Simd::Simd()
: PragmaCustomCompilerPhase("omp-simd"),
_simd_enabled(false), _svml_enabled(false), _ffast_math_enabled(false), _mic_enabled(false)
{
set_phase_name("Vectorize OpenMP SIMD parallel IR");
set_phase_description("This phase vectorize the OpenMP SIMD parallel IR");
register_parameter("simd_enabled",
"If set to '1' enables simd constructs, otherwise it is disabled",
_simd_enabled_str,
"0").connect(functor(&Simd::set_simd, *this));
register_parameter("svml_enabled",
"If set to '1' enables svml math library, otherwise it is disabled",
_svml_enabled_str,
"0").connect(functor(&Simd::set_svml, *this));
register_parameter("ffast_math_enabled",
"If set to '1' enables ffast_math operations, otherwise it is disabled",
_ffast_math_enabled_str,
"0").connect(functor(&Simd::set_ffast_math, *this));
register_parameter("mic_enabled",
"If set to '1' enables compilation for MIC architecture, otherwise it is disabled",
_mic_enabled_str,
"0").connect(functor(&Simd::set_mic, *this));
}
Instrumentation()
{
// Phase description"
set_phase_name("Nanos 4 OpenMP Instrumentation");
set_phase_description("This phase adds instrumentation to either "
"function calls or function definitions using Nanos4 instrumentation interface");
// Phase parameters
register_parameter("instrument",
"If set to '1' enables instrumentation, otherwise it is disabled",
instrument_enabled_str,
"0");
register_parameter("instrument_mode",
"It sets the kind of instrumentation done. Valid values are 'calls' or 'functions'. Currently only 'calls' is valid",
instrument_mode,
"calls");
register_parameter("instrument_file_name",
"Sets the filtering file for instrumentation. This file contains a of functions to "
"be instrumented or not, depending on 'instrument_filter_mode'",
instrument_file_name,
"./filter_instrument");
register_parameter("instrument_filter_mode",
"Sets the filtering mode. It can be either 'normal' or 'inverted'. "
"A function is instrumented only if 'instrument_filter_mode' is 'normal' and the function name "
"is listed in the file of option 'instrument_file_name' or if 'instrument_filter_mode' is 'inverted' "
"and the function is not listed in that file'",
instrument_filter_mode,
"normal");
}
// class constructor
Resound::BPhasor::BPhasor(std::string name) :
Resound::Behaviour(name),
m_amp(new BehaviourParameter("amp", this)),
m_freq(new BehaviourParameter("freq", this))
{
register_parameter(m_amp);
register_parameter(m_freq);
}
// class constructor
Resound::BMultiCrossfade::BMultiCrossfade(std::string name) :
Resound::Behaviour(name),
m_amp(new BehaviourParameter("amp", this)),
m_pos(new BehaviourParameter("pos", this)),
m_offset(new BehaviourParameter("offset", this))
{
register_parameter(m_amp);
register_parameter(m_pos);
register_parameter(m_offset);
// this
}
// class constructor
Resound::BRandom::BRandom(std::string name) :
Resound::Behaviour(name),
m_amp(new BehaviourParameter("amp", this)),
m_freq(new BehaviourParameter("freq", this)),
m_offset(new BehaviourParameter("offset", this))
{
register_parameter(m_amp);
register_parameter(m_freq);
register_parameter(m_offset);
m_edgeTrigger = true;
}
// class constructor
Resound::BWave::BWave(std::string name) :
Resound::Behaviour(name),
m_amp(new BehaviourParameter("amp", this)),
m_freq(new BehaviourParameter("freq", this)),
//m_phase(new BehaviourParameter("phase", this)),
m_offset(new BehaviourParameter("offset", this))
{
register_parameter(m_amp);
register_parameter(m_freq);
//register_parameter(m_phase);
register_parameter(m_offset);
}
ExampleParameters::ExampleParameters()
{
// Parameters are registered in the constructor of the phase
set_phase_name("Example phase with parameters");
set_phase_description("This phase does nothing but registering some parameters and printing them");
register_parameter("param1",
"This is the parameter number one",
_parameter_1_value,
"val1");
register_parameter("param2",
"This is the parameter number two",
_parameter_2_value,
"val2").connect(functor(&ExampleParameters::check_param2, *this));
}
void create_thinkpad_fan(void)
{
char filename[4096];
class thinkpad_fan *fan;
strcpy(filename, "/sys/devices/platform/thinkpad_hwmon/fan1_input");
if (access(filename, R_OK) !=0)
return;
register_parameter("thinkpad-fan", 10);
register_parameter("thinkpad-fan-sqr", 5);
register_parameter("thinkpad-fan-cub", 10);
fan = new class thinkpad_fan();
all_devices.push_back(fan);
}
NanosMain::NanosMain()
: PragmaCustomCompilerPhase(),
_nanos_main_enabled(false),
_instrumentation_enabled(false)
{
set_phase_name("Call nanos main prior to user main");
set_phase_description("This phase modifies main to initialize Nanos++ and perform early instrumentation");
register_parameter("nanos_main_enabled",
"If set to '1' nanos main will be called before main, otherwise it is disabled",
_nanos_main_enabled_str,
"0").connect(std::bind(&NanosMain::set_nanos_main, this, std::placeholders::_1));
register_parameter("instrument",
"If set to '1' enable instrumentation of main entry point",
_instrumentation_enabled_str,
"0").connect(std::bind(&NanosMain::set_instrumentation, this, std::placeholders::_1));
}
static void powertop_init(void)
{
static char initialized = 0;
int ret;
struct statfs st_fs;
struct rlimit rlmt;
if (initialized)
return;
checkroot();
rlmt.rlim_cur = rlmt.rlim_max = get_nr_open();
setrlimit (RLIMIT_NOFILE, &rlmt);
ret = system("/sbin/modprobe cpufreq_stats > /dev/null 2>&1");
ret = system("/sbin/modprobe msr > /dev/null 2>&1");
statfs("/sys/kernel/debug", &st_fs);
if (st_fs.f_type != (long) DEBUGFS_MAGIC) {
if (access("/bin/mount", X_OK) == 0) {
ret = system("/bin/mount -t debugfs debugfs /sys/kernel/debug > /dev/null 2>&1");
} else {
ret = system("mount -t debugfs debugfs /sys/kernel/debug > /dev/null 2>&1");
}
if (ret != 0) {
printf(_("Failed to mount debugfs!\n"));
printf(_("exiting...\n"));
exit(EXIT_FAILURE);
}
}
srand(time(NULL));
if (access("/var/cache/", W_OK) == 0)
mkdir("/var/cache/powertop", 0600);
else
mkdir("/data/local/powertop", 0600);
load_results("saved_results.powertop");
load_parameters("saved_parameters.powertop");
enumerate_cpus();
create_all_devices();
detect_power_meters();
register_parameter("base power", 100, 0.5);
register_parameter("cpu-wakeups", 39.5);
register_parameter("cpu-consumption", 1.56);
register_parameter("gpu-operations", 0.5576);
register_parameter("disk-operations-hard", 0.2);
register_parameter("disk-operations", 0.0);
register_parameter("xwakes", 0.1);
load_parameters("saved_parameters.powertop");
initialized = 1;
}
Lowering::Lowering()
{
set_phase_name("Intel OpenMP RTL lowering");
set_phase_description("This phase lowers from Mercurium parallel IR into real code involving Intel OpenMP RTL");
register_parameter("omp_dry_run",
"Disables OpenMP transformation",
_openmp_dry_run,
"0");
}
void Embedding::reset() {
table_ = register_parameter("table", torch::empty({count_, dimension_}));
table_.data().normal_(0, 1);
}