@ -16,6 +16,35 @@
# include "objprivate.h"
# include "builtin.h"
py_obj_t py_builtin___build_class__ ( py_obj_t o_class_fun , py_obj_t o_class_name ) {
// we differ from CPython: we set the new __locals__ object here
py_map_t * old_locals = rt_get_map_locals ( ) ;
py_map_t * class_locals = py_map_new ( MAP_QSTR , 0 ) ;
rt_set_map_locals ( class_locals ) ;
// call the class code
rt_call_function_1 ( o_class_fun , ( py_obj_t ) 0xdeadbeef ) ;
// restore old __locals__ object
rt_set_map_locals ( old_locals ) ;
// create and return the new class
py_obj_base_t * o = m_new ( py_obj_base_t , 1 ) ;
o - > kind = O_CLASS ;
o - > u_class . locals = class_locals ;
return o ;
}
py_obj_t py_builtin___import__ ( int n , py_obj_t * args ) {
printf ( " import: \n " ) ;
for ( int i = 0 ; i < n ; i + + ) {
printf ( " " ) ;
py_obj_print ( args [ i ] ) ;
printf ( " \n " ) ;
}
return py_const_none ;
}
py_obj_t py_builtin___repl_print__ ( py_obj_t o ) {
if ( o ! = py_const_none ) {
py_obj_print ( o ) ;
@ -24,21 +53,150 @@ py_obj_t py_builtin___repl_print__(py_obj_t o) {
return py_const_none ;
}
py_obj_t py_builtin_print ( int n_args , const py_obj_t * args ) {
for ( int i = 0 ; i < n_args ; i + + ) {
if ( i > 0 ) {
printf ( " " ) ;
py_obj_t py_builtin_abs ( py_obj_t o_in ) {
if ( IS_SMALL_INT ( o_in ) ) {
py_small_int_t val = FROM_SMALL_INT ( o_in ) ;
if ( val < 0 ) {
val = - val ;
}
if ( IS_O ( args [ i ] , O_STR ) ) {
// special case, print string raw
printf ( " %s " , qstr_str ( ( ( py_obj_base_t * ) args [ i ] ) - > u_str ) ) ;
return TO_SMALL_INT ( val ) ;
# if MICROPY_ENABLE_FLOAT
} else if ( IS_O ( o_in , O_FLOAT ) ) {
py_obj_base_t * o = o_in ;
// TODO check for NaN etc
if ( o - > u_float < 0 ) {
return py_obj_new_float ( - o - > u_float ) ;
} else {
// print the object Python style
py_obj_print ( args [ i ] ) ;
return o_in ;
}
} else if ( IS_O ( o_in , O_COMPLEX ) ) {
py_obj_base_t * o = o_in ;
return py_obj_new_float ( machine_sqrt ( o - > u_complex . real * o - > u_complex . real + o - > u_complex . imag * o - > u_complex . imag ) ) ;
# endif
} else {
assert ( 0 ) ;
return py_const_none ;
}
}
py_obj_t py_builtin_all ( py_obj_t o_in ) {
py_obj_t iterable = rt_getiter ( o_in ) ;
py_obj_t item ;
while ( ( item = rt_iternext ( iterable ) ) ! = py_const_stop_iteration ) {
if ( ! rt_is_true ( item ) ) {
return py_const_false ;
}
}
return py_const_true ;
}
py_obj_t py_builtin_any ( py_obj_t o_in ) {
py_obj_t iterable = rt_getiter ( o_in ) ;
py_obj_t item ;
while ( ( item = rt_iternext ( iterable ) ) ! = py_const_stop_iteration ) {
if ( rt_is_true ( item ) ) {
return py_const_true ;
}
}
return py_const_false ;
}
py_obj_t py_builtin_bool ( int n_args , const py_obj_t * args ) {
switch ( n_args ) {
case 0 : return py_const_false ;
case 1 : if ( rt_is_true ( args [ 0 ] ) ) { return py_const_true ; } else { return py_const_false ; }
default : nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " bool() takes at most 1 argument (%d given) " , ( void * ) ( machine_int_t ) n_args , NULL ) ) ;
}
}
py_obj_t py_builtin_callable ( py_obj_t o_in ) {
if ( py_obj_is_callable ( o_in ) ) {
return py_const_true ;
} else {
return py_const_false ;
}
}
# if MICROPY_ENABLE_FLOAT
py_obj_t py_builtin_complex ( int n_args , const py_obj_t * args ) {
switch ( n_args ) {
case 0 :
return py_obj_new_complex ( 0 , 0 ) ;
case 1 :
// TODO allow string as first arg
if ( IS_O ( args [ 0 ] , O_COMPLEX ) ) {
return args [ 0 ] ;
} else {
return py_obj_new_complex ( py_obj_get_float ( args [ 0 ] ) , 0 ) ;
}
case 2 :
{
py_float_t real , imag ;
if ( IS_O ( args [ 0 ] , O_COMPLEX ) ) {
py_obj_get_complex ( args [ 0 ] , & real , & imag ) ;
} else {
real = py_obj_get_float ( args [ 0 ] ) ;
imag = 0 ;
}
if ( IS_O ( args [ 1 ] , O_COMPLEX ) ) {
py_float_t real2 , imag2 ;
py_obj_get_complex ( args [ 1 ] , & real2 , & imag2 ) ;
real - = imag2 ;
imag + = real2 ;
} else {
imag + = py_obj_get_float ( args [ 1 ] ) ;
}
return py_obj_new_complex ( real , imag ) ;
}
default : nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " comlpex() takes at most 2 arguments (%d given) " , ( void * ) ( machine_int_t ) n_args , NULL ) ) ;
}
}
# endif
py_obj_t py_builtin_chr ( py_obj_t o_in ) {
int ord = py_obj_get_int ( o_in ) ;
if ( 0 < = ord & & ord < = 0x10ffff ) {
char * str = m_new ( char , 2 ) ;
str [ 0 ] = ord ;
str [ 1 ] = ' \0 ' ;
return py_obj_new_str ( qstr_from_str_take ( str ) ) ;
} else {
nlr_jump ( py_obj_new_exception_2 ( rt_q_ValueError , " chr() arg not in range(0x110000) " , NULL , NULL ) ) ;
}
printf ( " \n " ) ;
return py_const_none ;
}
py_obj_t py_builtin_dict ( void ) {
// TODO create from an iterable!
return rt_build_map ( 0 ) ;
}
py_obj_t py_builtin_divmod ( py_obj_t o1_in , py_obj_t o2_in ) {
if ( IS_SMALL_INT ( o1_in ) & & IS_SMALL_INT ( o2_in ) ) {
py_small_int_t i1 = FROM_SMALL_INT ( o1_in ) ;
py_small_int_t i2 = FROM_SMALL_INT ( o2_in ) ;
py_obj_t revs_args [ 2 ] ;
revs_args [ 1 ] = TO_SMALL_INT ( i1 / i2 ) ;
revs_args [ 0 ] = TO_SMALL_INT ( i1 % i2 ) ;
return rt_build_tuple ( 2 , revs_args ) ;
} else {
nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " unsupported operand type(s) for divmod(): '%s' and '%s' " , py_obj_get_type_str ( o1_in ) , py_obj_get_type_str ( o2_in ) ) ) ;
}
}
py_obj_t py_builtin_hash ( py_obj_t o_in ) {
// TODO hash will generally overflow small integer; can we safely truncate it?
return py_obj_new_int ( py_obj_hash ( o_in ) ) ;
}
py_obj_t py_builtin_iter ( py_obj_t o_in ) {
return rt_getiter ( o_in ) ;
}
py_obj_t py_builtin_next ( py_obj_t o_in ) {
return rt_gen_instance_next ( o_in ) ;
}
py_obj_t py_builtin_len ( py_obj_t o_in ) {
@ -53,57 +211,118 @@ py_obj_t py_builtin_len(py_obj_t o_in) {
py_obj_base_t * o = o_in ;
len = o - > u_map . used ;
} else {
assert ( 0 ) ;
nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " object of type '%s' has no len() " , py_obj_get_type_str ( o_in ) , NULL ) ) ;
}
return TO_SMALL_INT ( len ) ;
}
py_obj_t py_builtin_abs ( py_obj_t o_in ) {
if ( IS_SMALL_INT ( o_in ) ) {
py_small_int_t val = FROM_SMALL_INT ( o_in ) ;
if ( val < 0 ) {
val = - val ;
py_obj_t py_builtin_list ( int n_args , const py_obj_t * args ) {
switch ( n_args ) {
case 0 : return rt_build_list ( 0 , NULL ) ;
case 1 :
{
// make list from iterable
py_obj_t iterable = rt_getiter ( args [ 0 ] ) ;
py_obj_t list = rt_build_list ( 0 , NULL ) ;
py_obj_t item ;
while ( ( item = rt_iternext ( iterable ) ) ! = py_const_stop_iteration ) {
rt_list_append ( list , item ) ;
}
return list ;
}
return TO_SMALL_INT ( val ) ;
# if MICROPY_ENABLE_FLOAT
} else if ( IS_O ( o_in , O_FLOAT ) ) {
py_obj_base_t * o = o_in ;
// TODO check for NaN etc
if ( o - > u_float < 0 ) {
return py_obj_new_float ( - o - > u_float ) ;
} else {
return o_in ;
default : nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " list() takes at most 1 argument (%d given) " , ( void * ) ( machine_int_t ) n_args , NULL ) ) ;
}
}
py_obj_t py_builtin_max ( int n_args , const py_obj_t * args ) {
if ( n_args = = 1 ) {
// given an iterable
py_obj_t iterable = rt_getiter ( args [ 0 ] ) ;
py_obj_t max_obj = NULL ;
py_obj_t item ;
while ( ( item = rt_iternext ( iterable ) ) ! = py_const_stop_iteration ) {
if ( max_obj = = NULL | | py_obj_less ( max_obj , item ) ) {
max_obj = item ;
}
}
} else if ( IS_O ( o_in , O_COMPLEX ) ) {
py_obj_base_t * o = o_in ;
return py_obj_new_float ( machine_sqrt ( o - > u_complex . real * o - > u_complex . real + o - > u_complex . imag * o - > u_complex . imag ) ) ;
# endif
if ( max_obj = = NULL ) {
nlr_jump ( py_obj_new_exception_2 ( rt_q_ValueError , " max() arg is an empty sequence " , NULL , NULL ) ) ;
}
return max_obj ;
} else {
assert ( 0 ) ;
return py_const_none ;
// given many args
py_obj_t max_obj = args [ 0 ] ;
for ( int i = 1 ; i < n_args ; i + + ) {
if ( py_obj_less ( max_obj , args [ i ] ) ) {
max_obj = args [ i ] ;
}
}
return max_obj ;
}
}
py_obj_t py_builtin___build_class__ ( py_obj_t o_class_fun , py_obj_t o_class_name ) {
// we differ from CPython: we set the new __locals__ object here
py_map_t * old_locals = rt_get_map_locals ( ) ;
py_map_t * class_locals = py_map_new ( MAP_QSTR , 0 ) ;
rt_set_map_locals ( class_locals ) ;
py_obj_t py_builtin_min ( int n_args , const py_obj_t * args ) {
if ( n_args = = 1 ) {
// given an iterable
py_obj_t iterable = rt_getiter ( args [ 0 ] ) ;
py_obj_t min_obj = NULL ;
py_obj_t item ;
while ( ( item = rt_iternext ( iterable ) ) ! = py_const_stop_iteration ) {
if ( min_obj = = NULL | | py_obj_less ( item , min_obj ) ) {
min_obj = item ;
}
}
if ( min_obj = = NULL ) {
nlr_jump ( py_obj_new_exception_2 ( rt_q_ValueError , " min() arg is an empty sequence " , NULL , NULL ) ) ;
}
return min_obj ;
} else {
// given many args
py_obj_t min_obj = args [ 0 ] ;
for ( int i = 1 ; i < n_args ; i + + ) {
if ( py_obj_less ( args [ i ] , min_obj ) ) {
min_obj = args [ i ] ;
}
}
return min_obj ;
}
}
// call the class code
rt_call_function_1 ( o_class_fun , ( py_obj_t ) 0xdeadbeef ) ;
py_obj_t py_builtin_ord ( py_obj_t o_in ) {
const char * str = qstr_str ( py_obj_get_qstr ( o_in ) ) ;
if ( strlen ( str ) = = 1 ) {
return py_obj_new_int ( str [ 0 ] ) ;
} else {
nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " ord() expected a character, but string of length %d found " , ( void * ) ( machine_int_t ) strlen ( str ) , NULL ) ) ;
}
}
// restore old __locals__ object
rt_set_map_locals ( old_locals ) ;
py_obj_t py_builtin_pow ( int n_args , const py_obj_t * args ) {
switch ( n_args ) {
case 2 : return rt_binary_op ( RT_BINARY_OP_POWER , args [ 0 ] , args [ 1 ] ) ;
case 3 : return rt_binary_op ( RT_BINARY_OP_MODULO , rt_binary_op ( RT_BINARY_OP_POWER , args [ 0 ] , args [ 1 ] ) , args [ 2 ] ) ; // TODO optimise...
default : nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " pow expected at most 3 arguments, got %d " , ( void * ) ( machine_int_t ) n_args , NULL ) ) ;
}
}
// create and return the new class
py_obj_base_t * o = m_new ( py_obj_base_t , 1 ) ;
o - > kind = O_CLASS ;
o - > u_class . locals = class_locals ;
return o ;
py_obj_t py_builtin_print ( int n_args , const py_obj_t * args ) {
for ( int i = 0 ; i < n_args ; i + + ) {
if ( i > 0 ) {
printf ( " " ) ;
}
if ( IS_O ( args [ i ] , O_STR ) ) {
// special case, print string raw
printf ( " %s " , qstr_str ( ( ( py_obj_base_t * ) args [ i ] ) - > u_str ) ) ;
} else {
// print the object Python style
py_obj_print ( args [ i ] ) ;
}
}
printf ( " \n " ) ;
return py_const_none ;
}
py_obj_t py_builtin_range ( int n_args , const py_obj_t * args ) {
py_obj_t py_builtin_range ( int n_args , const py_obj_t * args ) {
switch ( n_args ) {
case 1 : return py_obj_new_range ( 0 , py_obj_get_int ( args [ 0 ] ) , 1 ) ;
case 2 : return py_obj_new_range ( py_obj_get_int ( args [ 0 ] ) , py_obj_get_int ( args [ 1 ] ) , 1 ) ;
@ -111,3 +330,18 @@ py_obj_t py_builtin_range(int n_args, const py_obj_t* args) {
default : nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " range expected at most 3 arguments, got %d " , ( void * ) ( machine_int_t ) n_args , NULL ) ) ;
}
}
py_obj_t py_builtin_sum ( int n_args , const py_obj_t * args ) {
py_obj_t value ;
switch ( n_args ) {
case 1 : value = py_obj_new_int ( 0 ) ; break ;
case 2 : value = args [ 1 ] ; break ;
default : nlr_jump ( py_obj_new_exception_2 ( rt_q_TypeError , " sum expected at most 2 arguments, got %d " , ( void * ) ( machine_int_t ) n_args , NULL ) ) ;
}
py_obj_t iterable = rt_getiter ( args [ 0 ] ) ;
py_obj_t item ;
while ( ( item = rt_iternext ( iterable ) ) ! = py_const_stop_iteration ) {
value = rt_binary_op ( RT_BINARY_OP_ADD , value , item ) ;
}
return value ;
}