void simnet()
{
Signal w, x, y, z, Present, a, b, c, d, e, f, g;
Signal Strobe (1);
Signal ResetA (1);
Signal ResetB (1);
Signal Output (4);
Pulser ((SD("1a"), "r -- Reset counter"), ResetA, 'r', 10000);
Pulser ((SD("2a"), "s -- Strobe counter"), Strobe, 's', 10000);
Not (SD("1b"), ResetA, ResetB);
Counter ((SD("1c-2c"), "4-bit counter"), (ResetB, Strobe),(w,x,y,z));
circuits( SD("1d-4d"), w, x, y, z, Present, a, b, c, d, e, f, g);
Probe((SD("0d"), "Present"), Present);
Probe((SD("1f"), "a"), a);
Probe((SD("2g"), "b"), b);
Probe((SD("4g"), "c"), c);
Probe((SD("5f"), "d"), d);
Probe((SD("4e"), "e"), e);
Probe((SD("2e"), "f"), f);
Probe((SD("3f"), "g"), g);
}
void simnet()
{
Signal w, x, y, z, Present, a, b, c, d, e, f, g;
Signal Strobe(1);
Signal ResetA(1);
Signal ResetB(1);
Pulser ((SD("1a"), "r -- Reset counter"), ResetA, 'r',10000);
Pulser ((SD("2a"), "s -- Strobe counter"), Strobe, 's', 10000);
Not(SD("1b"), ResetA, ResetB);
Counter((SD("1c-2c"), "4-bit counter"), (ResetB, Strobe), (w,x,y,z));
circuits( SD("1d-4d"), w, x, y, z, Present, a, b, c, d, e, f, g);
Probe(( SD("1g"),"Present"), Present );
Probe( (SD("2f-2h"),"a"), a );
Probe( (SD("3f-4f"),"f"), f );
Probe( (SD("3h-4h"),"b"), b );
Probe( (SD("5f-5h"),"g"), g );
Probe( (SD("6f-7f"),"e"), e);
Probe( (SD("6h-7h"),"c"), c);
Probe( (SD("8f-8h"),"d"), d);
}
int auto_init()
{
// Map the registers
InitMapping();
// MZHappy
Pulser(1,0.5,1e9,MappedHappyBaseAddress);
// Reset the FIFO
resetFIFO();
//Put caen in attenuating mode
CAENWords(255, 255);
//setup DGT and LO* delay lengths
GTDelays(153, 153);
//Set MTCA MIMIC DAC value
DACThresholds(4095);
//Set Control Reg Value
ControlReg(58);
// Speaker mask to GT
speakerMask(0x1000000);
// Counter mask to GT
counterMask(0x1000000);
// Trigger mask to 0
triggerMask(0,0);
// Set Speaker pre-scale to 1
//speakerScale(1);
return 0;
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
// Insert your Pulsers here
Pulser ((SD("2a"), "i -- Initialization"), Init, 'i', 10000);
Pulser ((SD("3a"), "c -- Clock"), Clock, 'c', 10000);
circuits( SD("1b-4b"), Init, Clock, w, x, y, z );
// Insert your Probes here
Probe ((SD("1c"), "w"), w);
Probe ((SD("2c"), "x"), x);
Probe ((SD("3c"), "y"), y);
Probe ((SD("4c"), "z"), z);
}
// Utility commands
void MZHappy(client *c, int argc, sds *argv)
{
// Set for 1e9 pulses. Should renew this in the status readout.
int ret= Pulser(1,0.5,1e9,MappedHappyBaseAddress);
if(ret == 0) addReplyStatus(c, "+OK");
else addReplyError(c, tubii_err);
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
// Insert your Pulsers here
// A pulser is used to generate a temporary value of "One" on a specified
// signal line (signal value: Zero ==> One ==> Zero)
Pulser ((SD("ba"), "v -- Init"), ResetA, 'v', 10001);
Pulser ((SD("ca"), "c -- Clock"), clock_Strobe, 'c', 10000);
circuits( SD("1b-4b"), Init, Clock, w, x, y, z );
// Insert your Probes here
Probe ((SD("bh"), "w"), w_probe);
Probe ((SD("ch"), "x"), x_probe);
Probe ((SD("dh"), "y"), y_probe);
Probe ((SD("eh"), "z"), z_probe);
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
Pulser ((SD("1a"), "Init"), Init, 'i', 1000);
Pulser ((SD("4a"), "Clock"), Clock, 'c', 1000);
// Insert your Pulsers here
circuits( SD("1b-4b"), Init, Clock, w, x, y, z);
Probe ( (SD("1e-1f"), "w"), w);
Probe ( (SD("2e-2f"), "x"), x);
Probe ( (SD("3e-3f"), "y"), y);
Probe ( (SD("4e-4f"), "z"), z);
// Insert your Probes here
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
// Insert your Pulsers here
Pulser ((SD("1a"), "c - Clock"), Clock, 'c', 10000);
Pulser ((SD("2a"), "i - Init"), Init, 'i', 10000);
circuits( SD("5b-8b"), Init, Clock, w, x, y, z );
// Insert your Probes here
Probe ((SD("2d"), "w"), w);
Probe ((SD("3d"), "x"), x);
Probe ((SD("4d"), "y"), y);
Probe ((SD("5d"), "z"), z);
}
void simnet()
{
Signal Strobe (1); // Counter strobe input
Signal ResetA (1); // Counter reset signal (before complemented)
Signal ResetB (1); // Counter reset signal (after complemented)
Signal Output (4); // Counter output
// A pulser is used to generate a temporary value of "One" on a specified
// signal line (signal value: Zero ==> One ==> Zero)
Pulser ((SD("1a"), "r -- Reset counter"), ResetA, 'r', 10000);
Pulser ((SD("2a"), "s -- Strobe counter"), Strobe, 's', 10000);
// Complement the reset signal (counter reset is active low)
Not (SD("1b"), ResetA, ResetB);
Counter ((SD("1c-2c"), "4-bit counter"), (ResetB, Strobe), Output);
Probe ((SD("1d-2d"), "Output"), Output);
}
void SetTelliepulser(client *c, int argc, sds *argv)
{
float rate=0, length=0;
uint32_t nPulse=0;
safe_strtof(argv[1],&rate);
safe_strtof(argv[2],&length);
safe_strtoul(argv[3],&nPulse);
int ret= Pulser(rate,length,nPulse,MappedTPulserBaseAddress);
if(ret == 0) addReplyStatus(c, "+OK");
else addReplyError(c, tubii_err);;
}
void SetMZHappyPulser(client *c, int argc, sds *argv)
{
// For Ian's debugging purposes, MZHappy can also be used as a pulser
float rate=0, length=0;
uint32_t nPulse=0;
safe_strtof(argv[1],&rate);
safe_strtof(argv[2],&length);
safe_strtoul(argv[3],&nPulse);
int ret= Pulser(rate,length,nPulse,MappedHappyBaseAddress);
if(ret == 0) addReplyStatus(c, "+OK");
else addReplyError(c, tubii_err);
}
// ELLIE commands
void SetGenericpulser(client *c, int argc, sds *argv)
{
// Need to sync. create pulse and delay it async.
float rate=0, length=0;
uint32_t nPulse=0;
safe_strtof(argv[1],&rate);
safe_strtof(argv[2],&length);
safe_strtoul(argv[3],&nPulse);
// 1. Create Pulse
int ret1= Pulser(rate,length,nPulse,MappedPulserBaseAddress);
if(ret1!=0){
addReplyError(c, tubii_err);
return;
}
// 2. Delay Pulse
/*int ret2= Muxer("4");
int ret3= LoadShift(argv[1]);
*/
addReplyStatus(c, "+OK");
}
