def main():
start = hpx.time_now()
num_ranks = hpx.get_num_ranks()
and_lco = hpx.And(num_ranks)
for i in range(num_ranks):
worker(hpx.THERE(i), i, num_ranks, rsync_lco=and_lco)
and_lco.wait()
print(hpx.time_elapsed_ms(start))
hpx.exit()
def main():
num_ranks = hpx.get_num_ranks()
print(num_ranks)
array = hpx.GlobalMemory.alloc_cyclic(num_ranks, (64, 1024, 1024),
dtype=np.dtype(float))
start = hpx.time_now()
and_lco = hpx.And(num_ranks)
for i in range(num_ranks):
copy_from_array(hpx.THERE(i), array, i, num_ranks, rsync_lco=and_lco)
and_lco.wait()
print(hpx.time_elapsed_ms(start))
hpx.exit()
def main_action():
num_node = hpx.get_num_ranks()
print("program runs on {0} nodes".format(num_node))
step_size = (high - low) / total_cells
cell_per_node = total_cells // num_node
result_lco = hpx.Reduce(num_node, (1, ), np.dtype(float), result_init,
result_op)
for i in range(num_node):
calculate_integral(hpx.THERE(i), low + i * step_size * cell_per_node,
step_size, cell_per_node, result_lco)
print(result_lco.get())
print(fint(high) - fint(low))
hpx.exit()
def set_domain_size(domain_size_arg):
global domain_size, domain_count
domain_size = domain_size_arg
domain_count = hpx.get_num_ranks()
return hpx.SUCCESS