if (in_ready == 0)
tmp = max_flow;
else
- tmp = max_flow/2.0f;
+ tmp = actual_flow/2.0f;
}
send_msg(OUT, MSG_QUERY_MAX_FLOW_OUT, &tmp);
} else {
actual_flow = 0;
}
send_msg(OUT, MSG_QUERY_MAX_FLOW_OUT, &actual_flow);
- std::cout << in_on_zero << " " << actual_flow << std::endl;
tmp = (in_on_zero==0)?actual_flow/2.0f:actual_flow;
who->recieve_msg(MSG_RESPONSE_MAX_FLOW, this, &tmp);
}
if (max < actual_flow) actual_flow = max;
if (in_on_zero == 2) actual_flow = 0;
} else {
- if (((2*max) < actual_flow) && (max != 0))
+ if (((2*max) < actual_flow) && (max != 0)) {
actual_flow = 2*max;
+ if (in_on_zero == 1) actual_flow /= 2.0;
+ }
}
}
break;
void Union::simulate()
{
RGB c_in1, c_in2;
- unsigned r,g,b;
+ unsigned r=0,g=0,b=0;
+ float c_f1, c_f2; // para ver los flujos de cada uno
if (!updated) {
return;
if (i != in_list.end()) {
PlantItem *o = (PlantItem *)(*i);
c_in1 = o->get_color();
+ c_f1 = o->get_actual_flow();
i++;
o = (PlantItem *)(*i);
c_in2 = o->get_color();
+ c_f2 = o->get_actual_flow();
}
- r = ((c_in1.r()+c_in2.r())/2)%256;
- g = ((c_in1.g()+c_in2.g())/2)%256;
- b = ((c_in1.b()+c_in2.b())/2)%256;
- set_color(RGB(r,g,b));
+ set_color( RGB(r,g,b) );
+ if ((c_f1 != 0) && (c_f2 != 0)) {
+ // Si ambas entradas traen flujo, sumo sus colores
+ r = ((c_in1.r()+c_in2.r())/2)%256;
+ g = ((c_in1.g()+c_in2.g())/2)%256;
+ b = ((c_in1.b()+c_in2.b())/2)%256;
+ set_color(RGB(r,g,b));
+ } else {
+ // Veo que entrada trae color
+ if (c_f1 != 0) {
+ set_color( c_in1 );
+ }
+ if (c_f2 != 0) {
+ set_color( c_in2 );
+ }
+ }
+
std::cout << name << "::Flujo actual = " << actual_flow << std::endl;
updated = false;
in_on_zero = 0;