gateEuclid
euclidian gate generator with multiple outs (n-outputs are inverted gates of the other outputs) maxcount set the base for the repeat/start/width controls. Normally this would be the same value as the maximum count of the counter, but this can also be controlled independently if you want to set a smaller base then the max-count. repeat A and B set the size of the euclidian repetition respective to the maxcount input. start A and B offset the position of the euclidian repetition respective to the repetition size. width A and B set the gate length within each euclidian repetition respective to the repetition size.
Inlets
int32 nominator
int32 maxcount
frac32 repeatA
frac32 startA
frac32 widthA
frac32 repeatB
frac32 startB
frac32 widthB
Outlets
bool32 A
bool32 nA
bool32 B
bool32 nB
bool32 X
bool32 nX
bool32 O
bool32 nO
int32_t a;
int32_t repeatA = ___SMMUL(inlet_repeatA << 3, inlet_maxcount << 2);
int32_t repeatB = ___SMMUL(inlet_repeatB << 3, inlet_maxcount << 2);
a = inlet_count - ___SMMUL(inlet_startA << 3, repeatA << 2);
int32_t r;
if (a >= 0)
r = ((unsigned int)a) / repeatA;
else
r = -(((unsigned int)(repeatA - a)) / repeatA);
int32_t Rem = a - (r * repeatA);
outlet_A = Rem < ___SMMUL(inlet_widthA << 3, repeatA << 2) ? 1 : 0;
outlet_nA = !outlet_A;
a = a + ___SMMUL(inlet_startB << 3, repeatB << 2);
if (a >= 0)
r = ((unsigned int)a) / repeatB;
else
r = -(((unsigned int)(repeatB - a)) / repeatB);
Rem = a - (r * repeatB);
outlet_B = Rem < ___SMMUL(inlet_widthB << 3, repeatB << 2) ? 1 : 0;
outlet_nB = !outlet_B;
outlet_X = outlet_A & outlet_B;
outlet_nX = !outlet_X;
outlet_O = outlet_A || outlet_B;
outlet_nO = !outlet_O;