TIMESTAMP clotheswasher::sync(TIMESTAMP t0, TIMESTAMP t1)
{
// compute the seconds in this time step
double dt = 0.0;
TIMESTAMP t2 = residential_enduse::sync(t0, t1);
if (pCircuit!=NULL)
load.voltage_factor = pCircuit->pV->Mag() / 120; // update voltage factor
dt = gl_toseconds(t0>0?t1-t0:0);
if(t0==t1)
{
starttime = true;
}
else{
starttime = false;
}
// determine the delta time until the next state change
dt = update_state(dt);
if(dt >= 7200){
return TS_NEVER;
}
else{
if(t2 > (TIMESTAMP)(dt*TS_SECOND+t1))
return dt>0?-(TIMESTAMP)(dt*TS_SECOND+t1):TS_NEVER;
else
return t2;
}
}
TIMESTAMP microwave::sync(TIMESTAMP t0, TIMESTAMP t1)
{
TIMESTAMP ct = 0;
double dt = 0;
double val = 0.0;
TIMESTAMP t2 = TS_NEVER;
if (t0 <= 0)
return TS_NEVER;
if (pCircuit!=NULL)
load.voltage_factor = pCircuit->pV->Mag() / 120; // update voltage factor
t2 = residential_enduse::sync(t0,t1);
if(shape.type == MT_UNKNOWN){
if(cycle_time > 0){
ct = update_state_cycle(t0, t1);
} else {
dt = update_state(gl_toseconds(t1-t0));
}
load.power.SetPowerFactor( (state==ON ? shape.params.analog.power : standby_power), load.power_factor);
}
gl_enduse_sync(&(residential_enduse::load),t1);
if(shape.type == MT_UNKNOWN){
if(cycle_time == 0)
return dt>0?-(TIMESTAMP)(t1 + dt*TS_SECOND) : TS_NEVER; // negative time means soft transition
else
return ct == TS_NEVER ? TS_NEVER : -ct;
} else {
return t2;
}
}
TIMESTAMP refrigerator::sync(TIMESTAMP t0, TIMESTAMP t1)
{
double dt0 = gl_toseconds(t0>0?t1-t0:0);
// if advancing from a non-init condition
if (t0>TS_ZERO && t1>t0)
{
// compute the total energy usage in this interval
load.energy += load.total * dt0/3600.0;
}
double dt1 = update_refrigerator_state(dt0, t1);
return dt1>0?-(TIMESTAMP)(dt1*TS_SECOND+t1):TS_NEVER;
}
TIMESTAMP dryer::sync(TIMESTAMP t0, TIMESTAMP t1)
{
double dt = 0;
TIMESTAMP t3;
if(((t1-start_time)%3600)==0 && start_time>0)
dryer_on = true;
else
dryer_on = false;
/* determine loadshape effects */
TIMESTAMP t2 = residential_enduse::sync(t0,t1);
if ((last_t != t0) && (last_t != 0)) //Different timestamp
{
// compute the seconds in this time step
dt = gl_toseconds(t0>0?t0-last_t:0);
// if advancing from a non-init condition
if (t0>TS_ZERO && dt>0)
{
// compute the total energy usage in this interval
load.energy += load.total * dt/3600.0;
//Update tracking variable
last_t = t0;
}
dt = update_state(dt); //, t1);
}
else if (last_t == 0)
{
last_t = t0;
}
//Defaulted other else, do nothing
t3 = (TIMESTAMP)(dt*TS_SECOND+t0);
if (t3>t2)
return -t3;
else
return t2;
}
/** oven synchronization determines the time to next
synchronization state and the power drawn since last synch
**/
TIMESTAMP range::sync(TIMESTAMP t0, TIMESTAMP t1)
{
double internal_gain = 0.0;
double nHours = (gl_tohours(t1) - gl_tohours(t0))/TS_SECOND;
double Tamb = get_Tambient(location);
double dt = gl_toseconds(t0>0?t1-t0:0);
if (oven_check == true || remainon == true)
time_oven_operation +=dt;
if (remainon == false)
time_oven_operation=0;
enduse_queue_oven += enduse_demand_oven * dt/3600/24;
if (t0>TS_ZERO && t1>t0)
{
// compute the total energy usage in this interval
load.energy += load.total * dt/3600.0;
}
if(re_override == OV_ON){
heat_needed = TRUE;
} else if(re_override == OV_OFF){
heat_needed = FALSE;
}
if(Tw > 212.0 - thermostat_deadband){ // if it's trying boil, turn it off!
heat_needed = FALSE;
is_range_on = 0;
}
// determine the power used
if (heat_needed == TRUE){
/* power_kw */ load.total = heating_element_capacity * (heat_mode == GASHEAT ? 0.01 : 1.0);
is_range_on = 1;
} else {
/* power_kw */ load.total = 0.0;
is_range_on = 0;
}
TIMESTAMP t2 = residential_enduse::sync(t0,t1);
set_time_to_transition();
if (location == INSIDE){
if(this->current_model == ONENODE){
internal_gain = oven_UA * (Tw - get_Tambient(location));
}
} else {
internal_gain = 0;
}
dt = update_state(dt, t1);
//load.total = load.power = /* power_kw */ load.power;
load.power = load.total * load.power_fraction;
load.admittance = load.total * load.impedance_fraction;
load.current = load.total * load.current_fraction;
load.heatgain = internal_gain;
range_actual_power = load.power + (load.current + load.admittance * load.voltage_factor )* load.voltage_factor;
actual_load = range_actual_power.Re();
if (heat_needed == true)
total_power_oven = actual_load;
else
total_power_oven =0;
if (actual_load != 0.0)
{
prev_load = actual_load;
power_state = PS_ON;
}
else
power_state = PS_OFF;
// gl_enduse_sync(&(residential_enduse::load),t1);
if(re_override == OV_NORMAL){
if (time_to_transition < dt)
{
if (time_to_transition >= (1.0/3600.0)) // 0.0167 represents one second
{
TIMESTAMP t_to_trans = (t1+time_to_transition*3600.0/TS_SECOND);
return -(t_to_trans); // negative means soft transition
}
// less than one second means never
else
return TS_NEVER;
}
else
return (TIMESTAMP)(t1+dt);
} else {
return TS_NEVER; // keep running until the forced state ends
}
}