public void device_mc_run1f(double[] payoff_a, CMCEvaluator evaluator)
{
if (mcplan._nscen_per_batch % 4096 != 0) throw new System.Exception();
CArray device_y_sk = new CArray(mcplan.nk * mcplan._nscen_per_batch, EType.short_t, EMemorySpace.device, this, "_device_volatile_buf");
for (int b = 0; b < mcplan._nbatches; b++)
{
unsafe
{
fixed (short* yhost_sk = &mcbuf.host_y_sk_th[0])
{
int status = opcuda_mc1f(mcbuf._device_rgstatus.ptr, grid.y0,
device_y_sk.ptr,
mcplan._nscen_per_batch, mcplan.nk, grid.d,
mcbuf._device_ctpk_yy_m.ptr, mcbuf._device_m_k.ptr,
(uint)yhost_sk);
if (status > 0) throw new System.Exception();
device_thread_synchronize();
evaluator.eval(yhost_sk, 0, b);
}
}
}
}
public void host_d_mc_run1f(double[] payoff_a, CMCEvaluator Evaluator)
{
OPModel.Types.CJobQueue Queue = new OPModel.Types.CJobQueue();
object[] p_b = new object[mcplan._nbatches];
for (int b = 0; b < mcplan._nbatches; b++)
{
host_d_mc_run1f_func_input input = new host_d_mc_run1f_func_input();
input.batch = b;
input.Evaluator = Evaluator;
p_b[b] = input;
}
Queue.Exec(host_d_mc_run1f_func, null, p_b, mcplan.nth);
}
