void *bartime_new(long arg1, long arg2, long arg3, long arg4)
{
t_bartime *x;
x = (t_bartime *)object_alloc(bartime_class);
if(x){
intin(x,4);
intin(x,3);
intin(x,2);
intin(x,1);
x->s_outlet1 = intout(x);
x->s_outlet2 = intout(x);
x->s_outlet3 = intout(x);
x->s_outlet4 = intout(x);
x->s_outlet5 = intout(x);
x->s_numerator = 4;
x->s_nominator = 4;
x->s_ticksperbeat = 1000;
x->s_beatdivision = 8;
if(arg1) x->s_numerator = arg1;
if(arg2) x->s_nominator = arg2;
if(arg3) x->s_ticksperbeat= arg3;
if(arg4) x->s_beatdivision = arg4;
bartime_precalc(x);
}
return (x);
}
void *GCD_new() {
t_GCD *x = (t_GCD *)object_alloc(t_gcd_class);
x->storedVal = 1;
intin(x, 1);
x->m_outlet1 = intout((t_object *)x);
return x;
}
void *ccext_new(long arg1)
{
t_ccext *x;
x = (t_ccext *)object_alloc(ccext_class);
if(x){
intin(x,1);
x->c_outlet = intout(x);
x->c_memory = 0;
if (arg1 == 0){
x->c_mode = 0;
}
else if(arg1 == 1){
x->c_mode = 1;
}
else if(arg1 == 2){
x->c_mode = 2;
}
else if(arg1 == 3){
x->c_mode = 3;
}
else
object_error((t_object *)x, "error in argument: mode %ld", arg1);
}
return x;
}
void*
SssNew(
long iNN,
long iSeed)
{
tPink* me = NIL;
tTaus88DataPtr myTausStuff = NIL;
// Run through initialization parameters from right to left, handling defaults
if (iSeed != 0) myTausStuff = Taus88New(iSeed);
// Default NN value doesn't need massaging
// Finished checking intialization parameters
// Let Max allocate us, our inlets, and outlets.
me = (tPink*) newobject(gObjectClass);
intin(me, 1); // NN inlet
floatout(me); // Access through me->coreObject.o_outlet
// Set up object components
me->tausData = myTausStuff;
SssNN(me, iNN);
me->counter = 0; // This will cause the dice array to be
// initialized at the first bang.
return me;
}
/*------------------------------------ VjetCreate ---*/
static void *
VjetCreate(const long howMany)
{
VObjectData * xx = static_cast<VObjectData *>(object_alloc(gClass));
if (xx)
{
xx->fPreviousList = NULL;
xx->fPreviousLength = 0;
if (0 < howMany)
{
xx->fHowMany = howMany;
intin(xx, 1);
xx->fResultOut = static_cast<t_outlet *>(outlet_new(xx, NULL));
if (! xx->fResultOut)
{
LOG_ERROR_1(xx, OUTPUT_PREFIX "unable to create port for object")
freeobject(reinterpret_cast<t_object *>(xx));
xx = NULL;
}
}
else
{
LOG_ERROR_2(xx, OUTPUT_PREFIX "invalid segment size (%ld)", howMany)
freeobject(reinterpret_cast<t_object *>(xx));
xx = NULL;
}
}
return xx;
} // VjetCreate
//----------------------------------------------------------------------------------------------------------------
// object creation
void *udmx_new(t_symbol *s, long argc, t_atom *argv) {
t_atom *ap;
t_int16 n;
n = 0;
// n = int argument typed into object box (A_DEFLONG) -- defaults to 0 if no args are typed
t_udmx *x = (t_udmx *)object_alloc(udmx_class);
intin(x,1); // create a second int inlet (leftmost inlet is automatic - all objects have one inlet by default)
x->m_clock = clock_new(x,(method)udmx_tick); // make new clock for polling and attach tick function to it
x->m_qelem = qelem_new((t_object *)x, (method)find_device);
x->msgOutlet = outlet_new(x,0L); //create right outlet
x->statusOutlet = outlet_new(x,0L); //create an outlet for connected flag
x->correct_adressing = 1;
if (argc) {
ap = argv;
switch (atom_gettype(ap)) {
case A_LONG:
n = atom_getlong(ap);
break;
default:
break;
}
ap = &argv[argc-1];
switch (atom_gettype(ap)) {
case A_LONG:
if (atom_getlong(ap) == 0 ) {
x->correct_adressing = 0;
}
break;
default:
break;
}
}
if(x->correct_adressing) {n = n - 1;}
if (n < 0) n = 0;
if (n > 511) n = 511;
x->channel = n;
x->debug_flag = 0;
x->channel_changed_min = 512;
x->channel_changed_max = -1;
x->clock_running = 0;
x->dev_handle = NULL;
x->speedlim = SPEED_LIMIT;
x->usb_devices_seen = -1;
clock_fdelay(x->m_clock,100);
usb_init();
return(x); // return a reference to the object instance
}
static void*
LiliNew(
unsigned long iMul, // Note that Max is thinking signed; we think
unsigned long iAdd, // unsigned. Hope no one gets too confused.
unsigned long iMod,
unsigned long iSeed)
{
const long kDefMul = 65539,
kDefSeed = 1;
objLili* me = NIL;
// Run through initialization parameters from right to left, handling defaults
if (iSeed == 0)
iSeed = kDefSeed;
else goto noMoreDefaults;
// 0 is default of iMod and iAdd
if (iMod != 0) goto noMoreDefaults;
if (iAdd != 0) goto noMoreDefaults;
if (iMul == 0)
iMul = kDefMul;
noMoreDefaults:
// Finished checking intialization parameters
// Let Max allocate us, our inlets, and outlets
me = (objLili*) LitterAllocateObject();
intin(me, 3); // Mod inliet
intin(me, 2); // Adder inlet
intin(me, 1); // Multiplier inlet
intout(me); // Access main outlet through me->coreObject.o_outlet;
// Initialize and store object components
me->mul = iMul;
me->add = iAdd;
me->mod = iMod;
me->seed = iSeed;
return me;
}
void *index_new(t_symbol *s, long chan)
{
t_index *x = (t_index *)newobject(index_class);
dsp_setup((t_pxobject *)x, 1);
intin((t_object *)x,1);
outlet_new((t_object *)x, "signal");
x->l_sym = s;
index_in1(x,chan);
return (x);
}
void *index_new(t_symbol *s, long chan)
{
t_index *x = object_alloc(index_class);
dsp_setup((t_pxobject *)x, 1);
intin((t_object *)x,1);
outlet_new((t_object *)x, "signal");
index_set(x, s);
index_in1(x,chan);
return (x);
}
static void*
DiceyNew(
long iNDice,
long iNFaces,
long iSeed)
{
objDicey* me = NIL;
tTaus88DataPtr myTaus88Stuff = NIL;
// Run through initialization parameters from right to left, handling defaults
if (iSeed != 0) {
myTaus88Stuff = Taus88New(iSeed);
goto noMoreDefaults;
}
if (iNFaces == 0)
iNFaces = kDefNFaces;
else goto noMoreDefaults;
if (iNDice == 0)
iNDice = kDefNDice;
noMoreDefaults:
// Finished checking intialization parameters
// Let Max allocate us, our inlets, and outlets
me = (objDicey*) LitterAllocateObject();
intin(me, 2); // Number of faces
intin(me, 1); // Number of dice
intout(me); // Access main outlet through me->coreObject.o_outlet;
// Initialize object components
me->tausData = myTaus88Stuff;
DiceyNDice(me, iNDice);
DiceyNFaces(me, iNFaces);
return me;
}
void *pokef_new(t_symbol *s, long chan)
{
t_pokef *x = (t_pokef *)object_alloc(pokef_class);
//dsp_setup((t_pxobject *)x, 1);
intin((t_object *)x, 3);
dsp_setup((t_pxobject *)x, 3);
outlet_new((t_object *)x, "signal");
pokef_set(x, s);
pokef_in3(x,chan);
//x->l_obj.z_misc = Z_NO_INPLACE;
return (x);
}
/* function run to create a new instance of the t_slice class */
void *slice_new(long s)
{
t_slice *x; /* object we'll be creating */
x = (t_slice *)object_alloc(s_slice_class); /* allocates memory and sticks in an inlet */
intin(x, 1); /* added jun 96 rdd - was missing from code */
x->s_out2 = intout(x);
x->s_out1 = intout(x);
x->s_len = 0;
x->s_split = s < 1 ? 1 : s;
return (x); /* always return a copy of the created object */
}
void *
valid_date_new()
{
t_valid_date *x = (t_valid_date *)object_alloc(s_valid_date_class);
intin(x, 4);
intin(x, 3);
intin(x, 2);
intin(x, 1);
x->m_outlet4 = intout((t_object *)x);
x->m_outlet3 = intout((t_object *)x);
x->m_outlet2 = intout((t_object *)x);
x->m_outlet1 = intout((t_object *)x);
x->m_outlet0 = outlet_new((t_object *)x, NULL);
x->month = 0;
x->day = 0;
x->hour = 0;
x->minute = 0;
return (void *)x;
}
void *minimum_new(t_symbol *s, long ac, t_atom *av)
{
t_minimum *x;
x = object_alloc(minimum_class);
systhread_mutex_new(&x->m_mutex, 0);
x->m_count = 0;
x->m_args = NULL;
minimum_resize(x,2);
x->m_out2 = intout(x);
if (ac) {
x->m_args[1] = *av;
if (atom_gettype(av)==A_LONG) {
x->m_args[0].a_type = x->m_outtype = A_LONG;
x->m_out = intout(x);
x->m_args[0].a_w.w_long = 0;
intin(x,1);
} else if (atom_gettype(av)==A_FLOAT) {
x->m_args[0].a_type = x->m_outtype = A_FLOAT;
x->m_out = floatout(x);
x->m_args[0].a_w.w_float = 0;
floatin(x,1);
} else {
x->m_outtype = A_LONG;
intin(x,1);
x->m_out = intout(x);
atom_setlong(x->m_args+1,0L);
atom_setlong(x->m_args,0L);
}
} else {
x->m_outtype = A_LONG;
intin(x,1);
x->m_out = intout(x);
atom_setlong(x->m_args+1,0L);
atom_setlong(x->m_args,0L);
}
return x;
}
void *filein_new(t_symbol *fn, t_symbol *spoolFlag)
{
t_filein *x;
x = object_alloc(filein_class);
x->f_readdone = bangout(x);
x->f_eof = bangout(x);
x->f_out = intout(x);
intin(x,2);
intin(x,1);
x->f_open = FALSE;
x->f_fh = 0;
x->f_spool = 0;
x->f_data = 0;
if (fn != ps_nothing) {
if (spoolFlag==ps_spool)
x->f_spool = TRUE;
else
x->f_spool = FALSE;
filein_doread(x,fn);
}
return (x);
}
void *randist_new(long num)
{
t_randist *x;
x = (t_randist *)object_alloc(randist_class);
if (num < 2)
num = 2;
x->b_num = num;
x->b_id = 0;
x->distType = 0;
x->possNum = 2;
x->varFlt1 = 0.07; // default standard deviation for gaussian
x->varFlt2 = 0.5; //default mean for gaussian
x->rand_out = floatout((t_object *)x);
x->inVar2 = floatin(x, 2);
x->inVar1 = floatin(x, 1);
x->inDist = intin(x, 3);
x->inPoss = intin(x, 4);
return x;
}
void *thresh_new(long interval)
{
t_thresh *x;
short i;
x = (t_thresh *)newobject(thresh_class);
intin(x,1);
x->t_out = outlet_new((t_object *)x,0); // cause it sends out lists and ints
x->t_clock = clock_new(x,(method)thresh_tick);
x->t_time = gettime();
x->t_interval = interval < 5 ? 5 : interval;
x->t_av = (t_atom *) sysmem_newptr(MAXSIZE*sizeof(t_atom));
x->t_ac = 0;
for (i=0; i < MAXSIZE; i++)
SETLONG(x->t_av+i,0);
return (x);
}
void *channel_new(t_symbol *s, int argc, t_atom *argv)
{
#if MSP
t_channel *x = (t_channel *)newobject(channel_class);
intin(x,1);
dsp_setup((t_pxobject *)x,1);
outlet_new((t_object *)x, "signal");
#endif
#if PD
t_channel *x = (t_channel *)pd_new(channel_class);
outlet_new(&x->x_obj, gensym("signal"));
#endif
x->channel = (int)atom_getfloatarg(0,argc,argv);
// x->channel = 0;
return (x);
}
void *afiddle_new (long lenght)
{
short i;
afiddle *x;
x = (afiddle *)newobject(afiddle_class);
intin(x,1);
if(lenght < 1) x->x_tsillen = 100;//register outlistsize
else x->x_tsillen = lenght;
//zero doubles on the atom.double struct
for (i=0;i<MAXSIZE;i++) {
x->x_inlist[i].a_w.w_float=0.000f;
}
x->x_outlet = listout(x);
x->x_fire = 1;
x->x_clear = 1;
x->x_offset = 0.00f;
return (x);
}
void*
BernieNew(
long iNTrials,
double iProb,
long iSeed)
{
const long kDefNTrials = 1;
const double kDefProb = 0.5;
objBernie* me = (objBernie*) newobject(gObjectClass); // Default instantiation
// Allocate inlets and outlets
floatin(me, 2); // p(1)
intin(me, 1); // Number of Trials
intout(me); // Access main outlet through me->coreObject.o_outlet;
// Set up our own members to defaults
me->tausData = NIL;
me->prob = kDefProb;
me->nTrials = kDefNTrials;
me->gen = genUndef;
// Don't need to worry about genParams as long as the generator is undefined
// Run through initialization parameters from right to left, checking for defaults
if (iSeed == 0) Taus88Init();
else me->tausData = Taus88New(iSeed);
if (iProb == 0.0) iProb = kDefProb;
if (iNTrials == 0) iNTrials = kDefNTrials;
// Any changes from defaults?
if (iNTrials != kDefNTrials)
BernieNTrials(me, iNTrials);
if (iProb != kDefProb)
BernieProb(me, iProb);
return me;
}
void *ringdiff_new(t_symbol *s, long argc, t_atom *argv)
{
t_ringdiff *x = NULL;
long i;
// object instantiation, NEW STYLE
if (x = (t_ringdiff *)object_alloc(ringdiff_class)) {
//object_post((t_object *)x, "a new %s object was instantiated: 0x%X", s->s_name, x);
//object_post((t_object *)x, "it has %ld argu", argc);
intin(x, 1);//inlet 1
//x->m_outlet2 = bangout((t_object *)x);
x->m_outlet1 = floatout((t_object *)x);
x->counter = 0;
x->mod = 1;
x->previousVal = 0.0;
for (i = 0; i < argc; i++) {
if ((argv + i)->a_type == A_LONG) {
long tempArg = atom_getlong(argv+i);
object_post((t_object *)x, "arg %ld: long (%ld)", i, tempArg);
if(i==0 && tempArg > 0 && tempArg <= 1000){
post("initial buffer size set to %ld", tempArg);
x->mod = atom_getlong(argv+i);
}
} else if ((argv + i)->a_type == A_FLOAT) {
object_post((t_object *)x, "arg %ld: float (%f)", i, atom_getfloat(argv+i));
} else if ((argv + i)->a_type == A_SYM) {
object_post((t_object *)x, "arg %ld: symbol (%s)", i, atom_getsym(argv+i)->s_name);
} else {
object_error((t_object *)x, "forbidden argument");
}
}
}
return (x);
}
static void *rvbap_new(t_symbol *s, int ac, t_atom *av)
/* create new instance of object... MUST send it an int even if you do nothing with this int!! */
{
t_rvbap *x;
#ifdef MAXMSP
x = (t_rvbap *)newobject(rvbap_class);
t_floatin(x,4); /* takes the distance */
intin(x,3);
intin(x,2); /* create a second (int) inlet... remember right-to-left ordering in Max */
intin(x,1); /* create a second (int) inlet... remember right-to-left ordering in Max */
x->x_outlet4 = floatout(x); /* distance */
x->x_outlet3 = intout(x);
x->x_outlet2 = intout(x); /* create an (int) outlet - rightmost outlet first... */
x->x_outlet1 = intout(x); /* create an (int) outlet */
x->x_outlet0 = listout(x); /* create a (list) outlet */
#endif
#ifdef PD
x = (t_rvbap *)pd_new(rvbap_class);
floatinlet_new(&x->x_ob, &x->x_azi);
floatinlet_new(&x->x_ob, &x->x_ele);
floatinlet_new(&x->x_ob, &x->x_spread);
floatinlet_new(&x->x_ob, &x->x_dist);
x->x_outlet0 = outlet_new(&x->x_ob, gensym("list"));
x->x_outlet1 = outlet_new(&x->x_ob, gensym("float"));
x->x_outlet2 = outlet_new(&x->x_ob, gensym("float"));
x->x_outlet3 = outlet_new(&x->x_ob, gensym("float"));
x->x_outlet4 = outlet_new(&x->x_ob, gensym("float"));
#endif
x->x_azi = 0;
x->x_ele = 0;
x->x_dist = 1.0;
x->x_spread_base[0] = 0.0;
x->x_spread_base[1] = 1.0;
x->x_spread_base[2] = 0.0;
x->x_spread = 0;
x->x_lsset_available =0;
if (ac>0) {
#ifdef MAXMSP
if (av[0].a_type == A_LONG)
x->x_azi = av[0].a_w.w_long;
else
#endif
if (av[0].a_type == A_FLOAT)
x->x_azi = av[0].a_w.w_float;
}
if (ac>1) {
#ifdef MAXMSP
if (av[1].a_type == A_LONG)
x->x_ele = av[1].a_w.w_long;
else
#endif
if (av[1].a_type == A_FLOAT)
x->x_ele = av[1].a_w.w_float;
}
if (ac>2) {
#ifdef MAXMSP
if (av[2].a_type == A_LONG)
x->x_dist = (float)av[2].a_w.w_long;
else
#endif
if (av[2].a_type == A_FLOAT)
x->x_dist = av[2].a_w.w_float;
}
return(x); /* return a reference to the object instance */
}
/*------------------------------------ x10Create ---*/
static void *
x10Create(t_symbol * kind,
const long pollRate)
{
X10ControlData * xx = static_cast<X10ControlData *>(object_alloc(gClass));
if (xx)
{
xx->fHouseCodeChar = 0;
xx->fFunctionChar = x10CM11FunctionUnitsOff;
xx->fDimLevel = 0;
xx->fDeviceMap = 0;
xx->fCompletedWhenStatus = xx->fIgnoreChecksum = xx->fStopping = false;
xx->fOutCmd = xx->fOutArea = NULL;
if ((kind == gCM11Symbol) || (kind == gEmptySymbol))
{
xx->fKind = X10KindCM11;
}
else if (kind == gCP290Symbol)
{
xx->fKind = X10KindCP290;
}
else
{
LOG_ERROR_2(xx, OUTPUT_PREFIX "invalid kind '%s' for device", kind->s_name)
xx->fKind = X10KindCM11;
}
if ((0 > pollRate) || (MAX_POLL_RATE < pollRate))
{
LOG_ERROR_2(xx, OUTPUT_PREFIX "invalid polling rate (%ld) for device", pollRate)
xx->fPollRate = SER_SAMPLE_RATE;
}
else
{
xx->fPollRate = (pollRate ? pollRate : SER_SAMPLE_RATE);
}
/* Set up our connections and private data */
intin(xx, 1);
xx->fErrorBangOut = static_cast<t_outlet *>(bangout(xx));
xx->fMinuteOut = static_cast<t_outlet *>(intout(xx));
xx->fHourOut = static_cast<t_outlet *>(intout(xx));
xx->fDayOut = static_cast<t_outlet *>(intout(xx));
xx->fDeviceStatus = static_cast<t_outlet *>(intout(xx));
xx->fCommandComplete = static_cast<t_outlet *>(bangout(xx));
xx->fHouseCode = static_cast<t_outlet *>(intout(xx));
xx->fPollerOut = static_cast<t_outlet *>(bangout(xx));
xx->fCommandsOut = static_cast<t_outlet *>(intout(xx));
xx->fPollClock = MAKE_CLOCK(xx, x10ProcessClock);
xx->fPollQueue = MAKE_QELEM(xx, x10ProcessQueue);
xx->fOutBuffer = GET_BYTES(OUTBUFF_SIZE, unsigned char);
switch (xx->fKind)
{
case X10KindCM11:
xx->fMinorState = x10CM11MinorIdle;
xx->fMajorState = x10CM11MajorIdle;
break;
case X10KindCP290:
xx->fMinorState = x10CP290MinorIdle;
xx->fMajorState = x10CP290MajorIdle;
break;
default:
break;
}
xx->fAllOnCount = xx->fEntryCount = xx->fEventByteCount = 0;
if (xx->fErrorBangOut && xx->fMinuteOut && xx->fHourOut && xx->fDayOut &&
xx->fDeviceStatus && xx->fCommandComplete && xx->fHouseCode &&
xx->fPollerOut && xx->fCommandsOut && xx->fPollClock && xx->fPollQueue &&
xx->fOutBuffer)
{
for (short ii = 0; ii < COMMAND_PREFIX_SIZE; ++ii)
{
*(xx->fOutBuffer + ii) = ALL_ON;
}
xx->fOutCmd = xx->fOutBuffer + COMMAND_PREFIX_SIZE;
xx->fOutArea = xx->fOutBuffer + COMMAND_PREFIX_SIZE + 1;
clock_delay(xx->fPollClock, xx->fPollRate);
}
else
{
LOG_ERROR_1(xx, OUTPUT_PREFIX "unable to create port or clock for device")
freeobject(reinterpret_cast<t_object *>(xx));
xx = NULL;
}
}
return xx;
} // x10Create
void *f0ext_new(t_symbol *s, long argc, t_atom *argv) {
t_f0ext *x= (t_f0ext *)object_alloc(f0ext_class);
if(x) {
x->step= 1.0;
x->loop= 0;
x->min= LONG_MIN;
x->max = LONG_MAX;
x->val= 0.0;
t_atom *ap;
ap= argv;
if(argc>4) {post("warning: f0.ultimate_counter %d extra argument(s)", argc-4);}
switch(MIN(argc, 4)) {
case 4:
ap++;
ap++;
ap++;
if(atom_gettype(ap)==A_FLOAT) {
x->max= (double)atom_getfloat(ap);
} else if(atom_gettype(ap)==A_LONG) {
x->max= (double)atom_getlong(ap);
}
ap--;
ap--;
ap--;
case 3:
ap++;
ap++;
if(atom_gettype(ap)==A_FLOAT) {
x->min= (double)atom_getfloat(ap);
} else if(atom_gettype(ap)==A_LONG) {
x->min= (double)atom_getlong(ap);
}
ap--;
ap--;
x->val= x->min;
case 2:
ap++;
if(atom_gettype(ap)==A_FLOAT) {
x->loop= (short)atom_getfloat(ap);
} else if(atom_gettype(ap)==A_LONG) {
x->loop= (short)atom_getlong(ap);
}
ap--;
case 1:
if(atom_gettype(ap)==A_FLOAT) {
x->step= (double)atom_getfloat(ap);
} else if(atom_gettype(ap)==A_LONG) {
x->step= (double)atom_getlong(ap);
}
}
floatin(x, 6);
floatin(x, 5);
floatin(x, 4);
floatin(x, 3);
intin(x, 2);
floatin(x, 1);
x->out3= bangout(x);
x->out2= bangout(x);
x->out= floatout(x);
}
return (x);
}
bool flext_base::InitInlets()
{
bool ok = true;
// incnt has number of inlets (any type)
// insigs should be 0
FLEXT_ASSERT(!insigs && !inlets);
// ----------------------------------
// create inlets
// ----------------------------------
#if FLEXT_SYS == FLEXT_SYS_MAX
// copy inlet descriptions
indesc = new char *[incnt];
for(int i = 0; i < incnt; ++i) {
xlet &x = inlist[i];
indesc[i] = x.desc;
x.desc = NULL;
}
#endif
#if FLEXT_SYS == FLEXT_SYS_PD || FLEXT_SYS == FLEXT_SYS_MAX
inlets = incnt > 1?new px_object *[incnt-1]:NULL;
#endif
// type info is now in list array
#if FLEXT_SYS == FLEXT_SYS_PD
{
int cnt = 0;
if(incnt >= 1) {
xlet &xi = inlist[0]; // points to first inlet
if(xi.tp == xlet_sig) ++insigs;
// else leftmost inlet is already there...
++cnt;
#if PD_MINOR_VERSION >= 37 && defined(PD_DEVEL_VERSION)
// set tooltip
// this is on a per-class basis... we cannot really use it here
// if(xi.desc && *xi.desc) class_settip(thisClass(),gensym(xi.desc));
#endif
}
for(int ix = 1; ix < incnt; ++ix,++cnt) {
xlet &xi = inlist[ix]; // points to first inlet
t_inlet *in = NULL;
switch(xi.tp) {
case xlet_float:
case xlet_int: {
if(ix > 9) {
// proxy inlet needed
(inlets[ix-1] = (px_object *)pd_new(px_class))->init(this,ix); // proxy for 2nd inlet messages
in = inlet_new(&x_obj->obj,&inlets[ix-1]->obj.ob_pd, (t_symbol *)sym_float, (t_symbol *)sym_float);
}
else {
inlets[ix-1] = NULL;
static char sym[] = " ft ?";
sym[4] = '0'+ix;
in = inlet_new(&x_obj->obj, &x_obj->obj.ob_pd, (t_symbol *)sym_float, gensym(sym));
}
break;
}
case xlet_sym:
(inlets[ix-1] = (px_object *)pd_new(px_class))->init(this,ix); // proxy for 2nd inlet messages
in = inlet_new(&x_obj->obj,&inlets[ix-1]->obj.ob_pd, (t_symbol *)sym_symbol, (t_symbol *)sym_symbol);
break;
case xlet_list:
(inlets[ix-1] = (px_object *)pd_new(px_class))->init(this,ix); // proxy for 2nd inlet messages
in = inlet_new(&x_obj->obj,&inlets[ix-1]->obj.ob_pd, (t_symbol *)sym_list, (t_symbol *)sym_list);
break;
case xlet_any:
(inlets[ix-1] = (px_object *)pd_new(px_class))->init(this,ix); // proxy for 2nd inlet messages
in = inlet_new(&x_obj->obj,&inlets[ix-1]->obj.ob_pd, 0, 0);
break;
case xlet_sig:
inlets[ix-1] = NULL;
#ifdef FLEXT_COMPATIBLE
if(inlist[ix-1].tp != xlet_sig) {
post("%s: All signal inlets must be left-aligned in compatibility mode",thisName());
ok = false;
}
else
#endif
{
// pd is not able to handle signals and messages into the same inlet...
in = inlet_new(&x_obj->obj, &x_obj->obj.ob_pd, (t_symbol *)sym_signal, (t_symbol *)sym_signal);
++insigs;
}
break;
default:
inlets[ix-1] = NULL;
error("%s: Wrong type for inlet #%i: %i",thisName(),ix,(int)inlist[ix].tp);
ok = false;
}
#if PD_MINOR_VERSION >= 37 && defined(PD_DEVEL_VERSION)
// set tooltip
if(in && xi.desc && *xi.desc) inlet_settip(in,gensym(xi.desc));
#endif
}
incnt = cnt;
}
#elif FLEXT_SYS == FLEXT_SYS_MAX
{
int ix,cnt;
// count leftmost signal inlets
while(insigs < incnt && inlist[insigs].tp == xlet_sig) ++insigs;
for(cnt = 0,ix = incnt-1; ix >= insigs; --ix,++cnt) {
xlet &xi = inlist[ix];
if(!ix) {
if(xi.tp != xlet_any) {
error("%s: Leftmost inlet must be of type signal or anything",thisName());
ok = false;
}
}
else {
FLEXT_ASSERT(inlets);
switch(xi.tp) {
case xlet_sig:
inlets[ix-1] = NULL;
error("%s: All signal inlets must be left-aligned",thisName());
ok = false;
break;
case xlet_float: {
if(ix < 10) {
inlets[ix-1] = NULL;
floatin(x_obj,ix);
break;
}
else
goto makeproxy;
}
case xlet_int: {
if(ix < 10) {
inlets[ix-1] = NULL;
intin(x_obj,ix);
break;
}
else
goto makeproxy;
}
makeproxy:
case xlet_any: // non-leftmost
case xlet_sym:
case xlet_list:
inlets[ix-1] = (px_object *)proxy_new(x_obj,ix,&((flext_hdr *)x_obj)->curinlet);
break;
default:
inlets[ix-1] = NULL;
error("%s: Wrong type for inlet #%i: %i",thisName(),ix,(int)xi.tp);
ok = false;
}
}
}
if(inlets)
while(ix >= 0) inlets[ix--] = NULL;
}
#else
#error
#endif
return ok;
}
