void addDryWeatherInflows(DateTime currentDate)
//
// Input: currentDate = current date/time
// Output: none
// Purpose: adds dry weather inflows to nodes at current date.
//
{
int j, p;
int month, day, hour;
double q, w;
TDwfInflow* inflow;
// --- get month (zero-based), day-of-week (zero-based),
// & hour-of-day for routing date/time
month = datetime_monthOfYear(currentDate) - 1;
day = datetime_dayOfWeek(currentDate) - 1;
hour = datetime_hourOfDay(currentDate);
// --- for each node with a defined dry weather inflow
for (j = 0; j < Nobjects[NODE]; j++)
{
inflow = Node[j].dwfInflow;
if ( !inflow ) continue;
// --- get flow inflow (i.e., the inflow whose param code is -1)
q = 0.0;
while ( inflow )
{
if ( inflow->param < 0 )
{
q = inflow_getDwfInflow(inflow, month, day, hour);
break;
}
inflow = inflow->next;
}
if ( fabs(q) < FLOW_TOL ) q = 0.0;
// --- add flow inflow to node's lateral inflow
Node[j].newLatFlow += q;
massbal_addInflowFlow(DRY_WEATHER_INFLOW, q);
// --- get pollutant mass inflows
inflow = Node[j].dwfInflow;
while ( inflow )
{
if ( inflow->param >= 0 )
{
p = inflow->param;
w = q * inflow_getDwfInflow(inflow, month, day, hour);
Node[j].newQual[p] += w;
massbal_addInflowQual(DRY_WEATHER_INFLOW, p, w);
}
inflow = inflow->next;
}
}
}
int evaluatePremise(struct TPremise* p, DateTime theDate, DateTime theTime,
DateTime elapsedTime, double tStep)
//
// Input: p = a control rule premise condition
// theDate = the current simulation date
// theTime = the current simulation time of day
// elpasedTime = decimal days since the start of the simulation
// tStep = current time step (days) //(5.0.013 - LR)
// Output: returns TRUE if the condition is true or FALSE otherwise
// Purpose: evaluates the truth of a control rule premise condition.
//
{
int i = p->node;
int j = p->link;
double head;
switch ( p->attribute )
{
case r_TIME:
return checkTimeValue(p, elapsedTime, elapsedTime + tStep);
case r_DATE:
return checkValue(p, theDate);
case r_CLOCKTIME:
return checkTimeValue(p, theTime, theTime + tStep);
case r_DAY: //(5.0.014 - LR)
return checkValue(p, datetime_dayOfWeek(theDate)); //(5.0.014 - LR)
case r_MONTH: //(5.0.014 - LR)
return checkValue(p, datetime_monthOfYear(theDate)); //(5.0.014 - LR)
case r_STATUS:
if ( j < 0 || Link[j].type != PUMP ) return FALSE;
else return checkValue(p, Link[j].setting);
case r_SETTING:
if ( j < 0 || (Link[j].type != ORIFICE && Link[j].type != WEIR) )
return FALSE;
else return checkValue(p, Link[j].setting);
case r_FLOW:
if ( j < 0 ) return FALSE;
else return checkValue(p, Link[j].direction*Link[j].newFlow*UCF(FLOW));//(5.0.019 - LR)
case r_DEPTH:
if ( j >= 0 ) return checkValue(p, Link[j].newDepth*UCF(LENGTH));
else if ( i >= 0 )
return checkValue(p, Node[i].newDepth*UCF(LENGTH));
else return FALSE;
case r_HEAD:
if ( i < 0 ) return FALSE;
head = (Node[i].newDepth + Node[i].invertElev) * UCF(LENGTH);
return checkValue(p, head);
case r_INFLOW:
if ( i < 0 ) return FALSE;
else return checkValue(p, Node[i].newLatFlow*UCF(FLOW));
default: return FALSE;
}
}
