MVMint64 MVM_proc_shell(MVMThreadContext *tc, MVMString *cmd, MVMString *cwd, MVMObject *env) {
MVMint64 result = 0, spawn_result = 0;
uv_process_t *process = calloc(1, sizeof(uv_process_t));
uv_process_options_t process_options = {0};
uv_stdio_container_t process_stdio[3];
int i;
char * const cmdin = MVM_string_utf8_encode_C_string(tc, cmd);
char * const _cwd = MVM_string_utf8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
MVMIter * const iter = (MVMIter *)MVM_iter(tc, env);
char **_env = malloc((size + 1) * sizeof(char *));
#ifdef _WIN32
const MVMuint16 acp = GetACP(); /* We should get ACP at runtime. */
char * const _cmd = ANSIToUTF8(acp, getenv("ComSpec"));
char *args[3];
args[0] = "/c";
{
MVMint64 len = strlen(cmdin);
MVMint64 i;
for (i = 0; i < len; i++)
if (cmdin[i] == '/')
cmdin[i] = '\\';
}
args[1] = cmdin;
args[2] = NULL;
#else
char * const _cmd = "/bin/sh";
char *args[4];
args[0] = "/bin/sh";
args[1] = "-c";
args[2] = cmdin;
args[3] = NULL;
#endif
INIT_ENV();
SPAWN(_cmd);
FREE_ENV();
free(_cwd);
#ifdef _WIN32
free(_cmd);
#endif
free(cmdin);
return result;
}
MVMint64 MVM_proc_spawn(MVMThreadContext *tc, MVMObject *argv, MVMString *cwd, MVMObject *env) {
MVMint64 result = 0, spawn_result = 0;
uv_process_t *process = calloc(1, sizeof(uv_process_t));
uv_process_options_t process_options = {0};
uv_stdio_container_t process_stdio[3];
int i;
char * const _cwd = MVM_string_utf8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
MVMIter * const iter = (MVMIter *)MVM_iter(tc, env);
char **_env = malloc((size + 1) * sizeof(char *));
const MVMuint64 arg_size = MVM_repr_elems(tc, argv);
char **args = malloc((arg_size + 1) * sizeof(char *));
MVMRegister reg;
i = 0;
while(i < arg_size) {
REPR(argv)->pos_funcs.at_pos(tc, STABLE(argv), argv, OBJECT_BODY(argv), i, ®, MVM_reg_obj);
args[i++] = MVM_string_utf8_encode_C_string(tc, MVM_repr_get_str(tc, reg.o));
}
args[arg_size] = NULL;
INIT_ENV();
SPAWN(arg_size ? args[0] : NULL);
FREE_ENV();
free(_cwd);
i = 0;
while(args[i])
free(args[i++]);
free(args);
return result;
}
MVMint64 MVM_proc_spawn(MVMThreadContext *tc, MVMString *cmd, MVMString *cwd, MVMObject *env) {
MVMint64 result, spawn_result;
uv_process_t process = {0};
uv_process_options_t process_options = {0};
int i;
char * const cmdin = MVM_string_utf8_encode_C_string(tc, cmd);
char * const _cwd = MVM_string_utf8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
MVMIter * const iter = (MVMIter *)MVM_iter(tc, env);
char **_env = malloc((size + 1) * sizeof(char *));
#ifdef _WIN32
const MVMuint16 acp = GetACP(); /* We should get ACP at runtime. */
char * const _cmd = ANSIToUTF8(acp, getenv("ComSpec"));
char *args[3];
args[0] = "/c";
args[1] = cmdin;
args[2] = NULL;
#else
char * const _cmd = "/bin/sh";
char *args[4];
args[0] = "/bin/sh";
args[1] = "-c";
args[2] = cmdin;
args[3] = NULL;
#endif
MVMROOT(tc, iter, {
MVMString * const equal = MVM_string_ascii_decode(tc, tc->instance->VMString, STR_WITH_LEN("="));
MVMROOT(tc, equal, {
MVMString *env_str;
i = 0;
while(MVM_iter_istrue(tc, iter)) {
MVM_repr_shift_o(tc, (MVMObject *)iter);
env_str = MVM_string_concatenate(tc, MVM_iterkey_s(tc, iter), equal);
env_str = MVM_string_concatenate(tc, env_str, MVM_repr_get_str(tc, MVM_iterval(tc, iter)));
_env[i++] = MVM_string_utf8_encode_C_string(tc, env_str);
}
_env[size] = NULL;
});
});
MVMint64 MVM_proc_shell(MVMThreadContext *tc, MVMString *cmd, MVMString *cwd, MVMObject *env,
MVMObject *in, MVMObject *out, MVMObject *err, MVMint64 flags) {
MVMint64 result = 0, spawn_result;
uv_process_t *process = MVM_calloc(1, sizeof(uv_process_t));
uv_process_options_t process_options = {0};
uv_stdio_container_t process_stdio[3];
int i, process_still_running;
char * const cmdin = MVM_string_utf8_c8_encode_C_string(tc, cmd);
char * const _cwd = MVM_string_utf8_c8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
char **_env = MVM_malloc((size + 1) * sizeof(char *));
MVMIter *iter;
#ifdef _WIN32
const MVMuint16 acp = GetACP(); /* We should get ACP at runtime. */
char * const _cmd = ANSIToUTF8(acp, getenv("ComSpec"));
char *args[3];
args[0] = "/c";
args[1] = cmdin;
args[2] = NULL;
#else
char * const _cmd = "/bin/sh";
char *args[4];
args[0] = "/bin/sh";
args[1] = "-c";
args[2] = cmdin;
args[3] = NULL;
#endif
MVMROOT(tc, in, {
MVMROOT(tc, out, {
MVMROOT(tc, err, {
iter = (MVMIter *)MVM_iter(tc, env);
INIT_ENV();
});
});
void MVM_coerce_istrue(MVMThreadContext *tc, MVMObject *obj, MVMRegister *res_reg,
MVMuint8 *true_addr, MVMuint8 *false_addr, MVMuint8 flip) {
MVMint64 result = 0;
if (!MVM_is_null(tc, obj)) {
MVMBoolificationSpec *bs = obj->st->boolification_spec;
switch (bs == NULL ? MVM_BOOL_MODE_NOT_TYPE_OBJECT : bs->mode) {
case MVM_BOOL_MODE_CALL_METHOD: {
MVMObject *code = MVM_frame_find_invokee(tc, bs->method, NULL);
MVMCallsite *inv_arg_callsite = MVM_callsite_get_common(tc, MVM_CALLSITE_ID_INV_ARG);
if (res_reg) {
/* We need to do the invocation, and set this register
* the result. Then we just do the call. For the flip
* case, just set up special return handler to flip
* the register. */
MVM_args_setup_thunk(tc, res_reg, MVM_RETURN_INT, inv_arg_callsite);
tc->cur_frame->args[0].o = obj;
if (flip) {
tc->cur_frame->special_return = flip_return;
tc->cur_frame->special_return_data = res_reg;
}
STABLE(code)->invoke(tc, code, inv_arg_callsite, tc->cur_frame->args);
}
else {
/* Need to set up special return hook. */
BoolMethReturnData *data = MVM_malloc(sizeof(BoolMethReturnData));
data->true_addr = true_addr;
data->false_addr = false_addr;
data->flip = flip;
tc->cur_frame->special_return = boolify_return;
tc->cur_frame->special_return_data = data;
MVM_args_setup_thunk(tc, &data->res_reg, MVM_RETURN_INT, inv_arg_callsite);
tc->cur_frame->args[0].o = obj;
STABLE(code)->invoke(tc, code, inv_arg_callsite, tc->cur_frame->args);
}
return;
}
case MVM_BOOL_MODE_UNBOX_INT:
result = !IS_CONCRETE(obj) || REPR(obj)->box_funcs.get_int(tc, STABLE(obj), obj, OBJECT_BODY(obj)) == 0 ? 0 : 1;
break;
case MVM_BOOL_MODE_UNBOX_NUM:
result = !IS_CONCRETE(obj) || REPR(obj)->box_funcs.get_num(tc, STABLE(obj), obj, OBJECT_BODY(obj)) == 0.0 ? 0 : 1;
break;
case MVM_BOOL_MODE_UNBOX_STR_NOT_EMPTY: {
MVMString *str;
if (!IS_CONCRETE(obj)) {
result = 0;
break;
}
str = REPR(obj)->box_funcs.get_str(tc, STABLE(obj), obj, OBJECT_BODY(obj));
result = MVM_coerce_istrue_s(tc, str);
break;
}
case MVM_BOOL_MODE_UNBOX_STR_NOT_EMPTY_OR_ZERO: {
MVMString *str;
MVMint64 chars;
if (!IS_CONCRETE(obj)) {
result = 0;
break;
}
str = REPR(obj)->box_funcs.get_str(tc, STABLE(obj), obj, OBJECT_BODY(obj));
if (str == NULL || !IS_CONCRETE(str)) {
result = 0;
break;
}
chars = MVM_string_graphs(tc, str);
result = chars == 0 ||
(chars == 1 && MVM_string_get_grapheme_at_nocheck(tc, str, 0) == 48)
? 0 : 1;
break;
}
case MVM_BOOL_MODE_NOT_TYPE_OBJECT:
result = !IS_CONCRETE(obj) ? 0 : 1;
break;
case MVM_BOOL_MODE_BIGINT:
result = IS_CONCRETE(obj) ? MVM_bigint_bool(tc, obj) : 0;
break;
case MVM_BOOL_MODE_ITER:
result = IS_CONCRETE(obj) ? MVM_iter_istrue(tc, (MVMIter *)obj) : 0;
break;
case MVM_BOOL_MODE_HAS_ELEMS:
result = IS_CONCRETE(obj) ? MVM_repr_elems(tc, obj) != 0 : 0;
break;
default:
MVM_exception_throw_adhoc(tc, "Invalid boolification spec mode used");
}
}
if (flip)
result = result ? 0 : 1;
if (res_reg) {
res_reg->i64 = result;
}
else {
if (result)
*(tc->interp_cur_op) = true_addr;
else
*(tc->interp_cur_op) = false_addr;
}
}
/* Locates all of the attributes. Puts them onto a flattened, ordered
* list of attributes (populating the passed flat_list). Also builds
* the index mapping for doing named lookups. Note index is not related
* to the storage position. */
static MVMObject * index_mapping_and_flat_list(MVMThreadContext *tc, MVMObject *mro, MVMCPPStructREPRData *repr_data) {
MVMInstance *instance = tc->instance;
MVMObject *flat_list, *class_list, *attr_map_list;
MVMint32 num_classes, i, current_slot = 0;
MVMCPPStructNameMap *result;
MVMint32 mro_idx = MVM_repr_elems(tc, mro);
MVM_gc_root_temp_push(tc, (MVMCollectable **)&mro);
flat_list = MVM_repr_alloc_init(tc, MVM_hll_current(tc)->slurpy_array_type);
MVM_gc_root_temp_push(tc, (MVMCollectable **)&flat_list);
class_list = MVM_repr_alloc_init(tc, MVM_hll_current(tc)->slurpy_array_type);
MVM_gc_root_temp_push(tc, (MVMCollectable **)&class_list);
attr_map_list = MVM_repr_alloc_init(tc, MVM_hll_current(tc)->slurpy_array_type);
MVM_gc_root_temp_push(tc, (MVMCollectable **)&attr_map_list);
/* Walk through the parents list. */
while (mro_idx)
{
/* Get current class in MRO. */
MVMObject *type_info = MVM_repr_at_pos_o(tc, mro, --mro_idx);
MVMObject *current_class = MVM_repr_at_pos_o(tc, type_info, 0);
/* Get its local parents; make sure we're not doing MI. */
MVMObject *parents = MVM_repr_at_pos_o(tc, type_info, 2);
MVMint32 num_parents = MVM_repr_elems(tc, parents);
if (num_parents <= 1) {
/* Get attributes and iterate over them. */
MVMObject *attributes = MVM_repr_at_pos_o(tc, type_info, 1);
MVMIter * const attr_iter = (MVMIter *)MVM_iter(tc, attributes);
MVMObject *attr_map = NULL;
if (MVM_iter_istrue(tc, attr_iter)) {
MVM_gc_root_temp_push(tc, (MVMCollectable **)&attr_iter);
attr_map = MVM_repr_alloc_init(tc, MVM_hll_current(tc)->slurpy_hash_type);
MVM_gc_root_temp_push(tc, (MVMCollectable **)&attr_map);
}
while (MVM_iter_istrue(tc, attr_iter)) {
MVMObject *current_slot_obj = MVM_repr_box_int(tc, MVM_hll_current(tc)->int_box_type, current_slot);
MVMObject *attr, *name_obj;
MVMString *name;
MVM_repr_shift_o(tc, (MVMObject *)attr_iter);
/* Get attribute. */
attr = MVM_iterval(tc, attr_iter);
/* Get its name. */
name_obj = MVM_repr_at_key_o(tc, attr, instance->str_consts.name);
name = MVM_repr_get_str(tc, name_obj);
MVM_repr_bind_key_o(tc, attr_map, name, current_slot_obj);
current_slot++;
/* Push attr onto the flat list. */
MVM_repr_push_o(tc, flat_list, attr);
}
if (attr_map) {
MVM_gc_root_temp_pop_n(tc, 2);
}
/* Add to class list and map list. */
MVM_repr_push_o(tc, class_list, current_class);
MVM_repr_push_o(tc, attr_map_list, attr_map);
}
else {
MVM_exception_throw_adhoc(tc,
"CPPStruct representation does not support multiple inheritance");
}
}
MVM_gc_root_temp_pop_n(tc, 4);
/* We can now form the name map. */
num_classes = MVM_repr_elems(tc, class_list);
result = (MVMCPPStructNameMap *) MVM_malloc(sizeof(MVMCPPStructNameMap) * (1 + num_classes));
for (i = 0; i < num_classes; i++) {
result[i].class_key = MVM_repr_at_pos_o(tc, class_list, i);
result[i].name_map = MVM_repr_at_pos_o(tc, attr_map_list, i);
}
/* set the end to be NULL, it's useful for iteration. */
result[i].class_key = NULL;
repr_data->name_to_index_mapping = result;
return flat_list;
}
static void * unmarshal_callback(MVMThreadContext *tc, MVMObject *callback, MVMObject *sig_info) {
MVMNativeCallbackCacheHead *callback_data_head = NULL;
MVMNativeCallback **callback_data_handle;
MVMString *cuid;
if (!IS_CONCRETE(callback))
return NULL;
/* Try to locate existing cached callback info. */
callback = MVM_frame_find_invokee(tc, callback, NULL);
cuid = ((MVMCode *)callback)->body.sf->body.cuuid;
MVM_string_flatten(tc, cuid);
MVM_HASH_GET(tc, tc->native_callback_cache, cuid, callback_data_head);
if (!callback_data_head) {
callback_data_head = MVM_malloc(sizeof(MVMNativeCallbackCacheHead));
callback_data_head->head = NULL;
MVM_HASH_BIND(tc, tc->native_callback_cache, cuid, callback_data_head);
}
callback_data_handle = &(callback_data_head->head);
while (*callback_data_handle) {
if ((*callback_data_handle)->target == callback) /* found it, break */
break;
callback_data_handle = &((*callback_data_handle)->next);
}
if (!*callback_data_handle) {
/* First, build the MVMNativeCallback */
MVMCallsite *cs;
char *signature;
MVMObject *typehash;
MVMint64 num_info, i;
MVMNativeCallback *callback_data;
num_info = MVM_repr_elems(tc, sig_info);
callback_data = MVM_malloc(sizeof(MVMNativeCallback));
callback_data->num_types = num_info;
callback_data->typeinfos = MVM_malloc(num_info * sizeof(MVMint16));
callback_data->types = MVM_malloc(num_info * sizeof(MVMObject *));
callback_data->next = NULL;
/* A dyncall signature looks like this: xxx)x
* Argument types before the ) and return type after it. Thus,
* num_info+1 must be NULL (zero-terminated string) and num_info-1
* must be the ).
*/
signature = MVM_malloc(num_info + 2);
signature[num_info + 1] = '\0';
signature[num_info - 1] = ')';
/* We'll also build up a MoarVM callsite as we go. */
cs = MVM_malloc(sizeof(MVMCallsite));
cs->arg_flags = MVM_malloc(num_info * sizeof(MVMCallsiteEntry));
cs->arg_count = num_info - 1;
cs->num_pos = num_info - 1;
cs->has_flattening = 0;
cs->is_interned = 0;
cs->with_invocant = NULL;
typehash = MVM_repr_at_pos_o(tc, sig_info, 0);
callback_data->types[0] = MVM_repr_at_key_o(tc, typehash,
tc->instance->str_consts.typeobj);
callback_data->typeinfos[0] = MVM_nativecall_get_arg_type(tc, typehash, 1);
signature[num_info] = get_signature_char(callback_data->typeinfos[0]);
for (i = 1; i < num_info; i++) {
typehash = MVM_repr_at_pos_o(tc, sig_info, i);
callback_data->types[i] = MVM_repr_at_key_o(tc, typehash,
tc->instance->str_consts.typeobj);
callback_data->typeinfos[i] = MVM_nativecall_get_arg_type(tc, typehash, 0) & ~MVM_NATIVECALL_ARG_FREE_STR;
signature[i - 1] = get_signature_char(callback_data->typeinfos[i]);
switch (callback_data->typeinfos[i] & MVM_NATIVECALL_ARG_TYPE_MASK) {
case MVM_NATIVECALL_ARG_CHAR:
case MVM_NATIVECALL_ARG_SHORT:
case MVM_NATIVECALL_ARG_INT:
case MVM_NATIVECALL_ARG_LONG:
case MVM_NATIVECALL_ARG_LONGLONG:
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_INT;
break;
case MVM_NATIVECALL_ARG_UCHAR:
case MVM_NATIVECALL_ARG_USHORT:
case MVM_NATIVECALL_ARG_UINT:
case MVM_NATIVECALL_ARG_ULONG:
case MVM_NATIVECALL_ARG_ULONGLONG:
/* TODO: should probably be UINT, when we can support that. */
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_INT;
break;
case MVM_NATIVECALL_ARG_FLOAT:
case MVM_NATIVECALL_ARG_DOUBLE:
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_NUM;
break;
default:
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_OBJ;
break;
}
}
MVM_callsite_try_intern(tc, &cs);
callback_data->tc = tc;
callback_data->cs = cs;
callback_data->target = callback;
callback_data->cb = dcbNewCallback(signature, (DCCallbackHandler *)&callback_handler, callback_data);
/* Now insert the MVMCallback into the linked list. */
*callback_data_handle = callback_data;
MVM_free(signature);
}
return (*callback_data_handle)->cb;
}
static void * unmarshal_callback(MVMThreadContext *tc, MVMObject *callback, MVMObject *sig_info) {
MVMNativeCallbackCacheHead *callback_data_head = NULL;
MVMNativeCallback **callback_data_handle;
MVMString *cuid;
if (!IS_CONCRETE(callback))
return NULL;
/* Try to locate existing cached callback info. */
callback = MVM_frame_find_invokee(tc, callback, NULL);
cuid = ((MVMCode *)callback)->body.sf->body.cuuid;
MVM_HASH_GET(tc, tc->native_callback_cache, cuid, callback_data_head);
if (!callback_data_head) {
callback_data_head = MVM_malloc(sizeof(MVMNativeCallbackCacheHead));
callback_data_head->head = NULL;
MVM_HASH_BIND(tc, tc->native_callback_cache, cuid, callback_data_head);
}
callback_data_handle = &(callback_data_head->head);
while (*callback_data_handle) {
if ((*callback_data_handle)->target == callback) /* found it, break */
break;
callback_data_handle = &((*callback_data_handle)->next);
}
if (!*callback_data_handle) {
/* First, build the MVMNativeCallback */
MVMCallsite *cs;
MVMObject *typehash;
MVMint64 num_info, i;
MVMNativeCallback *callback_data;
/* cb is a piece of executable memory we obtain from libffi. */
void *cb;
ffi_cif *cif;
ffi_closure *closure;
ffi_status status;
num_info = MVM_repr_elems(tc, sig_info);
/* We'll also build up a MoarVM callsite as we go. */
cs = MVM_calloc(1, sizeof(MVMCallsite));
cs->flag_count = num_info - 1;
cs->arg_flags = MVM_malloc(cs->flag_count * sizeof(MVMCallsiteEntry));
cs->arg_count = num_info - 1;
cs->num_pos = num_info - 1;
cs->has_flattening = 0;
cs->is_interned = 0;
cs->with_invocant = NULL;
callback_data = MVM_malloc(sizeof(MVMNativeCallback));
callback_data->num_types = num_info;
callback_data->typeinfos = MVM_malloc(num_info * sizeof(MVMint16));
callback_data->types = MVM_malloc(num_info * sizeof(MVMObject *));
callback_data->next = NULL;
cif = (ffi_cif *)MVM_malloc(sizeof(ffi_cif));
callback_data->convention = FFI_DEFAULT_ABI;
callback_data->ffi_arg_types = MVM_malloc(sizeof(ffi_type *) * (cs->arg_count ? cs->arg_count : 1));
/* Collect information about the return type. */
typehash = MVM_repr_at_pos_o(tc, sig_info, 0);
callback_data->types[0] = MVM_repr_at_key_o(tc, typehash, tc->instance->str_consts.typeobj);
callback_data->typeinfos[0] = MVM_nativecall_get_arg_type(tc, typehash, 1);
callback_data->ffi_ret_type = MVM_nativecall_get_ffi_type(tc, callback_data->typeinfos[0]);
for (i = 1; i < num_info; i++) {
typehash = MVM_repr_at_pos_o(tc, sig_info, i);
callback_data->types[i] = MVM_repr_at_key_o(tc, typehash, tc->instance->str_consts.typeobj);
callback_data->typeinfos[i] = MVM_nativecall_get_arg_type(tc, typehash, 0) & ~MVM_NATIVECALL_ARG_FREE_STR;
callback_data->ffi_arg_types[i - 1] = MVM_nativecall_get_ffi_type(tc, callback_data->typeinfos[i]);
switch (callback_data->typeinfos[i] & MVM_NATIVECALL_ARG_TYPE_MASK) {
case MVM_NATIVECALL_ARG_CHAR:
case MVM_NATIVECALL_ARG_SHORT:
case MVM_NATIVECALL_ARG_INT:
case MVM_NATIVECALL_ARG_LONG:
case MVM_NATIVECALL_ARG_LONGLONG:
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_INT;
break;
case MVM_NATIVECALL_ARG_UCHAR:
case MVM_NATIVECALL_ARG_USHORT:
case MVM_NATIVECALL_ARG_UINT:
case MVM_NATIVECALL_ARG_ULONG:
case MVM_NATIVECALL_ARG_ULONGLONG:
/* TODO: should probably be UINT, when we can support that. */
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_INT;
break;
case MVM_NATIVECALL_ARG_FLOAT:
case MVM_NATIVECALL_ARG_DOUBLE:
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_NUM;
break;
default:
cs->arg_flags[i - 1] = MVM_CALLSITE_ARG_OBJ;
break;
}
}
MVM_callsite_try_intern(tc, &cs);
callback_data->instance = tc->instance;
callback_data->cs = cs;
callback_data->target = callback;
status = ffi_prep_cif(cif, callback_data->convention, (unsigned int)cs->arg_count,
callback_data->ffi_ret_type, callback_data->ffi_arg_types);
closure = ffi_closure_alloc(sizeof(ffi_closure), &cb);
if (!closure)
MVM_panic(1, "Unable to allocate memory for callback closure");
ffi_prep_closure_loc(closure, cif, callback_handler, callback_data, cb);
callback_data->cb = cb;
/* Now insert the MVMCallback into the linked list. */
*callback_data_handle = callback_data;
}
return (*callback_data_handle)->cb;
}
MVMint64 MVM_proc_spawn(MVMThreadContext *tc, MVMObject *argv, MVMString *cwd, MVMObject *env,
MVMObject *in, MVMObject *out, MVMObject *err, MVMint64 flags) {
MVMint64 result = 0, spawn_result;
uv_process_t *process = MVM_calloc(1, sizeof(uv_process_t));
uv_process_options_t process_options = {0};
uv_stdio_container_t process_stdio[3];
int i;
char * const _cwd = MVM_string_utf8_c8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
MVMIter * const iter = (MVMIter *)MVM_iter(tc, env);
char **_env = MVM_malloc((size + 1) * sizeof(char *));
const MVMuint64 arg_size = MVM_repr_elems(tc, argv);
char **args = MVM_malloc((arg_size + 1) * sizeof(char *));
MVMRegister reg;
i = 0;
while(i < arg_size) {
REPR(argv)->pos_funcs.at_pos(tc, STABLE(argv), argv, OBJECT_BODY(argv), i, ®, MVM_reg_obj);
args[i++] = MVM_string_utf8_c8_encode_C_string(tc, MVM_repr_get_str(tc, reg.o));
}
args[arg_size] = NULL;
INIT_ENV();
setup_process_stdio(tc, in, process, &process_stdio[0], 0, flags, "spawn");
setup_process_stdio(tc, out, process, &process_stdio[1], 1, flags >> 3, "spawn");
setup_process_stdio(tc, err, process, &process_stdio[2], 2, flags >> 6, "spawn");
process_options.stdio = process_stdio;
process_options.file = arg_size ? args[0] : NULL;
process_options.args = args;
process_options.cwd = _cwd;
process_options.flags = UV_PROCESS_WINDOWS_HIDE;
process_options.env = _env;
process_options.stdio_count = 3;
process_options.exit_cb = spawn_on_exit;
if (flags & (MVM_PIPE_CAPTURE_IN | MVM_PIPE_CAPTURE_OUT | MVM_PIPE_CAPTURE_ERR)) {
process->data = MVM_calloc(1, sizeof(MVMint64));
uv_ref((uv_handle_t *)process);
spawn_result = uv_spawn(tc->loop, process, &process_options);
if (spawn_result)
result = spawn_result;
}
else {
process->data = &result;
uv_ref((uv_handle_t *)process);
spawn_result = uv_spawn(tc->loop, process, &process_options);
if (spawn_result)
result = spawn_result;
else
uv_run(tc->loop, UV_RUN_DEFAULT);
}
FREE_ENV();
MVM_free(_cwd);
uv_unref((uv_handle_t *)process);
i = 0;
while(args[i])
MVM_free(args[i++]);
MVM_free(args);
return result;
}
MVMint64 MVM_proc_shell(MVMThreadContext *tc, MVMString *cmd, MVMString *cwd, MVMObject *env,
MVMObject *in, MVMObject *out, MVMObject *err, MVMint64 flags) {
MVMint64 result = 0, spawn_result;
uv_process_t *process = MVM_calloc(1, sizeof(uv_process_t));
uv_process_options_t process_options = {0};
uv_stdio_container_t process_stdio[3];
int i;
char * const cmdin = MVM_string_utf8_c8_encode_C_string(tc, cmd);
char * const _cwd = MVM_string_utf8_c8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
MVMIter * const iter = (MVMIter *)MVM_iter(tc, env);
char **_env = MVM_malloc((size + 1) * sizeof(char *));
#ifdef _WIN32
const MVMuint16 acp = GetACP(); /* We should get ACP at runtime. */
char * const _cmd = ANSIToUTF8(acp, getenv("ComSpec"));
char *args[3];
args[0] = "/c";
args[1] = cmdin;
args[2] = NULL;
#else
char * const _cmd = "/bin/sh";
char *args[4];
args[0] = "/bin/sh";
args[1] = "-c";
args[2] = cmdin;
args[3] = NULL;
#endif
INIT_ENV();
setup_process_stdio(tc, in, process, &process_stdio[0], 0, flags, "shell");
setup_process_stdio(tc, out, process, &process_stdio[1], 1, flags >> 3, "shell");
setup_process_stdio(tc, err, process, &process_stdio[2], 2, flags >> 6, "shell");
process_options.stdio = process_stdio;
process_options.file = _cmd;
process_options.args = args;
process_options.cwd = _cwd;
process_options.flags = UV_PROCESS_WINDOWS_VERBATIM_ARGUMENTS | UV_PROCESS_WINDOWS_HIDE;
process_options.env = _env;
process_options.stdio_count = 3;
process_options.exit_cb = spawn_on_exit;
if (flags & (MVM_PIPE_CAPTURE_IN | MVM_PIPE_CAPTURE_OUT | MVM_PIPE_CAPTURE_ERR)) {
process->data = MVM_calloc(1, sizeof(MVMint64));
uv_ref((uv_handle_t *)process);
spawn_result = uv_spawn(tc->loop, process, &process_options);
if (spawn_result)
result = spawn_result;
}
else {
process->data = &result;
uv_ref((uv_handle_t *)process);
spawn_result = uv_spawn(tc->loop, process, &process_options);
if (spawn_result)
result = spawn_result;
else
uv_run(tc->loop, UV_RUN_DEFAULT);
}
FREE_ENV();
MVM_free(_cwd);
#ifdef _WIN32
MVM_free(_cmd);
#endif
MVM_free(cmdin);
uv_unref((uv_handle_t *)process);
return result;
}
/* This works out an allocation strategy for the object. It takes care of
* "inlining" storage of attributes that are natively typed, as well as
* noting unbox targets. */
static void compute_allocation_strategy(MVMThreadContext *tc, MVMObject *repr_info, MVMCStructREPRData *repr_data) {
/* Compute index mapping table and get flat list of attributes. */
MVMObject *flat_list = index_mapping_and_flat_list(tc, repr_info, repr_data);
/* If we have no attributes in the index mapping, then just the header. */
if (repr_data->name_to_index_mapping[0].class_key == NULL) {
repr_data->struct_size = 1; /* avoid 0-byte malloc */
}
/* Otherwise, we need to compute the allocation strategy. */
else {
/* We track the size of the struct, which is what we'll want offsets into. */
MVMint32 cur_size = 0;
/* The structure itself will be the multiple of its biggest element in size.
* So we keep track of that biggest element. */
MVMint32 multiple_of = 1;
/* Get number of attributes and set up various counters. */
MVMint32 num_attrs = MVM_repr_elems(tc, flat_list);
MVMint32 info_alloc = num_attrs == 0 ? 1 : num_attrs;
MVMint32 cur_obj_attr = 0;
MVMint32 cur_init_slot = 0;
MVMint32 i;
/* Allocate location/offset arrays and GC mark info arrays. */
repr_data->num_attributes = num_attrs;
repr_data->attribute_locations = (MVMint32 *) MVM_malloc(info_alloc * sizeof(MVMint32));
repr_data->struct_offsets = (MVMint32 *) MVM_malloc(info_alloc * sizeof(MVMint32));
repr_data->flattened_stables = (MVMSTable **) MVM_calloc(info_alloc, sizeof(MVMObject *));
repr_data->member_types = (MVMObject **) MVM_calloc(info_alloc, sizeof(MVMObject *));
/* Go over the attributes and arrange their allocation. */
for (i = 0; i < num_attrs; i++) {
/* Fetch its type; see if it's some kind of unboxed type. */
MVMObject *attr = MVM_repr_at_pos_o(tc, flat_list, i);
MVMObject *type = MVM_repr_at_key_o(tc, attr, tc->instance->str_consts.type);
MVMObject *inlined_val = MVM_repr_at_key_o(tc, attr, tc->instance->str_consts.inlined);
MVMint64 inlined = !MVM_is_null(tc, inlined_val) && MVM_repr_get_int(tc, inlined_val);
MVMint32 bits = sizeof(void *) * 8;
MVMint32 align = ALIGNOF(void *);
if (!MVM_is_null(tc, type)) {
/* See if it's a type that we know how to handle in a C struct. */
const MVMStorageSpec *spec = REPR(type)->get_storage_spec(tc, STABLE(type));
MVMint32 type_id = REPR(type)->ID;
if (spec->inlineable == MVM_STORAGE_SPEC_INLINED &&
(spec->boxed_primitive == MVM_STORAGE_SPEC_BP_INT ||
spec->boxed_primitive == MVM_STORAGE_SPEC_BP_NUM)) {
/* It's a boxed int or num; pretty easy. It'll just live in the
* body of the struct. Instead of masking in i here (which
* would be the parallel to how we handle boxed types) we
* repurpose it to store the bit-width of the type, so
* that get_attribute_ref can find it later. */
bits = spec->bits;
align = spec->align;
repr_data->attribute_locations[i] = (bits << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_IN_STRUCT;
repr_data->flattened_stables[i] = STABLE(type);
if (REPR(type)->initialize) {
if (!repr_data->initialize_slots)
repr_data->initialize_slots = (MVMint32 *) MVM_calloc(info_alloc + 1, sizeof(MVMint32));
repr_data->initialize_slots[cur_init_slot] = i;
cur_init_slot++;
}
}
else if (spec->can_box & MVM_STORAGE_SPEC_CAN_BOX_STR) {
/* It's a string of some kind. */
repr_data->num_child_objs++;
repr_data->attribute_locations[i] = (cur_obj_attr++ << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_STRING;
repr_data->member_types[i] = type;
repr_data->flattened_stables[i] = STABLE(type);
if (REPR(type)->initialize) {
if (!repr_data->initialize_slots)
repr_data->initialize_slots = (MVMint32 *) MVM_calloc(info_alloc + 1, sizeof(MVMint32));
repr_data->initialize_slots[cur_init_slot] = i;
cur_init_slot++;
}
}
else if (type_id == MVM_REPR_ID_MVMCArray) {
/* It's a CArray of some kind. */
repr_data->num_child_objs++;
repr_data->attribute_locations[i] = (cur_obj_attr++ << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_CARRAY;
repr_data->member_types[i] = type;
}
else if (type_id == MVM_REPR_ID_MVMCStruct) {
/* It's a CStruct. */
repr_data->num_child_objs++;
repr_data->attribute_locations[i] = (cur_obj_attr++ << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_CSTRUCT;
repr_data->member_types[i] = type;
if (inlined) {
MVMCStructREPRData *cstruct_repr_data = (MVMCStructREPRData *)STABLE(type)->REPR_data;
bits = cstruct_repr_data->struct_size * 8;
align = cstruct_repr_data->struct_size;
repr_data->attribute_locations[i] |= MVM_CSTRUCT_ATTR_INLINED;
}
}
else if (type_id == MVM_REPR_ID_MVMCPPStruct) {
/* It's a CPPStruct. */
repr_data->num_child_objs++;
repr_data->attribute_locations[i] = (cur_obj_attr++ << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_CPPSTRUCT;
repr_data->member_types[i] = type;
if (inlined) {
MVMCPPStructREPRData *cppstruct_repr_data = (MVMCPPStructREPRData *)STABLE(type)->REPR_data;
bits = cppstruct_repr_data->struct_size * 8;
align = cppstruct_repr_data->struct_size;
repr_data->attribute_locations[i] |= MVM_CSTRUCT_ATTR_INLINED;
}
}
else if (type_id == MVM_REPR_ID_MVMCUnion) {
/* It's a CUnion. */
repr_data->num_child_objs++;
repr_data->attribute_locations[i] = (cur_obj_attr++ << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_CUNION;
repr_data->member_types[i] = type;
if (inlined) {
MVMCUnionREPRData *cunion_repr_data = (MVMCUnionREPRData *)STABLE(type)->REPR_data;
bits = cunion_repr_data->struct_size * 8;
align = cunion_repr_data->struct_size;
repr_data->attribute_locations[i] |= MVM_CSTRUCT_ATTR_INLINED;
}
}
else if (type_id == MVM_REPR_ID_MVMCPointer) {
/* It's a CPointer. */
repr_data->num_child_objs++;
repr_data->attribute_locations[i] = (cur_obj_attr++ << MVM_CSTRUCT_ATTR_SHIFT) | MVM_CSTRUCT_ATTR_CPTR;
repr_data->member_types[i] = type;
}
else {
MVM_exception_throw_adhoc(tc,
"CStruct representation only handles int, num, CArray, CPointer, CStruct, CPPStruct and CUnion");
}
}
else {
MVM_exception_throw_adhoc(tc,
"CStruct representation requires the types of all attributes to be specified");
}
if (bits % 8) {
MVM_exception_throw_adhoc(tc,
"CStruct only supports native types that are a multiple of 8 bits wide (was passed: %"PRId32")", bits);
}
/* Do allocation. */
/* C structure needs careful alignment. If cur_size is not aligned
* to align bytes (cur_size % align), make sure it is before we
* add the next element. */
if (cur_size % align) {
cur_size += align - cur_size % align;
}
repr_data->struct_offsets[i] = cur_size;
cur_size += bits / 8;
if (bits / 8 > multiple_of)
multiple_of = bits / 8;
}
/* Finally, put computed allocation size in place; it's body size plus
* header size. Also number of markables and sentinels. */
if (multiple_of > sizeof(void *))
multiple_of = sizeof(void *);
repr_data->struct_size = ceil((double)cur_size / (double)multiple_of) * multiple_of;
if (repr_data->initialize_slots)
repr_data->initialize_slots[cur_init_slot] = -1;
}
}
/* Enters the work loop. */
static void worker(MVMThreadContext *tc, MVMCallsite *callsite, MVMRegister *args) {
MVMObject *updated_static_frames = MVM_repr_alloc_init(tc,
tc->instance->boot_types.BOOTArray);
MVMObject *previous_static_frames = MVM_repr_alloc_init(tc,
tc->instance->boot_types.BOOTArray);
tc->instance->speshworker_thread_id = tc->thread_obj->body.thread_id;
MVMROOT2(tc, updated_static_frames, previous_static_frames, {
while (1) {
MVMObject *log_obj;
MVMuint64 start_time;
unsigned int interval_id;
if (MVM_spesh_debug_enabled(tc))
start_time = uv_hrtime();
log_obj = MVM_repr_shift_o(tc, tc->instance->spesh_queue);
if (MVM_spesh_debug_enabled(tc)) {
MVM_spesh_debug_printf(tc,
"Received Logs\n"
"=============\n\n"
"Was waiting %dus for logs on the log queue.\n\n",
(int)((uv_hrtime() - start_time) / 1000));
}
if (tc->instance->main_thread->prof_data)
MVM_profiler_log_spesh_start(tc);
interval_id = MVM_telemetry_interval_start(tc, "spesh worker consuming a log");
uv_mutex_lock(&(tc->instance->mutex_spesh_sync));
tc->instance->spesh_working = 1;
uv_mutex_unlock(&(tc->instance->mutex_spesh_sync));
tc->instance->spesh_stats_version++;
if (log_obj->st->REPR->ID == MVM_REPR_ID_MVMSpeshLog) {
MVMSpeshLog *sl = (MVMSpeshLog *)log_obj;
MVM_telemetry_interval_annotate((uintptr_t)sl->body.thread->body.tc, interval_id, "from this thread");
MVMROOT(tc, sl, {
MVMThreadContext *stc;
MVMuint32 i;
MVMuint32 n;
/* Update stats, and if we're logging dump each of them. */
tc->instance->spesh_stats_version++;
if (MVM_spesh_debug_enabled(tc))
start_time = uv_hrtime();
MVM_spesh_stats_update(tc, sl, updated_static_frames);
n = MVM_repr_elems(tc, updated_static_frames);
if (MVM_spesh_debug_enabled(tc)) {
MVM_spesh_debug_printf(tc,
"Statistics Updated\n"
"==================\n"
"%d frames had their statistics updated in %dus.\n\n",
(int)n, (int)((uv_hrtime() - start_time) / 1000));
for (i = 0; i < n; i++) {
char *dump = MVM_spesh_dump_stats(tc, (MVMStaticFrame* )
MVM_repr_at_pos_o(tc, updated_static_frames, i));
MVM_spesh_debug_printf(tc, "%s==========\n\n", dump);
MVM_free(dump);
}
}
MVM_telemetry_interval_annotate((uintptr_t)n, interval_id, "stats for this many frames");
GC_SYNC_POINT(tc);
/* Form a specialization plan. */
if (MVM_spesh_debug_enabled(tc))
start_time = uv_hrtime();
tc->instance->spesh_plan = MVM_spesh_plan(tc, updated_static_frames);
if (MVM_spesh_debug_enabled(tc)) {
n = tc->instance->spesh_plan->num_planned;
MVM_spesh_debug_printf(tc,
"Specialization Plan\n"
"===================\n"
"%u specialization(s) will be produced (planned in %dus).\n\n",
n, (int)((uv_hrtime() - start_time) / 1000));
for (i = 0; i < n; i++) {
char *dump = MVM_spesh_dump_planned(tc,
&(tc->instance->spesh_plan->planned[i]));
MVM_spesh_debug_printf(tc, "%s==========\n\n", dump);
MVM_free(dump);
}
}
MVM_telemetry_interval_annotate((uintptr_t)tc->instance->spesh_plan->num_planned, interval_id,
"this many specializations planned");
GC_SYNC_POINT(tc);
/* Implement the plan and then discard it. */
n = tc->instance->spesh_plan->num_planned;
for (i = 0; i < n; i++) {
MVM_spesh_candidate_add(tc, &(tc->instance->spesh_plan->planned[i]));
GC_SYNC_POINT(tc);
}
MVM_spesh_plan_destroy(tc, tc->instance->spesh_plan);
tc->instance->spesh_plan = NULL;
/* Clear up stats that didn't get updated for a while,
* then add frames updated this time into the previously
* updated array. */
MVM_spesh_stats_cleanup(tc, previous_static_frames);
n = MVM_repr_elems(tc, updated_static_frames);
for (i = 0; i < n; i++)
MVM_repr_push_o(tc, previous_static_frames,
MVM_repr_at_pos_o(tc, updated_static_frames, i));
/* Clear updated static frames array. */
MVM_repr_pos_set_elems(tc, updated_static_frames, 0);
/* Allow the sending thread to produce more logs again,
* putting a new spesh log in place if needed. */
stc = sl->body.thread->body.tc;
if (stc && !sl->body.was_compunit_bumped)
if (MVM_incr(&(stc->spesh_log_quota)) == 0) {
stc->spesh_log = MVM_spesh_log_create(tc, sl->body.thread);
MVM_telemetry_timestamp(stc, "logging restored after quota had run out");
}
/* If needed, signal sending thread that it can continue. */
if (sl->body.block_mutex) {
uv_mutex_lock(sl->body.block_mutex);
MVM_store(&(sl->body.completed), 1);
uv_cond_signal(sl->body.block_condvar);
uv_mutex_unlock(sl->body.block_mutex);
}
{
MVMSpeshLogEntry *entries = sl->body.entries;
sl->body.entries = NULL;
MVM_free(entries);
}
});
}
else if (MVM_is_null(tc, log_obj)) {
MVMObject * MVM_file_openpipe(MVMThreadContext *tc, MVMString *cmd, MVMString *cwd, MVMObject *env, MVMString *err_path) {
MVMint64 spawn_result = 0;
uv_process_t *process = calloc(1, sizeof(uv_process_t));
uv_process_options_t process_options = {0};
uv_stdio_container_t process_stdio[3];
int i;
int status;
int readable = 1;
uv_pipe_t *out, *in;
char * const cmdin = MVM_string_utf8_encode_C_string(tc, cmd);
char * const _cwd = MVM_string_utf8_encode_C_string(tc, cwd);
const MVMuint64 size = MVM_repr_elems(tc, env);
MVMIter * const iter = (MVMIter *)MVM_iter(tc, env);
char **_env = malloc((size + 1) * sizeof(char *));
#ifdef _WIN32
const MVMuint16 acp = GetACP(); /* We should get ACP at runtime. */
char * const _cmd = ANSIToUTF8(acp, getenv("ComSpec"));
char *args[3];
args[0] = "/c";
{
MVMint64 len = strlen(cmdin);
MVMint64 i;
for (i = 0; i < len; i++)
if (cmdin[i] == '/')
cmdin[i] = '\\';
}
args[1] = cmdin;
args[2] = NULL;
#else
char * const _cmd = "/bin/sh";
char *args[4];
args[0] = "/bin/sh";
args[1] = "-c";
args[2] = cmdin;
args[3] = NULL;
#endif
INIT_ENV();
/* Making openpipe distinguish between :rp and :wp and all other options
* is left as an excercise for the reader.
readable = strncmp(cmdin, "/usr/bin/wc", 11) != 0; */
if (readable) {
/* We want to read from the child's stdout. */
out = malloc(sizeof(uv_pipe_t));
uv_pipe_init(tc->loop, out, 0);
uv_pipe_open(out, 0);
process_stdio[0].flags = UV_INHERIT_FD; // child's stdin
process_stdio[0].data.fd = 0;
process_stdio[1].flags = UV_CREATE_PIPE | UV_WRITABLE_PIPE; // child's stdout
process_stdio[1].data.stream = (uv_stream_t*)out;
}
else {
/* We want to print to the child's stdin. */
in = malloc(sizeof(uv_pipe_t));
uv_pipe_init(tc->loop, in, 0);
uv_pipe_open(in, 1);
process_stdio[0].flags = UV_CREATE_PIPE | UV_READABLE_PIPE; // child's stdin
process_stdio[0].data.stream = (uv_stream_t*)in;
process_stdio[1].flags = UV_INHERIT_FD; // child's stdout
process_stdio[1].data.fd = 1;
}
process_stdio[2].flags = UV_INHERIT_FD; // child's stderr
process_stdio[2].data.fd = 2;
process_options.stdio = process_stdio;
process_options.file = _cmd;
process_options.args = args;
process_options.cwd = _cwd;
process_options.flags = UV_PROCESS_WINDOWS_VERBATIM_ARGUMENTS | UV_PROCESS_WINDOWS_HIDE;
process_options.env = _env;
process_options.stdio_count = 3;
process_options.exit_cb = spawn_on_exit;
uv_ref((uv_handle_t *)process);
spawn_result = uv_spawn(tc->loop, process, &process_options);
if (spawn_result) {
FREE_ENV();
free(_cwd);
free(cmdin);
uv_unref((uv_handle_t *)process);
MVM_exception_throw_adhoc(tc, "Failed to open pipe: %d", errno);
}
FREE_ENV();
free(_cwd);
free(cmdin);
uv_unref((uv_handle_t *)process);
return MVM_io_syncpipe(tc, (uv_stream_t *)(readable ? out : in), process);
}
void MVM_coerce_istrue(MVMThreadContext *tc, MVMObject *obj, MVMRegister *res_reg,
MVMuint8 *true_addr, MVMuint8 *false_addr, MVMuint8 flip) {
MVMint64 result;
if (obj == NULL) {
result = 0;
}
else {
MVMBoolificationSpec *bs = obj->st->boolification_spec;
switch (bs == NULL ? MVM_BOOL_MODE_NOT_TYPE_OBJECT : bs->mode) {
case MVM_BOOL_MODE_CALL_METHOD:
if (res_reg) {
/* We need to do the invocation, and set this register
* the result. Then we just do the call. For the flip
* case, just set up special return handler to flip
* the register. */
MVMObject *code = MVM_frame_find_invokee(tc, bs->method);
tc->cur_frame->return_value = res_reg;
tc->cur_frame->return_type = MVM_RETURN_INT;
tc->cur_frame->return_address = *(tc->interp_cur_op);
tc->cur_frame->args[0].o = obj;
if (flip) {
tc->cur_frame->special_return = flip_return;
tc->cur_frame->special_return_data = res_reg;
}
STABLE(code)->invoke(tc, code, get_inv_callsite(), tc->cur_frame->args);
}
else {
/* Need to set up special return hook. */
MVMObject *code = MVM_frame_find_invokee(tc, bs->method);
BoolMethReturnData *data = malloc(sizeof(BoolMethReturnData));
data->true_addr = true_addr;
data->false_addr = false_addr;
data->flip = flip;
tc->cur_frame->special_return = boolify_return;
tc->cur_frame->special_return_data = data;
tc->cur_frame->return_value = &data->res_reg;
tc->cur_frame->return_type = MVM_RETURN_INT;
tc->cur_frame->return_address = *(tc->interp_cur_op);
tc->cur_frame->args[0].o = obj;
STABLE(code)->invoke(tc, code, get_inv_callsite(), tc->cur_frame->args);
return;
}
break;
case MVM_BOOL_MODE_UNBOX_INT:
result = !IS_CONCRETE(obj) || REPR(obj)->box_funcs->get_int(tc, STABLE(obj), obj, OBJECT_BODY(obj)) == 0 ? 0 : 1;
break;
case MVM_BOOL_MODE_UNBOX_NUM:
result = !IS_CONCRETE(obj) || REPR(obj)->box_funcs->get_num(tc, STABLE(obj), obj, OBJECT_BODY(obj)) == 0.0 ? 0 : 1;
break;
case MVM_BOOL_MODE_UNBOX_STR_NOT_EMPTY:
result = !IS_CONCRETE(obj) || NUM_GRAPHS(REPR(obj)->box_funcs->get_str(tc, STABLE(obj), obj, OBJECT_BODY(obj))) == 0 ? 0 : 1;
break;
case MVM_BOOL_MODE_UNBOX_STR_NOT_EMPTY_OR_ZERO: {
MVMString *str;
if (!IS_CONCRETE(obj)) {
result = 0;
break;
}
str = REPR(obj)->box_funcs->get_str(tc, STABLE(obj), obj, OBJECT_BODY(obj));
result = MVM_coerce_istrue_s(tc, str);
break;
}
case MVM_BOOL_MODE_NOT_TYPE_OBJECT:
result = !IS_CONCRETE(obj) ? 0 : 1;
break;
case MVM_BOOL_MODE_ITER:
result = IS_CONCRETE(obj) ? MVM_iter_istrue(tc, (MVMIter *)obj) : 0;
break;
case MVM_BOOL_MODE_HAS_ELEMS:
result = IS_CONCRETE(obj) ? MVM_repr_elems(tc, obj) != 0 : 0;
break;
default:
MVM_exception_throw_adhoc(tc, "Invalid boolification spec mode used");
}
}
if (flip)
result = result ? 0 : 1;
if (res_reg) {
res_reg->i64 = result;
}
else {
if (result)
*(tc->interp_cur_op) = true_addr;
else
*(tc->interp_cur_op) = false_addr;
}
}
