Clock2Timing
measures the time interval between triggers and converts them into several usable data
Inlets
int32.positive Set bits of max delay length (delay write module setting)
bool32.rising Timing calculation is based on incoming clock.
Outlets
frac32 basedelay
frac32 maxdelay
int32 time interval in k-rate ticks (0.333ms)
int32 maxtimes
frac32.positive Seconds
frac32.positive Hz
frac32.positive Khz
int ntrig;
int rtrig;
int count;
int32_t trigstart;
int32_t trigstop;
int32_t tc;
int32_t tlatch;
int32_t s;
int32_t t;count = 0;
ntrig = 0;
rtrig = 0;
trigstart = 0;
trigstop = 0;
tlatch = (1 << 31);
tc = (1 << 31);
t = 1;
s = tlatch;int c;
c = 0;
if ((inlet_trig > 0) && !ntrig) {
count += 1;
if (count >= 2) {
count = 0;
c = 1;
}
ntrig = 1;
} else if (!(inlet_trig > 0))
ntrig = 0;
outlet_Seconds = ((tlatch << 13) / 48000) << 8;
outlet_Hz = 4398046500000.f / outlet_Seconds;
outlet_Khz = outlet_Hz / 1000;
outlet_Ksamples = tlatch;
int r;
r = ((unsigned int)(1 << inlet_samplelength)) / tlatch;
outlet_maxtimes = r;
outlet_maxdelay = ((r * tlatch * 64) / (1 << inlet_samplelength)) << 21;
outlet_basedelay = ((tlatch * (1 << 14)) / (1 << inlet_samplelength)) << 13;
if ((s * 2) < (1 << inlet_samplelength)) {
t = t + 1;
}
s = tlatch * (1 << t);
if ((s) > (1 << inlet_samplelength)) {
t = t - 1;
}
s = tlatch * (1 << t);if ((c > 0) && !trigstart) {
tc = 0;
trigstart = 1;
} else if (!(c > 0)) {
trigstart = 0;
}
if ((count > 0) && !trigstop) {
tlatch = tc;
trigstop = 1;
} else if (!(count > 0)) {
trigstop = 0;
}
tc++;