int main(void) {
type_t tau;
init_type_table(&types, 0);
init_variables();
init_types();
// pair(A) = (tuple A A)
tau = pair_type(var[0], var[0]);
test_macro("pair", 1, var, tau);
// triple(B) = (tuple B B B)
tau = triple_type(var[1], var[1], var[1]);
test_macro("triple", 1, var+1, tau);
// test(C, D) = bool
test_macro("test", 2, var+2, base[0]);
// fun(E, F) = (-> (tuple E E) F)
tau = pair_type(var[4], var[4]);
tau = function_type(&types, var[5], 1, &tau);
test_macro("fun", 2, var+4, tau);
// two constructors
test_constructor("mk_type2", 2);
test_constructor("mk_type3", 3);
printf("\n====== TYPES ========\n");
print_type_table(stdout, &types);
printf("\n===== MACROS ========\n");
print_type_macros(stdout, &types);
printf("===\n\n");
// creation after remove
// vector[G] = (-> int G)
tau = int_type(&types);
tau = function_type(&types, var[6], 1, &tau);
test_macro("vector", 1, var+6, tau);
// matrix[H] = (-> int int H)
tau = int_type(&types);
tau = binary_ftype(tau, tau, var[7]);
test_macro("matrix", 1, var+7, tau);
printf("\n====== TYPES ========\n");
print_type_table(stdout, &types);
printf("\n===== MACROS ========\n");
print_type_macros(stdout, &types);
printf("===\n\n");
delete_type_table(&types);
return 0;
}
void CDatabaseItem::refreshWidget(bool b)
{
#ifdef DEBUG
qDebug("CDatabaseItem::refreshWidget(%s)", debug_string(booltostr(b)));
#endif
if (isBlocked())
return;
setBlocked(true);
if (widget_id == int_type())
{
CShowDatabaseGroupProperties * w = (CShowDatabaseGroupProperties *) widgetStack()->widget(int_type());
w->setMySQL(mysql());
w->setTitle(mysql()->connectionName());
if (b || widgetData.isEmpty())
{
w->refresh();
w->saveData(&widgetData);
}
else
w->loadData(widgetData);
}
else
((CDatabaseListViewItem *) QListViewItem::parent())->refreshWidget(b);
widgetStack()->raiseWidget(widget_id);
setBlocked(false);
}
static void init_base_types(void) {
base[0] = bool_type(&types); // bool
base[1] = bv_type(&types, 5); // bv5
base[2] = new_scalar_type(&types, 3); // scalar3
base[3] = new_scalar_type(&types, 1); // scalar1
base[4] = pair_type(base[0], base[2]); // bool x scalar3
base[5] = pair_type(base[3], base[0]); // scalar1 x bool
base[6] = fun_type1(base[0], base[2]); // [bool -> scalar3]
base[7] = fun_type1(base[0], base[3]); // [bool -> scalar1]
base[8] = fun_type1(base[2], base[0]); // [scalar3 -> bool]
base[9] = fun_type1(base[3], base[0]); // [scalar1 -> bool]
base[10] = fun_type1(base[0], base[0]); // [bool -> bool]
base[11] = fun_type1(base[10], base[0]); // [[bool -> bool] -> bool]
// some infinite types
base[12] = new_uninterpreted_type(&types);
base[13] = real_type(&types);
base[14] = int_type(&types);
base[15] = fun_type1(base[14], base[0]); // [int -> bool]
base[16] = fun_type2(base[0], base[0], base[14]); // [bool, bool -> int]
// larger finite types
base[17] = pair_type(base[1], base[1]); // bv5 x bv5
base[18] = bv_type(&types, 40); // bv40
// infinite domain, unit range
base[19] = fun_type1(base[13], base[3]); // [real -> scalar1]
}
void c_typecastt::implicit_typecast_arithmetic(
exprt &expr,
c_typet c_type)
{
typet new_type;
const typet &expr_type=ns.follow(expr.type());
switch(c_type)
{
case PTR:
if(expr_type.id()==ID_array)
{
new_type.id(ID_pointer);
new_type.subtype()=expr_type.subtype();
break;
}
return;
case BOOL: new_type=bool_typet(); break;
case CHAR: assert(false); // should always be promoted to int
case UCHAR: assert(false); // should always be promoted to int
case SHORT: assert(false); // should always be promoted to int
case USHORT: assert(false); // should always be promoted to int
case INT: new_type=int_type(); break;
case UINT: new_type=uint_type(); break;
case LONG: new_type=long_int_type(); break;
case ULONG: new_type=long_uint_type(); break;
case LONGLONG: new_type=long_long_int_type(); break;
case ULONGLONG: new_type=long_long_uint_type(); break;
case SINGLE: new_type=float_type(); break;
case DOUBLE: new_type=double_type(); break;
case LONGDOUBLE: new_type=long_double_type(); break;
case RATIONAL: new_type=rational_typet(); break;
case REAL: new_type=real_typet(); break;
case INTEGER: new_type=integer_typet(); break;
case COMPLEX: return; // do nothing
default: return;
}
if(new_type!=expr_type)
{
if(new_type.id()==ID_pointer &&
expr_type.id()==ID_array)
{
exprt index_expr(ID_index, expr_type.subtype());
index_expr.reserve_operands(2);
index_expr.move_to_operands(expr);
index_expr.copy_to_operands(gen_zero(index_type()));
expr=exprt(ID_address_of, new_type);
expr.move_to_operands(index_expr);
}
else
do_typecast(expr, new_type);
}
}
hdf5_iprimitive::read_hdf5_dataset
(
unsigned int* t,
std::size_t data_count,
std::size_t object_number
)
{
hdf5_datatype int_type(H5T_NATIVE_UINT);
read_dataset_basic(t, data_count, int_type, object_number);
}
strstreambuf::int_type
strstreambuf::overflow(int_type __c)
{
if (__c == EOF)
return int_type(0);
if (pptr() == epptr())
{
if ((__strmode_ & __dynamic) == 0 || (__strmode_ & __frozen) != 0)
return int_type(EOF);
size_t old_size = static_cast<size_t> ((epptr() ? epptr() : egptr()) - eback());
size_t new_size = max<size_t>(static_cast<size_t>(__alsize_), 2*old_size);
if (new_size == 0)
new_size = __default_alsize;
char* buf = nullptr;
if (__palloc_)
buf = static_cast<char*>(__palloc_(new_size));
else
buf = new char[new_size];
if (buf == nullptr)
return int_type(EOF);
if (old_size != 0) {
_LIBCPP_ASSERT(eback(), "overflow copying from NULL");
memcpy(buf, eback(), static_cast<size_t>(old_size));
}
ptrdiff_t ninp = gptr() - eback();
ptrdiff_t einp = egptr() - eback();
ptrdiff_t nout = pptr() - pbase();
if (__strmode_ & __allocated)
{
if (__pfree_)
__pfree_(eback());
else
delete [] eback();
}
setg(buf, buf + ninp, buf + einp);
setp(buf + einp, buf + new_size);
pbump(static_cast<int>(nout));
__strmode_ |= __allocated;
}
*pptr() = static_cast<char>(__c);
pbump(1);
return int_type(static_cast<unsigned char>(__c));
}
hdf5_oprimitive::write_hdf5_dataset
(
unsigned int const* t,
std::size_t data_count,
std::size_t object_number
)
{
hdf5_datatype int_type(H5T_NATIVE_UINT);
write_dataset_basic(t, data_count, int_type, object_number);
}
IntLiteral (Token _token, std::string _value) : Expression(_token, nullptr, Kind::IntLit, nullptr) {
// TODO: parse prefix, suffix, set value and type
toupper(_value);
bool positive = num_is_positive(_value);
int base = int_base(_value);
type = std::unique_ptr<Type>(new BaseType(_token, int_type(_value)));
value = int_value(base, _value);
if (!positive) {
value = -value;
}
}
strstreambuf::int_type
strstreambuf::underflow()
{
if (gptr() == egptr())
{
if (egptr() >= pptr())
return EOF;
setg(eback(), gptr(), pptr());
}
return int_type(static_cast<unsigned char>(*gptr()));
}
BOOST_ARCHIVE_OR_WARCHIVE_DECL void
hdf5_oprimitive::write_hdf5_dataset
(
int const* t,
std::size_t data_count,
std::size_t object_number
)
{
hdf5_datatype int_type(H5T_NATIVE_INT);
write_dataset_basic(t, data_count, int_type, object_number);
}
/*
* Create some types: this must be called after init_variables
*/
static void init_types(void) {
base[0] = bool_type(&types);
base[1] = int_type(&types);
base[2] = real_type(&types);
base[3] = var[0];
base[4] = var[1];
base[5] = var[2];
base[6] = pair_type(base[1], base[1]);
base[7] = triple_type(var[3], base[0], var[3]);
base[8] = binary_ftype(base[2], base[2], base[0]);
base[9] = binary_ftype(var[4], var[5], base[0]);
base[10] = ternary_ftype(base[1], base[1], base[1], base[2]);
base[11] = ternary_ftype(base[2], base[2], base[2], base[0]);
}
//--------------------------------------------------------------------------
// Function: CommonFG::openIntType
///\brief Opens the named integer datatype at this location.
///\param name - IN: Name of the integer datatype to open
///\return IntType instance
///\exception H5::FileIException or H5::GroupIException
// Programmer Binh-Minh Ribler - 2000
//--------------------------------------------------------------------------
IntType CommonFG::openIntType( const char* name ) const
{
// Call C function H5Topen2 to open the named datatype in this group,
// given either the file or group id
hid_t type_id = H5Topen2(getLocId(), name, H5P_DEFAULT);
// If the datatype's opening failed, throw an exception
if( type_id < 0 )
throwException("openIntType", "H5Topen2 failed");
// No failure, create and return the IntType object
IntType int_type(type_id);
return(int_type);
}
int set_unistate(const char *name, int *val, int count)
{
int sidx = get_unistate_index(name);
if(sidx < 0) {
StType type = int_type(count);
if(type == ST_UNKNOWN) {
error_log("invalid element count (%d) while setting previously unknown unistate item \"%s\"\n",
count, name);
return -1;
}
sidx = add_unistate(name, type);
}
set_unistate(sidx, val);
return sidx;
}
CDatabaseItem::CDatabaseItem(CDatabaseListView * parent, const QString &dbname, bool isconnected, const QString &connection_name, CMySQLServer *m)
: CDatabaseListViewItem(parent, m, DATABASE, "CDatabaseItem")
{
#ifdef DEBUG
qDebug("CDatabaseItem::CDatabaseItem(CDatabaseListView *, '%s', bool, const QString &, CMySQLServer *)", debug_string(dbname));
#endif
if (m == 0)
{
m_mysql = new CMySQLServer(connection_name, messagePanel());
mysql()->connect();
deletemysql = true;
}
is_connected = isconnected;
init(dbname);
widget_id = int_type();
}
flt_type tk::spline::operator() (flt_type x) const {
size_t n=m_x.size();
// find the closest point m_x[idx] < x, idx=0 even if x<m_x[0]
std::vector<flt_type>::const_iterator it;
it=std::lower_bound(m_x.begin(),m_x.end(),x);
int_type idx=std::max( int_type(it-m_x.begin())-1, 0);
flt_type h=x-m_x[idx];
flt_type interpol;
if(x<m_x[0]) {
// extrapolation to the left
interpol=((m_b[0])*h + m_c[0])*h + m_y[0];
} else if(x>m_x[n-1]) {
// extrapolation to the right
interpol=((m_b[n-1])*h + m_c[n-1])*h + m_y[n-1];
} else {
// interpolation
interpol=((m_a[idx]*h + m_b[idx])*h + m_c[idx])*h + m_y[idx];
}
return interpol;
}
void cpp_declarator_convertert::main_function_rules(
const symbolt &symbol)
{
if(symbol.name=="c::main")
{
if(symbol.type.id()!=ID_code)
{
cpp_typecheck.err_location(symbol.location);
throw "main must be function";
}
const typet &return_type=
static_cast<const typet &>(
symbol.type.find(ID_return_type));
if(return_type!=int_type())
{
cpp_typecheck.err_location(symbol.location);
throw "main must return int";
}
}
}
int
main (int argc, char *argv[])
{
const struct discrete_t *dtype;
size_t index;
if (argc < 2) {
(void) fprintf (stderr, "usage: type\n");
exit (EXIT_FAILURE);
}
for (index = 0; index < type_table_size; ++index) {
dtype = &type_table [index];
if (strcmp (argv[1], dtype->name_ada) == 0) {
switch (dtype->kind) {
case DISCRETE_RANGED:
int_type
(dtype->name_ada,
dtype->bound_low,
dtype->bound_high,
dtype->bound_base,
dtype->size);
exit (EXIT_SUCCESS);
case DISCRETE_MOD:
mod_type (dtype->name_ada, dtype->size);
exit (EXIT_SUCCESS);
default:
(void) fprintf (stderr, "fatal: unknown discrete type kind\n");
exit (EXIT_FAILURE);
}
}
}
(void) fprintf (stderr, "fatal: unknown type %s\n", argv[1]);
exit (EXIT_FAILURE);
/*@notreached@*/
return 0;
}
strstreambuf::int_type
strstreambuf::pbackfail(int_type __c)
{
if (eback() == gptr())
return EOF;
if (__c == EOF)
{
gbump(-1);
return int_type(0);
}
if (__strmode_ & __constant)
{
if (gptr()[-1] == static_cast<char>(__c))
{
gbump(-1);
return __c;
}
return EOF;
}
gbump(-1);
*gptr() = static_cast<char>(__c);
return __c;
}
bare_expr_type::bare_expr_type(const int_type& x)
: bare_type_(int_type(x.is_data_)) {}
bool bare_expr_type::is_primitive() const {
return order_id() == int_type().oid() || order_id() == double_type().oid();
}
bool bare_expr_type::is_int_type() const {
return order_id() == int_type().oid();
}
bool simplify_exprt::simplify_address_of_arg(exprt &expr)
{
if(expr.id()==ID_index)
{
if(expr.operands().size()==2)
{
bool result=true;
if(!simplify_address_of_arg(expr.op0())) result=false;
if(!simplify_rec(expr.op1())) result=false;
// rewrite (*(type *)int) [index] by
// pushing the index inside
mp_integer address;
if(is_dereference_integer_object(expr.op0(), address))
{
// push index into address
mp_integer step_size, index;
step_size=pointer_offset_size(expr.type(), ns);
if(!to_integer(expr.op1(), index) &&
step_size!=-1)
{
unsignedbv_typet int_type(config.ansi_c.pointer_width);
pointer_typet pointer_type;
pointer_type.subtype()=expr.type();
typecast_exprt typecast_expr(
from_integer(step_size*index+address, int_type), pointer_type);
exprt new_expr=dereference_exprt(typecast_expr, expr.type());
expr=new_expr;
result=true;
}
}
return result;
}
}
else if(expr.id()==ID_member)
{
if(expr.operands().size()==1)
{
bool result=true;
if(!simplify_address_of_arg(expr.op0())) result=false;
const typet &op_type=ns.follow(expr.op0().type());
if(op_type.id()==ID_struct)
{
// rewrite NULL -> member by
// pushing the member inside
mp_integer address;
if(is_dereference_integer_object(expr.op0(), address))
{
const struct_typet &struct_type=to_struct_type(op_type);
const irep_idt &member=to_member_expr(expr).get_component_name();
mp_integer offset=member_offset(struct_type, member, ns);
if(offset!=-1)
{
unsignedbv_typet int_type(config.ansi_c.pointer_width);
pointer_typet pointer_type;
pointer_type.subtype()=expr.type();
typecast_exprt typecast_expr(
from_integer(address+offset, int_type), pointer_type);
exprt new_expr=dereference_exprt(typecast_expr, expr.type());
expr=new_expr;
result=true;
}
}
}
return result;
}
}
else if(expr.id()==ID_dereference)
{
if(expr.operands().size()==1)
return simplify_rec(expr.op0());
}
else if(expr.id()==ID_if)
{
if(expr.operands().size()==3)
{
bool result=true;
if(!simplify_rec(expr.op0())) result=false;
if(!simplify_address_of_arg(expr.op1())) result=false;
if(!simplify_address_of_arg(expr.op2())) result=false;
// op0 is a constant?
if(expr.op0().is_true())
{
result=false;
exprt tmp;
tmp.swap(expr.op1());
expr.swap(tmp);
}
else if(expr.op0().is_false())
{
result=false;
exprt tmp;
tmp.swap(expr.op2());
expr.swap(tmp);
}
return result;
}
}
return true;
}
inline bool rational<IntType>::test_invariant() const
{
return ( this->den > int_type(0) ) && ( math::gcd(this->num, this->den) ==
int_type(1) );
}
void atomic_write(value_type rhs)
{
detail::atomic_write<sizeof(value_type)>(&this->value_, int_type(rhs));
}
static void
call(Iterator const& first, Iterator const& last, int& attr)
{
Iterator first_ = first;
qi::parse(first_, last, int_type(), attr);
}
/*
* Test 5: pairs (int x int)
* - start with pairs [4, 4], [6, 6]
*/
static void test5(void) {
type_t tau[2];
particle_t a, b, c, d;
particle_t q[40], x;
uint32_t n;
printf("\n"
"***********************\n"
"* TEST 5 *\n"
"***********************\n");
tau[0] = int_type(&types);
tau[1] = int_type(&types);
a = pstore_labeled_particle(&store, 4, tau[0]);
b = pstore_labeled_particle(&store, 6, tau[1]);
q[0] = a;
q[1] = a;
c = pstore_tuple_particle(&store, 2, q, tau);
q[0] = b;
q[1] = b;
d = pstore_tuple_particle(&store, 2, q, tau);
printf("\nInitial objects of type tau!%"PRId32"\n", tau[0]);
print_particle_def(a);
print_particle_def(b);
printf("\n");
printf("Initial objects of type tau!%"PRId32" x tau!%"PRId32"\n", tau[0], tau[1]);
print_particle_def(c);
print_particle_def(d);
printf("\n");
printf("\nInitial sets\n");
print_particle_set(pstore_find_set_for_type(&store, tau[0]));
printf("\n");
print_particle_set(pstore_find_set_for_types(&store, 2, tau));
printf("\n\n");
// Initial array: empty
printf("Test array: ");
print_particle_array(q, 0);
printf("\n");
// create new tuples until that fails
for (n = 0; n<40; n++) {
x = get_distinct_tuple(&store, 2, tau, n, q);
if (x == null_particle) {
printf("Saturation\n");
break;
}
printf("New particle:");
print_particle_def(x);
q[n] = x;
}
printf("\nFinal sets\n");
print_particle_set(pstore_find_set_for_type(&store, tau[0]));
printf("\n");
print_particle_set(pstore_find_set_for_types(&store, 2, tau));
printf("\n\n");
}
void printf_formattert::process_format(std::ostream &out)
{
exprt tmp;
format_constantt format_constant;
format_constant.precision=6;
format_constant.min_width=0;
format_constant.zero_padding=false;
char ch=next();
if(ch=='0') // leading zeros
{
format_constant.zero_padding=true;
ch=next();
}
while(isdigit(ch)) // width
{
format_constant.min_width*=10;
format_constant.min_width+=ch-'0';
ch=next();
}
if(ch=='.') // precision
{
format_constant.precision=0;
ch=next();
while(isdigit(ch))
{
format_constant.precision*=10;
format_constant.precision+=ch-'0';
ch=next();
}
}
switch(ch)
{
case '%':
out << ch;
break;
case 'f':
case 'F':
if(next_operand==operands.end()) break;
out << format_constant(
make_type(*(next_operand++), double_type()));
break;
case 'g':
case 'G':
if(format_constant.precision==0) format_constant.precision=1;
if(next_operand==operands.end()) break;
out << format_constant(
make_type(*(next_operand++), double_type()));
break;
case 's':
{
if(next_operand==operands.end()) break;
// this is the address of a string
const exprt &op=*(next_operand++);
if(op.id()==ID_address_of &&
op.operands().size()==1 &&
op.op0().id()==ID_index &&
op.op0().operands().size()==2 &&
op.op0().op0().id()==ID_string_constant)
out << format_constant(op.op0().op0());
}
break;
case 'd':
if(next_operand==operands.end()) break;
out << format_constant(
make_type(*(next_operand++), int_type()));
break;
case 'D':
if(next_operand==operands.end()) break;
out << format_constant(
make_type(*(next_operand++), long_int_type()));
break;
case 'u':
if(next_operand==operands.end()) break;
out << format_constant(
make_type(*(next_operand++), uint_type()));
break;
case 'U':
if(next_operand==operands.end()) break;
out << format_constant(
make_type(*(next_operand++), long_uint_type()));
break;
default:
out << '%' << ch;
}
}
static inline batch_type next(const batch_type& b) noexcept
{
batch_type n = bitwise_cast<batch_type>(bitwise_cast<int_batch>(b) + int_type(1));
return select(b == infinity<batch_type>(), b, n);
}
void string_constantt::set_value(const irep_idt &value)
{
exprt size_expr=from_integer(value.size()+1, int_type());
type().add(ID_size).swap(size_expr);
set(ID_value, value);
}
static inline batch_type prev(const batch_type& b) noexcept
{
batch_type p = bitwise_cast<batch_type>(bitwise_cast<int_batch>(b) - int_type(1));
return select(b == minusinfinity<batch_type>(), b, p);
}