int process::process_counter = 0;
double process::total_load_average;
+double process::average_load_ratio;
double process::load_diff_threshold;
+std::atomic<int> process::convergence_counter(0);
+
namespace {
void sleep_until_date(double& date, double duration)
proc_mutex->acquire();
process_counter++;
+ convergence_counter++;
total_load_init += real_load;
total_load_running += real_load;
total_load_average = total_load_running / process_counter;
+ if (opt::avg_load_ratio >= 0.0)
+ average_load_ratio = opt::avg_load_ratio;
+ else
+ average_load_ratio = 100.0 *
+ (process_counter / -opt::avg_load_ratio) / total_load_average;
load_diff_threshold = (opt::load_ratio_threshold +
- opt::avg_load_ratio * total_load_average) / 100.0;
+ average_load_ratio * total_load_average) / 100.0;
proc_mutex->release();
ctrl_close_pending = data_close_pending = neigh.size();
lb_iter, comp_iter, all_comp_iter, real_load);
if (convergence >= 0.0)
XBT_INFO("Convergence within %g%% was achieved at time %g",
- opt::avg_load_ratio, convergence);
+ average_load_ratio, convergence);
else
XBT_INFO("Convergence within %g%% was not achieved",
- opt::avg_load_ratio);
+ average_load_ratio);
XBT_VERB("Expected load was: %g", expected_load);
XBT_VERB("Total computation for this process: %g", get_comp_amount());
print_loads(true, xbt_log_priority_debug);
++comp_iter;
double flops = opt::comp_cost(real_load);
m_task_t task = MSG_task_create("computation", flops, 0.0, NULL);
- TRACE_msg_set_task_category(task, TRACE_CAT_COMP);
+ // MSG_task_set_category(task, TRACE_CAT_COMP);
XBT_DEBUG("compute %g flop%s", flops, ESSE(flops));
MSG_task_execute(task);
add_comp_amount(flops);
double load_diff = std::fabs(real_load - average);
bool converged = load_diff <= load_diff_threshold;
- if (convergence >= 0.0) {
- if (!converged) {
- XBT_VERB("current load has diverged: %g (%.4g%%)",
- real_load, 100.0 * load_diff / average);
- convergence = -1.0;
- }
- } else {
- if (converged) {
+ if (converged) {
+ if (convergence < 0) {
XBT_VERB("current load has converged: %g (%.4g%%)",
real_load, 100.0 * load_diff / average);
convergence = MSG_get_clock();
+ local_convergence_counter = opt::exit_on_convergence;
+ }
+ if (local_convergence_counter > 0 && --local_convergence_counter == 0)
+ --convergence_counter;
+ } else {
+ if (convergence >= 0.0) {
+ XBT_VERB("current load has diverged: %g (%.4g%%)",
+ real_load, 100.0 * load_diff / average);
+ convergence = -1.0;
+ if (local_convergence_counter == 0)
+ ++convergence_counter;
}
}
}
XBT_VERB("Reached comp_maxiter: %d/%d", comp_iter, opt::comp_maxiter);
last_status = false;
+ } else if (opt::exit_on_convergence && convergence_counter == 0) {
+ XBT_VERB("Global convergence detected");
+ last_status = false;
+
} else if (opt::exit_on_close && close_received) {
XBT_VERB("Close received");
last_status = false;
else
excess_load = real_load;
- double balance = nb.get_debt() - nb.get_credit();
+ double balance;
+ if (nb.get_credit() > 0.0)
+ balance = nb.get_debt() - nb.get_credit();
+ else
+ balance = nb.get_debt();
load_to_send = std::min(excess_load,
std::max(0.0, balance));