multi_value cgs_sisd::cast_ints( multi_value const& v, cg_type* dest_tyi )
{
builtin_types hint_src = v.hint();
builtin_types hint_dst = dest_tyi->hint();
builtin_types scalar_hint_src = scalar_of(hint_src);
Type* dest_ty = dest_tyi->ty(v.abi());
Type* elem_ty = type_( scalar_of(hint_dst), abis::llvm );
cast_ops::id op = is_signed(scalar_hint_src) ? cast_ops::i2i_signed : cast_ops::i2i_unsigned;
unary_intrin_functor cast_sv_fn = ext_->bind_cast_sv(elem_ty, op);
value_array val = ext_->call_unary_intrin(dest_ty, v.load(), cast_sv_fn);
return create_value( dest_tyi, builtin_types::none, val, value_kinds::value, v.abi() );
}
void cgs_sisd::switch_to( multi_value const& cond, std::vector< std::pair<multi_value, insert_point_t> > const& cases, insert_point_t const& default_branch )
{
assert(parallel_factor_ == 1);
Value* v = cond.load()[0];
SwitchInst* inst = builder().CreateSwitch( v, default_branch.block, static_cast<unsigned>(cases.size()) );
for( size_t i_case = 0; i_case < cases.size(); ++i_case ){
inst->addCase( llvm::cast<ConstantInt>( cases[i_case].first.load()[0] ), cases[i_case].second.block );
}
}
multi_value cgs_sisd::cast_f2i( multi_value const& v, cg_type* dest_tyi )
{
builtin_types hint_i = dest_tyi->hint();
builtin_types hint_f = v.hint();
EFLIB_UNREF_DECLARATOR(hint_f);
builtin_types scalar_hint_i = scalar_of(hint_i);
Type* dest_ty = dest_tyi->ty(v.abi());
Type* elem_ty = type_(scalar_hint_i, abis::llvm);
cast_ops::id op = is_signed(hint_i) ? cast_ops::f2i : cast_ops::f2u;
unary_intrin_functor cast_sv_fn = ext_->bind_cast_sv(elem_ty, op);
value_array val = ext_->call_unary_intrin(dest_ty, v.load(), cast_sv_fn);
return create_value( dest_tyi, builtin_types::none, val, value_kinds::value, v.abi() );
}
void cgs_sisd::emit_return( multi_value const& ret_v, abis::id abi ){
if( abi == abis::unknown ){ abi = fn().abi(); }
if( fn().return_via_arg() )
{
ext_->store( ret_v.load(abi), fn().return_address() );
builder().CreateRetVoid();
}
else
{
Value* ret_value = NULL;
if ( fn().multi_value_args() ) {
ret_value = ext_->get_array( ret_v.load(abi) );
} else {
ret_value = ret_v.load(abi)[0];
}
builder().CreateRet(ret_value);
}
}
multi_value cgs_sisd::cast_f2b( multi_value const& v )
{
assert( is_real(v.hint()) );
return emit_cmp_ne( v, null_value( v.hint(), v.abi() ) );
}
void cgs_sisd::store( multi_value& lhs, multi_value const& rhs ){
assert(parallel_factor_ == 1);
value_array src(parallel_factor_, NULL);
value_array address(parallel_factor_, NULL);
value_kinds::id kind = lhs.kind();
if( kind == value_kinds::reference ){
src = rhs.load( lhs.abi() );
address = lhs.raw();
} else if ( kind == value_kinds::elements ){
elem_indexes indexes;
multi_value const* root = NULL;
bool is_swizzle = merge_swizzle(root, indexes, lhs);
if( is_swizzle && is_vector( root->hint()) ){
assert( lhs.parent()->storable() );
multi_value rhs_rvalue = rhs.to_rvalue();
multi_value ret_v = root->to_rvalue();
for(size_t i = 0; i < vector_size(rhs.hint()); ++i)
{
ret_v = emit_insert_val( ret_v, indexes[i], emit_extract_val(rhs_rvalue, i) );
}
src = ret_v.load( lhs.abi() );
address = root->load_ref();
} else {
src = rhs.load( lhs.abi() );
address = lhs.load_ref();
}
}
assert( valid_all(src) );
assert( valid_all(address) );
ext_->store(src, address);
}