else
sl_setp(sarg, x2+1);
}
sl_def(fibo_compute, void,
sl_shparm(INT, prev), sl_shparm(INT, prev2), sl_glparm(INT*, fibo))
{
sl_index(i);
INT n = sl_getp(prev) + sl_getp(prev2);
sl_setp(prev2, sl_getp(prev));
sl_setp(prev, n);
sl_getp(fibo)[i] = n;
}
sl_def(icount, void,
sl_shparm(unsigned, count),
sl_glparm(unsigned, max))
{
sl_index(i);
if (sl_getp(count) >= sl_getp(max)) {
sl_setp(count, sl_getp(count));
sl_break ;
}
indices[sl_getp(count)] = i;
sl_setp(count, sl_getp(count) + 1);
}
// done: used by a thread to signal it's right sibling when it finished
sl_def(partition_interval, void,
sl_glparm(INT*, data),
sl_glparm(INT*, result),
sl_glparm(SIZE, level),
sl_shparm(int, done)
) {
sl_index(i);
INT* data = sl_getp(data);
INT* result = sl_getp(result);
SIZE level = sl_getp(level);
int l = intervals[level%2][i].l;
int r = intervals[level%2][i].r;
if (l == r) {
// this interval is sorted (1 element), so don't copy it to the
// next level
result[l] = data[l];
sl_setp(done, sl_getp(done));
} else {
sl_create(,,1,r - l + 1,,,,
do_partition_interval,
sl_glarg(INT*, gdata, data + l),
sl_glarg(INT*, gres, result + l),
sl_sharg(SIZE, lower, 0),
sl_sharg(SIZE, greater, r - l));
sl_sync();
SIZE la = sl_geta(lower);
la = la + l;
result[la] = data[l]; // put the pivot in the right place
// copy the 2 new intervals to next level
// but after the left sibling has done doing the same
int left_done = sl_getp(done);
workaround += left_done; // use the value, so the read doesn't get
// optimized away. See comment for workaround.
if (l < la) { // don't copy an interval of len=1
intervals[(level+1)%2][num_intervals[(level+1) % 2]].l = l;
intervals[(level+1)%2][num_intervals[(level+1) % 2]].r = la;
num_intervals[(level+1) % 2]++;
}
if (la + 1 < r) { // don't copy an interval of len=1
intervals[(level+1)%2][num_intervals[(level+1) % 2]].l = la + 1;
intervals[(level+1)%2][num_intervals[(level+1) % 2]].r = r;
num_intervals[(level+1) % 2]++;
}
//signal to the right sibling that I'm done
sl_setp(done, 0);
}
}
sl_enddef
/* Further partitions a list of intervals
* level: level of the current list to be partitioned
*/
sl_def(partition_list_of_intervals, void,
sl_glparm(INT*, data),
sl_glparm(SIZE, len),
sl_glparm(INT*, scratch),
sl_shparm(INT, level),
sl_shparm(INT, done)
) {
sl_index(i);
INT done = sl_getp(done);
if (!done) {
INT* d = sl_getp(data);
SIZE l = sl_getp(len);
INT level = sl_getp(level);
INT* scratch = sl_getp(scratch);
//printf("PARTIITON LIST: level = %d\n", level);
num_intervals[(level+1)%2] = 0;
// partition the intervals
sl_create(,,0,num_intervals[level%2],,,,partition_interval,
sl_glarg(INT*, gdata, d),
sl_glarg(INT*, gres, scratch),
sl_glarg(SIZE, level, level),
sl_sharg(int, done, 1));
sl_sync();
// copy partitoned values back to d
sl_create(,,0,l,,,,
copy_array,
sl_glarg(INT*, gdestination, d),
sl_glarg(INT*, gsource, scratch));
sl_sync();
int j = 0;
if (num_intervals[(level+1)%2] == 0) {
// no intervals for the next level => we're done
sl_setp(level, 0); // value doesn't matter, just unblock sibling
sl_setp(done, 1);
} else {
// trigger the next sibling to start
sl_setp(level, level+1);
sl_setp(done, 0);
}
} else { // if (!done)
sl_enddef
sl_def(fibo_print, void,
sl_shparm(INT, guard), sl_glparm(INT*, fibo))
{
sl_index(i);
INT p1 = sl_getp(fibo)[i - 2];
INT p2 = sl_getp(fibo)[i - 1];
INT p3 = sl_getp(fibo)[i];
INT n = sl_getp(guard);
printf("The %luth Fibonacci number is %lu + %lu = %lu\n", (INT)i, p1, p2, p3);
sl_setp(guard, n);
}
[[]]
//---------------------------------
// Livemore Loops -- SLC (uTC)
// M.A.Hicks, CSA Group, UvA
// Implementation based on various
// reference implementations
// including the original FORTRAN
// but mostly from
// Roy Longbottom, 1996.
//----------------------------------------
// LIVERMORE KERNEL 2
// Incomplete Cholesky Conjugate Gradient
//----------------------------------------
//---------------------------------
// ii = n;
// ipntp = 0;
// do
// {
// ipnt = ipntp;
// ipntp += ii;
// ii /= 2;
// i = ipntp;
// for ( k=ipnt+1 ; k<ipntp ; k=k+2 )
// {
// i++;
// x[i] = x[k] - v[k]*x[k-1] - v[k+1]*x[k+1];
// }
// } while ( ii>0 );
//---------------------------------
sl_def(innerk2,void,
sl_glparm(double*restrict, X),
sl_glparm(const double*restrict, V),
sl_glparm(unsigned long, ipnt),
sl_glparm(unsigned long, ipntp))
{
sl_index(i);
unsigned long ipnt = sl_getp(ipnt);
unsigned long ipntp = sl_getp(ipntp);
unsigned long k = ipnt + i;
double*restrict X = sl_getp(X);
const double*restrict V = sl_getp(V);
// output_uint(k,2); output_char('\n',2);
// output_int(ipntp + i / 2, 2); output_char('\n',2);
X[ipntp + i / 2] = X[k] - V[k] * X[k-1] - V[k+1] * X[k+1];
}
sl_enddef
sl_def(sha_main_outer, void,
sl_glparm(const uint32_t*restrict, input),
sl_shparm(unsigned long, h0),
sl_shparm(unsigned long, h1),
sl_shparm(unsigned long, h2),
sl_shparm(unsigned long, h3),
sl_shparm(unsigned long, h4))
{
sl_index(offset_base);
int i;
const uint32_t*restrict input = sl_getp(input) + offset_base;
/* word extension: not easily made concurrent! */
uint32_t w[80];
sl_create(,PLACE_LOCAL,,16,,,, buf_copy,
sl_glarg(const uint32_t*restrict, src, input),
sl_glarg(uint32_t*restrict, dst, w));
sl_sync();
// for (i = 0; i < 16; ++i) w[i] = input[i];
for (i = 16; i < 80; ++i) {
uint32_t x = w[i-3] ^ w[i-8] ^ w[i-14] ^ w[i-16];
w[i] = ROL32(x, 1);
}
sl_create(,,,80,,,, sha_main_inner,
sl_glarg(const uint32_t*restrict, wg, w),
sl_sharg(unsigned long, a),
sl_sharg(unsigned long, b),
sl_sharg(unsigned long, c),
sl_sharg(unsigned long, d),
sl_sharg(unsigned long, e));
sl_seta(a, sl_getp(h0));
sl_seta(b, sl_getp(h1));
sl_seta(c, sl_getp(h2));
sl_seta(d, sl_getp(h3));
sl_seta(e, sl_getp(h4));
sl_sync();
sl_setp(h0, sl_getp(h0) + sl_geta(a));
sl_setp(h1, sl_getp(h1) + sl_geta(b));
sl_setp(h2, sl_getp(h2) + sl_geta(c));
sl_setp(h3, sl_getp(h3) + sl_geta(d));
sl_setp(h4, sl_getp(h4) + sl_geta(e));
}
sl_enddef
/**
GOL
**/
sl_def(gol,void,sl_shparm(int,breaked))
{
sl_index(index);
int flag = sl_getp(breaked);
if(flag==0)
{
//info_print("GOL Thread %d :Processing %d blocks\n", index, b_queue->elements);
//printf("GOL Thread %d :Processing %d blocks\n", index, b_queue->elements);
//info_print("%d\n",iter);
if( index + 1 == cycle)
flag = 1;
debug_print("Creating Worker family...\n");
sl_create(,,,,0,block_size,,run,sl_glarg(int,iteration,index),sl_sharg(int,sta,0));
debug_print("Waiting for sync...\n");
sl_sync();
debug_print("Workers finished, processing request queue...\n");
sl_create(,,,,0,block_size,,process_requests,sl_sharg(int,stat,0));
debug_print("Waiting for sync...\n");
sl_sync();
debug_print("Request queue processing finished, traversing...\n");
b_queue->elements = 0;
sl_create(,,,,0,block_size,,traverse,sl_sharg(int,state,1),sl_sharg(struct hashtable_itr*,itr,hashtable_iterator(table)));
debug_print("Waiting for sync...\n");
sl_sync();
sl_setp(breaked,flag);
if(flag == 1)
sl_break;
}
else
{
sl_enddef
sl_def(iprint, int,
sl_shparm(unsigned, count),
sl_glparm(unsigned, refcount))
{
sl_index(i);
unsigned c = sl_getp(count);
if (c >= sl_getp(refcount))
{
sl_setp(count, c);
sl_break ;
}
output_int(c, 1);
output_char(' ', 1);
output_int(indices[c], 1);
output_char('\n', 1);
sl_setp(count, c + 1);
}
sl_enddef
sl_def(outerk2, void,
sl_glparm(double*restrict, X),
sl_glparm(const double*restrict, V),
sl_shparm(unsigned long, ii),
sl_shparm(unsigned long, ipntp))
{
sl_index(m);
unsigned long ipnt, ii;
unsigned long ipntp = (ii = sl_getp(ii)) + (ipnt = sl_getp(ipntp));
sl_setp(ii, ii/2);
sl_create(,,1,ii,2,,, innerk2,
sl_glarg(double*restrict, , sl_getp(X)),
sl_glarg(const double*restrict, , sl_getp(V)),
sl_glarg(unsigned long, , ipnt),
sl_glarg(unsigned long, , ipntp));
sl_sync();
sl_setp(ipntp, ipntp);
}
[[]]
//---------------------------------
// Livemore Loops -- SLC (uTC)
// M.A.Hicks, CSA Group, UvA
// Implementation based on various
// reference implementations
// including the original FORTRAN
// but mostly from
// Roy Longbottom, 1996.
//---------------------------------
// LIVERMORE KERNEL 7
// equation of state
// fragment
//---------------------------------
//---------------------------------
// for ( k=0 ; k<n ; k++ )
// {
// x[k] = u[k] + r*( z[k] + r*y[k] ) +
// t*( u[k+3] + r*( u[k+2] + r*u[k+1] ) +
// t*( u[k+6] + q*( u[k+5] + q*u[k+4] ) ) );
// }
//---------------------------------
//independent loop
sl_def(innerk7, void,
sl_glparm(double*restrict, X),
sl_glparm(const double*restrict, U),
sl_glparm(const double*restrict, Z),
sl_glparm(const double*restrict, Y),
sl_glfparm(double, R),
sl_glfparm(double, T),
sl_glfparm(double, Q))
{
sl_index(k);
sl_getp(X)[k] = sl_getp(U)[k ] + sl_getp(R) * ( sl_getp(Z)[k ] + sl_getp(R) * sl_getp(Y)[k ] ) +
sl_getp(T) * ( sl_getp(U)[k+3] + sl_getp(R) * ( sl_getp(U)[k+2] + sl_getp(R) * sl_getp(U)[k+1] ) +
sl_getp(T) * ( sl_getp(U)[k+6] + sl_getp(Q) * ( sl_getp(U)[k+5] + sl_getp(Q) * sl_getp(U)[k+4] ) ) );
}
[[]]
//---------------------------------
// Livemore Loops -- SLC (uTC)
// M.A.Hicks, CSA Group, UvA
// Implementation based on various
// reference implementations
// including the original FORTRAN
// but mostly from
// Roy Longbottom, 1996.
//---------------------------------
// LIVERMORE KERNEL 1
// Hydro Fragment
//---------------------------------
//---------------------------------
// 'Original' C:
// for ( k=0 ; k<n ; k++ ) {
// x[k] = q + y[k]*( r*z[k+10] + t*z[k+11] );
// }
//---------------------------------
//Break down kernel into two families
//this one does the 'meat'
sl_def(innerk1, void,
sl_glparm(double*restrict, X),
sl_glfparm(double, Q),
sl_glparm(const double*restrict, Y),
sl_glfparm(double, R),
sl_glparm(const double*restrict, ZX),
sl_glfparm(double, T) )
{
sl_index(i);
//now the actual calculation
sl_getp(X)[i] = sl_getp(Q) + sl_getp(Y)[i] *
( sl_getp(R) * sl_getp(ZX)[i+10]
+ sl_getp(T) * sl_getp(ZX)[i+11] );
}
sl_def(computeDataT, void, sl_glparm(int*, data), sl_glparm(int, length))
{
sl_index(cnt);
sl_getp(data)[cnt] = (cnt % 2) ? cnt : sl_getp(length) - cnt;
}
sl_def(foo, void)
{
sl_index(i);
}