gridlab-d/assert/complex_assert.cpp at master · INFERLab/gridlab-d · GitHub

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/* complex_assert

Very simple test that compares complex values to any corresponding complex value. It breaks the

tests down into a test for the real value and a test for the imagniary portion. If either test

fails at any time, it throws a 'zero' to the commit function and breaks the simulator out with

a failure code.

#include <stdlib.h>

#include <stdio.h>

#include <errno.h>

#include <math.h>

#include <complex.h>

#include "complex_assert.h"

EXPORT_CREATE(complex_assert);

EXPORT_INIT(complex_assert);

EXPORT_COMMIT(complex_assert);

EXPORT_NOTIFY(complex_assert);

CLASS *complex_assert::oclass = NULL;

complex_assert *complex_assert::defaults = NULL;

complex_assert::complex_assert(MODULE *module)

{

if (oclass==NULL)

{

// register to receive notice for first top down. bottom up, and second top down synchronizations

oclass = gl_register_class(module,"complex_assert",sizeof(complex_assert),PC_AUTOLOCK|PC_OBSERVER);

if (oclass==NULL)

throw "unable to register class complex_assert";

else

oclass->trl = TRL_PROVEN;

if (gl_publish_variable(oclass,

// TO DO: publish your variables here

PT_enumeration,"status",get_status_offset(),PT_DESCRIPTION,"Conditions for the assert checks",

PT_KEYWORD,"ASSERT_TRUE",(enumeration)ASSERT_TRUE,

PT_KEYWORD,"ASSERT_FALSE",(enumeration)ASSERT_FALSE,

PT_KEYWORD,"ASSERT_NONE",(enumeration)ASSERT_NONE,

PT_enumeration, "once", get_once_offset(),PT_DESCRIPTION,"Conditions for a single assert check",

PT_KEYWORD,"ONCE_FALSE",(enumeration)ONCE_FALSE,

PT_KEYWORD,"ONCE_TRUE",(enumeration)ONCE_TRUE,

PT_KEYWORD,"ONCE_DONE",(enumeration)ONCE_DONE,

PT_enumeration, "operation", get_operation_offset(),PT_DESCRIPTION,"Complex operation for the comparison",

PT_KEYWORD,"FULL",(enumeration)FULL,

PT_KEYWORD,"REAL",(enumeration)REAL,

PT_KEYWORD,"IMAGINARY",(enumeration)IMAGINARY,

PT_KEYWORD,"MAGNITUDE",(enumeration)MAGNITUDE,

PT_KEYWORD,"ANGLE",(enumeration)ANGLE,//specify in radians

PT_complex, "value", get_value_offset(),PT_DESCRIPTION,"Value to assert",

PT_double, "within", get_within_offset(),PT_DESCRIPTION,"Tolerance for a successful assert",

PT_char1024, "target", get_target_offset(),PT_DESCRIPTION,"Property to perform the assert upon",

NULL)<1){

char msg[256];

sprintf(msg, "unable to publish properties in %s",__FILE__);

throw msg;

}

defaults = this;

status = ASSERT_TRUE;

within = 0.0;

value = 0.0;

once = ONCE_FALSE;

once_value = 0;

operation = FULL;

}

/* Object creation is called once for each object that is created by the core */

int complex_assert::create(void)

{

memcpy(this,defaults,sizeof(*this));

return 1; /* return 1 on success, 0 on failure */

}

int complex_assert::init(OBJECT *parent)

{

if (within <= 0.0){

throw "A non-positive value has been specified for within.";

/* TROUBLESHOOT

Within is the range in which the check is being performed. Please check to see that you have

specified a value for "within" and it is positive.

}

return 1;

}

TIMESTAMP complex_assert::commit(TIMESTAMP t1, TIMESTAMP t2)

{

// handle once mode

if ( once==ONCE_TRUE)

{

once_value = value;

once = ONCE_DONE;

}

else if ( once==ONCE_DONE)

{

if ( once_value.Re()==value.Re() && once_value.Im()==value.Im() )

{

gl_verbose("Assert skipped with ONCE logic");

return TS_NEVER;

}

else

{

once_value = value;

}

// get the target property

gld_property target_prop(get_parent(),get_target());

if ( !target_prop.is_valid() || target_prop.get_type()!=PT_complex ) {

gl_error("Specified target %s for %s is not valid.",get_target(),get_parent()->get_name());

/* TROUBLESHOOT

Check to make sure the target you are specifying is a published variable for the object

that you are pointing to. Refer to the documentation of the command flag --modhelp, or

check the wiki page to determine which variables can be published within the object you

are pointing to with the assert function.

return 0;

}

// test the target value

complex x; target_prop.getp(x);

if ( status==ASSERT_TRUE )

{

if ( operation==FULL || operation==REAL || operation==IMAGINARY )

{

complex error = x - value;

double real_error = error.Re();

double imag_error = error.Im();

if ( ( _isnan(real_error) || fabs(real_error)>within )

&& ( operation==FULL || operation==REAL )

)

{

gl_error("Assert failed on %s: real part of %s %g not within %f of given value %g",

get_parent()->get_name(), get_target(), x.Re(), within, value.Re());

return 0;

}

if ( ( _isnan(imag_error) || fabs(imag_error)>within )

&& ( operation==FULL || operation==IMAGINARY )

)

{

gl_error("Assert failed on %s: imaginary part of %s %+gi not within %f of given value %+gi",

get_parent()->get_name(), get_target(), x.Im(), within, value.Im());

return 0;

}

else if ( operation==MAGNITUDE )

{

double magnitude_error = x.Mag() - value.Mag();

if ( _isnan(magnitude_error) || fabs(magnitude_error)>within )

{

gl_error("Assert failed on %s: Magnitude of %s (%g) not within %f of given value %g",

get_parent()->get_name(), get_target(), x.Mag(), within, value.Mag());

return 0;

}

else if (get_operation() == ANGLE)

{

double angle_error = x.Arg() - value.Arg();

if ( _isnan(angle_error) || fabs(angle_error)>within )

{

gl_error("Assert failed on %s: Angle of %s (%g) not within %f of given value %g",

get_parent()->get_name(), get_target(), x.Arg(), within, value.Arg());

return 0;

}

gl_verbose("Assert passed on %s",get_parent()->get_name());

return TS_NEVER;

}

else if (get_status() == ASSERT_FALSE)

{

if ( operation==FULL || operation==REAL || operation==IMAGINARY )

{

complex error = x - value;

double real_error = error.Re();

double imag_error = error.Im();

if ( ( _isnan(real_error) || fabs(real_error)<within )

&& ( operation==FULL || operation==REAL )

)

{

gl_error("Assert failed on %s: real part of %s %g is within %f of given value %g",

get_parent()->get_name(), get_target(), x.Re(), within, value.Re());

return 0;

}

if ( ( _isnan(imag_error) || fabs(imag_error)<within )

&& ( operation==FULL || operation==IMAGINARY )

)

{

gl_error("Assert failed on %s: imaginary part of %s %+gi is within %f of given value %+gi",

get_parent()->get_name(), get_target(), x.Im(), within, value.Im());

return 0;

}

else if ( operation==MAGNITUDE )

{

double magnitude_error = x.Mag() - value.Mag();

if ( _isnan(magnitude_error) || fabs(magnitude_error)<within )

{

gl_error("Assert failed on %s: Magnitude of %s %g is within %f of given value %g",

get_parent()->get_name(), get_target(), x.Mag(), within, value.Mag());

return 0;

}

else if (get_operation() == ANGLE)

{

double angle_error = x.Arg() - value.Arg();

if ( _isnan(angle_error) || fabs(angle_error)<within )

{

gl_error("Assert failed on %s: Angle of %s %g is within %f of given value %g",

get_parent()->get_name(), get_target(), x.Arg(), within, value.Arg());

return 0;

}

gl_verbose("Assert passed on %s",get_parent()->get_name());

return TS_NEVER;

}

else

{

gl_verbose("Assert test is not being run on %s", get_parent()->get_name());

return TS_NEVER;

}

int complex_assert::postnotify(PROPERTY *prop, char *value)

{

if ( once==ONCE_DONE && strcmp(prop->name, "value")==0 )

{

once = ONCE_TRUE ;

}

return 1;

}

EXPORT SIMULATIONMODE update_complex_assert(OBJECT *obj, TIMESTAMP t0, unsigned int64 delta_time, unsigned long dt, unsigned int iteration_count_val)

{

char buff[64];

char dateformat[8]="";

char error_output_buff[1024];

char datebuff[64];

complex_assert *da = OBJECTDATA(obj,complex_assert);

DATETIME delta_dt_val;

double del_clock;

TIMESTAMP del_clock_int;

int del_microseconds;

complex *x;

if(da->get_once() == da->ONCE_TRUE){

da->set_once_value(da->get_value());

da->set_once(da->ONCE_DONE);

} else if (da->get_once() == da->ONCE_DONE){

if(da->get_once_value().Re() == da->get_value().Re() && da->get_once_value().Im() == da->get_value().Im()){

gl_verbose("Assert skipped with ONCE logic");

return SM_EVENT;

} else {

da->set_once_value(da->get_value());

}

//Iteration checker - assert only valid on the first timestep

if (iteration_count_val == 0)

{

//Skip first timestep of any delta iteration -- nature of delta means it really isn't checking the right one

if (delta_time>=dt)

{

//Get value

x = (complex*)gl_get_complex_by_name(obj->parent,da->get_target());

if (x==NULL)

{

gl_error("Specified target %s for %s is not valid.",da->get_target(),gl_name(obj->parent,buff,64));

/* TROUBLESHOOT

Check to make sure the target you are specifying is a published variable for the object

that you are pointing to. Refer to the documentation of the command flag --modhelp, or

check the wiki page to determine which variables can be published within the object you

are pointing to with the assert function.

return SM_ERROR;

}

else if (da->get_status() == da->ASSERT_TRUE)

{

if ( da->get_operation()==da->FULL || da->get_operation()==da->REAL || da->get_operation()==da->IMAGINARY )

{

complex error = *x - da->get_value();

double real_error = error.Re();

double imag_error = error.Im();

if ( ( _isnan(real_error) || fabs(real_error)>da->get_within() )

&& ( da->get_operation()==da->FULL || da->get_operation()==da->REAL )

)

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

sprintf(datebuff,"ERROR [%04d-%02d-%02d %02d:%02d:%02d.%.06d %s] : ",delta_dt_val.year,delta_dt_val.month,delta_dt_val.day,delta_dt_val.hour,delta_dt_val.minute,delta_dt_val.second,del_microseconds,delta_dt_val.tz);

else if ( strcmp(dateformat,"US")==0)

sprintf(datebuff,"ERROR [%02d-%02d-%04d %02d:%02d:%02d.%.06d %s] : ",delta_dt_val.month,delta_dt_val.day,delta_dt_val.year,delta_dt_val.hour,delta_dt_val.minute,delta_dt_val.second,del_microseconds,delta_dt_val.tz);

else if ( strcmp(dateformat,"EURO")==0)

sprintf(datebuff,"ERROR [%02d-%02d-%04d %02d:%02d:%02d.%.06d %s] : ",delta_dt_val.day,delta_dt_val.month,delta_dt_val.year,delta_dt_val.hour,delta_dt_val.minute,delta_dt_val.second,del_microseconds,delta_dt_val.tz);

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

sprintf(error_output_buff,"Assert failed on %s - real part of %s (%g) not within %f of given value %g",gl_name(obj->parent, buff, 64),da->get_target(), (*x).Re(), da->get_within(), da->get_value().Re());

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

if ( ( _isnan(imag_error) || fabs(imag_error)>da->get_within() )

&& ( da->get_operation()==da->FULL || da->get_operation()==da->IMAGINARY )

)

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

sprintf(error_output_buff,"Assert failed on %s - imaginary part of %s (%g) not within %f of given value %g",gl_name(obj->parent, buff, 64),da->get_target(), (*x).Im(), da->get_within(), da->get_value().Im());

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

else if ( da->get_operation()==da->MAGNITUDE )

{

double magnitude_error = (*x).Mag() - da->get_value().Mag();

if ( _isnan(magnitude_error) || fabs(magnitude_error)>da->get_within() )

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

sprintf(error_output_buff,"Assert failed on %s - Magnitude of %s (%g) not within %f of given value %g",gl_name(obj->parent, buff, 64),da->get_target(), (*x).Mag(), da->get_within(), da->get_value().Mag());

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

else if (da->get_operation() == da->ANGLE)

{

double angle_error = (*x).Arg() - da->get_value().Arg();

if ( _isnan(angle_error) || fabs(angle_error)>da->get_within() )

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

sprintf(error_output_buff,"Assert failed on %s - Angle of %s (%g) not within %f of given value %g",gl_name(obj->parent, buff, 64),da->get_target(), (*x).Arg(), da->get_within(), da->get_value().Arg());

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

gl_verbose("Assert passed on %s", gl_name(obj->parent, buff, 64));

return SM_EVENT;

}

else if (da->get_status() == da->ASSERT_FALSE)

{

if ( da->get_operation()==da->FULL || da->get_operation()==da->REAL || da->get_operation()==da->IMAGINARY )

{

complex error = *x - da->get_value();

double real_error = error.Re();

double imag_error = error.Im();

if ( ( _isnan(real_error) || fabs(real_error)<da->get_within() )

&& ( da->get_operation()==da->FULL || da->get_operation()==da->REAL )

)

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

if ( ( _isnan(imag_error) || fabs(imag_error)<da->get_within() )

&& ( da->get_operation()==da->FULL || da->get_operation()==da->IMAGINARY )

)

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

else if ( da->get_operation()==da->MAGNITUDE )

{

double magnitude_error = (*x).Mag() - da->get_value().Mag();

if ( _isnan(magnitude_error) || fabs(magnitude_error)<da->get_within() )

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

else if (da->get_operation() == da->ANGLE)

{

double angle_error = (*x).Arg() - da->get_value().Arg();

if ( _isnan(angle_error) || fabs(angle_error)<da->get_within() )

{

//Calculate time

if (delta_time>=dt) //After first iteration

del_clock = (double)t0 + (double)(delta_time-dt)/(double)DT_SECOND;

else //First second different, don't back out

del_clock = (double)t0 + (double)(delta_time)/(double)DT_SECOND;

del_clock_int = (TIMESTAMP)del_clock; /* Whole seconds - update from global clock because we could be in delta for over 1 second */

del_microseconds = (int)((del_clock-(int)(del_clock))*1000000+0.5); /* microseconds roll-over - biased upward (by 0.5) */

//Convert out

gl_localtime(del_clock_int,&delta_dt_val);

//Determine output format

gl_global_getvar("dateformat",dateformat,sizeof(dateformat));

//Output date appropriately

if ( strcmp(dateformat,"ISO")==0)

else if ( strcmp(dateformat,"US")==0)

else if ( strcmp(dateformat,"EURO")==0)

else

sprintf(datebuff,"ERROR .09f : ",del_clock);

//Actual error part

//Send it out

gl_output("%s%s",datebuff,error_output_buff);

return SM_ERROR;

}

gl_verbose("Assert passed on %s", gl_name(obj->parent, buff, 64));

return SM_EVENT;

}

else

{

gl_verbose("Assert test is not being run on %s", gl_name(obj->parent, buff, 64));

return SM_EVENT;

}

else //First timestep, just proceed

return SM_EVENT;

}

else //Iteration, so don't care

return SM_EVENT;

}

gridlab-d/assert/complex_assert.cpp at master · INFERLab/gridlab-d · GitHub

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