/
hoa.process_tilde.cpp
1140 lines (1014 loc) · 36.8 KB
/
hoa.process_tilde.cpp
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/*
// Copyright (c) 2012-2014 Eliott Paris, Julien Colafrancesco & Pierre Guillot, CICM, Universite Paris 8.
// For information on usage and redistribution, and for a DISCLAIMER OF ALL
// WARRANTIES, see the file, "LICENSE.txt," in this distribution.
*/
#include "../hoa.library.h"
#include "../ThirdParty/HoaLibrary/Sources/Hoa.hpp"
using namespace hoa;
extern "C"
{
#include "../ThirdParty/CicmWrapper/Sources/ecommon/d_ugen.h"
}
#ifdef PD_EXTENDED
extern t_canvas *canvas_list;
#endif
t_canvas *sys_getcanvaslist()
{
#ifdef PD_EXTENDED
return canvas_list;
#else
return pd_this->pd_canvaslist;
#endif
}
void sys_setcanvaslist(t_canvas* canvas)
{
#ifdef PD_EXTENDED
canvas_list = canvas;
#else
pd_this->pd_canvaslist = canvas;
#endif
}
typedef struct _hoa_in
{
t_eobj f_obj;
int f_extra;
} t_hoa_in;
typedef struct _hoa_out
{
t_eobj f_obj;
t_outlet *f_outlet;
int f_extra;
} t_hoa_out;
typedef struct _hoa_in_tilde
{
t_edspobj f_obj;
t_sample* f_signal;
int f_extra;
} t_hoa_in_tilde;
typedef struct _hoa_out_tilde
{
t_edspobj f_obj;
t_sample* f_signal;
int f_extra;
} t_hoa_out_tilde;
typedef struct _hoa_thisprocess
{
t_eobj j_box;
char f_nit;
t_outlet* f_out_hoa_args;
t_outlet* f_out_hoa_mode;
t_outlet* f_out_args;
t_outlet* f_out_attrs;
t_outlet* f_out_mute;
t_atom f_hoa_args[3];
t_atom f_hoa_mode[2];
t_atom* f_args;
long f_argc;
long f_n_attrs;
t_symbol** f_attr_name;
t_atom* f_attr_vals[EPD_MAX_SIGS];
long f_attr_size[EPD_MAX_SIGS];
double f_time;
} t_hoa_thisprocess;
typedef struct _hoa_process
{
t_edspobj f_obj;
Processor<Hoa2d, t_float>::Harmonics* f_ambi_2d;
Processor<Hoa3d, t_float>::Harmonics* f_ambi_3d;
Processor<Hoa2d, t_float>::Planewaves* f_plane_2d;
Processor<Hoa3d, t_float>::Planewaves* f_plane_3d;
long f_target;
t_canvas** f_canvas;
long f_ncanvas;
char f_have_inlets_instance;
long f_max_inlets_extra;
char f_have_outlets_instance;
long f_max_outlets_extra;
char f_have_inlets_instance_sig;
long f_max_inlets_extra_sig;
char f_have_outlets_instance_sig;
long f_max_outlets_extra_sig;
long* f_ninlets_instance;
t_hoa_in*** f_inlets_instance;
long* f_ninlets_extra;
t_hoa_in*** f_inlets_extra;
long* f_noutlets_instance;
t_hoa_out*** f_outlets_instance;
long* f_noutlets_extra;
t_hoa_out*** f_outlets_extra;
long* f_ninlets_instance_sig;
t_hoa_in_tilde*** f_inlets_instance_sig;
long* f_ninlets_extra_sig;
t_hoa_in_tilde*** f_inlets_extra_sig;
long* f_noutlets_instance_sig;
t_hoa_out_tilde*** f_outlets_instance_sig;
long* f_noutlets_extra_sig;
t_hoa_out_tilde*** f_outlets_extra_sig;
t_dspcontext** f_dsp_context;
t_sample** f_outlets_signals;
} t_hoa_process;
static t_eclass *hoa_process_class;
void hoa_process_perform(t_hoa_process *x, t_object *dsp, float **inps, long ni, float **outs, long nouts, long sampleframe, long f,void *up)
{
for(int i = 0; i < nouts; i++)
{
memcpy(outs[i], x->f_outlets_signals[i], sampleframe * sizeof(float));
memset(x->f_outlets_signals[i], 0, sampleframe * sizeof(float));
}
}
void hoa_process_dsp(t_hoa_process *x, t_object *dsp, short *count, double samplerate, long maxvectorsize, long flags)
{
int inc = 0;
#ifndef _LINUX
signal_cleanup();
#endif
for(int i = 0; i < x->f_ncanvas; i++)
{
dsp_context_removecanvas(x->f_dsp_context[i]);
}
if(x->f_have_inlets_instance_sig)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_ninlets_instance_sig[i]; j++)
{
x->f_inlets_instance_sig[i][j]->f_signal = eobj_getsignalinput(x, inc);
memset(eobj_getsignalinput(x, inc), 0, maxvectorsize * sizeof(t_sample));
}
inc++;
}
}
for(int i = 0; i < x->f_max_inlets_extra_sig; i++)
{
for(int j = 0; j < x->f_ncanvas; j++)
{
for(int k = 0; k < x->f_ninlets_extra_sig[j]; k++)
{
if(x->f_inlets_extra_sig[j][k]->f_extra == (i+1))
{
x->f_inlets_extra_sig[j][k]->f_signal = eobj_getsignalinput(x, inc);
memset(eobj_getsignalinput(x, inc), 0, maxvectorsize * sizeof(t_sample));
}
}
}
inc++;
}
inc = 0;
if(x->f_have_outlets_instance_sig)
{
memset(x->f_outlets_signals[inc], 0, maxvectorsize * sizeof(t_sample));
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_noutlets_instance_sig[i]; j++)
{
x->f_outlets_instance_sig[i][j]->f_signal = x->f_outlets_signals[inc];
}
inc++;
}
}
for(int i = 0; i < x->f_max_outlets_extra_sig; i++)
{
memset(x->f_outlets_signals[inc], 0, maxvectorsize * sizeof(t_sample));
for(int j = 0; j < x->f_ncanvas; j++)
{
for(int k = 0; k < x->f_noutlets_extra_sig[j]; k++)
{
if(x->f_outlets_extra_sig[j][k]->f_extra == (i+1))
{
x->f_outlets_extra_sig[j][k]->f_signal = x->f_outlets_signals[inc];
}
}
}
inc++;
}
for(int i = 0; i < x->f_ncanvas; i++)
{
if(x->f_canvas[i] && x->f_dsp_context[i])
{
dsp_context_addcanvas(x->f_dsp_context[i], x->f_canvas[i]);
dsp_context_compile(x->f_dsp_context[i]);
}
}
object_method(dsp, gensym("dsp_add"), x, (method)hoa_process_perform, 0, NULL);
}
void hoa_process_click(t_hoa_process *x)
{
if(x->f_canvas[0])
{
canvas_vis(x->f_canvas[0], 1);
}
}
static void hoa_process_open(t_hoa_process *x, t_symbol* s, int argc, t_atom* argv)
{
if(argc && argv && atom_gettype(argv) == A_SYM && atom_getsym(argv) == hoa_sym_all)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
if(x->f_canvas[i])
{
canvas_vis(x->f_canvas[i], 1);
}
}
}
else if(x->f_ambi_2d)
{
if(argc > 1 && argv && atom_gettype(argv) == A_FLOAT && atom_gettype(argv+1) == A_FLOAT)
{
int degree = pd_clip_minmax(atom_getfloat(argv), 0, x->f_ambi_2d->getDecompositionOrder());
int order = pd_clip_minmax(atom_getfloat(argv), -degree, degree);
canvas_vis(x->f_canvas[x->f_ambi_2d->getHarmonicIndex(degree, order)], 1);
}
}
else if(x->f_ambi_3d)
{
if(argc > 1 && argv && atom_gettype(argv) == A_FLOAT && atom_gettype(argv+1) == A_FLOAT)
{
int degree = pd_clip_minmax(atom_getfloat(argv), 0, x->f_ambi_3d->getDecompositionOrder());
int order = pd_clip_minmax(atom_getfloat(argv), -degree, degree);
canvas_vis(x->f_canvas[x->f_ambi_3d->getHarmonicIndex(degree, order)], 1);
}
}
else if(x->f_plane_2d)
{
if(argc && argv && atom_gettype(argv) == A_FLOAT)
{
int index = pd_clip_minmax(atom_getfloat(argv), 1, x->f_plane_2d->getNumberOfPlanewaves());
canvas_vis(x->f_canvas[x->f_plane_2d->getPlanewaveIndex(index)], 1);
}
}
else if(x->f_plane_3d)
{
if(argc && argv && atom_gettype(argv) == A_FLOAT)
{
int index = pd_clip_minmax(atom_getfloat(argv), 1, x->f_plane_3d->getNumberOfPlanewaves());
canvas_vis(x->f_canvas[x->f_plane_3d->getPlanewaveIndex(index)], 1);
}
}
}
static void hoa_process_target(t_hoa_process *x, t_symbol* s, int argc, t_atom* argv)
{
if(atom_gettype(argv) == A_SYM && atom_getsym(argv) == hoa_sym_none)
{
x->f_target = -2;
}
else if(atom_gettype(argv) == A_SYM && atom_getsym(argv) == hoa_sym_all)
{
x->f_target = -1;
}
else if(x->f_ambi_2d)
{
if(argc > 1 && argv && atom_gettype(argv) == A_FLOAT && atom_gettype(argv+1) == A_FLOAT)
{
int degree = pd_clip_minmax(atom_getfloat(argv), 0, x->f_ambi_2d->getDecompositionOrder());
int order = pd_clip_minmax(atom_getfloat(argv), -degree, degree);
x->f_target = x->f_ambi_2d->getHarmonicIndex(degree, order);
}
}
else if(x->f_ambi_3d)
{
if(argc > 1 && argv && atom_gettype(argv) == A_FLOAT && atom_gettype(argv+1) == A_FLOAT)
{
int degree = pd_clip_minmax(atom_getfloat(argv), 0, x->f_ambi_3d->getDecompositionOrder());
int order = pd_clip_minmax(atom_getfloat(argv), -degree, degree);
x->f_target = x->f_ambi_3d->getHarmonicIndex(degree, order);
}
}
else if(x->f_plane_2d)
{
if(argc && argv && atom_gettype(argv) == A_FLOAT)
{
int index = pd_clip_minmax(atom_getfloat(argv), 1, x->f_plane_2d->getNumberOfPlanewaves());
x->f_target = x->f_plane_2d->getPlanewaveIndex(index);
}
}
else if(x->f_plane_3d)
{
if(argc && argv && atom_gettype(argv) == A_FLOAT)
{
int index = pd_clip_minmax(atom_getfloat(argv), 1, x->f_plane_3d->getNumberOfPlanewaves());
x->f_target = x->f_plane_3d->getPlanewaveIndex(index);
}
}
}
void hoa_process_bang(t_hoa_process *x)
{
int extra;
int index = eobj_getproxy(x);
if((x->f_have_inlets_instance || x->f_have_inlets_instance_sig) && index < x->f_ncanvas)
{
for(int i = 0; i < x->f_ninlets_instance[index]; i++)
pd_bang((t_pd *)x->f_inlets_instance[index][i]);
}
else
{
if(x->f_target == -2)
return;
if(x->f_have_inlets_instance || x->f_have_inlets_instance_sig)
extra = index - (x->f_ncanvas - 1);
else
extra = index + 1;
if(x->f_target == -1)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_ninlets_extra[i]; j++)
{
if(x->f_inlets_extra[i][j]->f_extra == extra)
{
pd_bang((t_pd *)x->f_inlets_extra[i][j]);
}
}
}
}
else
{
for(int j = 0; j < x->f_ninlets_extra[x->f_target]; j++)
{
if(x->f_inlets_extra[x->f_target][j]->f_extra == extra)
{
pd_bang((t_pd *)x->f_inlets_extra[x->f_target][j]);
}
}
}
}
}
void hoa_process_float(t_hoa_process *x, float f)
{
int extra;
int index = eobj_getproxy(x);
if((x->f_have_inlets_instance || x->f_have_inlets_instance_sig) && index < x->f_ncanvas)
{
for(int i = 0; i < x->f_ninlets_instance[index]; i++)
{
pd_float((t_pd *)x->f_inlets_instance[index][i], f);
}
}
else
{
if(x->f_target == -2)
return;
if(x->f_have_inlets_instance || x->f_have_inlets_instance_sig)
extra = index - (x->f_ncanvas - 1);
else
extra = index + 1;
if(x->f_target < 0)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_ninlets_extra[i]; j++)
{
if(x->f_inlets_extra[i][j]->f_extra == extra)
{
pd_float((t_pd *)x->f_inlets_extra[i][j], f);
}
}
}
}
else
{
for(int j = 0; j < x->f_ninlets_extra[x->f_target]; j++)
{
if(x->f_inlets_extra[x->f_target][j]->f_extra == extra)
{
pd_float((t_pd *)x->f_inlets_extra[x->f_target][j], f);
}
}
}
}
}
void hoa_process_symbol(t_hoa_process *x, t_symbol* s)
{
int extra;
int index = eobj_getproxy(x);
if((x->f_have_inlets_instance || x->f_have_inlets_instance_sig) && index < x->f_ncanvas)
{
for(int i = 0; i < x->f_ninlets_instance[index]; i++)
pd_symbol((t_pd *)x->f_inlets_instance[index][i], s);
}
else
{
if(x->f_target == -2)
return;
if(x->f_have_inlets_instance || x->f_have_inlets_instance_sig)
extra = index - (x->f_ncanvas - 1);
else
extra = index + 1;
if(x->f_target == -1)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_ninlets_extra[i]; j++)
{
if(x->f_inlets_extra[i][j]->f_extra == extra)
{
pd_symbol((t_pd *)x->f_inlets_extra[i][j], s);
}
}
}
}
else
{
for(int j = 0; j < x->f_ninlets_extra[x->f_target]; j++)
{
if(x->f_inlets_extra[x->f_target][j]->f_extra == extra)
{
pd_symbol((t_pd *)x->f_inlets_extra[x->f_target][j], s);
}
}
}
}
}
void hoa_process_list(t_hoa_process *x, t_symbol* s, int argc, t_atom* argv)
{
int extra;
int index = eobj_getproxy(x);
if((x->f_have_inlets_instance || x->f_have_inlets_instance_sig) && index < x->f_ncanvas)
{
for(int i = 0; i < x->f_ninlets_instance[index]; i++)
pd_list((t_pd *)x->f_inlets_instance[index][i], s, argc, argv);
}
else
{
if(x->f_target == -2)
return;
if(x->f_have_inlets_instance || x->f_have_inlets_instance_sig)
extra = index - (x->f_ncanvas - 1);
else
extra = index + 1;
if(x->f_target == -1)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_ninlets_extra[i]; j++)
{
if(x->f_inlets_extra[i][j]->f_extra == extra)
{
pd_list((t_pd *)x->f_inlets_extra[i][j], s, argc, argv);
}
}
}
}
else
{
for(int j = 0; j < x->f_ninlets_extra[x->f_target]; j++)
{
if(x->f_inlets_extra[x->f_target][j]->f_extra == extra)
{
pd_list((t_pd *)x->f_inlets_extra[x->f_target][j], s, argc, argv);
}
}
}
}
}
void hoa_process_anything(t_hoa_process *x, t_symbol* s, int argc, t_atom* argv)
{
int extra;
int index = eobj_getproxy(x);
if((x->f_have_inlets_instance || x->f_have_inlets_instance_sig) && index < x->f_ncanvas)
{
for(int i = 0; i < x->f_ninlets_instance[index]; i++)
pd_typedmess((t_pd *)x->f_inlets_instance[index][i], s, argc, argv);
}
else
{
if(x->f_target == -2)
return;
if(x->f_have_inlets_instance || x->f_have_inlets_instance_sig)
extra = index - (x->f_ncanvas - 1);
else
extra = index + 1;
if(x->f_target == -1)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
for(int j = 0; j < x->f_ninlets_extra[i]; j++)
{
if(x->f_inlets_extra[i][j]->f_extra == extra)
{
pd_typedmess((t_pd *)x->f_inlets_extra[i][j], s, argc, argv);
}
}
}
}
else
{
for(int j = 0; j < x->f_ninlets_extra[x->f_target]; j++)
{
if(x->f_inlets_extra[x->f_target][j]->f_extra == extra)
{
pd_typedmess((t_pd *)x->f_inlets_extra[x->f_target][j], s, argc, argv);
}
}
}
}
}
void hoa_process_get_thisprocess(t_hoa_process *x, t_canvas* canvas, int index, long argc, t_atom* argv)
{
int i, offset;
t_gobj *y;
t_hoa_thisprocess *tp;
t_canvas* subcanvas;
for(y = canvas->gl_list; y; y = y->g_next)
{
if(eobj_getclassname(y) == hoa_sym_canvas)
{
subcanvas = (t_canvas *)y;
hoa_process_get_thisprocess(x, subcanvas, index, argc, argv);
}
else if(eobj_getclassname(y) == hoa_sym_hoathisprocess)
{
tp = (t_hoa_thisprocess *)y;
if(x->f_ambi_2d)
{
atom_setsym(tp->f_hoa_mode, gensym("2d"));
atom_setsym(tp->f_hoa_mode+1, gensym("harmonics"));
atom_setfloat(tp->f_hoa_args, x->f_ambi_2d->getDecompositionOrder());
atom_setfloat(tp->f_hoa_args+1, x->f_ambi_2d->getHarmonicDegree(index));
atom_setfloat(tp->f_hoa_args+2, x->f_ambi_2d->getHarmonicOrder(index));
}
else if(x->f_ambi_3d)
{
atom_setsym(tp->f_hoa_mode, gensym("3d"));
atom_setsym(tp->f_hoa_mode+1, gensym("harmonics"));
atom_setfloat(tp->f_hoa_args, x->f_ambi_3d->getDecompositionOrder());
atom_setfloat(tp->f_hoa_args+1, x->f_ambi_3d->getHarmonicDegree(index));
atom_setfloat(tp->f_hoa_args+2, x->f_ambi_3d->getHarmonicOrder(index));
}
else if(x->f_plane_2d)
{
atom_setsym(tp->f_hoa_mode, gensym("2d"));
atom_setsym(tp->f_hoa_mode+1, gensym("planewaves"));
atom_setfloat(tp->f_hoa_args, x->f_plane_2d->getNumberOfPlanewaves());
atom_setfloat(tp->f_hoa_args+1, x->f_plane_2d->getPlanewaveIndex(index));
atom_setfloat(tp->f_hoa_args+2, x->f_plane_2d->getPlanewaveIndex(index));
}
else if(x->f_plane_3d)
{
atom_setsym(tp->f_hoa_mode, gensym("3d"));
atom_setsym(tp->f_hoa_mode+1, gensym("planewaves"));
atom_setfloat(tp->f_hoa_args, x->f_plane_3d->getNumberOfPlanewaves());
atom_setfloat(tp->f_hoa_args+1, x->f_plane_3d->getPlanewaveIndex(index));
atom_setfloat(tp->f_hoa_args+2, x->f_plane_3d->getPlanewaveIndex(index));
}
if(tp->f_argc < atoms_get_attributes_offset(argc, argv))
{
free(tp->f_args);
tp->f_argc = atoms_get_attributes_offset(argc, argv);
tp->f_args = (t_atom *)calloc(tp->f_argc, sizeof(t_atom));
}
offset = atoms_get_attributes_offset(argc, argv);
for(i = 0; i < offset; i++)
{
tp->f_args[i] = argv[i];
}
for(i = 0; i < tp->f_n_attrs; i++)
{
if(atoms_has_attribute(argc-offset, argv+offset, tp->f_attr_name[i]))
{
free(tp->f_attr_vals[i]);
tp->f_attr_size[i] = 0;
atoms_get_attribute(argc-offset, argv+offset, tp->f_attr_name[i], &tp->f_attr_size[i], &tp->f_attr_vals[i]);
}
}
tp->f_nit = 1;
}
}
}
void hoa_process_get_io(t_hoa_process *x, int index)
{
t_gobj *y;
t_hoa_in *inlet;
t_hoa_out *outlet;
t_hoa_in_tilde *inlet_sig;
t_hoa_out_tilde *outlet_sig;
x->f_ninlets_extra[index] = 0;
x->f_ninlets_instance[index] = 0;
x->f_noutlets_extra[index] = 0;
x->f_noutlets_instance[index] = 0;
x->f_ninlets_extra_sig[index] = 0;
x->f_ninlets_instance_sig[index] = 0;
x->f_noutlets_extra_sig[index] = 0;
x->f_noutlets_instance_sig[index] = 0;
for(y = x->f_canvas[index]->gl_list; y; y = y->g_next)
{
if(eobj_getclassname(y) == gensym("hoa.in"))
{
inlet = (t_hoa_in *)y;
if(inlet->f_extra)
x->f_ninlets_extra[index]++;
else
x->f_ninlets_instance[index]++;
}
else if(eobj_getclassname(y) == gensym("hoa.out"))
{
outlet = (t_hoa_out *)y;
if(outlet->f_extra)
x->f_noutlets_extra[index]++;
else
x->f_noutlets_instance[index]++;
}
else if(eobj_getclassname(y) == gensym("hoa.in~"))
{
inlet_sig = (t_hoa_in_tilde *)y;
if(inlet_sig->f_extra)
x->f_ninlets_extra_sig[index]++;
else
x->f_ninlets_instance_sig[index]++;
}
else if(eobj_getclassname(y) == gensym("hoa.out~"))
{
outlet_sig = (t_hoa_out_tilde *)y;
if(outlet_sig->f_extra)
x->f_noutlets_extra_sig[index]++;
else
x->f_noutlets_instance_sig[index]++;
}
}
x->f_inlets_instance[index] = new t_hoa_in*[x->f_ninlets_instance[index]];
x->f_inlets_extra[index] = new t_hoa_in*[x->f_ninlets_extra[index]];
x->f_outlets_instance[index] = new t_hoa_out*[x->f_ninlets_instance[index]];
x->f_outlets_extra[index] = new t_hoa_out*[x->f_ninlets_extra[index]];
x->f_inlets_instance_sig[index] = new t_hoa_in_tilde*[x->f_ninlets_instance_sig[index]];
x->f_inlets_extra_sig[index] = new t_hoa_in_tilde*[x->f_ninlets_extra_sig[index]];
x->f_outlets_instance_sig[index] = new t_hoa_out_tilde*[x->f_noutlets_instance_sig[index]];
x->f_outlets_extra_sig[index] = new t_hoa_out_tilde*[x->f_noutlets_extra_sig[index]];
x->f_ninlets_extra[index] = 0;
x->f_ninlets_instance[index] = 0;
x->f_noutlets_extra[index] = 0;
x->f_noutlets_instance[index] = 0;
x->f_ninlets_extra_sig[index] = 0;
x->f_ninlets_instance_sig[index] = 0;
x->f_noutlets_extra_sig[index] = 0;
x->f_noutlets_instance_sig[index] = 0;
for(y = x->f_canvas[index]->gl_list; y; y = y->g_next)
{
if(eobj_getclassname(y) == gensym("hoa.in"))
{
inlet = (t_hoa_in *)y;
if(inlet->f_extra)
x->f_inlets_extra[index][x->f_ninlets_extra[index]++] = inlet;
else
x->f_inlets_instance[index][x->f_ninlets_instance[index]++] = inlet;
}
else if(eobj_getclassname(y) == gensym("hoa.out"))
{
outlet = (t_hoa_out *)y;
if(outlet->f_extra)
x->f_outlets_extra[index][x->f_noutlets_extra[index]++] = outlet;
else
x->f_outlets_instance[index][x->f_noutlets_instance[index]++] = outlet;
}
else if(eobj_getclassname(y) == gensym("hoa.in~"))
{
inlet_sig = (t_hoa_in_tilde *)y;
if(inlet_sig->f_extra)
x->f_inlets_extra_sig[index][x->f_ninlets_extra_sig[index]++] = inlet_sig;
else
x->f_inlets_instance_sig[index][x->f_ninlets_instance_sig[index]++] = inlet_sig;
}
else if(eobj_getclassname(y) == gensym("hoa.out~"))
{
outlet_sig = (t_hoa_out_tilde *)y;
if(outlet_sig->f_extra)
x->f_outlets_extra_sig[index][x->f_noutlets_extra_sig[index]++] = outlet_sig;
else
x->f_outlets_instance_sig[index][x->f_noutlets_instance_sig[index]++] = outlet_sig;
}
}
}
static void canvas_removefromlist(t_canvas *x)
{
t_canvas *z;
if (x == sys_getcanvaslist())
{
sys_setcanvaslist(x->gl_next);
}
else
{
for (z = sys_getcanvaslist(); z->gl_next != x; z = z->gl_next)
;
z->gl_next = x->gl_next;
}
}
void hoa_process_load_canvas(t_hoa_process *x, t_symbol *s, long argc, t_atom* argv)
{
int fd;
char dirbuf[MAXPDSTRING], *nameptr;
int ncnv;
int state = canvas_suspend_dsp();
// Memory allocation for all the canvas, the inlets and the outlets
x->f_canvas = new t_canvas*[x->f_ncanvas];
x->f_dsp_context = new t_dspcontext*[x->f_ncanvas];
x->f_ninlets_instance = new long[x->f_ncanvas];
x->f_inlets_instance = new t_hoa_in**[x->f_ncanvas];
x->f_ninlets_extra = new long[x->f_ncanvas];
x->f_inlets_extra = new t_hoa_in**[x->f_ncanvas];
x->f_noutlets_instance = new long[x->f_ncanvas];
x->f_outlets_instance = new t_hoa_out**[x->f_ncanvas];
x->f_noutlets_extra = new long[x->f_ncanvas];
x->f_outlets_extra = new t_hoa_out**[x->f_ncanvas];
x->f_ninlets_instance_sig = new long[x->f_ncanvas];
x->f_inlets_instance_sig = new t_hoa_in_tilde**[x->f_ncanvas];
x->f_ninlets_extra_sig = new long[x->f_ncanvas];
x->f_inlets_extra_sig = new t_hoa_in_tilde**[x->f_ncanvas];
x->f_noutlets_instance_sig = new long[x->f_ncanvas];
x->f_outlets_instance_sig = new t_hoa_out_tilde**[x->f_ncanvas];
x->f_noutlets_extra_sig = new long[x->f_ncanvas];
x->f_outlets_extra_sig = new t_hoa_out_tilde**[x->f_ncanvas];
for(int i = 0; i < x->f_ncanvas; i++)
{
x->f_canvas[i] = NULL;
x->f_dsp_context[i] = NULL;
}
ncnv = x->f_ncanvas;
x->f_ncanvas = 0;
// Location of the file
fd = canvas_open(canvas_getcurrent(), s->s_name, ".pd", dirbuf, &nameptr, MAXPDSTRING, 0);
if(fd >= 0)
{
// Allocation of each canvas
for(int i = 0; i < ncnv; i++)
{
x->f_canvas[i] = NULL;
if(x->f_ambi_2d)
{
t_atom av[3];
atom_setfloat(av, x->f_ambi_2d->getDecompositionOrder());
atom_setfloat(av+1, x->f_ambi_2d->getHarmonicDegree(i));
atom_setfloat(av+2, x->f_ambi_2d->getHarmonicOrder(i));
canvas_setargs(3, av);
}
else if(x->f_ambi_3d)
{
t_atom av[3];
atom_setfloat(av, x->f_ambi_3d->getDecompositionOrder());
atom_setfloat(av+1, x->f_ambi_3d->getHarmonicDegree(i));
atom_setfloat(av+2, x->f_ambi_3d->getHarmonicOrder(i));
canvas_setargs(3, av);
}
else if(x->f_plane_2d)
{
t_atom av[2];
atom_setfloat(av, x->f_plane_2d->getNumberOfPlanewaves());
atom_setfloat(av+1, x->f_plane_2d->getPlanewaveIndex(i));
canvas_setargs(2, av);
}
else if(x->f_plane_3d)
{
t_atom av[2];
atom_setfloat(av, x->f_plane_3d->getNumberOfPlanewaves());
atom_setfloat(av+1, x->f_plane_3d->getPlanewaveIndex(i));
canvas_setargs(2, av);
}
// Load the canvas
t_pd *boundx = s__X.s_thing;
s__X.s_thing = 0;
binbuf_evalfile(gensym(nameptr), gensym(dirbuf));
while (( (t_pd *)x->f_canvas[i] != s__X.s_thing) && s__X.s_thing)
{
x->f_canvas[i] = (t_canvas *)s__X.s_thing;
vmess((t_pd *)x->f_canvas[i], gensym("pop"), "i", 1);
}
s__X.s_thing = boundx;
// If the canvas is loaded
if(x->f_canvas[i])
{
hoa_process_get_thisprocess(x, x->f_canvas[i], i, argc, argv);
x->f_canvas[i]->gl_owner = eobj_getcanvas(x); // Set the owner of the canvas
canvas_removefromlist(x->f_canvas[i]); // Remove canvas from top level
canvas_loadbang(x->f_canvas[i]); // Send loadbang
// Retrieve inlets and outlets of the canvas
hoa_process_get_io(x, i);
x->f_dsp_context[i] = dsp_context_new();
x->f_ncanvas++;
canvas_vis(x->f_canvas[i], 0); // Hide the canvas
}
else
{
canvas_setcurrent(eobj_getcanvas(x));
pd_error(x, "hoa.process~ : error while loading canvas.");
canvas_resume_dsp(state);
return;
}
}
}
else
{
pd_error(x, "hoa.process~ : error while loading canvas.");
}
canvas_setcurrent(eobj_getcanvas(x));
canvas_resume_dsp(state);
}
static void *hoa_process_new(t_symbol *s, long argc, t_atom *argv)
{
if(argc < 2 || atom_gettype(argv) != A_LONG || atom_gettype(argv+1) != A_SYM)
{
error("%s needs at least 2 arguments, an integer and one symbol.", s->s_name);
return NULL;
}
t_outlet *outlet;
int argument = 1;
t_hoa_process *x = (t_hoa_process *)eobj_new(hoa_process_class);
if(x)
{
argument = pd_clip_min(atom_getlong(argv), 1);
x->f_target = -2;
x->f_ambi_2d = NULL;
x->f_ambi_3d = NULL;
x->f_plane_2d = NULL;
x->f_plane_3d = NULL;
if(s == gensym("hoa.3d.process~"))
{
if(argc > 2 && atom_gettype(argv+2) == A_SYM && atom_getsym(argv+2) == gensym("planewaves"))
{
x->f_plane_3d = new Processor<Hoa3d, t_float>::Planewaves(argument);
x->f_ncanvas = x->f_plane_3d->getNumberOfPlanewaves();
}
else
{
x->f_ambi_3d = new Processor<Hoa3d, t_float>::Harmonics(argument);
x->f_ncanvas = x->f_ambi_3d->getNumberOfHarmonics();
}
}
else
{
if(argc > 2 && atom_gettype(argv+2) == A_SYM && atom_getsym(argv+2) == gensym("planewaves"))
{
x->f_plane_2d = new Processor<Hoa2d, t_float>::Planewaves(argument);
x->f_ncanvas = x->f_plane_2d->getNumberOfPlanewaves();
}
else
{
x->f_ambi_2d = new Processor<Hoa2d, t_float>::Harmonics(argument);
x->f_ncanvas = x->f_ambi_2d->getNumberOfHarmonics();
}
}
hoa_process_load_canvas(x, atom_getsym(argv+1), argc - 3, argv + 3);
if(x->f_ncanvas == 0)
{
eobj_dspsetup(x, 1, 0);
return x;
}
x->f_have_inlets_instance = 0;
x->f_max_inlets_extra = 0;
x->f_have_outlets_instance = 0;
x->f_max_outlets_extra = 0;
x->f_have_inlets_instance_sig = 0;
x->f_max_inlets_extra_sig = 0;
x->f_have_outlets_instance_sig = 0;
x->f_max_outlets_extra_sig = 0;
for(int i = 0; i < x->f_ncanvas; i++)
{
// Control //
if(x->f_ninlets_instance[i] > 0)
x->f_have_inlets_instance = 1;
for(int j = 0; j < x->f_ninlets_extra[i]; j++)
{
if(x->f_inlets_extra[i][j]->f_extra > x->f_max_inlets_extra)
x->f_max_inlets_extra = x->f_inlets_extra[i][j]->f_extra;
}
if(x->f_noutlets_instance[i] > 0)
x->f_have_outlets_instance = 1;
for(int j = 0; j < x->f_noutlets_extra[i]; j++)
{
if(x->f_outlets_extra[i][j]->f_extra > x->f_max_outlets_extra)
x->f_max_outlets_extra = x->f_outlets_extra[i][j]->f_extra;
}
// Signal //
if(x->f_ninlets_instance_sig[i] > 0)
x->f_have_inlets_instance_sig = 1;
for(int j = 0; j < x->f_ninlets_extra_sig[i]; j++)
{
if(x->f_inlets_extra_sig[i][j]->f_extra > x->f_max_inlets_extra_sig)
x->f_max_inlets_extra_sig = x->f_inlets_extra_sig[i][j]->f_extra;
}
if(x->f_noutlets_instance_sig[i] > 0)
x->f_have_outlets_instance_sig = 1;
for(int j = 0; j < x->f_noutlets_extra_sig[i]; j++)
{
if(x->f_outlets_extra_sig[i][j]->f_extra > x->f_max_outlets_extra_sig)
x->f_max_outlets_extra_sig = x->f_outlets_extra_sig[i][j]->f_extra;
}
}
eobj_dspsetup(x, x->f_have_inlets_instance_sig * x->f_ncanvas + x->f_max_inlets_extra_sig, x->f_have_outlets_instance_sig * x->f_ncanvas + x->f_max_outlets_extra_sig);
// Inlet signal intance //
if(x->f_have_inlets_instance && !x->f_have_inlets_instance_sig)
{
for(int i = 0; i < x->f_ncanvas; i++)
{
eobj_proxynew(x);