int
main (int argc, char** argv)
{
QMP_status_t status;
int this_node;
QMP_thread_level_t req, prv;
/* Start QMP */
req = QMP_THREAD_SINGLE;
status = QMP_init_msg_passing (&argc, &argv, req, &prv);
if (status != QMP_SUCCESS) {
QMP_error ("QMP_init failed: %s\n", QMP_error_string(status));
QMP_abort(1);
}
/* Get my logical node number */
this_node = QMP_get_node_number();
/* Print the result */
printf("%04d",this_node);
/* Quit */
QMP_finalize_msg_passing ();
return 0;
}
unsigned int sync() {
QMP_status_t sync_status = QMP_barrier();
if (sync_status != QMP_SUCCESS) {
QMP_error("Error in QMP sync:%s\n", QMP_error_string(sync_status));
return 0;
}
return 1;
}
CPS_START_NAMESPACE
#ifndef USE_QMP
#define QMP
#endif
void GlobalDataShift::Shift(int direction, int n_disp){
if (n_disp==0) return;
SCUDir s_dir,r_dir;
int a_disp;
void *send_p,*recv_p,*temp_p;
#ifndef USE_QMP
if (n_disp>0){
a_disp = n_disp;
s_dir = gjp_scu_dir[i*2];
r_dir = gjp_scu_dir[i*2+1];
} else {
a_disp = -n_disp;
s_dir = gjp_scu_dir[i*2+1];
r_dir = gjp_scu_dir[i*2];
}
#else
// int direction = i;
int sflag;
if (n_disp > 0)
sflag = +1;
else
sflag = -1;
#endif
send_p = addr;
recv_p = temp_buf;
#ifndef USE_QMP
SCUDirArgIR Send(send_p,s_dir,SCU_SEND,data_len);
SCUDirArgIR Recv(recv_p,r_dir,SCU_REC,data_len);
#else
QMP_msgmem_t msgmem[2];
QMP_msghandle_t msghandle[2];
QMP_status_t status;
QMP_msghandle_t multiple;
#endif
// sys_cacheflush(0);
for(int i = 0;i<a_disp-1;i++){
#ifndef USE_QMP
Send.StartTrans();Recv.StartTrans();
Send.TransComplete();Recv.TransComplete();
#else
msgmem[0] = QMP_declare_msgmem((void *)send_p, data_len);
msgmem[1] = QMP_declare_msgmem((void *)recv_p, data_len);
msghandle[0] = QMP_declare_send_relative(msgmem[0], direction, sflag, 0);
msghandle[1] = QMP_declare_receive_relative(msgmem[1], direction, -sflag, 0);
multiple = QMP_declare_multiple(msghandle, 2);
QMP_start(multiple);
status = QMP_wait(multiple);
if (status != QMP_SUCCESS)
QMP_error("Error in GlobalDataShift::Shift:%s\n", QMP_error_string(status));
QMP_free_msghandle(multiple);
QMP_free_msgmem(msgmem[0]);
QMP_free_msgmem(msgmem[1]);
#endif
temp_p = send_p;
send_p = recv_p;
recv_p = temp_p;
#ifndef USE_QMP
Send.Addr(send_p);
Recv.Addr(recv_p);
#endif
}
#ifndef USE_QMP
Send.StartTrans();Recv.StartTrans();
Send.TransComplete();Recv.TransComplete();
#else
msgmem[0] = QMP_declare_msgmem((void *)send_p, data_len);
msgmem[1] = QMP_declare_msgmem((void *)recv_p, data_len);
msghandle[0] = QMP_declare_send_relative(msgmem[0], direction, sflag, 0);
msghandle[1] = QMP_declare_receive_relative(msgmem[1], direction, -sflag, 0);
multiple = QMP_declare_multiple(msghandle, 2);
QMP_start(multiple);
status = QMP_wait(multiple);
if (status != QMP_SUCCESS)
QMP_error("Error in GlobalDataShift::Shift:%s\n", QMP_error_string(status));
QMP_free_msghandle(multiple);
QMP_free_msgmem(msgmem[0]);
QMP_free_msgmem(msgmem[1]);
#endif
if (recv_p != addr)
memcpy(addr,recv_p,data_len);
}
void PT::mat_cb_norm(int n, IFloat **mout, IFloat **min, const int *dir, int
parity, IFloat * gauge)
{
//List of the different directions
int wire[MAX_DIR];
int i;
// printf("PT::mat_cb_norm\n");
QMP_msgmem_t *msg_mem_p = (QMP_msgmem_t *)Alloc("","vec_cb_norm", "msg_mem_p", 2*non_local_dirs*sizeof(QMP_msgmem_t));
QMP_msghandle_t* msg_handle_p = (QMP_msghandle_t *)Alloc("","vec_cb_norm", "msg_handle_p", 2*non_local_dirs*sizeof(QMP_msghandle_t));
QMP_msghandle_t multiple;
static int call_num = 0;
int vlen = VECT_LEN;
int vlen2 = VECT_LEN;
call_num++;
//Name our function
char *fname="pt_mat_cb()";
// VRB.Func("",fname);
//Set the transfer directions
//If wire[i] is even, then we have communication in the negative direction
//If wire[i] is odd, then we have communication in the positive direction
for(i=0;i<n;i++)
wire[i]=dir[i];
#ifdef PROFILE
Float dtime = - dclock();
#endif
int non_local_dir=0;
//#pragma omp parallel default(shared)
{
//If wire[i] is odd, then we have parallel transport in the
//positive direction. In this case, multiplication by the link matrix is
//done before the field is transferred over to the adjacent node
//
//If we have transfer in the negative T direction (wire[i] = 6), then
//we have to copy the appropriate fields to a send buffer
//#pragma omp for
for(i=0;i<n;i++)
{
if(!local[wire[i]/2])
{
if(wire[i]%2)
{
if(conjugated)
pt_cmm_cpp(non_local_chi_cb[wire[i]],(long)uc_nl_cb_pre[parity][wire[i]/2],(long)min[i],(long)snd_buf_cb[wire[i]/2],(long)gauge);
else
pt_cmm_dag_cpp(non_local_chi_cb[wire[i]],(long)uc_nl_cb_pre[parity][wire[i]/2],(long)min[i],(long)snd_buf_cb[wire[i]/2],(long)gauge);
}
else if((wire[i] == 6))
{
for(int j = 0; j < non_local_chi_cb[6];j++)
memcpy(snd_buf_t_cb + j*GAUGE_LEN,min[i] + 3 * *(Toffset[parity]+j)*3,GAUGE_LEN*sizeof(IFloat));
}
}
}
//#pragma omp barrier
//#pragma omp master
{
for(i=0;i<n;i++)
if(!local[wire[i]/2])
{
//Calculate the starting address for the data to be sent
IFloat *addr = min[i] + GAUGE_LEN * offset_cb[wire[i]];
msg_mem_p[2*non_local_dir] = QMP_declare_msgmem((void *)rcv_buf[wire[i]], 3*non_local_chi_cb[wire[i]]*VECT_LEN*sizeof(IFloat));
//Initialize the msg_mem for sends
if(wire[i]%2)
msg_mem_p[2*non_local_dir+1] = QMP_declare_msgmem((void *)snd_buf_cb[wire[i]/2], 3*non_local_chi_cb[wire[i]]*VECT_LEN*sizeof(IFloat));
else if(wire[i] == 6)
msg_mem_p[2*non_local_dir+1] = QMP_declare_msgmem((void *)snd_buf_t_cb, 3*non_local_chi_cb[wire[i]]*VECT_LEN*sizeof(IFloat));
else
msg_mem_p[2*non_local_dir+1] = QMP_declare_strided_msgmem((void *)addr, (size_t)(3*blklen_cb[wire[i]]), numblk_cb[wire[i]], (ptrdiff_t)(3*stride_cb[wire[i]]+3*blklen_cb[wire[i]]));
msg_handle_p[2*non_local_dir] = QMP_declare_receive_relative(msg_mem_p[2*non_local_dir], wire[i]/2, 1-2*(wire[i]%2), 0);
msg_handle_p[2*non_local_dir+1] = QMP_declare_send_relative(msg_mem_p[2*non_local_dir+1], wire[i]/2, 2*(wire[i]%2)-1, 0);
non_local_dir++;
}
if(non_local_dir) {
multiple = QMP_declare_multiple(msg_handle_p, 2*non_local_dir);
QMP_start(multiple);
}
} //#pragma omp master {
//Do local calculations
//#pragma omp for
for(i=0;i<n;i++)
{
if((wire[i]%2 && conjugated) || ((wire[i]%2 == 0) && (conjugated == 0)))
pt_cmm_cpp(local_chi_cb[wire[i]],(long)uc_l_cb[parity][wire[i]],(long)min[i],(long)mout[i],(long)gauge);
else
pt_cmm_dag_cpp(local_chi_cb[wire[i]],(long)uc_l_cb[parity][wire[i]],(long)min[i],(long)mout[i],(long)gauge);
}
//#pragma omp barrier
//#pragma omp master
{
if(non_local_dir) {
QMP_status_t qmp_complete_status = QMP_wait(multiple);
if (qmp_complete_status != QMP_SUCCESS)
QMP_error("Send failed in vec_cb_norm: %s\n", QMP_error_string(qmp_complete_status));
QMP_free_msghandle(multiple);
for(int i = 0; i < 2*non_local_dir; i++)
QMP_free_msgmem(msg_mem_p[i]);
Free(msg_handle_p);
Free(msg_mem_p);
}
} //#pragma omp master {
//If wire[i] is even, then we have transport in the negative direction
//In this case, the vector field is multiplied by the SU(3) link matrix
//after all communication is complete
IFloat *fp0,*fp1;
//#pragma omp for
for(i=0;i<n;i++)
{
if(!local[wire[i]/2])
{
if(!(wire[i]%2))
{
if(conjugated)
pt_cmm_dag_cpp(non_local_chi_cb[wire[i]],(long)uc_nl_cb[parity][wire[i]],(long)rcv_buf[wire[i]],(long)mout[i],(long)gauge);
else
pt_cmm_cpp(non_local_chi_cb[wire[i]],(long)uc_nl_cb[parity][wire[i]],(long)rcv_buf[wire[i]],(long)mout[i],(long)gauge);
}
//Otherwise we have parallel transport in the positive direction.
//In this case, the received data has already been pre-multiplied
//All we need to do is to put the transported field in the correct place
else
{
//int destination, source;
//Place the data in the receive buffer into the result vector
for(int s=0;s<non_local_chi_cb[wire[i]];s++)
{
//source = uc_nl_cb[parity][wire[i]][s].src;
fp0 = (IFloat *)((long)rcv_buf[wire[i]]+3*uc_nl_cb[parity][wire[i]][s].src);
//destination = uc_nl_cb[parity][wire[i]][s].dest;
fp1 = (IFloat *)(mout[i]+3*uc_nl_cb[parity][wire[i]][s].dest);
memcpy(fp1,fp0,GAUGE_LEN*sizeof(IFloat));
}
}
}
}
} //#pragma omp parallel
#ifdef PROFILE
dtime +=dclock();
print_flops("",fname,99*vol*n,dtime);
#endif
// ParTrans::PTflops +=99*n*vol;
}
void PT::mat(int n, matrix **mout, matrix **min, const int *dir){
int wire[MAX_DIR];
int i;
QMP_msgmem_t msg_mem_p[2*MAX_DIR];
QMP_msghandle_t msg_handle_p[2*MAX_DIR];
QMP_msghandle_t multiple;
static double setup=0.,qmp=0.,localt=0.,nonlocal=0.;
static int call_num = 0;
call_num++;
// char *fname="pt_mat()";
// VRB.Func("",fname);
// if (call_num%100==1) printf("PT:mat()\n");
for(i=0;i<n;i++) wire[i] = dir[i];
#ifdef PROFILE
Float dtime2 = - dclock();
#endif
double dtime = -dclock();
int non_local_dir=0;
for(i=0;i<n;i++)
if (!local[wire[i]/2]) {
//Calculate the address for transfer in a particular direction
Float * addr = ((Float *)min[i]+GAUGE_LEN*offset[wire[i]]);
msg_mem_p[2*non_local_dir] = QMP_declare_msgmem((void *)rcv_buf[wire[i]], 3*non_local_chi[wire[i]]*VECT_LEN*sizeof(IFloat));
msg_mem_p[2*non_local_dir+1] = QMP_declare_strided_msgmem((void *)addr, (size_t)(3*blklen[wire[i]]), numblk[wire[i]], (ptrdiff_t)(3*stride[wire[i]]+3*blklen[wire[i]]));
msg_handle_p[2*non_local_dir] = QMP_declare_receive_relative(msg_mem_p[2*non_local_dir], wire[i]/2, 1-2*(wire[i]%2), 0);
msg_handle_p[2*non_local_dir+1] = QMP_declare_send_relative(msg_mem_p[2*non_local_dir+1], wire[i]/2, 2*(wire[i]%2)-1, 0);
non_local_dir++;
}
if (call_num==1 && !QMP_get_node_number())
printf("non_local_dir=%d\n",non_local_dir);
if(non_local_dir) {
multiple = QMP_declare_multiple(msg_handle_p, 2*non_local_dir);
QMP_start(multiple);
}
dtime += dclock();
setup +=dtime;
dtime = -dclock();
int if_print = 0;
// if ( (call_num%10000==1) && (!QMP_get_node_number()) ) if_print=1;
#define USE_TEST2
#ifdef USE_TEST2
//assume nt > n!
static char *cname="mat()";
#pragma omp parallel default(shared)
{
int iam,nt,ipoints,istart,offset;
iam = omp_get_thread_num();
nt = omp_get_num_threads();
int nt_dir = nt/n;
int n_t = iam/nt_dir;
int i_t = iam%nt_dir;
if (n_t >= n ){ n_t = n-1;
i_t = iam - (n-1)*nt_dir;
nt_dir = nt -(n-1)*nt_dir;
}
int w_t = wire[n_t];
ipoints = (local_chi[w_t]/2)/nt_dir;
offset = ipoints*i_t;
if (i_t == (nt_dir-1)) ipoints = (local_chi[w_t]/2)-offset;
if ( if_print )
printf("thread %d of %d nt_dir n_t i_t ipoints offset= %d %d %d %d %d\n",iam,nt,nt_dir,n_t,i_t,ipoints,offset);
//Interleaving of local computation of matrix multiplication
partrans_cmm_agg((uc_l[w_t]+offset*2),min[n_t],mout[n_t],ipoints);
if ( if_print )
printf("thread %d of %d done\n",iam,nt);
}
#else
{
//Interleaving of local computation of matrix multiplication
#pragma omp parallel for default(shared)
for(i=0;i<n;i++){
partrans_cmm_agg(uc_l[wire[i]],min[i],mout[i],local_chi[wire[i]]/2);
}
}
#endif
dtime += dclock();
localt +=dtime;
dtime = -dclock();
//#pragma omp barrier
//#pragma omp master
{
if(non_local_dir) {
QMP_status_t qmp_complete_status = QMP_wait(multiple);
if (qmp_complete_status != QMP_SUCCESS)
QMP_error("Send failed in vec_cb_norm: %s\n", QMP_error_string(qmp_complete_status));
QMP_free_msghandle(multiple);
for(int i = 0; i < 2*non_local_dir; i++)
QMP_free_msgmem(msg_mem_p[i]);
// Free(msg_handle_p);
// Free(msg_mem_p);
}
} //#pragma omp master {
dtime += dclock();
qmp +=dtime;
dtime = -dclock();
//Do non-local computations
#ifdef USE_TEST2
//assume nt > n!
#pragma omp parallel default(shared)
{
int iam,nt,ipoints,istart,offset;
iam = omp_get_thread_num();
nt = omp_get_num_threads();
int nt_dir = nt/n;
int n_t = iam/nt_dir;
int i_t = iam%nt_dir;
if (n_t >= n ){ n_t = n-1;
i_t = iam - (n-1)*nt_dir;
nt_dir = nt -(n-1)*nt_dir;
}
int w_t = wire[n_t];
ipoints = (non_local_chi[w_t]/2)/nt_dir;
offset = ipoints*i_t;
if (i_t == (nt_dir-1)) ipoints = (non_local_chi[w_t]/2)-offset;
if ( if_print )
printf("thread %d of %d nt_dir n_t i_t ipoints offset= %d %d %d %d %d\n",iam,nt,nt_dir,n_t,i_t,ipoints,offset);
//Non-local computation
if (ipoints>0)
partrans_cmm_agg((uc_nl[w_t]+offset*2),(matrix *)rcv_buf[w_t],mout[n_t],ipoints);
if ( if_print )
printf("thread %d of %d done\n",iam,nt);
}
#else
{
#pragma omp parallel for
for(i=0;i<n;i++)
if (!local[wire[i]/2]) {
#ifdef USE_OMP
if (call_num%10000==1 && !QMP_get_node_number() )
printf("thread %d of %d i=%d\n",omp_get_thread_num(),omp_get_num_threads(),i);
#endif
partrans_cmm_agg(uc_nl[wire[i]],(matrix *)rcv_buf[wire[i]],mout[i],non_local_chi[wire[i]]/2);
}
}//#pragma omp parallel
#endif
dtime += dclock();
nonlocal +=dtime;
if (call_num%100==0){
static char *cname="mat()";
if (!QMP_get_node_number() ) {
print_flops("mat():local*100",0,localt);
print_flops("mat():nonlocal*100",0,nonlocal);
print_flops("mat():qmp*100",0,qmp);
print_flops("mat():setup*100",0,setup);
}
localt=nonlocal=qmp=setup=0.;
}
#ifdef PROFILE
dtime2 +=dclock();
print_flops("",fname,198*vol*n,dtime2);
#endif
// ParTrans::PTflops +=198*n*vol;
}
/*!
Computes sum[x] = vect2[x] vect[x + hop dir]^dagger
where the sum is over n_vect vectors and the hop is in a forward direction.
*/
void PT::vvpd(IFloat **vect2, IFloat ***vect, int n_vect, const int *dir, int n_dir, int hop, IFloat **sum, int overwrite){
char *fname = "pt_vvpd()";
#if 1
// ERR.NotImplemented(cname,fname);
QMP_error("%s""%s Not implemented\n");
#else
// VRB.Func("",fname);
int i, s, v;
Float f = 2.0;
int wire[MAX_DIR];
for(i=0;i<n_dir;i++) wire[i] = dir[i]; // from (x,y,z,t) to (t,x,y,z)
QMP_msgmem_t *msg_mem_p = (QMP_msgmem_t *)Alloc("","vvpd", "msg_mem_p", 2*non_local_dirs*sizeof(QMP_msgmem_t));
QMP_msgmem_t *msg_mem_p2 = (QMP_msgmem_t *)Alloc("","vvpd", "msg_mem_p", 2*non_local_dirs*sizeof(QMP_msgmem_t));
QMP_msghandle_t* msg_handle_p = (QMP_msghandle_t *)Alloc("","vvpd", "msg_handle_p", 2*non_local_dirs*sizeof(QMP_msghandle_t));
QMP_msghandle_t* msg_handle_p2 = (QMP_msghandle_t *)Alloc("","vvpd", "msg_handle_p", 2*non_local_dirs*sizeof(QMP_msghandle_t));
QMP_msghandle_t multiple;
//Setup communciation
int comms=0;
for(i=0;i<n_dir;i++)
if( !local[wire[i]/2]) {
if ( size[wire[i]/2] <hop)
fprintf(stderr,
"%s:size(%d) in direction %d is smaller than the hop(%d)\n",
fname,size[wire[i]],wire[i],hop);
comms++;
}
for(v=0; v<n_vect; v++){
if (v%2==0) {
comms=0;
for(i=0;i<n_dir;i++)
if( !local[wire[i]/2]){
msg_mem_p[2*comms] = QMP_declare_msgmem((void *)rcv_buf[wire[i]], hop*non_local_chi[wire[i]]*VECT_LEN*sizeof(IFloat));
msg_handle_p[2*comms] = QMP_declare_receive_relative(msg_mem_p[2*comms], wire[i]/2, 1-2*(wire[i]%2), 0);
msg_mem_p[2*comms+1] = QMP_declare_strided_msgmem((void *)(vect[v][i]+VECT_LEN*set_offset(wire[i], hop)), (size_t)(hop*blklen[wire[i]]), numblk[wire[i]], (ptrdiff_t)(stride[wire[i]] + blklen[wire[i]]));
msg_handle_p[2*comms+1] = QMP_declare_send_relative(msg_mem_p[2*comms+1], wire[i]/2, 2*(wire[i]%2)-1, 0);
comms++;
}
// Start communication
if(comms) {
multiple = QMP_declare_multiple(msg_handle_p, 2*comms);
}
if (comms) {
QMP_start(multiple);
QMP_status_t qmp_complete_status = QMP_wait(multiple);
if (qmp_complete_status != QMP_SUCCESS)
QMP_error("Send failed in vvpd: %s\n", QMP_error_string(qmp_complete_status));
QMP_free_msghandle(multiple);
for(int i = 0; i < 2*comms; i++)
QMP_free_msgmem(msg_mem_p[i]);
}
} else {
comms=0;
for(i=0;i<n_dir;i++)
if( !local[wire[i]/2]){
msg_mem_p2[2*comms] = QMP_declare_msgmem((void *)rcv_buf2[wire[i]], hop*non_local_chi[wire[i]]*VECT_LEN*sizeof(IFloat));
msg_handle_p2[2*comms] = QMP_declare_receive_relative(msg_mem_p2[2*comms], wire[i]/2, 1-2*(wire[i]%2), 0);
msg_mem_p2[2*comms+1] = QMP_declare_strided_msgmem((void *)(vect[v][i]+VECT_LEN*set_offset(wire[i], hop)), (size_t)(hop*blklen[wire[i]]), numblk[wire[i]], (ptrdiff_t)(stride[wire[i]] + blklen[wire[i]]));
msg_handle_p2[2*comms+1] = QMP_declare_send_relative(msg_mem_p2[2*comms+1], wire[i]/2, 2*(wire[i]%2)-1, 0);
comms++;
}
// Start communication
if(comms) {
multiple = QMP_declare_multiple(msg_handle_p2, 2*comms);
}
if (comms) {
QMP_start(multiple);
QMP_status_t qmp_complete_status = QMP_wait(multiple);
if (qmp_complete_status != QMP_SUCCESS)
QMP_error("Send failed in vvpd: %s\n", QMP_error_string(qmp_complete_status));
QMP_free_msghandle(multiple);
for(int i = 0; i < 2*comms; i++)
QMP_free_msgmem(msg_mem_p2[i]);
}
}
// Perform non-local calculation for previous v
if (v>0)
if (v==1 && overwrite==1) {
for(i=0; i<n_dir; i++)
if(non_local_chi[wire[i]]>0)
cross_over_lin(sum[i], &f, vect2[v-1],rcv_buf[wire[i]], hop*non_local_chi[wire[i]],
src_nl[hop-1][wire[i]], dest_nl[hop-1][wire[i]]);
} else if (v%2==1) {
for(i=0; i<n_dir; i++)
if(non_local_chi[wire[i]]>0)
cross_lin(sum[i], &f, vect2[v-1],rcv_buf[wire[i]], hop*non_local_chi[wire[i]],
src_nl[hop-1][wire[i]], dest_nl[hop-1][wire[i]]);
} else {
for(i=0; i<n_dir; i++)
if(non_local_chi[wire[i]]>0)
cross_lin(sum[i], &f,vect2[v-1],rcv_buf2[wire[i]], hop*non_local_chi[wire[i]],
src_nl[hop-1][wire[i]], dest_nl[hop-1][wire[i]]);
}
// Perform local calculation for current v
if (v==0 && overwrite==1)
{
for(i=0; i<n_dir; i++)
if((vol-hop*non_local_chi[wire[i]])>0)
cross_over_look(sum[i], &f, vect2[v], vect[v][i], vol-hop*non_local_chi[wire[i]], src_l[hop-1][wire[i]], dest_l[hop-1][wire[i]]);
}
else
{
for(i=0; i<n_dir; i++)
if((vol-hop*non_local_chi[wire[i]])>0)
cross_look(sum[i], &f, vect2[v], vect[v][i], vol-hop*non_local_chi[wire[i]], src_l[hop-1][wire[i]], dest_l[hop-1][wire[i]]);
}
}
if (v==1 && overwrite==1) {
for(i=0; i<n_dir; i++)
if(non_local_chi[wire[i]]>0)
cross_over_lin(sum[i], &f, vect2[v-1],rcv_buf[wire[i]], hop*non_local_chi[wire[i]],
src_nl[hop-1][wire[i]], dest_nl[hop-1][wire[i]]);
} else if (v%2==1) {
for(i=0; i<n_dir; i++)
if(non_local_chi[wire[i]]>0)
cross_lin(sum[i], &f, vect2[v-1],rcv_buf[wire[i]], hop*non_local_chi[wire[i]],
src_nl[hop-1][wire[i]], dest_nl[hop-1][wire[i]]);
} else {
for(i=0; i<n_dir; i++)
if(non_local_chi[wire[i]]>0)
cross_lin(sum[i], &f,vect2[v-1],rcv_buf2[wire[i]], hop*non_local_chi[wire[i]],
src_nl[hop-1][wire[i]], dest_nl[hop-1][wire[i]]);
}
#endif
// ParTrans::PTflops += 90*n_vect*n_dir*vol;
}
//! u[x] = v[x+dir] for n_dir forward or backward directions dir.
void PT::shift_field(IFloat **v, const int *dir, int n_dir,
int hop, IFloat **u){
int i, length;
int wire[n_dir];
for (i=0; i<n_dir;i++) wire[i] = dir[i];
#ifdef USE_QMP
QMP_msgmem_t msg_mem_p[20];
QMP_msghandle_t msg_handle_p[20];
QMP_msghandle_t multiple;
#else
SCUDirArgMulti SCUmulti;
SCUDirArgIR *SCUarg_p[2*n_dir];
#endif
int comms=0;
for (i=0; i<n_dir; i++)
if (!local[wire[i]/2]){
#ifndef USE_QMP
SCUarg_p[2*comms] = SCUarg_mat[hop-1][2*wire[i]];
SCUarg_p[2*comms+1] = SCUarg_mat[hop-1][2*wire[i]+1];
SCUarg_p[2*comms+1]->Addr((void *)(v[i]+GAUGE_LEN*set_offset(wire[i], hop)));
#else
msg_mem_p[2*comms] = QMP_declare_msgmem((void *)rcv_buf[wire[i]], 3*hop*non_local_chi[wire[i]]*VECT_LEN*sizeof(IFloat));
msg_mem_p[2*comms+1] = QMP_declare_strided_msgmem((void *)(v[i]+GAUGE_LEN*set_offset(wire[i], hop)), (size_t)(3*hop*blklen[wire[i]]), numblk[wire[i]], (ptrdiff_t)(3*stride[wire[i]]+3*blklen[wire[i]]));
msg_handle_p[2*comms] = QMP_declare_receive_relative(msg_mem_p[2*comms], wire[i]/2, 1-2*(wire[i]%2), 0);
msg_handle_p[2*comms+1] = QMP_declare_send_relative(msg_mem_p[2*comms+1], wire[i]/2, 2*(wire[i]%2)-1, 0);
#endif
comms++;
}
#ifndef USE_QMP
if (comms) SCUmulti.Init(SCUarg_p,2*comms);
if (comms) SCUmulti.SlowStartTrans();
#else
if(comms) {
multiple = QMP_declare_multiple(msg_handle_p, 2*comms);
QMP_start(multiple);
}
#endif
// SCUmulti.TransComplete();
for (i=0; i<n_dir; i++) {
length = vol-hop*non_local_chi[wire[i]];
copy_matrix(u[i],v[i],&length,dest_l[hop-1][wire[i]],
src_l[hop-1][wire[i]]);
}
#ifndef USE_QMP
if (comms) SCUmulti.TransComplete();
#else
if(comms) {
QMP_status_t qmp_complete_status = QMP_wait(multiple);
if (qmp_complete_status != QMP_SUCCESS)
QMP_error("Send failed in shift_field: %s\n", QMP_error_string(qmp_complete_status));
QMP_free_msghandle(multiple);
for(int i = 0; i < 2*comms; i++)
QMP_free_msgmem(msg_mem_p[i]);
}
#endif
for (i=0; i<n_dir; i++) {
length = hop*non_local_chi[wire[i]];
copy_matrix(u[i],(IFloat*)rcv_buf[wire[i]],&length,
dest_nl[hop-1][wire[i]],src_nl[hop-1][wire[i]]);
}
}
void init_qmp(int * argc, char ***argv) {
#if 0
printf("init_qmp(%d %p)\n",*argc,*argv);
for(int i = 0; i<*argc;i++){
printf("argv[%d](before)=%s\n",i,(*argv)[i]);
}
#endif
#if 0
spi_init();
#endif
QMP_thread_level_t prv;
#ifndef UNIFORM_SEED_NO_COMMS
QMP_status_t init_status = QMP_init_msg_passing(argc, argv, QMP_THREAD_SINGLE, &prv);
if (init_status) printf("QMP_init_msg_passing returned %d\n",init_status);
peRank = QMP_get_node_number();
peNum = QMP_get_number_of_nodes();
if(!peRank)printf("QMP_init_msg_passing returned %d\n",init_status);
if (init_status != QMP_SUCCESS) {
QMP_error("%s\n",QMP_error_string(init_status));
}
// check QMP thread level
// Added by Hantao
if(peRank == 0) {
switch(prv) {
case QMP_THREAD_SINGLE:
printf("QMP thread level = QMP_THREAD_SINGLE\n");
break;
case QMP_THREAD_FUNNELED:
printf("QMP thread level = QMP_THREAD_FUNNELED\n");
break;
case QMP_THREAD_SERIALIZED:
printf("QMP thread level = QMP_THREAD_SERIALIZED\n");
break;
case QMP_THREAD_MULTIPLE:
printf("QMP thread level = QMP_THREAD_MULTIPLE\n");
break;
default:
printf("QMP thread level = no idea what this is, boom!\n");
}
}
//Check to make sure that this machine is a GRID machine
//Exit if not GRID machine
QMP_ictype qmp_type = QMP_get_msg_passing_type();
//Get information about the allocated machine
peNum = QMP_get_number_of_nodes();
NDIM = QMP_get_allocated_number_of_dimensions();
peGrid = QMP_get_allocated_dimensions();
pePos = QMP_get_allocated_coordinates();
if(peRank==0){
for(int i = 0; i<*argc;i++){
printf("argv[%d])(after)=%s\n",i,(*argv)[i]);
}
}
#else
QMP_status_t init_status = QMP_SUCCESS;
peRank=0;
peNum=1;
NDIM=4;
#endif
//#if (TARGET == BGL) || (TARGET == BGP)
if (NDIM>5){
peNum = 1;
for(int i = 0;i<5;i++)
peNum *= peGrid[i];
peRank = peRank % peNum;
}
int if_print=1;
for(int i = 0;i<NDIM;i++)
if (pePos[i]>=2) if_print=0;
if (if_print){
printf("Rank=%d Num=%d NDIM=%d\n",peRank,peNum,NDIM);
printf("dim:");
for(int i = 0;i<NDIM;i++)
printf(" %d",peGrid[i]);
printf("\n");
printf("pos:");
for(int i = 0;i<NDIM;i++)
printf(" %d",pePos[i]);
printf("\n");
#if 0
int rc;
BGLPersonality pers;
rts_get_personality(&pers, sizeof(pers));
printf("from personality: %d %d %d %d\n",pers.xCoord,pers.yCoord,pers.zCoord,rts_get_processor_id());
#endif
}
// printf("from personality:\n");
#if 0
if ( (qmp_type!= QMP_GRID) && (qmp_type !=QMP_MESH) ) {
QMP_error("CPS on QMP only implemented for GRID or MESH, not (%d) machines\n",qmp_type);
}
#endif
// printf("QMP_declare_logical_topology(peGrid, NDIM)\n");
#ifndef UNIFORM_SEED_NO_COMMS
//Declare the logical topology (Redundant for GRID machines)
if (QMP_declare_logical_topology(peGrid, NDIM) != QMP_SUCCESS) {
QMP_error("Node %d: Failed to declare logical topology\n",peRank);
exit(-4);
}
#endif
initialized = true;
printf("Rank=%d init_qmp() done\n",peRank);
}
/**
* Test oneway blast send
*/
static void
test_oneway (int** smem,
int** rmem,
QMP_msghandle_t* sendh,
QMP_msghandle_t* recvh,
struct perf_argv* pargv)
{
double it, ft, dt, bwval;
int i, j;
QMP_status_t err;
int nc, ndims;
int nloops;
int dsize;
QMP_bool_t sender;
nc = pargv->num_channels;
nloops = pargv->loops;
dsize = pargv->size;
sender = pargv->sender;
ndims = pargv->ndims;
QMP_barrier();
if (sender) {
it = get_current_time ();
for (i = 0; i < nloops; i++) {
for (j = 0; j < nc; j++) {
/* Send operation */
if ((err = QMP_start (sendh[j])) != QMP_SUCCESS)
QMP_printf ("Start sending failed: %s\n", QMP_error_string(err));
}
for (j = 0; j < nc; j++) {
if (QMP_wait (sendh[j]) != QMP_SUCCESS)
QMP_printf ("Error in sending %d\n", j );
}
}
ft = get_current_time (); /* In milli seconds */
dt = (ft - it); /* actual send time milli seconds */
bwval = dsize/(double)1000.0 * 4 * nloops*nc*ndims/dt;
if(QMP_get_node_number()==0) {
QMP_printf ("Oneway Bandwidth for datasize %d is %g (MB/s)",
dsize * 4, bwval);
QMP_printf ("time is %lf micro seconds", dt*1000.0/nloops);
fflush(stdout);
}
QMP_barrier();
}
else {
it = get_current_time ();
for (i = 0; i < nloops; i++) {
for (j = 0; j < nc; j++) {
/* receive operation */
if ((err = QMP_start (recvh[j])) != QMP_SUCCESS)
QMP_printf ("Start receiving failed: %s\n", QMP_error_string(err));
}
for (j = 0; j < nc; j++) {
if (QMP_wait (recvh[j]) != QMP_SUCCESS)
QMP_printf ("Error in receiving %d\n", j);
}
}
ft = get_current_time (); /* In milli seconds */
dt = (ft - it); /* actual send time milli seconds */
bwval = dsize/(double)1000.0 * 4 * nloops*nc*ndims/dt;
QMP_barrier();
if(QMP_get_node_number()==1) {
QMP_printf ("Oneway Bandwidth for datasize %d is %g (MB/s)",
dsize * 4, bwval);
QMP_printf ("time is %lf micro seconds", dt*1000.0/nloops);
fflush(stdout);
}
}
QMP_barrier();
}
/**
* Test ping and verify received message.
*/
static void
test_pingpong_verify (int** smem,
int** rmem,
QMP_msghandle_t* sendh,
QMP_msghandle_t* recvh,
struct perf_argv* pargv)
{
double it, ft, dt, bwval;
int i, j, k;
QMP_status_t err;
int nc, ndims;
int nloops;
int dsize;
QMP_bool_t sender;
nc = pargv->num_channels;
nloops = pargv->loops;
dsize = pargv->size;
sender = pargv->sender;
ndims = pargv->ndims;
QMP_barrier();
it = get_current_time ();
for (i = 0; i < nloops; i++) {
for (j = 0; j < nc; j++) {
for (k = 0; k < dsize; k++) {
rmem[j][k] = 0;
smem[j][k] = i + k * j + nc*nc;
}
}
if (sender) {
for (j = 0; j < nc; j++) {
/* Send operation */
if ((err = QMP_start (sendh[j])) != QMP_SUCCESS)
QMP_printf ("Start sending failed: %s\n", QMP_error_string(err));
}
for (j = 0; j < nc; j++) {
if (QMP_wait (sendh[j]) != QMP_SUCCESS)
QMP_printf ("Error in sending %d\n", j );
}
for (j = 0; j < nc; j++) {
/* receive operation */
if ((err = QMP_start (recvh[j])) != QMP_SUCCESS)
QMP_printf ("Start receiving failed: %s\n", QMP_error_string(err));
}
for (j = 0; j < nc; j++) {
if (QMP_wait (recvh[j]) != QMP_SUCCESS)
QMP_printf ("Error in receiving %d\n", j);
}
}
else {
for (j = 0; j < nc; j++) {
/* receive operation */
if ((err = QMP_start (recvh[j])) != QMP_SUCCESS)
QMP_printf ("Start receiving failed: %s\n", QMP_error_string(err));
}
for (j = 0; j < nc; j++) {
if (QMP_wait (recvh[j]) != QMP_SUCCESS)
QMP_printf ("Error in receiving %d\n", j);
}
for (j = 0; j < nc; j++) {
/* Send operation */
if ((err = QMP_start (sendh[j])) != QMP_SUCCESS)
QMP_printf ("Start sending failed: %s\n", QMP_error_string(err));
}
for (j = 0; j < nc; j++) {
if (QMP_wait (sendh[j]) != QMP_SUCCESS)
QMP_printf ("Error in sending %d\n", j );
}
}
/* verify memory */
for (j = 0; j < nc; j++) {
for (k = 0; k < dsize; k++)
if (rmem[j][k] != i + k * j + nc* nc)
QMP_printf ("Receiving memory error for memory %d %d %d\n",
j, k, rmem[j][k]);
}
}
ft = get_current_time (); /* In milli seconds */
dt = (ft - it); /* actual send time milli seconds */
bwval = 2 * dsize/(double)1000.0 * 4 * nloops*nc*ndims/dt;
QMP_printf ("Ping Pong Bandwidth for datasize %d is %g (MB/s)",
dsize * 4, bwval);
QMP_printf ("RTT/2 is %lf micro seconds", dt*1000.0/nloops/2);
}
void dwf_dslash_5_plus_slice(Vector *out,
Vector *in,
Float mass,
int dag,
Dwf *dwf_lib_arg,
int s_slice)
{
int x;
int s;
// Initializations
//------------------------------------------------------------------
#if 0
int local_ls = GJP.SnodeSites();
int s_nodes = GJP.Snodes();
int s_node_coor = GJP.SnodeCoor();
int vol_4d_cb = dwf_lib_arg->vol_4d / 2;
int ls_stride = 24 * vol_4d_cb;
#endif
IFloat *f_in;
IFloat *f_out;
IFloat *f_temp;
IFloat *comm_buf = dwf_lib_arg->comm_buf;
IFloat two_over_a5 = 2.0 * GJP.DwfA5Inv();
IFloat neg_mass_two_over_a5 = -2.0 * mass * GJP.DwfA5Inv();
// [1 + gamma_5] term (if dag=1 [1 - gamma_5] term)
//
// out[s] = [1 + gamma_5] in[s-1]
//------------------------------------------------------------------
if (s_slice<0 || s_slice >=local_ls)
ERR.General("","dwf_dslash_5_plus_slice","s_slice=%d local_ls=%d!\n",s_slice,local_ls);
if(s_slice>0 ){
f_in = (IFloat *) in;
f_out = (IFloat *) out;
f_in += (s_slice-1)*ls_stride;
f_out += (s_slice)*ls_stride;
if(dag == 1){
f_in = f_in + 12;
f_out = f_out + 12;
}
FtV1pV2Skip_asm(f_out,&two_over_a5,f_in,f_out,vol_4d_cb);
}
// [1 + gamma_5] for lower boundary term (if dag=1 [1 - gamma_5] term)
// If there's only one node along fifth direction, no communication
// is necessary; Otherwise data from adjacent node in minus direction
// will be needed.
// If the lower boundary is the s=0 term
// out[0] = - m_f * [1 + gamma_5] in[ls-1]
// else, out[s] = [1 + gamma_5] in[s-1]
//
//------------------------------------------------------------------
if (s_slice == 0 ){
f_in = (IFloat *) in;
f_in = f_in + (local_ls-1)*ls_stride;
f_out = (IFloat *) out;
if(dag == 1){
f_in = f_in + 12;
f_out = f_out + 12;
}
f_temp = f_in;
if (s_nodes > 1 ) {
#ifdef USE_GETPLUS
getMinusData(comm_buf, f_in, 24*vol_4d_cb, 4);
f_temp = comm_buf;
#else
QMP_status_t send_status = QMP_wait(msghandle_down[0]);
if (send_status != QMP_SUCCESS)
QMP_error("Send failed in dwf_dslash_5_plus_slice: %s\n", QMP_error_string(send_status));
QMP_status_t recv_status = QMP_wait(msghandle_down[1]);
if (recv_status != QMP_SUCCESS)
QMP_error("Receive failed in dwf_dslash_5_plus_slice: %s\n", QMP_error_string(recv_status));
f_temp = rbuf_down;
if(dag == 1) f_temp = f_temp + 12;
#endif
}
if(s_node_coor == 0) {
FtV1pV2Skip_asm(f_out,&neg_mass_two_over_a5,f_temp,f_out,vol_4d_cb);
} else {
FtV1pV2Skip_asm(f_out,&two_over_a5,f_temp,f_out,vol_4d_cb);
}
}
// [1 - gamma_5] term (if dag=1 [1 + gamma_5] term)
//
// out[s] = [1 - gamma_5] in[s+1]
//------------------------------------------------------------------
if(s_slice > 0 ){
f_in = (IFloat *) in;
f_out = (IFloat *) out;
f_in += (s_slice)*ls_stride;
f_out += (s_slice-1)*ls_stride;
if(dag == 0){
f_in = f_in + 12;
f_out = f_out + 12;
}
FtV1pV2Skip_asm(f_out,&two_over_a5,f_in,f_out,vol_4d_cb);
}
// [1 - gamma_5] for upper boundary term (if dag=1 [1 + gamma_5] term)
// If there's only one node along fifth direction, no communication
// is necessary; Otherwise data from adjacent node in minus direction
// will be needed.
// If the upper boundary is the s=ls term
// out[ls-1] = - m_f * [1 - gamma_5] in[0]
// else out[s] = [1 - gamma_5] in[s+1]
//
//------------------------------------------------------------------
if(s_slice == (local_ls-1) ){
f_in = (IFloat *) in;
f_out = (IFloat *) out;
if(dag == 0){
f_in = f_in + 12;
f_out = f_out + 12;
}
f_out = f_out + (local_ls-1)*ls_stride;
f_temp = f_in;
if (s_nodes > 1 ) {
#ifdef USE_GETPLUS
getPlusData(comm_buf, f_in, 24*vol_4d_cb, 4);
f_temp = comm_buf;
#else
QMP_status_t send_status = QMP_wait(msghandle_up[0]);
if (send_status != QMP_SUCCESS)
QMP_error("Send failed in dwf_dslash_5_plus_slice: %s\n", QMP_error_string(send_status));
QMP_status_t recv_status = QMP_wait(msghandle_up[1]);
if (recv_status != QMP_SUCCESS)
QMP_error("Receive failed in dwf_dslash_5_plus_slice: %s\n", QMP_error_string(recv_status));
f_temp = rbuf_up;
if(dag == 0) f_temp = f_temp + 12;
#endif
}
if(s_node_coor == s_nodes - 1) {
FtV1pV2Skip_asm(f_out,&neg_mass_two_over_a5,f_temp,f_out,vol_4d_cb);
} else {
FtV1pV2Skip_asm(f_out,&two_over_a5,f_temp,f_out,vol_4d_cb);
}
}
// DiracOp::CGflops+=2*2*vol_4d_cb*local_ls*12;
}