Gwion coverage report

GCC Code Coverage Report

Directory:	src/		Exec	Total	Coverage
File:	src/lib/ugen.c	Lines:	234	234	100.0 %
Date:	2020-08-07 19:15:19	Branches:	71	76	93.4 %


#include "gwion_util.h"
#include "gwion_ast.h"
#include "gwion_env.h"
#include "vm.h"
#include "gwion.h"
#include "object.h"
#include "instr.h"
#include "operator.h"
#include "import.h"
#include "gwi.h"
#include "ugen.h"
#include "driver.h"
#include "gwi.h"

ANN static inline void ugop_add   (const UGen u, const m_float f) { u->in += f; }
ANN static inline void ugop_sub  (const UGen u, const m_float f) { u->in -= f; }
ANN static inline void ugop_mul  (const UGen u, const m_float f) { u->in *= f; }
ANN static inline void ugop_div (const UGen u, const m_float f) { u->in /= f; }

static TICK(dac_tick) {
  m_float* out = ((VM*)u->module.gen.data)->bbq->out;
  uint i = 0;
  do out[i] = UGEN(u->connect.multi->channel[i])->in;
  while(++i < u->connect.multi->n_out);
}

static TICK(adc_tick) {
  const m_float* in = ((VM*)u->module.gen.data)->bbq->in;
  uint i = 0;
  do UGEN(u->connect.multi->channel[i])->out = in[i];
  while(++i < u->connect.multi->n_out);
}

#define COMPUTE(a) if(!(a)->done)(a)->compute((a));

__attribute__((hot))
ANN void compute_mono(const UGen u) {
  u->done = 1;
  const uint size = u->connect.net->size;
  if(size) {
    const Vector vec = &u->connect.net->from;
    const UGen   v   = (UGen)vector_front(vec);
    COMPUTE(v)
    u->in = v->out;
    for(uint i = 1; i < size; ++i) {
      const UGen w = (UGen)vector_at(vec, i);
      COMPUTE(w)
      u->op(u, w->out);
    }
  }
}
__attribute__((hot))
ANN void compute_multi(const UGen u) {
  u->done = 1;
  uint i = 0;
  do compute_mono(UGEN(u->connect.multi->channel[i]));
  while(++i < u->connect.multi->n_chan);
}

__attribute__((hot))
ANN void compute_chan(const UGen u) {
  COMPUTE(u->module.ref);
}

#define describe_compute(func, opt, aux)         \
__attribute__((hot))                             \
ANN void gen_compute_##func##opt(const UGen u) { \
  compute_##func(u);                             \
  aux                                            \
  u->module.gen.tick(u);                                \
}
describe_compute(mono,,)
describe_compute(multi,,)
describe_compute(mono,  trig, {u->module.gen.trig->compute(u->module.gen.trig);})
describe_compute(multi, trig, {u->module.gen.trig->compute(u->module.gen.trig);})

ANEW static UGen new_UGen(MemPool p) {
  const UGen u = mp_calloc(p, UGen);
  u->op = ugop_add;
  u->compute = gen_compute_mono;
  return u;
}

ANEW M_Object new_M_UGen(const struct Gwion_ *gwion) {
  const M_Object o = new_object(gwion->mp, NULL, gwion->type[et_ugen]);
  UGEN(o) = new_UGen(gwion->mp);
  return o;
}

ANN static void assign_channel(const struct Gwion_ *gwion, const UGen u) {
  u->multi = 1;
  u->compute = gen_compute_multi;
  u->connect.multi->channel = (M_Object*)xmalloc(u->connect.multi->n_chan * SZ_INT);
  for(uint i = u->connect.multi->n_chan + 1; --i;) {
    const uint j = i - 1;
    const M_Object chan = new_M_UGen(gwion);
    ugen_ini(gwion, UGEN(chan), u->connect.multi->n_in > j, u->connect.multi->n_out > j);
    UGEN(chan)->module.ref = u;
    UGEN(chan)->compute = compute_chan;
    u->connect.multi->channel[j] =  chan;
  }
}

ANN void ugen_gen(const struct Gwion_ *gwion, const UGen u, const f_tick tick, void* data, const m_bool trig) {
  u->module.gen.tick = tick;
  u->module.gen.data = data;
  if(trig) {
    u->module.gen.trig = new_UGen(gwion->mp);
    u->module.gen.trig->compute = compute_mono;
    ugen_ini(gwion, u->module.gen.trig, 1, 1);
    u->compute = (u->compute == gen_compute_mono ? gen_compute_monotrig : gen_compute_multitrig);
  }
}

ANN void ugen_ini(const struct Gwion_ *gwion, const UGen u, const uint in, const uint out) {
  const uint chan = in > out ? in : out;
  if(chan == 1) {
    u->connect.net = mp_calloc(gwion->mp, ugen_net);
    vector_init(&u->connect.net->from);
    vector_init(&u->connect.net->to);
  } else {
    u->connect.multi = mp_calloc(gwion->mp, ugen_multi);
    u->connect.multi->n_in   = in;
    u->connect.multi->n_out  = out;
    u->connect.multi->n_chan = chan;
    assign_channel(gwion, u);
  }
}

ANN void connect_init(const VM_Shred shred, restrict M_Object* lhs, restrict M_Object* rhs) {
  POP_REG(shred, SZ_INT * 2);
  *rhs = *(M_Object*)REG(SZ_INT);
  *lhs = *(M_Object*)REG(0);
}

#define describe_connect(name, func)                                                    \
ANN static inline void name##onnect(const restrict UGen lhs, const restrict UGen rhs) { \
  func(&rhs->connect.net->from, (vtype)lhs);                                             \
  func(&lhs->connect.net->to,   (vtype)rhs);                                             \
  rhs->connect.net->size = (uint)vector_size(&rhs->connect.net->from);                    \
}
describe_connect(C,vector_add)
describe_connect(Disc,vector_rem2)

ANN static void release_connect(const VM_Shred shred) {
  _release(*(M_Object*)REG(0), shred);
  _release(*(M_Object*)REG(SZ_INT), shred);
  *(M_Object*)REG(0) = *(M_Object*)REG(SZ_INT);
  PUSH_REG(shred, SZ_INT);
}

typedef ANN void (*f_connect)(const UGen lhs, const UGen rhs);
ANN /* static */ void _do_(const f_connect f, const UGen lhs, const UGen rhs) {
  const m_bool l_multi = lhs->multi;
  const m_bool r_multi = rhs->multi;
  const uint l_max = l_multi ? lhs->connect.multi->n_out : 1;
  const uint r_max = r_multi ? rhs->connect.multi->n_in  : 1;
  const uint max   = l_max > r_max ? l_max : r_max;
  uint i = 0;
  assert(r_max > 0);
  do {
    const UGen l = l_multi ? UGEN(lhs->connect.multi->channel[i % l_max]) : lhs;
    const UGen r = r_multi ? UGEN(rhs->connect.multi->channel[i % r_max]) : rhs;
    f(l, r);
  } while(++i < max);
}

ANN void ugen_connect(const restrict UGen lhs, const restrict UGen rhs) {
  _do_(Connect, lhs, rhs);
}

ANN void ugen_disconnect(const restrict UGen lhs, const restrict UGen rhs) {
  _do_(Disconnect, lhs, rhs);
}

#define TRIG_EX                         \
if(!UGEN(rhs)->module.gen.trig) {       \
  release_connect(shred);               \
  Except(shred, "NonTriggerException"); \
}
#define describe_connect_instr(name, func, opt) \
static INSTR(name##func) {                      \
  M_Object lhs, rhs;                            \
  connect_init(shred, &lhs, &rhs);              \
  opt                                           \
  _do_(func, UGEN(lhs), UGEN(rhs));             \
  release_connect(shred);                       \
}
describe_connect_instr(Ugen, Connect,)
describe_connect_instr(Ugen, Disconnect,)
describe_connect_instr(Trig, Connect,    TRIG_EX)
describe_connect_instr(Trig, Disconnect, TRIG_EX)

static CTOR(ugen_ctor) {
  UGEN(o) = new_UGen(shred->info->mp);
  vector_add(&shred->info->vm->ugen, (vtype)UGEN(o));
}

#define describe_release_func(src, tgt, opt)                        \
ANN static void release_##src(const UGen ug) {                      \
  for(uint i = (uint)vector_size(&ug->connect.net->src) + 1; --i;) { \
    const UGen u = (UGen)vector_at(&ug->connect.net->src, i - 1);    \
    vector_rem2(&u->connect.net->tgt, (vtype)ug);                    \
    opt                                                             \
  }                                                                 \
  vector_release(&ug->connect.net->src);                             \
}
describe_release_func(from, to,)
describe_release_func(to, from, --u->connect.net->size;)

ANN static void release_mono(MemPool p, const UGen ug) {
  release_to(ug);
  release_from(ug);
  mp_free(p, ugen_net, ug->connect.net);
}

ANN static void release_multi(const UGen ug, const VM_Shred shred) {
  for(uint i = ug->connect.multi->n_chan + 1; --i;)
    release(ug->connect.multi->channel[i - 1], shred);
  xfree(ug->connect.multi->channel);
}

static DTOR(ugen_dtor) {
  const UGen ug = UGEN(o);
  MemPool p = shred->info->vm->gwion->mp;
  vector_rem2(&shred->info->vm->ugen, (vtype)ug);
  if(!ug->multi)
    release_mono(p, ug);
  else
    release_multi(ug, shred);
  if(ug->module.gen.trig) {
    release_mono(p, ug->module.gen.trig);
    mp_free(shred->info->mp, UGen, ug->module.gen.trig);
  }
  mp_free(shred->info->mp, UGen, ug);
}

static MFUN(ugen_channel) {
  const m_int i = *(m_int*)MEM(SZ_INT);
  if(!UGEN(o)->multi)
    *(M_Object*)RETURN = !i ? o : NULL;
  else if(i < 0 || (m_uint)i >= UGEN(o)->connect.multi->n_chan)
    *(M_Object*)RETURN = NULL;
  else
    *(M_Object*)RETURN = UGEN(o)->connect.multi->channel[i];
}

static MFUN(ugen_get_op) {
  const f_ugop f = UGEN(o)->op;
  if(f == ugop_add)
    *(m_uint*)RETURN = 1;
  else if(f == ugop_sub)
    *(m_uint*)RETURN = 2;
  else if(f == ugop_mul)
    *(m_uint*)RETURN = 3;
  else if(f == ugop_div)
    *(m_uint*)RETURN = 4;
}

ANN static void set_op(const UGen u, const f_ugop f) {
  if(u->multi) {
    for(uint i = u->connect.multi->n_chan + 1; --i;)
      UGEN(u->connect.multi->channel[i-1])->op = f;
  }
  u->op = f;
}

static MFUN(ugen_set_op) {
  const m_int i = *(m_int*)MEM(SZ_INT);
  if(i == 1)
    set_op(UGEN(o), ugop_add);
  else if(i == 2)
    set_op(UGEN(o), ugop_sub);
  else if(i == 3)
    set_op(UGEN(o), ugop_mul);
  else if(i == 4)
    set_op(UGEN(o), ugop_div);
  *(m_int*)RETURN = i;
}

static MFUN(ugen_get_last) {
  *(m_float*)RETURN = UGEN(o)->out;
}

struct ugen_importer {
  const VM* vm;
  const f_tick tick;
  const m_str name;
  const uint nchan;
};

ANN static UGen add_ugen(const Gwi gwi, struct ugen_importer* imp) {
  VM* vm = gwi_vm(gwi);
  const M_Object o = new_M_UGen(gwi->gwion);
  const UGen u = UGEN(o);
  ugen_ini(vm->gwion, u, imp->nchan, imp->nchan);
  ugen_gen(vm->gwion, u, imp->tick, (void*)imp->vm, 0);
  vector_add(&vm->ugen, (vtype)u);
  gwi_item_ini(gwi, "UGen", imp->name);
  gwi_item_end(gwi, ae_flag_const, o);
  return u;
}

static GWION_IMPORT(global_ugens) {
  const VM* vm = gwi_vm(gwi);
  struct ugen_importer imp_hole = { vm, compute_mono, "blackhole", 1 };
  const UGen hole = add_ugen(gwi, &imp_hole);
  struct ugen_importer imp_dac = { vm, dac_tick, "dac", vm->bbq->si->out };
  const UGen dac = add_ugen(gwi, &imp_dac);
  struct ugen_importer imp_adc = { vm, adc_tick, "adc", vm->bbq->si->in };
  (void)add_ugen(gwi, &imp_adc);
  ugen_connect(dac, hole);
  SET_FLAG(gwi->gwion->type[et_ugen], abstract);
  return GW_OK;
}

static OP_CHECK(opck_chuck_ugen) {
  const Exp_Binary* bin = (Exp_Binary*)data;
  return bin->rhs->info->type;
}

GWION_IMPORT(ugen) {
  const Type t_ugen = gwi_class_ini(gwi, "UGen", NULL);
  gwi_class_xtor(gwi, ugen_ctor, ugen_dtor);
  gwi->gwion->type[et_ugen] = t_ugen; // use func

  GWI_BB(gwi_item_ini(gwi, "@internal", "@ugen"))
  GWI_BB(gwi_item_end(gwi, ae_flag_member, NULL))

  GWI_BB(gwi_func_ini(gwi, "UGen", "chan"))
  GWI_BB(gwi_func_arg(gwi, "int", "arg0"))
  GWI_BB(gwi_func_end(gwi, ugen_channel, ae_flag_none))

  GWI_BB(gwi_func_ini(gwi, "int", "op"))
  GWI_BB(gwi_func_end(gwi, ugen_get_op, ae_flag_none))

  GWI_BB(gwi_func_ini(gwi, "int", "op"))
  GWI_BB(gwi_func_arg(gwi, "int", "arg0"))
  GWI_BB(gwi_func_end(gwi, ugen_set_op, ae_flag_none))

  GWI_BB(gwi_func_ini(gwi, "float", "last"))
  GWI_BB(gwi_func_end(gwi, ugen_get_last, ae_flag_none))
  GWI_BB(gwi_class_end(gwi))

  GWI_BB(gwi_oper_ini(gwi, "nonnull UGen", "nonnull UGen", "nonnull UGen"))
  _CHECK_OP("=>", chuck_ugen, UgenConnect)
  _CHECK_OP("=<", chuck_ugen, UgenDisconnect)
  _CHECK_OP(":=>", chuck_ugen, TrigConnect)
  _CHECK_OP(":=<", chuck_ugen, TrigDisconnect)
  return import_global_ugens(gwi);
}


Generated by: GCOVR (Version 4.2)

Line	Branch	Exec	Source
1			#include "gwion_util.h"
2			#include "gwion_ast.h"
3			#include "gwion_env.h"
4			#include "vm.h"
5			#include "gwion.h"
6			#include "object.h"
7			#include "instr.h"
8			#include "operator.h"
9			#include "import.h"
10			#include "gwi.h"
11			#include "ugen.h"
12			#include "driver.h"
13			#include "gwi.h"
14
15		6493158	ANN static inline void ugop_add (const UGen u, const m_float f) { u->in += f; }
16		96000	ANN static inline void ugop_sub (const UGen u, const m_float f) { u->in -= f; }
17		96000	ANN static inline void ugop_mul (const UGen u, const m_float f) { u->in *= f; }
18		96000	ANN static inline void ugop_div (const UGen u, const m_float f) { u->in /= f; }
19
20		3150578	static TICK(dac_tick) {
21		3150578	m_float* out = ((VM*)u->module.gen.data)->bbq->out;
22		3150578	uint i = 0;
23		6301156	do out[i] = UGEN(u->connect.multi->channel[i])->in;
24	✓✓	6301156	while(++i < u->connect.multi->n_out);
25		3150578	}
26
27		528001	static TICK(adc_tick) {
28		528001	const m_float* in = ((VM*)u->module.gen.data)->bbq->in;
29		528001	uint i = 0;
30		1056002	do UGEN(u->connect.multi->channel[i])->out = in[i];
31	✓✓	1056002	while(++i < u->connect.multi->n_out);
32		528001	}
33
34			#define COMPUTE(a) if(!(a)->done)(a)->compute((a));
35
36			__attribute__((hot))
37		14138342	ANN void compute_mono(const UGen u) {
38		14138342	u->done = 1;
39		14138342	const uint size = u->connect.net->size;
40	✓✓	14138342	if(size) {
41		7837198	const Vector vec = &u->connect.net->from;
42		7837198	const UGen v = (UGen)vector_front(vec);
43	✓✓	7837198	COMPUTE(v)
44		7837198	u->in = v->out;
45	✓✓	14618356	for(uint i = 1; i < size; ++i) {
46		6781158	const UGen w = (UGen)vector_at(vec, i);
47	✓✓	6781158	COMPUTE(w)
48		6781158	u->op(u, w->out);
49			}
50			}
51		14138342	}
52			__attribute__((hot))
53		3678580	ANN void compute_multi(const UGen u) {
54		3678580	u->done = 1;
55		3678580	uint i = 0;
56		7357160	do compute_mono(UGEN(u->connect.multi->channel[i]));
57	✓✓	7357160	while(++i < u->connect.multi->n_chan);
58		3678580	}
59
60			__attribute__((hot))
61		3678580	ANN void compute_chan(const UGen u) {
62	✓✗	3678580	COMPUTE(u->module.ref);
63		3678580	}
64
65			#define describe_compute(func, opt, aux) \
66			__attribute__((hot)) \
67			ANN void gen_compute_##func##opt(const UGen u) { \
68			compute_##func(u); \
69			aux \
70			u->module.gen.tick(u); \
71			}
72		3630601	describe_compute(mono,,)
73		3678579	describe_compute(multi,,)
74		1	describe_compute(mono, trig, {u->module.gen.trig->compute(u->module.gen.trig);})
75		1	describe_compute(multi, trig, {u->module.gen.trig->compute(u->module.gen.trig);})
76
77		5127	ANEW static UGen new_UGen(MemPool p) {
78		5127	const UGen u = mp_calloc(p, UGen);
79		5127	u->op = ugop_add;
80		5127	u->compute = gen_compute_mono;
81		5127	return u;
82			}
83
84		5112	ANEW M_Object new_M_UGen(const struct Gwion_ *gwion) {
85		5112	const M_Object o = new_object(gwion->mp, NULL, gwion->type[et_ugen]);
86		5112	UGEN(o) = new_UGen(gwion->mp);
87		5112	return o;
88			}
89
90		1461	ANN static void assign_channel(const struct Gwion_ *gwion, const UGen u) {
91		1461	u->multi = 1;
92		1461	u->compute = gen_compute_multi;
93		1461	u->connect.multi->channel = (M_Object)xmalloc(u->connect.multi->n_chan SZ_INT);
94	✓✓	5844	for(uint i = u->connect.multi->n_chan + 1; --i;) {
95		2922	const uint j = i - 1;
96		2922	const M_Object chan = new_M_UGen(gwion);
97		2922	ugen_ini(gwion, UGEN(chan), u->connect.multi->n_in > j, u->connect.multi->n_out > j);
98		2922	UGEN(chan)->module.ref = u;
99		2922	UGEN(chan)->compute = compute_chan;
100		2922	u->connect.multi->channel[j] = chan;
101			}
102		1461	}
103
104		2203	ANN void ugen_gen(const struct Gwion_ gwion, const UGen u, const f_tick tick, void data, const m_bool trig) {
105		2203	u->module.gen.tick = tick;
106		2203	u->module.gen.data = data;
107	✓✓	2203	if(trig) {
108		2	u->module.gen.trig = new_UGen(gwion->mp);
109		2	u->module.gen.trig->compute = compute_mono;
110		2	ugen_ini(gwion, u->module.gen.trig, 1, 1);
111	✓✓	2	u->compute = (u->compute == gen_compute_mono ? gen_compute_monotrig : gen_compute_multitrig);
112			}
113		2203	}
114
115		5127	ANN void ugen_ini(const struct Gwion_ *gwion, const UGen u, const uint in, const uint out) {
116		5127	const uint chan = in > out ? in : out;
117	✓✓	5127	if(chan == 1) {
118		3666	u->connect.net = mp_calloc(gwion->mp, ugen_net);
119		3666	vector_init(&u->connect.net->from);
120		3666	vector_init(&u->connect.net->to);
121			} else {
122		1461	u->connect.multi = mp_calloc(gwion->mp, ugen_multi);
123		1461	u->connect.multi->n_in = in;
124		1461	u->connect.multi->n_out = out;
125		1461	u->connect.multi->n_chan = chan;
126		1461	assign_channel(gwion, u);
127			}
128		5127	}
129
130		20	ANN void connect_init(const VM_Shred shred, restrict M_Object* lhs, restrict M_Object* rhs) {
131		20	POP_REG(shred, SZ_INT * 2);
132		20	rhs = (M_Object*)REG(SZ_INT);
133		20	lhs = (M_Object*)REG(0);
134		20	}
135
136			#define describe_connect(name, func) \
137			ANN static inline void name##onnect(const restrict UGen lhs, const restrict UGen rhs) { \
138			func(&rhs->connect.net->from, (vtype)lhs); \
139			func(&lhs->connect.net->to, (vtype)rhs); \
140			rhs->connect.net->size = (uint)vector_size(&rhs->connect.net->from); \
141			}
142		1493	describe_connect(C,vector_add)
143		8	describe_connect(Disc,vector_rem2)
144
145		20	ANN static void release_connect(const VM_Shred shred) {
146		20	_release((M_Object)REG(0), shred);
147		20	_release((M_Object)REG(SZ_INT), shred);
148		20	(M_Object)REG(0) = (M_Object)REG(SZ_INT);
149		20	PUSH_REG(shred, SZ_INT);
150		20	}
151
152			typedef ANN void (*f_connect)(const UGen lhs, const UGen rhs);
153		752	ANN /* static */ void _do_(const f_connect f, const UGen lhs, const UGen rhs) {
154		752	const m_bool l_multi = lhs->multi;
155		752	const m_bool r_multi = rhs->multi;
156	✓✓	752	const uint l_max = l_multi ? lhs->connect.multi->n_out : 1;
157	✓✓	752	const uint r_max = r_multi ? rhs->connect.multi->n_in : 1;
158		752	const uint max = l_max > r_max ? l_max : r_max;
159		752	uint i = 0;
160			assert(r_max > 0);
161			do {
162	✓✓	1501	const UGen l = l_multi ? UGEN(lhs->connect.multi->channel[i % l_max]) : lhs;
163	✓✓	1501	const UGen r = r_multi ? UGEN(rhs->connect.multi->channel[i % r_max]) : rhs;
164		1501	f(l, r);
165	✓✓	1501	} while(++i < max);
166		752	}
167
168		731	ANN void ugen_connect(const restrict UGen lhs, const restrict UGen rhs) {
169		731	_do_(Connect, lhs, rhs);
170		731	}
171
172		1	ANN void ugen_disconnect(const restrict UGen lhs, const restrict UGen rhs) {
173		1	_do_(Disconnect, lhs, rhs);
174		1	}
175
176			#define TRIG_EX \
177			if(!UGEN(rhs)->module.gen.trig) { \
178			release_connect(shred); \
179			Except(shred, "NonTriggerException"); \
180			}
181			#define describe_connect_instr(name, func, opt) \
182			static INSTR(name##func) { \
183			M_Object lhs, rhs; \
184			connect_init(shred, &lhs, &rhs); \
185			opt \
186			_do_(func, UGEN(lhs), UGEN(rhs)); \
187			release_connect(shred); \
188			}
189		15	describe_connect_instr(Ugen, Connect,)
190		1	describe_connect_instr(Ugen, Disconnect,)
191	✗✓	2	describe_connect_instr(Trig, Connect, TRIG_EX)
192	✗✓	2	describe_connect_instr(Trig, Disconnect, TRIG_EX)
193
194		13	static CTOR(ugen_ctor) {
195		13	UGEN(o) = new_UGen(shred->info->mp);
196		13	vector_add(&shred->info->vm->ugen, (vtype)UGEN(o));
197		13	}
198
199			#define describe_release_func(src, tgt, opt) \
200			ANN static void release_##src(const UGen ug) { \
201			for(uint i = (uint)vector_size(&ug->connect.net->src) + 1; --i;) { \
202			const UGen u = (UGen)vector_at(&ug->connect.net->src, i - 1); \
203			vector_rem2(&u->connect.net->tgt, (vtype)ug); \
204			opt \
205			} \
206			vector_release(&ug->connect.net->src); \
207			}
208	✓✓	3661	describe_release_func(from, to,)
209	✓✓	3661	describe_release_func(to, from, --u->connect.net->size;)
210
211		3661	ANN static void release_mono(MemPool p, const UGen ug) {
212		3661	release_to(ug);
213		3661	release_from(ug);
214		3661	mp_free(p, ugen_net, ug->connect.net);
215		3661	}
216
217		1459	ANN static void release_multi(const UGen ug, const VM_Shred shred) {
218	✓✓	5836	for(uint i = ug->connect.multi->n_chan + 1; --i;)
219		2918	release(ug->connect.multi->channel[i - 1], shred);
220		1459	xfree(ug->connect.multi->channel);
221		1459	}
222
223		5118	static DTOR(ugen_dtor) {
224		5118	const UGen ug = UGEN(o);
225		5118	MemPool p = shred->info->vm->gwion->mp;
226		5118	vector_rem2(&shred->info->vm->ugen, (vtype)ug);
227	✓✓	5118	if(!ug->multi)
228		3659	release_mono(p, ug);
229			else
230		1459	release_multi(ug, shred);
231	✓✓	5118	if(ug->module.gen.trig) {
232		2	release_mono(p, ug->module.gen.trig);
233		2	mp_free(shred->info->mp, UGen, ug->module.gen.trig);
234			}
235		5118	mp_free(shred->info->mp, UGen, ug);
236		5118	}
237
238		4	static MFUN(ugen_channel) {
239		4	const m_int i = (m_int)MEM(SZ_INT);
240	✓✓	4	if(!UGEN(o)->multi)
241	✓✗	1	(M_Object)RETURN = !i ? o : NULL;
242	✓✓✓✓	3	else if(i < 0 \|\| (m_uint)i >= UGEN(o)->connect.multi->n_chan)
243		2	(M_Object)RETURN = NULL;
244			else
245		1	(M_Object)RETURN = UGEN(o)->connect.multi->channel[i];
246		4	}
247
248		10	static MFUN(ugen_get_op) {
249		10	const f_ugop f = UGEN(o)->op;
250	✓✓	10	if(f == ugop_add)
251		5	(m_uint)RETURN = 1;
252	✓✓	5	else if(f == ugop_sub)
253		2	(m_uint)RETURN = 2;
254	✓✓	3	else if(f == ugop_mul)
255		2	(m_uint)RETURN = 3;
256	✓✗	1	else if(f == ugop_div)
257		1	(m_uint)RETURN = 4;
258		10	}
259
260		5	ANN static void set_op(const UGen u, const f_ugop f) {
261	✓✓	5	if(u->multi) {
262	✓✓	4	for(uint i = u->connect.multi->n_chan + 1; --i;)
263		2	UGEN(u->connect.multi->channel[i-1])->op = f;
264			}
265		5	u->op = f;
266		5	}
267
268		6	static MFUN(ugen_set_op) {
269		6	const m_int i = (m_int)MEM(SZ_INT);
270	✓✓	6	if(i == 1)
271		2	set_op(UGEN(o), ugop_add);
272	✓✓	4	else if(i == 2)
273		1	set_op(UGEN(o), ugop_sub);
274	✓✓	3	else if(i == 3)
275		1	set_op(UGEN(o), ugop_mul);
276	✓✓	2	else if(i == 4)
277		1	set_op(UGEN(o), ugop_div);
278		6	(m_int)RETURN = i;
279		6	}
280
281		8	static MFUN(ugen_get_last) {
282		8	(m_float)RETURN = UGEN(o)->out;
283		8	}
284
285			struct ugen_importer {
286			const VM* vm;
287			const f_tick tick;
288			const m_str name;
289			const uint nchan;
290			};
291
292		2190	ANN static UGen add_ugen(const Gwi gwi, struct ugen_importer* imp) {
293		2190	VM* vm = gwi_vm(gwi);
294		2190	const M_Object o = new_M_UGen(gwi->gwion);
295		2190	const UGen u = UGEN(o);
296		2190	ugen_ini(vm->gwion, u, imp->nchan, imp->nchan);
297		2190	ugen_gen(vm->gwion, u, imp->tick, (void*)imp->vm, 0);
298		2190	vector_add(&vm->ugen, (vtype)u);
299		2190	gwi_item_ini(gwi, "UGen", imp->name);
300		2190	gwi_item_end(gwi, ae_flag_const, o);
301		2190	return u;
302			}
303
304		730	static GWION_IMPORT(global_ugens) {
305		730	const VM* vm = gwi_vm(gwi);
306		730	struct ugen_importer imp_hole = { vm, compute_mono, "blackhole", 1 };
307		730	const UGen hole = add_ugen(gwi, &imp_hole);
308		730	struct ugen_importer imp_dac = { vm, dac_tick, "dac", vm->bbq->si->out };
309		730	const UGen dac = add_ugen(gwi, &imp_dac);
310		730	struct ugen_importer imp_adc = { vm, adc_tick, "adc", vm->bbq->si->in };
311		730	(void)add_ugen(gwi, &imp_adc);
312		730	ugen_connect(dac, hole);
313		730	SET_FLAG(gwi->gwion->type[et_ugen], abstract);
314		730	return GW_OK;
315			}
316
317		26	static OP_CHECK(opck_chuck_ugen) {
318		26	const Exp_Binary* bin = (Exp_Binary*)data;
319		26	return bin->rhs->info->type;
320			}
321
322		730	GWION_IMPORT(ugen) {
323		730	const Type t_ugen = gwi_class_ini(gwi, "UGen", NULL);
324		730	gwi_class_xtor(gwi, ugen_ctor, ugen_dtor);
325		730	gwi->gwion->type[et_ugen] = t_ugen; // use func
326
327		730	GWI_BB(gwi_item_ini(gwi, "@internal", "@ugen"))
328		730	GWI_BB(gwi_item_end(gwi, ae_flag_member, NULL))
329
330		730	GWI_BB(gwi_func_ini(gwi, "UGen", "chan"))
331		730	GWI_BB(gwi_func_arg(gwi, "int", "arg0"))
332		730	GWI_BB(gwi_func_end(gwi, ugen_channel, ae_flag_none))
333
334		730	GWI_BB(gwi_func_ini(gwi, "int", "op"))
335		730	GWI_BB(gwi_func_end(gwi, ugen_get_op, ae_flag_none))
336
337		730	GWI_BB(gwi_func_ini(gwi, "int", "op"))
338		730	GWI_BB(gwi_func_arg(gwi, "int", "arg0"))
339		730	GWI_BB(gwi_func_end(gwi, ugen_set_op, ae_flag_none))
340
341		730	GWI_BB(gwi_func_ini(gwi, "float", "last"))
342		730	GWI_BB(gwi_func_end(gwi, ugen_get_last, ae_flag_none))
343		730	GWI_BB(gwi_class_end(gwi))
344
345		730	GWI_BB(gwi_oper_ini(gwi, "nonnull UGen", "nonnull UGen", "nonnull UGen"))
346		730	_CHECK_OP("=>", chuck_ugen, UgenConnect)
347		730	_CHECK_OP("=<", chuck_ugen, UgenDisconnect)
348		730	_CHECK_OP(":=>", chuck_ugen, TrigConnect)
349		730	_CHECK_OP(":=<", chuck_ugen, TrigDisconnect)
350		730	return import_global_ugens(gwi);
351			}