* with the old pstate!)
*/
int pstate = 0;
+ const int pstate_off = -1;
public:
double watts_off = 0.0; /*< Consumption when the machine is turned off (shutdown) */
{
double start_time = this->last_updated;
double finish_time = surf_get_clock();
- double current_speed = host->speed();
+ double current_speed = host->getSpeed();
if (start_time < finish_time) {
double cpu_load;
double previous_energy = this->total_energy;
double instantaneous_consumption;
- if (this->pstate == -1) // The host was off at the beginning of this time interval
+ if (this->pstate == pstate_off) // The host was off at the beginning of this time interval
instantaneous_consumption = this->watts_off;
else
instantaneous_consumption = this->getCurrentWattsValue(cpu_load);
XBT_DEBUG("[update_energy of %s] period=[%.2f-%.2f]; current power peak=%.0E flop/s; consumption change: %.2f J -> "
"%.2f J",
- host->cname(), start_time, finish_time, host->pimpl_cpu->speed_.peak, previous_energy, energy_this_step);
+ host->getCname(), start_time, finish_time, host->pimpl_cpu->speed_.peak, previous_energy,
+ energy_this_step);
}
/* Save data for the upcoming time interval: whether it's on/off and the pstate if it's on */
- this->pstate = host->isOn() ? host->pstate() : -1;
+ this->pstate = host->isOn() ? host->getPstate() : pstate_off;
}
HostEnergy::HostEnergy(simgrid::s4u::Host* ptr) : host(ptr), last_updated(surf_get_clock())
{
initWattsRangeList();
- const char* off_power_str = host->property("watt_off");
+ const char* off_power_str = host->getProperty("watt_off");
if (off_power_str != nullptr) {
- char* msg = bprintf("Invalid value for property watt_off of host %s: %%s", host->cname());
+ char* msg = bprintf("Invalid value for property watt_off of host %s: %%s", host->getCname());
this->watts_off = xbt_str_parse_double(off_power_str, msg);
xbt_free(msg);
}
double HostEnergy::getWattMinAt(int pstate)
{
- xbt_assert(not power_range_watts_list.empty(), "No power range properties specified for host %s", host->cname());
+ xbt_assert(not power_range_watts_list.empty(), "No power range properties specified for host %s", host->getCname());
return power_range_watts_list[pstate].min;
}
double HostEnergy::getWattMaxAt(int pstate)
{
- xbt_assert(not power_range_watts_list.empty(), "No power range properties specified for host %s", host->cname());
+ xbt_assert(not power_range_watts_list.empty(), "No power range properties specified for host %s", host->getCname());
return power_range_watts_list[pstate].max;
}
/** @brief Computes the power consumed by the host according to the current pstate and processor load */
double HostEnergy::getCurrentWattsValue(double cpu_load)
{
- xbt_assert(not power_range_watts_list.empty(), "No power range properties specified for host %s", host->cname());
+ xbt_assert(not power_range_watts_list.empty(), "No power range properties specified for host %s", host->getCname());
/* min_power corresponds to the power consumed when only one core is active */
/* max_power is the power consumed at 100% cpu load */
* (maxCpuLoad is by definition 1)
*/
double power_slope;
- int coreCount = host->coreCount();
+ int coreCount = host->getCoreCount();
double coreReciprocal = static_cast<double>(1) / static_cast<double>(coreCount);
if (coreCount > 1)
power_slope = (max_power - min_power) / (1 - coreReciprocal);
void HostEnergy::initWattsRangeList()
{
- const char* all_power_values_str = host->property("watt_per_state");
+ const char* all_power_values_str = host->getProperty("watt_per_state");
if (all_power_values_str == nullptr)
return;
std::vector<std::string> all_power_values;
boost::split(all_power_values, all_power_values_str, boost::is_any_of(","));
- XBT_DEBUG("%s: profile: %s, cores: %d", host->cname(), all_power_values_str, host->coreCount());
+ XBT_DEBUG("%s: profile: %s, cores: %d", host->getCname(), all_power_values_str, host->getCoreCount());
int i = 0;
for (auto current_power_values_str : all_power_values) {
/* retrieve the power values associated with the current pstate */
std::vector<std::string> current_power_values;
boost::split(current_power_values, current_power_values_str, boost::is_any_of(":"));
- if (host->coreCount() == 1) {
+ if (host->getCoreCount() == 1) {
xbt_assert(current_power_values.size() == 2 || current_power_values.size() == 3,
"Power properties incorrectly defined for host %s."
"It should be 'Idle:FullSpeed' power values because you have one core only.",
- host->cname());
+ host->getCname());
if (current_power_values.size() == 2) {
// In this case, 1core == AllCores
current_power_values.push_back(current_power_values.at(1));
"The energy profile of mono-cores should be formated as 'Idle:FullSpeed' only.\n"
"If you go for a 'Idle:OneCore:AllCores' power profile on mono-cores, then OneCore and AllCores "
"must be equal.",
- host->cname());
+ host->getCname());
}
} else {
xbt_assert(current_power_values.size() == 3,
"Power properties incorrectly defined for host %s."
"It should be 'Idle:OneCore:AllCores' power values because you have more than one core.",
- host->cname());
+ host->getCname());
}
/* min_power corresponds to the idle power (cpu load = 0) */
/* max_power is the power consumed at 100% cpu load */
- char* msg_idle = bprintf("Invalid idle value for pstate %d on host %s: %%s", i, host->cname());
- char* msg_min = bprintf("Invalid OneCore value for pstate %d on host %s: %%s", i, host->cname());
- char* msg_max = bprintf("Invalid AllCores value for pstate %d on host %s: %%s", i, host->cname());
+ char* msg_idle = bprintf("Invalid idle value for pstate %d on host %s: %%s", i, host->getCname());
+ char* msg_min = bprintf("Invalid OneCore value for pstate %d on host %s: %%s", i, host->getCname());
+ char* msg_max = bprintf("Invalid AllCores value for pstate %d on host %s: %%s", i, host->getCname());
PowerRange range(xbt_str_parse_double((current_power_values.at(0)).c_str(), msg_idle),
xbt_str_parse_double((current_power_values.at(1)).c_str(), msg_min),
xbt_str_parse_double((current_power_values.at(2)).c_str(), msg_max));
HostEnergy* host_energy = host.extension<HostEnergy>();
host_energy->update();
- XBT_INFO("Energy consumption of host %s: %f Joules", host.cname(), host_energy->getConsumedEnergy());
+ XBT_INFO("Energy consumption of host %s: %f Joules", host.getCname(), host_energy->getConsumedEnergy());
}
static void onSimulationEnd()
{
simgrid::simix::kernelImmediate([]() {
std::vector<simgrid::s4u::Host*> list;
- simgrid::s4u::Engine::instance()->hostList(&list);
+ simgrid::s4u::Engine::getInstance()->getHostList(&list);
for (auto host : list)
- host->extension<HostEnergy>()->update();
+ if (dynamic_cast<simgrid::s4u::VirtualMachine*>(host) == nullptr) // Ignore virtual machines
+ host->extension<HostEnergy>()->update();
});
}
{
xbt_assert(HostEnergy::EXTENSION_ID.valid(),
"The Energy plugin is not active. Please call sg_energy_plugin_init() during initialization.");
- double cpu_load = lmm_constraint_get_usage(host->pimpl_cpu->constraint()) / host->speed();
+ double cpu_load = lmm_constraint_get_usage(host->pimpl_cpu->constraint()) / host->getSpeed();
return host->extension<HostEnergy>()->getCurrentWattsValue(cpu_load);
}
