unsigned dbg_snprint(char *buf, unsigned len, const dbg_info *dbg)
{
const source_position_t *pos = (const source_position_t*) dbg;
- if(pos == NULL)
+ if (pos == NULL)
return 0;
return (unsigned) snprintf(buf, len, "%s:%u", pos->input_name,
pos->linenr);
const char *dbg_retrieve(const dbg_info *dbg, unsigned *line)
{
const source_position_t *pos = (const source_position_t*) dbg;
- if(pos == NULL)
+ if (pos == NULL)
return NULL;
- if(line != NULL)
+ if (line != NULL)
*line = pos->linenr;
return pos->input_name;
}
{
unsigned flags = get_atomic_type_flags(kind);
unsigned size = get_atomic_type_size(kind);
- if( (flags & (ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_FLOAT))
+ if ( (flags & (ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_FLOAT))
&& !(flags & ATOMIC_TYPE_FLAG_COMPLEX)) {
char name[64];
ir_mode_sort sort;
ir_mode_arithmetic arithmetic;
unsigned modulo_shift;
- if(flags & ATOMIC_TYPE_FLAG_INTEGER) {
+ if (flags & ATOMIC_TYPE_FLAG_INTEGER) {
assert(! (flags & ATOMIC_TYPE_FLAG_FLOAT));
snprintf(name, sizeof(name), "i%s%d", is_signed?"":"u", bit_size);
sort = irms_int_number;
{
type = skip_typeref(type);
- if(is_type_array(type) && type->array.is_vla) {
+ if (is_type_array(type) && type->array.is_vla) {
ir_node *size_node = type->array.size_node;
- if(size_node == NULL) {
+ if (size_node == NULL) {
size_node = expression_to_firm(type->array.size_expression);
assert(!is_Const(size_node));
type->array.size_node = size_node;
const int align = get_type_alignment_bytes(ir_element_type);
set_type_alignment_bytes(ir_type, align);
- if(type->size_constant) {
+ if (type->size_constant) {
int n_elements = type->size;
set_array_bounds_int(ir_type, 0, 0, n_elements);
size_t elemsize = get_type_size_bytes(ir_element_type);
- if(elemsize % align > 0) {
+ if (elemsize % align > 0) {
elemsize += align - (elemsize % align);
}
set_type_size_bytes(ir_type, n_elements * elemsize);
unsigned size = fold_constant(type->size);
assert(!is_type_float(base));
- if(is_type_signed(base)) {
+ if (is_type_signed(base)) {
return get_signed_int_type_for_bit_size(irbase, size);
} else {
return get_unsigned_int_type_for_bit_size(irbase, size);
declaration_t *declaration = type->declaration;
declaration_kind_t kind = (declaration_kind_t)declaration->declaration_kind;
- if(kind == DECLARATION_KIND_COMPOUND_TYPE_COMPLETE
+ if (kind == DECLARATION_KIND_COMPOUND_TYPE_COMPLETE
|| (kind == DECLARATION_KIND_COMPOUND_TYPE_INCOMPLETE
&& incomplete))
return declaration->v.irtype;
size_t bit_offset = 0;
size_t size = 0;
- if(irtype == NULL) {
+ if (irtype == NULL) {
symbol_t *symbol = declaration->symbol;
ident *id;
- if(symbol != NULL) {
+ if (symbol != NULL) {
id = new_id_from_str(symbol->string);
} else {
if (is_union) {
align_all = *outer_align;
}
- if(incomplete)
+ if (incomplete)
return irtype;
declaration->declaration_kind = DECLARATION_KIND_COMPOUND_TYPE_COMPLETE;
declaration_t *entry = declaration->scope.declarations;
for( ; entry != NULL; entry = entry->next) {
- if(entry->namespc != NAMESPACE_NORMAL)
+ if (entry->namespc != NAMESPACE_NORMAL)
continue;
size_t prev_offset = offset;
dbg_info *dbgi = get_dbg_info(&entry->source_position);
ident *ident;
- if(symbol != NULL) {
+ if (symbol != NULL) {
ident = new_id_from_str(symbol->string);
} else {
- if(entry_type->kind == TYPE_COMPOUND_STRUCT) {
+ if (entry_type->kind == TYPE_COMPOUND_STRUCT) {
create_compound_type(&entry_type->compound, irtype, &offset,
&align_all, false, COMPOUND_IS_STRUCT);
goto finished_member;
- } else if(entry_type->kind == TYPE_COMPOUND_UNION) {
+ } else if (entry_type->kind == TYPE_COMPOUND_UNION) {
create_compound_type(&entry_type->compound, irtype, &offset,
&align_all, false, COMPOUND_IS_UNION);
goto finished_member;
}
ir_type *base_irtype;
- if(entry_type->kind == TYPE_BITFIELD) {
+ if (entry_type->kind == TYPE_BITFIELD) {
base_irtype = get_ir_type(entry_type->bitfield.base_type);
} else {
base_irtype = get_ir_type(entry_type);
size_t base;
size_t bits_remainder;
- if(entry_type->kind == TYPE_BITFIELD) {
+ if (entry_type->kind == TYPE_BITFIELD) {
size_t size_bits = fold_constant(entry_type->bitfield.size);
size_t rest_size_bits = (entry_alignment - misalign)*8 - bit_offset;
- if(size_bits > rest_size_bits) {
+ if (size_bits > rest_size_bits) {
/* start a new bucket */
offset += entry_alignment - misalign;
bit_offset = 0;
bit_offset = bit_offset + (size_bits % 8);
} else {
size_t entry_size = get_type_size_bytes(base_irtype);
- if(misalign > 0 || bit_offset > 0)
+ if (misalign > 0 || bit_offset > 0)
offset += entry_alignment - misalign;
base = offset;
bit_offset = 0;
}
- if(entry_alignment > align_all) {
- if(entry_alignment % align_all != 0) {
+ if (entry_alignment > align_all) {
+ if (entry_alignment % align_all != 0) {
panic("uneven alignments not supported yet");
}
align_all = entry_alignment;
}
size_t misalign = offset % align_all;
- if(misalign > 0 || bit_offset > 0) {
+ if (misalign > 0 || bit_offset > 0) {
size += align_all - misalign;
}
- if(outer_offset != NULL) {
+ if (outer_offset != NULL) {
if (!is_union) {
*outer_offset = offset;
} else {
}
if (align_all > *outer_align) {
- if(align_all % *outer_align != 0) {
+ if (align_all % *outer_align != 0) {
panic("uneven alignments not supported yet");
}
*outer_align = align_all;
case TYPE_INVALID:
break;
}
- if(firm_type == NULL)
+ if (firm_type == NULL)
panic("unknown type found");
type->base.firm_type = firm_type;
ir_type *irtype = get_ir_type(type);
/* firm doesn't report a mode for arrays somehow... */
- if(is_Array_type(irtype)) {
+ if (is_Array_type(irtype)) {
return mode_P_data;
}
*/
static ir_entity *get_function_entity(declaration_t *declaration)
{
- if(declaration->declaration_kind == DECLARATION_KIND_FUNCTION)
+ if (declaration->declaration_kind == DECLARATION_KIND_FUNCTION)
return declaration->v.entity;
assert(declaration->declaration_kind == DECLARATION_KIND_UNKNOWN);
char buf[128];
tarval *tv;
size_t len;
- if(mode_is_float(mode)) {
+ if (mode_is_float(mode)) {
tv = new_tarval_from_double(cnst->v.float_value, mode);
} else {
- if(mode_is_signed(mode)) {
+ if (mode_is_signed(mode)) {
len = snprintf(buf, sizeof(buf), "%lld", cnst->v.int_value);
} else {
len = snprintf(buf, sizeof(buf), "%llu",
ir_node *const load_mem = new_d_Proj(dbgi, load, mode_M, pn_Load_M);
ir_node *const load_res = new_d_Proj(dbgi, load, mode, pn_Load_res);
- if(type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
+ if (type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
set_Load_volatility(load, volatility_is_volatile);
}
if (value_mode == dest_mode || is_Bad(value))
return value;
- if(dest_mode == mode_b) {
+ if (dest_mode == mode_b) {
ir_node *zero = new_Const(value_mode, get_mode_null(value_mode));
ir_node *cmp = new_d_Cmp(dbgi, value, zero);
ir_node *proj = new_d_Proj(dbgi, cmp, mode_b, pn_Cmp_Lg);
switch(symbol->ID) {
case T___builtin_alloca: {
- if(call->arguments == NULL || call->arguments->next != NULL) {
+ if (call->arguments == NULL || call->arguments->next != NULL) {
panic("invalid number of parameters on __builtin_alloca");
}
expression_t *argument = call->arguments->expression;
assert(get_cur_block() != NULL);
expression_t *function = call->function;
- if(function->kind == EXPR_BUILTIN_SYMBOL) {
+ if (function->kind == EXPR_BUILTIN_SYMBOL) {
return process_builtin_call(call);
}
- if(function->kind == EXPR_REFERENCE) {
+ if (function->kind == EXPR_REFERENCE) {
const reference_expression_t *ref = &function->reference;
declaration_t *declaration = ref->declaration;
- if((declaration_kind_t)declaration->declaration_kind == DECLARATION_KIND_FUNCTION) {
+ if ((declaration_kind_t)declaration->declaration_kind == DECLARATION_KIND_FUNCTION) {
if (declaration->v.entity == rts_entities[rts_alloca]) {
/* handle alloca() call */
expression_t *argument = call->arguments->expression;
int n_parameters = 0;
ir_type *ir_method_type = get_ir_type((type_t*) function_type);
ir_type *new_method_type = NULL;
- if(function_type->variadic || function_type->unspecified_parameters) {
+ if (function_type->variadic || function_type->unspecified_parameters) {
const call_argument_t *argument = call->arguments;
for( ; argument != NULL; argument = argument->next) {
++n_parameters;
type_t *return_type = skip_typeref(function_type->return_type);
ir_node *result = NULL;
- if(!is_type_atomic(return_type, ATOMIC_TYPE_VOID)) {
+ if (!is_type_atomic(return_type, ATOMIC_TYPE_VOID)) {
ir_mode *mode;
- if(is_type_scalar(return_type)) {
+ if (is_type_scalar(return_type)) {
mode = get_ir_mode(return_type);
} else {
mode = mode_P_data;
ir_node *memory = get_store();
- if(is_type_scalar(type)) {
+ if (is_type_scalar(type)) {
ir_node *store = new_d_Store(dbgi, memory, addr, value);
ir_node *store_mem = new_d_Proj(dbgi, store, mode_M, pn_Store_M);
- if(type->base.qualifiers & TYPE_QUALIFIER_VOLATILE)
+ if (type->base.qualifiers & TYPE_QUALIFIER_VOLATILE)
set_Store_volatility(store, volatility_is_volatile);
set_store(store_mem);
} else {
assert(offset >= 0 && size >= 0);
assert(offset + size <= mode_size);
- if(size == mode_size) {
+ if (size == mode_size) {
return all_one;
}
ir_node *store_mem = new_d_Proj(dbgi, store, mode_M, pn_Store_M);
set_store(store_mem);
- if(type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
+ if (type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
set_Load_volatility(load, volatility_is_volatile);
set_Store_volatility(store, volatility_is_volatile);
}
tarval *tvr = new_tarval_from_long(shift_bitsr, mode_uint);
ir_node *countr = new_d_Const(dbgi, mode_uint, tvr);
ir_node *shiftr;
- if(mode_is_signed(mode)) {
+ if (mode_is_signed(mode)) {
shiftr = new_d_Shrs(dbgi, shiftl, countr, mode_int);
} else {
shiftr = new_d_Shr(dbgi, shiftl, countr, mode_int);
ir_mode *mode = get_ir_mode(expression->base.type);
ir_node *offset;
- if(is_type_pointer(type)) {
+ if (is_type_pointer(type)) {
pointer_type_t *pointer_type = &type->pointer;
offset = get_type_size(pointer_type->points_to);
} else {
dbg_info *dbgi = get_dbg_info(&expression->base.source_position);
type_t *type = skip_typeref(expression->base.type);
- if(expression->base.kind == EXPR_UNARY_TAKE_ADDRESS)
+ if (expression->base.kind == EXPR_UNARY_TAKE_ADDRESS)
return expression_to_addr(expression->value);
const expression_t *value = expression->value;
return create_incdec(expression);
case EXPR_UNARY_CAST: {
ir_node *value_node = expression_to_firm(value);
- if(is_type_scalar(type)) {
+ if (is_type_scalar(type)) {
ir_mode *mode = get_ir_mode(type);
ir_node *node = create_conv(dbgi, value_node, mode);
node = do_strict_conv(dbgi, node);
}
case EXPR_UNARY_CAST_IMPLICIT: {
ir_node *value_node = expression_to_firm(value);
- if(is_type_scalar(type)) {
+ if (is_type_scalar(type)) {
ir_mode *mode = get_ir_mode(type);
return create_conv(dbgi, value_node, mode);
} else {
}
}
case EXPR_UNARY_ASSUME:
- if(firm_opt.confirm)
+ if (firm_opt.confirm)
return handle_assume(dbgi, value);
else
return NULL;
ir_node *pin = new_Pin(new_NoMem());
ir_node *op;
ir_node *res;
- if(mode_is_float(mode)) {
+ if (mode_is_float(mode)) {
op = new_d_Quot(dbgi, pin, left, right, mode, op_pin_state_floats);
res = new_d_Proj(dbgi, op, mode, pn_Quot_res);
} else {
type_t *type = expression->base.type;
ir_mode *mode = get_ir_mode(type);
- if(is_constant_expression(expression->left)) {
+ if (is_constant_expression(expression->left)) {
long val = fold_constant(expression->left);
expression_kind_t ekind = expression->base.kind;
- if((ekind == EXPR_BINARY_LOGICAL_AND && val != 0)
+ if ((ekind == EXPR_BINARY_LOGICAL_AND && val != 0)
|| (ekind == EXPR_BINARY_LOGICAL_OR && val == 0)) {
return expression_to_firm(expression->right);
} else {
/* be sure the type is constructed */
(void) get_ir_type(type);
- if(designator->symbol != NULL) {
+ if (designator->symbol != NULL) {
assert(is_type_compound(type));
symbol_t *symbol = designator->symbol;
declaration_t *declaration = type->compound.declaration;
declaration_t *iter = declaration->scope.declarations;
for( ; iter != NULL; iter = iter->next) {
- if(iter->symbol == symbol) {
+ if (iter->symbol == symbol) {
break;
}
}
static ir_node *sizeof_to_firm(const typeprop_expression_t *expression)
{
type_t *type = expression->type;
- if(type == NULL) {
+ if (type == NULL) {
type = expression->tp_expression->base.type;
assert(type != NULL);
}
type = skip_typeref(type);
/* § 6.5.3.4 (2) if the type is a VLA, evaluate the expression. */
- if(is_type_array(type) && type->array.is_vla
+ if (is_type_array(type) && type->array.is_vla
&& expression->tp_expression != NULL) {
expression_to_firm(expression->tp_expression);
}
static ir_node *alignof_to_firm(const typeprop_expression_t *expression)
{
type_t *type = expression->type;
- if(type == NULL) {
+ if (type == NULL) {
/* beware: if expression is a variable reference, return the
alignment of the variable. */
const expression_t *tp_expression = expression->tp_expression;
assert(is_constant_expression(expression));
ir_graph *old_current_ir_graph = current_ir_graph;
- if(current_ir_graph == NULL) {
+ if (current_ir_graph == NULL) {
current_ir_graph = get_const_code_irg();
}
ir_node *cnst = expression_to_firm(expression);
current_ir_graph = old_current_ir_graph;
- if(!is_Const(cnst)) {
+ if (!is_Const(cnst)) {
panic("couldn't fold constant\n");
}
tarval *tv = get_Const_tarval(cnst);
- if(!tarval_is_long(tv)) {
+ if (!tarval_is_long(tv)) {
panic("result of constant folding is not integer\n");
}
dbg_info *const dbgi = get_dbg_info(&expression->base.source_position);
/* first try to fold a constant condition */
- if(is_constant_expression(expression->condition)) {
+ if (is_constant_expression(expression->condition)) {
long val = fold_constant(expression->condition);
- if(val) {
+ if (val) {
return expression_to_firm(expression->true_expression);
} else {
return expression_to_firm(expression->false_expression);
ir_node *false_proj = new_d_Proj(dbgi, cond, mode_X, pn_Cond_false);
/* set branch prediction info based on __builtin_expect */
- if(expression->kind == EXPR_BINARY_BUILTIN_EXPECT) {
+ if (expression->kind == EXPR_BINARY_BUILTIN_EXPECT) {
long cnst = fold_constant(expression->binary.right);
cond_jmp_predicate pred;
- if(cnst == 0) {
+ if (cnst == 0) {
pred = COND_JMP_PRED_FALSE;
} else {
pred = COND_JMP_PRED_TRUE;
}
add_immBlock_pred(true_block, true_proj);
- add_immBlock_pred(false_block, false_proj);
+ if (false_block != NULL) {
+ add_immBlock_pred(false_block, false_proj);
+ }
set_cur_block(NULL);
}
declaration->v.entity = entity;
set_entity_variability(entity, variability_uninitialized);
set_entity_ld_ident(entity, create_ld_ident(entity, declaration));
- if(parent_type == get_tls_type())
+ if (parent_type == get_tls_type())
set_entity_allocation(entity, allocation_automatic);
- else if(declaration_kind == DECLARATION_KIND_GLOBAL_VARIABLE)
+ else if (declaration_kind == DECLARATION_KIND_GLOBAL_VARIABLE)
set_entity_allocation(entity, allocation_static);
- if(type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
+ if (type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
set_entity_volatility(entity, volatility_is_volatile);
}
}
const type_path_entry_t *entry = & path->path[i];
type_t *type = skip_typeref(entry->type);
- if(is_type_compound(type)) {
+ if (is_type_compound(type)) {
fprintf(stderr, ".%s", entry->compound_entry->symbol->string);
- } else if(is_type_array(type)) {
+ } else if (is_type_array(type)) {
fprintf(stderr, "[%zd]", entry->index);
} else {
fprintf(stderr, "-INVALID-");
assert(is_type_compound(top_type) || is_type_array(top_type));
- if(ARR_LEN(path->path) == 0) {
+ if (ARR_LEN(path->path) == 0) {
return NULL;
} else {
type_path_entry_t *top = get_type_path_top(path);
size_t len;
- if(is_type_compound(top_type)) {
+ if (is_type_compound(top_type)) {
declaration_t *declaration = top_type->compound.declaration;
declaration_t *entry = declaration->scope.declarations;
top->compound_entry = entry;
top->index = 0;
len = get_compound_size(&top_type->compound);
- if(entry != NULL)
+ if (entry != NULL)
path->top_type = entry->type;
} else {
assert(is_type_array(top_type));
path->top_type = top_type->array.element_type;
len = top_type->array.size;
}
- if(initializer == NULL
+ if (initializer == NULL
|| get_initializer_kind(initializer) == IR_INITIALIZER_NULL) {
initializer = create_initializer_compound(len);
/* we have to set the entry at the 2nd latest path entry... */
size_t path_len = ARR_LEN(path->path);
assert(path_len >= 1);
- if(path_len > 1) {
+ if (path_len > 1) {
type_path_entry_t *entry = & path->path[path_len-2];
ir_initializer_t *tinitializer = entry->initializer;
set_initializer_compound_value(tinitializer, entry->index,
type_t *orig_type = top->type;
type_t *type = skip_typeref(orig_type);
- if(designator->symbol != NULL) {
+ if (designator->symbol != NULL) {
assert(is_type_compound(type));
size_t index = 0;
symbol_t *symbol = designator->symbol;
declaration_t *declaration = type->compound.declaration;
declaration_t *iter = declaration->scope.declarations;
for( ; iter != NULL; iter = iter->next, ++index) {
- if(iter->symbol == symbol) {
+ if (iter->symbol == symbol) {
break;
}
}
long index = fold_constant(array_index);
assert(index >= 0);
#ifndef NDEBUG
- if(type->array.size_constant == 1) {
+ if (type->array.size_constant == 1) {
long array_size = type->array.size;
assert(index < array_size);
}
}
path->top_type = orig_type;
- if(designator->next != NULL) {
+ if (designator->next != NULL) {
descend_into_subtype(path);
}
}
static void advance_current_object(type_path_t *path)
{
- if(path->invalid) {
+ if (path->invalid) {
/* TODO: handle this... */
panic("invalid initializer in ast2firm (excessive elements)");
return;
type_path_entry_t *top = get_type_path_top(path);
type_t *type = skip_typeref(top->type);
- if(is_type_union(type)) {
+ if (is_type_union(type)) {
top->compound_entry = NULL;
- } else if(is_type_struct(type)) {
+ } else if (is_type_struct(type)) {
declaration_t *entry = top->compound_entry;
top->index++;
entry = entry->next;
top->compound_entry = entry;
- if(entry != NULL) {
+ if (entry != NULL) {
path->top_type = entry->type;
return;
}
assert(is_type_array(type));
top->index++;
- if(!type->array.size_constant || top->index < type->array.size) {
+ if (!type->array.size_constant || top->index < type->array.size) {
return;
}
}
* can ascend in the type hierarchy and continue with another subobject */
size_t len = ARR_LEN(path->path);
- if(len > 1) {
+ if (len > 1) {
ascend_from_subtype(path);
advance_current_object(path);
} else {
for(size_t i = 0; i < initializer->len; ++i) {
const initializer_t *sub_initializer = initializer->initializers[i];
- if(sub_initializer->kind == INITIALIZER_DESIGNATOR) {
+ if (sub_initializer->kind == INITIALIZER_DESIGNATOR) {
walk_designator(&path, sub_initializer->designator.designator);
continue;
}
- if(sub_initializer->kind == INITIALIZER_VALUE) {
+ if (sub_initializer->kind == INITIALIZER_VALUE) {
/* we might have to descend into types until we're at a scalar
* type */
while(true) {
type_t *orig_top_type = path.top_type;
type_t *top_type = skip_typeref(orig_top_type);
- if(is_type_scalar(top_type))
+ if (is_type_scalar(top_type))
break;
descend_into_subtype(&path);
}
for(size_t i = 0; i < len; ++i) {
char c = 0;
- if(i < string_len)
+ if (i < string_len)
c = string[i];
tarval *tv = new_tarval_from_long(c, mode);
for(size_t i = 0; i < len; ++i) {
wchar_rep_t c = 0;
- if(i < string_len) {
+ if (i < string_len) {
c = string[i];
}
tarval *tv = new_tarval_from_long(c, mode);
assert(is_compound_type(type));
int n_members;
- if(is_Array_type(type)) {
+ if (is_Array_type(type)) {
assert(has_array_upper_bound(type, 0));
n_members = get_array_upper_bound_int(type, 0);
} else {
for(int i = 0; i < n_members; ++i) {
ir_node *addr;
ir_type *irtype;
- if(is_Array_type(type)) {
+ if (is_Array_type(type)) {
ir_entity *entity = get_array_element_entity(type);
tarval *index_tv = new_tarval_from_long(i, mode_uint);
ir_node *cnst = new_d_Const(dbgi, mode_uint, index_tv);
case IR_INITIALIZER_COMPOUND: {
assert(is_compound_type(type));
int n_members;
- if(is_Array_type(type)) {
+ if (is_Array_type(type)) {
assert(has_array_upper_bound(type, 0));
n_members = get_array_upper_bound_int(type, 0);
} else {
n_members = get_compound_n_members(type);
}
- if(get_initializer_compound_n_entries(initializer)
+ if (get_initializer_compound_n_entries(initializer)
!= (unsigned) n_members)
panic("initializer doesn't match compound type");
for(int i = 0; i < n_members; ++i) {
ir_node *addr;
ir_type *irtype;
- if(is_Array_type(type)) {
+ if (is_Array_type(type)) {
ir_entity *entity = get_array_element_entity(type);
tarval *index_tv = new_tarval_from_long(i, mode_uint);
ir_node *cnst = new_d_Const(dbgi, mode_uint, index_tv);
ir_node *frame = get_irg_frame(current_ir_graph);
ir_node *addr = new_d_simpleSel(dbgi, nomem, frame, entity);
- if(initializer->kind == INITIALIZER_VALUE) {
+ if (initializer->kind == INITIALIZER_VALUE) {
initializer_value_t *initializer_value = &initializer->value;
ir_node *value = expression_to_firm(initializer_value->value);
return;
}
- if(!is_constant_initializer(initializer)) {
+ if (!is_constant_initializer(initializer)) {
ir_initializer_t *irinitializer
= create_ir_initializer(initializer, type);
static void create_declaration_initializer(declaration_t *declaration)
{
initializer_t *initializer = declaration->init.initializer;
- if(initializer == NULL)
+ if (initializer == NULL)
return;
declaration_kind_t declaration_kind
= (declaration_kind_t) declaration->declaration_kind;
- if(declaration_kind == DECLARATION_KIND_LOCAL_VARIABLE_ENTITY) {
+ if (declaration_kind == DECLARATION_KIND_LOCAL_VARIABLE_ENTITY) {
create_initializer_local_variable_entity(declaration);
return;
}
- if(initializer->kind == INITIALIZER_VALUE) {
+ if (initializer->kind == INITIALIZER_VALUE) {
initializer_value_t *initializer_value = &initializer->value;
dbg_info *dbgi
= get_dbg_info(&declaration->source_position);
ir_node *value = expression_to_firm(initializer_value->value);
value = do_strict_conv(dbgi, value);
- if(declaration_kind == DECLARATION_KIND_LOCAL_VARIABLE) {
+ if (declaration_kind == DECLARATION_KIND_LOCAL_VARIABLE) {
set_value(declaration->v.value_number, value);
} else {
assert(declaration_kind == DECLARATION_KIND_GLOBAL_VARIABLE);
type_t *type = skip_typeref(declaration->type);
/* is it a variable length array? */
- if(is_type_array(type) && !type->array.size_constant) {
+ if (is_type_array(type) && !type->array.size_constant) {
create_variable_length_array(declaration);
return;
- } else if(is_type_array(type) || is_type_compound(type)) {
+ } else if (is_type_array(type) || is_type_compound(type)) {
needs_entity = true;
- } else if(type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
+ } else if (type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
needs_entity = true;
}
- if(needs_entity) {
+ if (needs_entity) {
ir_type *frame_type = get_irg_frame_type(current_ir_graph);
create_declaration_entity(declaration,
DECLARATION_KIND_LOCAL_VARIABLE_ENTITY,
ir_entity *const entity = new_d_entity(global_type, id, irtype, dbgi);
- if(type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
+ if (type->base.qualifiers & TYPE_QUALIFIER_VOLATILE) {
set_entity_volatility(entity, volatility_is_volatile);
}
static void return_statement_to_firm(return_statement_t *statement)
{
- if(get_cur_block() == NULL)
+ if (get_cur_block() == NULL)
return;
dbg_info *dbgi = get_dbg_info(&statement->base.source_position);
ir_node *in[1];
int in_len;
- if(get_method_n_ress(func_irtype) > 0) {
+ if (get_method_n_ress(func_irtype) > 0) {
ir_type *res_type = get_method_res_type(func_irtype, 0);
- if(statement->value != NULL) {
+ if (statement->value != NULL) {
ir_node *node = expression_to_firm(statement->value);
node = do_strict_conv(dbgi, node);
in[0] = node;
} else {
ir_mode *mode;
- if(is_compound_type(res_type)) {
+ if (is_compound_type(res_type)) {
mode = mode_P_data;
} else {
mode = get_type_mode(res_type);
in_len = 1;
} else {
/* build return_value for its side effects */
- if(statement->value != NULL) {
+ if (statement->value != NULL) {
expression_to_firm(statement->value);
}
in_len = 0;
static ir_node *expression_statement_to_firm(expression_statement_t *statement)
{
- if(get_cur_block() == NULL)
+ if (get_cur_block() == NULL)
return NULL;
return expression_to_firm(statement->expression);
ir_node *result = NULL;
statement_t *statement = compound->statements;
for( ; statement != NULL; statement = statement->base.next) {
- if(statement->base.next == NULL
+ if (statement->base.next == NULL
&& statement->kind == STATEMENT_EXPRESSION) {
result = expression_statement_to_firm(
&statement->expression);
case STORAGE_CLASS_NONE:
case STORAGE_CLASS_AUTO:
case STORAGE_CLASS_REGISTER:
- if(is_type_function(type)) {
- if(declaration->init.statement != NULL) {
+ if (is_type_function(type)) {
+ if (declaration->init.statement != NULL) {
panic("nested functions not supported yet");
} else {
get_function_entity(declaration);
static void initialize_local_declaration(declaration_t *declaration)
{
- if(declaration->symbol == NULL || declaration->namespc != NAMESPACE_NORMAL)
+ if (declaration->symbol == NULL || declaration->namespc != NAMESPACE_NORMAL)
return;
switch ((declaration_kind_t) declaration->declaration_kind) {
declaration_t *declaration = statement->declarations_begin;
declaration_t *end = statement->declarations_end->next;
for( ; declaration != end; declaration = declaration->next) {
- if(declaration->namespc != NAMESPACE_NORMAL)
+ if (declaration->namespc != NAMESPACE_NORMAL)
continue;
initialize_local_declaration(declaration);
}
static void while_statement_to_firm(while_statement_t *statement)
{
ir_node *jmp = NULL;
- if(get_cur_block() != NULL) {
+ if (get_cur_block() != NULL) {
jmp = new_Jmp();
}
/* create the header block */
ir_node *header_block = new_immBlock();
- if(jmp != NULL) {
+ if (jmp != NULL) {
add_immBlock_pred(header_block, jmp);
}
- /* the false block */
- ir_node *false_block = new_immBlock();
-
/* the loop body */
- ir_node *body_block;
- if (statement->body != NULL) {
- ir_node *old_continue_label = continue_label;
- ir_node *old_break_label = break_label;
- continue_label = header_block;
- break_label = false_block;
+ ir_node *old_continue_label = continue_label;
+ ir_node *old_break_label = break_label;
+ continue_label = header_block;
+ break_label = NULL;
- body_block = new_immBlock();
- statement_to_firm(statement->body);
+ ir_node *body_block = new_immBlock();
+ statement_to_firm(statement->body);
+ ir_node *false_block = break_label;
- assert(continue_label == header_block);
- assert(break_label == false_block);
- continue_label = old_continue_label;
- break_label = old_break_label;
+ assert(continue_label == header_block);
+ continue_label = old_continue_label;
+ break_label = old_break_label;
- if(get_cur_block() != NULL) {
- jmp = new_Jmp();
- add_immBlock_pred(header_block, jmp);
- }
- } else {
- body_block = header_block;
+ if (get_cur_block() != NULL) {
+ jmp = new_Jmp();
+ add_immBlock_pred(header_block, jmp);
}
- /* create the condition */
- set_cur_block(header_block);
+ /* shortcut for while(true) */
+ if (is_constant_expression(statement->condition)
+ && fold_constant(statement->condition) != 0) {
+ set_cur_block(header_block);
+ ir_node *header_jmp = new_Jmp();
+ add_immBlock_pred(body_block, header_jmp);
+
+ keep_alive(body_block);
+ } else {
+ if (false_block == NULL) {
+ false_block = new_immBlock();
+ }
+
+ /* create the condition */
+ set_cur_block(header_block);
+
+ create_condition_evaluation(statement->condition, body_block,
+ false_block);
+ }
- create_condition_evaluation(statement->condition, body_block, false_block);
mature_immBlock(body_block);
- mature_immBlock(false_block);
mature_immBlock(header_block);
+ if (false_block != NULL) {
+ mature_immBlock(false_block);
+ }
set_cur_block(false_block);
}
static void do_while_statement_to_firm(do_while_statement_t *statement)
{
ir_node *jmp = NULL;
- if(get_cur_block() != NULL) {
+ if (get_cur_block() != NULL) {
jmp = new_Jmp();
}
/* create the header block */
ir_node *header_block = new_immBlock();
- /* the false block */
- ir_node *false_block = new_immBlock();
-
/* the loop body */
ir_node *body_block = new_immBlock();
- if(jmp != NULL) {
+ if (jmp != NULL) {
add_immBlock_pred(body_block, jmp);
}
+ ir_node *false_block = NULL;
+
if (statement->body != NULL) {
ir_node *old_continue_label = continue_label;
ir_node *old_break_label = break_label;
break_label = false_block;
statement_to_firm(statement->body);
+ false_block = break_label;
assert(continue_label == header_block);
- assert(break_label == false_block);
continue_label = old_continue_label;
break_label = old_break_label;
-
- if (get_cur_block() == NULL) {
- mature_immBlock(header_block);
- mature_immBlock(body_block);
- mature_immBlock(false_block);
- return;
- }
}
- ir_node *body_jmp = new_Jmp();
- add_immBlock_pred(header_block, body_jmp);
- mature_immBlock(header_block);
+ if (get_cur_block() != NULL) {
+ ir_node *body_jmp = new_Jmp();
+ add_immBlock_pred(header_block, body_jmp);
+ mature_immBlock(header_block);
+ }
/* create the condition */
set_cur_block(header_block);
create_condition_evaluation(statement->condition, body_block, false_block);
mature_immBlock(body_block);
- mature_immBlock(false_block);
mature_immBlock(header_block);
+ if (false_block != NULL) {
+ mature_immBlock(false_block);
+ }
set_cur_block(false_block);
}
}
if (get_cur_block() != NULL) {
- if(statement->initialisation != NULL) {
+ if (statement->initialisation != NULL) {
expression_to_firm(statement->initialisation);
}
static void create_jump_statement(const statement_t *statement,
ir_node *target_block)
{
- if(get_cur_block() == NULL)
+ if (get_cur_block() == NULL)
return;
dbg_info *dbgi = get_dbg_info(&statement->base.source_position);
ir_node *block = new_immBlock();
set_cur_block(old_block);
- if(statement->expression != NULL) {
+ if (statement->expression != NULL) {
long start_pn = fold_constant(statement->expression);
long end_pn = start_pn;
if (statement->end_range != NULL) {
assert(start_pn <= end_pn);
/* create jumps for all cases in the given range */
for (long pn = start_pn; pn <= end_pn; ++pn) {
- if(pn == MAGIC_DEFAULT_PN_NUMBER) {
+ if (pn == MAGIC_DEFAULT_PN_NUMBER) {
/* oops someone detected our cheating... */
panic("magic default pn used");
}
mature_immBlock(block);
set_cur_block(block);
- if(statement->statement != NULL) {
+ if (statement->statement != NULL) {
statement_to_firm(statement->statement);
}
}
{
assert(label->namespc == NAMESPACE_LABEL);
- if(label->declaration_kind == DECLARATION_KIND_LABEL_BLOCK) {
+ if (label->declaration_kind == DECLARATION_KIND_LABEL_BLOCK) {
return label->v.block;
}
assert(label->declaration_kind == DECLARATION_KIND_UNKNOWN);
{
ir_node *block = get_label_block(statement->label);
- if(get_cur_block() != NULL) {
+ if (get_cur_block() != NULL) {
ir_node *jmp = new_Jmp();
add_immBlock_pred(block, jmp);
}
set_cur_block(block);
keep_alive(block);
- if(statement->statement != NULL) {
+ if (statement->statement != NULL) {
statement_to_firm(statement->statement);
}
}
static void goto_to_firm(const goto_statement_t *statement)
{
- if(get_cur_block() == NULL)
+ if (get_cur_block() == NULL)
return;
ir_node *block = get_label_block(statement->label);
size_t n_clobbers = 0;
asm_clobber_t *clobber = statement->clobbers;
for( ; clobber != NULL; clobber = clobber->next) {
- if(strcmp(clobber->clobber, "memory") == 0) {
+ if (strcmp(clobber->clobber, "memory") == 0) {
needs_memory = true;
continue;
}
}
assert(obstack_object_size(&asm_obst) == n_clobbers * sizeof(ident*));
ident **clobbers = NULL;
- if(n_clobbers > 0) {
+ if (n_clobbers > 0) {
clobbers = obstack_finish(&asm_obst);
}
obstack_1grow(&asm_obst, *c);
break;
case '=':
- if(modifiers & ASM_MODIFIER_READ_WRITE)
+ if (modifiers & ASM_MODIFIER_READ_WRITE)
panic("inconsistent register constraints");
modifiers |= ASM_MODIFIER_WRITE_ONLY;
break;
case '+':
- if(modifiers & ASM_MODIFIER_WRITE_ONLY)
+ if (modifiers & ASM_MODIFIER_WRITE_ONLY)
panic("inconsistent register constraints");
modifiers |= ASM_MODIFIER_READ_WRITE;
break;
const char *constraint_string = obstack_finish(&asm_obst);
needs_memory |= supports_memop;
- if(supports_memop) {
+ if (supports_memop) {
}
}
{
int count = 0;
for (; decl != end; decl = decl->next) {
- if(decl->namespc != NAMESPACE_NORMAL)
+ if (decl->namespc != NAMESPACE_NORMAL)
continue;
const type_t *type = skip_typeref(decl->type);
if (!decl->address_taken && is_type_scalar(type))
++count;
const initializer_t *initializer = decl->init.initializer;
/* FIXME: should walk initializer hierarchies... */
- if(initializer != NULL && initializer->kind == INITIALIZER_VALUE) {
+ if (initializer != NULL && initializer->kind == INITIALIZER_VALUE) {
count += count_decls_in_expression(initializer->value.value);
}
}
static int count_decls_in_expression(const expression_t *expression) {
int count = 0;
- if(expression == NULL)
+ if (expression == NULL)
return 0;
switch((expression_kind_t) expression->base.kind) {
case STATEMENT_LABEL: {
const label_statement_t *const label_stmt = &stmt->label;
- if(label_stmt->statement != NULL) {
+ if (label_stmt->statement != NULL) {
count += count_decls_in_stmts(label_stmt->statement);
}
break;
case STATEMENT_CASE_LABEL: {
const case_label_statement_t *label = &stmt->case_label;
count += count_decls_in_expression(label->expression);
- if(label->statement != NULL) {
+ if (label->statement != NULL) {
count += count_decls_in_stmts(label->statement);
}
break;
case STATEMENT_MS_TRY: {
const ms_try_statement_t *const try_stmt = &stmt->ms_try;
count += count_decls_in_stmts(try_stmt->try_statement);
- if(try_stmt->except_expression != NULL)
+ if (try_stmt->except_expression != NULL)
count += count_decls_in_expression(try_stmt->except_expression);
count += count_decls_in_stmts(try_stmt->final_statement);
break;
bool needs_entity = parameter->address_taken;
assert(!is_type_array(type));
- if(is_type_compound(type)) {
+ if (is_type_compound(type)) {
needs_entity = true;
}
- if(needs_entity) {
+ if (needs_entity) {
ir_entity *entity = get_method_value_param_ent(function_irtype, n);
ident *id = new_id_from_str(parameter->symbol->string);
set_entity_ident(entity, id);
{
ir_entity *function_entity = get_function_entity(declaration);
- if(declaration->init.statement == NULL)
+ if (declaration->init.statement == NULL)
return;
current_function_decl = declaration;
ir_node *end_block = get_irg_end_block(irg);
/* do we have a return statement yet? */
- if(get_cur_block() != NULL) {
+ if (get_cur_block() != NULL) {
type_t *type = skip_typeref(declaration->type);
assert(is_type_function(type));
const function_type_t *func_type = &type->function;
ret = new_Return(get_store(), 0, NULL);
} else {
ir_mode *mode;
- if(is_type_scalar(return_type)) {
+ if (is_type_scalar(return_type)) {
mode = get_ir_mode(func_type->return_type);
} else {
mode = mode_P_data;
in[0] = new_Const(mode, get_mode_null(mode));
} else {
in[0] = new_Unknown(mode);
- if(warning.return_type) {
+ if (warning.return_type) {
warningf(&declaration->source_position,
"missing return statement at end of non-void function '%Y'",
declaration->symbol);
ir_type *entity_type = get_entity_type(entity);
int align = get_type_alignment_bytes(entity_type);
- if(align > align_all)
+ if (align > align_all)
align_all = align;
int misalign = 0;
- if(align > 0) {
+ if (align > 0) {
misalign = offset % align;
- if(misalign > 0) {
+ if (misalign > 0) {
offset += align - misalign;
}
}
/* first pass: create declarations */
declaration_t *declaration = scope->declarations;
for( ; declaration != NULL; declaration = declaration->next) {
- if(declaration->namespc != NAMESPACE_NORMAL)
+ if (declaration->namespc != NAMESPACE_NORMAL)
continue;
- if(declaration->storage_class == STORAGE_CLASS_ENUM_ENTRY
+ if (declaration->storage_class == STORAGE_CLASS_ENUM_ENTRY
|| declaration->storage_class == STORAGE_CLASS_TYPEDEF)
continue;
- if(declaration->symbol == NULL)
+ if (declaration->symbol == NULL)
continue;
type_t *type = skip_typeref(declaration->type);
- if(is_type_function(type)) {
+ if (is_type_function(type)) {
get_function_entity(declaration);
} else {
create_global_variable(declaration);
/* second pass: create code/initializers */
declaration = scope->declarations;
for( ; declaration != NULL; declaration = declaration->next) {
- if(declaration->namespc != NAMESPACE_NORMAL)
+ if (declaration->namespc != NAMESPACE_NORMAL)
continue;
- if(declaration->storage_class == STORAGE_CLASS_ENUM_ENTRY
+ if (declaration->storage_class == STORAGE_CLASS_ENUM_ENTRY
|| declaration->storage_class == STORAGE_CLASS_TYPEDEF)
continue;
- if(declaration->symbol == NULL)
+ if (declaration->symbol == NULL)
continue;
type_t *type = declaration->type;
- if(type->kind == TYPE_FUNCTION) {
+ if (type->kind == TYPE_FUNCTION) {
create_function(declaration);
} else {
assert(declaration->declaration_kind
static void init_ir_types(void)
{
static int ir_types_initialized = 0;
- if(ir_types_initialized)
+ if (ir_types_initialized)
return;
ir_types_initialized = 1;