code
string
signature
string
docstring
string
loss_without_docstring
float64
loss_with_docstring
float64
factor
float64
output = [] output.extend(_8bit_oper(ins.quad[2], ins.quad[3])) output.append('call __LTI8') output.append('push af') REQUIRES.add('lti8.asm') return output
def _lti8(ins)
Compares & pops top 2 operands out of the stack, and checks if the 1st operand < 2nd operand (top of the stack). Pushes 0 if False, 1 if True. 8 bit signed version
12.948892
17.318489
0.747692
output = _8bit_oper(ins.quad[2], ins.quad[3], reversed_=True) output.append('cp h') output.append('sbc a, a') output.append('push af') return output
def _gtu8(ins)
Compares & pops top 2 operands out of the stack, and checks if the 1st operand > 2nd operand (top of the stack). Pushes 0 if False, 1 if True. 8 bit unsigned version
15.649663
18.646549
0.839279
if is_int(ins.quad[3]): output = _8bit_oper(ins.quad[2]) n = int8(ins.quad[3]) if n: if n == 1: output.append('dec a') else: output.append('sub %i' % n) else: output = _8bit_oper(ins.quad[2], ins.quad[3]) output.append('sub h') output.append('sub 1') # Sets Carry only if 0 output.append('sbc a, a') output.append('push af') return output
def _eq8(ins)
Compares & pops top 2 operands out of the stack, and checks if the 1st operand == 2nd operand (top of the stack). Pushes 0 if False, 1 if True. 8 bit un/signed version
6.098963
6.414364
0.950829
output = _8bit_oper(ins.quad[2], ins.quad[3], reversed_=True) output.append('sub h') # Carry if H > A output.append('ccf') # Negates => Carry if H <= A output.append('sbc a, a') output.append('push af') return output
def _leu8(ins)
Compares & pops top 2 operands out of the stack, and checks if the 1st operand <= 2nd operand (top of the stack). Pushes 0 if False, 1 if True. 8 bit unsigned version
14.908493
16.881315
0.883136
output = _8bit_oper(ins.quad[2], ins.quad[3]) output.append('call __LEI8') output.append('push af') REQUIRES.add('lei8.asm') return output
def _lei8(ins)
Compares & pops top 2 operands out of the stack, and checks if the 1st operand <= 2nd operand (top of the stack). Pushes 0 if False, 1 if True. 8 bit signed version
16.315004
19.752224
0.825983
output = _8bit_oper(ins.quad[2], ins.quad[3], reversed_=True) output.append('call __LEI8') output.append('push af') REQUIRES.add('lei8.asm') return output
def _gei8(ins)
Compares & pops top 2 operands out of the stack, and checks if the 1st operand >= 2nd operand (top of the stack). Pushes 0 if False, 1 if True. 8 bit signed version
20.849369
24.478733
0.851734
op1, op2 = tuple(ins.quad[2:]) if _int_ops(op1, op2) is not None: op1, op2 = _int_ops(op1, op2) output = _8bit_oper(op1) # Pops the stack (if applicable) if op2 != 0: # X and True = X output.append('push af') return output # False and X = False output.append('xor a') output.append('push af') return output output = _8bit_oper(op1, op2) # output.append('call __AND8') lbl = tmp_label() output.append('or a') output.append('jr z, %s' % lbl) output.append('ld a, h') output.append('%s:' % lbl) output.append('push af') # REQUIRES.add('and8.asm') return output
def _and8(ins)
Pops top 2 operands out of the stack, and checks if 1st operand AND (logical) 2nd operand (top of the stack), pushes 0 if False, not 0 if True. 8 bit un/signed version
6.214202
6.316106
0.983866
op1, op2 = tuple(ins.quad[2:]) if _int_ops(op1, op2) is not None: op1, op2 = _int_ops(op1, op2) output = _8bit_oper(op1) if op2 == 0xFF: # X & 0xFF = X output.append('push af') return output if op2 == 0: # X and 0 = 0 output.append('xor a') output.append('push af') return output op1, op2 = tuple(ins.quad[2:]) output = _8bit_oper(op1, op2) output.append('and h') output.append('push af') return output
def _band8(ins)
Pops top 2 operands out of the stack, and does 1st AND (bitwise) 2nd operand (top of the stack), pushes the result. 8 bit un/signed version
4.035406
4.104582
0.983147
op1, op2 = tuple(ins.quad[2:]) if _int_ops(op1, op2) is not None: op1, op2 = _int_ops(op1, op2) output = _8bit_oper(op1) # True or X = not X if op2 == 0: # False xor X = X output.append('push af') return output output.append('sub 1') output.append('sbc a, a') output.append('push af') return output output = _8bit_oper(op1, op2) output.append('call __XOR8') output.append('push af') REQUIRES.add('xor8.asm') return output
def _xor8(ins)
Pops top 2 operands out of the stack, and checks if 1st operand XOR (logical) 2nd operand (top of the stack), pushes 0 if False, 1 if True. 8 bit un/signed version
5.886494
6.139095
0.958854
output = _8bit_oper(ins.quad[2]) output.append('sub 1') # Gives carry only if A = 0 output.append('sbc a, a') # Gives FF only if Carry else 0 output.append('push af') return output
def _not8(ins)
Negates (Logical NOT) top of the stack (8 bits in AF)
16.919756
14.605633
1.15844
output = _8bit_oper(ins.quad[2]) output.append('cpl') # Gives carry only if A = 0 output.append('push af') return output
def _bnot8(ins)
Negates (BITWISE NOT) top of the stack (8 bits in AF)
26.229639
19.993259
1.311924
output = _8bit_oper(ins.quad[2]) output.append('neg') output.append('push af') return output
def _neg8(ins)
Negates top of the stack (8 bits in AF)
20.178024
16.061539
1.256295
output = _8bit_oper(ins.quad[2]) output.append('call __ABS8') output.append('push af') REQUIRES.add('abs8.asm') return output
def _abs8(ins)
Absolute value of top of the stack (8 bits in AF)
22.198065
21.70241
1.022839
op1, op2 = tuple(ins.quad[2:]) if is_int(op2): op2 = int8(op2) output = _8bit_oper(op1) if op2 == 0: output.append('push af') return output if op2 < 4: output.extend(['srl a'] * op2) output.append('push af') return output label = tmp_label() output.append('ld b, %i' % int8(op2)) output.append('%s:' % label) output.append('srl a') output.append('djnz %s' % label) output.append('push af') return output if is_int(op1) and int(op1) == 0: output = _8bit_oper(op2) output.append('xor a') output.append('push af') return output output = _8bit_oper(op1, op2, True) label = tmp_label() label2 = tmp_label() output.append('or a') output.append('ld b, a') output.append('ld a, h') output.append('jr z, %s' % label2) output.append('%s:' % label) output.append('srl a') output.append('djnz %s' % label) output.append('%s:' % label2) output.append('push af') return output
def _shru8(ins)
Shift 8bit unsigned integer to the right. The result is pushed onto the stack. Optimizations: * If 1nd or 2nd op is 0 then do nothing * If 2nd op is < 4 then unroll loop
2.788625
2.832646
0.984459
if symbolTable is None: symbolTable = self.table return symbolTable.defined(self.id_)
def is_defined(self, symbolTable=None)
True if this macro has been defined
6.335392
5.973838
1.060523
''' Creates an array BOUND LIST. ''' if node is None: return cls.make_node(SymbolBOUNDLIST(), *args) if node.token != 'BOUNDLIST': return cls.make_node(None, node, *args) for arg in args: if arg is None: continue node.appendChild(arg) return node
def make_node(cls, node, *args)
Creates an array BOUND LIST.
7.369787
4.6968
1.569108
global LABELS global LET_ASSIGNMENT global PRINT_IS_USED global SYMBOL_TABLE global ast global data_ast global optemps global OPTIONS global last_brk_linenum LABELS = {} LET_ASSIGNMENT = False PRINT_IS_USED = False last_brk_linenum = 0 ast = None data_ast = None # Global Variables AST optemps = OpcodesTemps() gl.INITS.clear() del gl.FUNCTION_CALLS[:] del gl.FUNCTION_LEVEL[:] del gl.FUNCTIONS[:] SYMBOL_TABLE = gl.SYMBOL_TABLE = api.symboltable.SymbolTable() OPTIONS = api.config.OPTIONS # DATAs info gl.DATA_LABELS.clear() gl.DATA_IS_USED = False del gl.DATAS[:] gl.DATA_PTR_CURRENT = api.utils.current_data_label() gl.DATA_FUNCTIONS = [] gl.error_msg_cache.clear()
def init()
Initializes parser state
7.932689
7.934425
0.999781
return symbols.NUMBER(value, type_=type_, lineno=lineno)
def make_number(value, lineno, type_=None)
Wrapper: creates a constant number node.
10.688004
9.666857
1.105634
assert isinstance(type_, symbols.TYPE) return symbols.TYPECAST.make_node(type_, node, lineno)
def make_typecast(type_, node, lineno)
Wrapper: returns a Typecast node
7.378911
7.254114
1.017204
return symbols.BINARY.make_node(operator, left, right, lineno, func, type_)
def make_binary(lineno, operator, left, right, func=None, type_=None)
Wrapper: returns a Binary node
9.040821
7.967941
1.13465
return symbols.UNARY.make_node(lineno, operator, operand, func, type_)
def make_unary(lineno, operator, operand, func=None, type_=None)
Wrapper: returns a Unary node
8.669894
6.858951
1.264026
if operands is None: operands = [] assert isinstance(operands, Symbol) or isinstance(operands, tuple) or isinstance(operands, list) # TODO: In the future, builtin functions will be implemented in an external library, like POINT or ATTR __DEBUG__('Creating BUILTIN "{}"'.format(fname), 1) if not isinstance(operands, collections.Iterable): operands = [operands] return symbols.BUILTIN.make_node(lineno, fname, func, type_, *operands)
def make_builtin(lineno, fname, operands, func=None, type_=None)
Wrapper: returns a Builtin function node. Can be a Symbol, tuple or list of Symbols If operand is an iterable, they will be expanded.
7.584505
6.736498
1.125882
return symbols.STRSLICE.make_node(lineno, s, lower, upper)
def make_strslice(lineno, s, lower, upper)
Wrapper: returns String Slice node
6.337815
5.2761
1.201231
return symbols.SENTENCE(*([sentence] + list(args)), **kwargs)
def make_sentence(sentence, *args, **kwargs)
Wrapper: returns a Sentence node
12.193191
10.747928
1.134469
return symbols.FUNCDECL.make_node(func_name, lineno, type_=type_)
def make_func_declaration(func_name, lineno, type_=None)
This will return a node with the symbol as a function.
9.074233
7.040556
1.288852
if expr is None: return # There were a syntax / semantic error if byref is None: byref = OPTIONS.byref.value return symbols.ARGUMENT(expr, lineno=lineno, byref=byref)
def make_argument(expr, lineno, byref=None)
Wrapper: Creates a node containing an ARGUMENT
9.005135
8.507712
1.058467
return symbols.CALL.make_node(id_, params, lineno)
def make_sub_call(id_, lineno, params)
This will return an AST node for a sub/procedure call.
13.248963
11.833914
1.119576
return symbols.FUNCCALL.make_node(id_, params, lineno)
def make_func_call(id_, lineno, params)
This will return an AST node for a function call.
11.140858
11.214095
0.993469
return symbols.ARRAYACCESS.make_node(id_, arglist, lineno)
def make_array_access(id_, lineno, arglist)
Creates an array access. A(x1, x2, ..., xn). This is an RVALUE (Read the element)
14.646219
20.728714
0.706567
assert isinstance(args, symbols.ARGLIST) entry = SYMBOL_TABLE.access_call(id_, lineno) if entry is None: return None if entry.class_ is CLASS.unknown and entry.type_ == TYPE.string and len(args) == 1 and is_numeric(args[0]): entry.class_ = CLASS.var # A scalar variable. e.g a$(expr) if entry.class_ == CLASS.array: # An already declared array arr = symbols.ARRAYLOAD.make_node(id_, args, lineno) if arr is None: return None if arr.offset is not None: offset = make_typecast(TYPE.uinteger, make_number(arr.offset, lineno=lineno), lineno) arr.appendChild(offset) return arr if entry.class_ == CLASS.var: # An already declared/used string var if len(args) > 1: api.errmsg.syntax_error_not_array_nor_func(lineno, id_) return None entry = SYMBOL_TABLE.access_var(id_, lineno) if entry is None: return None if len(args) == 1: return symbols.STRSLICE.make_node(lineno, entry, args[0].value, args[0].value) entry.accessed = True return entry return make_func_call(id_, lineno, args)
def make_call(id_, lineno, args)
This will return an AST node for a function call/array access. A "call" is just an ID followed by a list of arguments. E.g. a(4) - a(4) can be a function call if 'a' is a function - a(4) can be a string slice if a is a string variable: a$(4) - a(4) can be an access to an array if a is an array This function will inspect the id_. If it is undeclared then id_ will be taken as a forwarded function.
5.483416
5.257292
1.043011
assert isinstance(typename, str) if not SYMBOL_TABLE.check_is_declared(typename, lineno, 'type'): return None type_ = symbols.TYPEREF(SYMBOL_TABLE.get_entry(typename), lineno, implicit) return type_
def make_type(typename, lineno, implicit=False)
Converts a typename identifier (e.g. 'float') to its internal symbol table entry representation. Creates a type usage symbol stored in a AST E.g. DIM a As Integer will access Integer type
6.141107
7.924435
0.774958
return symbols.BOUND.make_node(lower, upper, lineno)
def make_bound(lower, upper, lineno)
Wrapper: Creates an array bound
15.740012
17.428747
0.903106
entry = SYMBOL_TABLE.declare_label(id_, lineno) if entry: gl.DATA_LABELS[id_] = gl.DATA_PTR_CURRENT # This label points to the current DATA block index return entry
def make_label(id_, lineno)
Creates a label entry. Returns None on error.
15.698487
13.913423
1.128298
global last_brk_linenum if not OPTIONS.enableBreak.value or lineno == last_brk_linenum or is_null(p): return None last_brk_linenum = lineno return make_sentence('CHKBREAK', make_number(lineno, lineno, TYPE.uinteger))
def make_break(lineno, p)
Checks if --enable-break is set, and if so, calls BREAK keyboard interruption for this line if it has not been already checked
12.669161
12.568929
1.007975
global ast, data_ast user_data = make_label('.ZXBASIC_USER_DATA', 0) make_label('.ZXBASIC_USER_DATA_LEN', 0) if PRINT_IS_USED: zxbpp.ID_TABLE.define('___PRINT_IS_USED___', 1) # zxbasmpp.ID_TABLE.define('___PRINT_IS_USED___', 1) if zxblex.IN_STATE: p.type = 'NEWLINE' p_error(p) sys.exit(1) ast = p[0] = p[1] __end = make_sentence('END', make_number(0, lineno=p.lexer.lineno)) if not is_null(ast): ast.appendChild(__end) else: ast = __end SYMBOL_TABLE.check_labels() SYMBOL_TABLE.check_classes() if gl.has_errors: return __DEBUG__('Checking pending labels', 1) if not api.check.check_pending_labels(ast): return __DEBUG__('Checking pending calls', 1) if not api.check.check_pending_calls(): return data_ast = make_sentence('BLOCK', user_data) # Appends variable declarations at the end. for var in SYMBOL_TABLE.vars_: data_ast.appendChild(make_var_declaration(var)) # Appends arrays declarations at the end. for var in SYMBOL_TABLE.arrays: data_ast.appendChild(make_array_declaration(var))
def p_start(p)
start : program
7.002413
6.904109
1.014238
p[0] = make_block(p[1], p[2], make_break(p.lineno(2), p[2]))
def p_program(p)
program : program program_line
5.942556
5.324666
1.116043
if len(p) == 2: p[0] = make_block(p[1]) else: p[0] = make_block(p[1], p[2])
def p_statements_statement(p)
statements : statement | statements_co statement
2.383148
2.043341
1.1663
lbl = make_label(p[1], p.lineno(1)) p[0] = make_block(lbl, p[2]) if len(p) == 3 else lbl
def p_program_line_label(p)
label_line : LABEL statements | LABEL co_statements
4.34675
3.685514
1.179415
lbl = make_label(p[1], p.lineno(1)) p[0] = make_block(lbl, p[2]) if len(p) == 3 else lbl
def p_label_line_co(p)
label_line_co : LABEL statements_co | LABEL co_statements_co | LABEL
4.276609
4.268099
1.001994
for vardata in p[2]: SYMBOL_TABLE.declare_variable(vardata[0], vardata[1], p[3]) p[0] = None
def p_var_decl(p)
var_decl : DIM idlist typedef
5.721358
5.469853
1.04598
p[0] = None if len(p[2]) != 1: syntax_error(p.lineno(1), 'Only one variable at a time can be declared this way') return idlist = p[2][0] entry = SYMBOL_TABLE.declare_variable(idlist[0], idlist[1], p[3]) if entry is None: return if p[5].token == 'CONST': tmp = p[5].expr if tmp.token == 'UNARY' and tmp.operator == 'ADDRESS': # Must be an ID if tmp.operand.token == 'VAR': entry.make_alias(tmp.operand) elif tmp.operand.token == 'ARRAYACCESS': if tmp.operand.offset is None: syntax_error(p.lineno(4), 'Address is not constant. Only constant subscripts are allowed') return entry.make_alias(tmp.operand) entry.offset = tmp.operand.offset else: syntax_error(p.lineno(4), 'Only address of identifiers are allowed') return elif not is_number(p[5]): syntax_error(p.lineno(4), 'Address must be a numeric constant expression') return else: entry.addr = str(make_typecast(_TYPE(gl.STR_INDEX_TYPE), p[5], p.lineno(4)).value) entry.accessed = True if entry.scope == SCOPE.local: SYMBOL_TABLE.make_static(entry.name)
def p_var_decl_at(p)
var_decl : DIM idlist typedef AT expr
4.731373
4.408374
1.073269
p[0] = None if len(p[2]) != 1: syntax_error(p.lineno(1), "Initialized variables must be declared one by one.") return if p[5] is None: return if not is_static(p[5]): if isinstance(p[5], symbols.UNARY): p[5] = make_constexpr(p.lineno(4), p[5]) # Delayed constant evaluation if p[3].implicit: p[3] = symbols.TYPEREF(p[5].type_, p.lexer.lineno, implicit=True) value = make_typecast(p[3], p[5], p.lineno(4)) defval = value if is_static(p[5]) else None if p[1] == 'DIM': SYMBOL_TABLE.declare_variable(p[2][0][0], p[2][0][1], p[3], default_value=defval) else: SYMBOL_TABLE.declare_const(p[2][0][0], p[2][0][1], p[3], default_value=defval) if defval is None: # Okay do a delayed initialization p[0] = make_sentence('LET', SYMBOL_TABLE.access_var(p[2][0][0], p.lineno(1)), value)
def p_var_decl_ini(p)
var_decl : DIM idlist typedef EQ expr | CONST idlist typedef EQ expr
4.834812
4.538009
1.065404
if len(p[2]) != 1: syntax_error(p.lineno(1), "Array declaration only allows one variable name at a time") else: id_, lineno = p[2][0] SYMBOL_TABLE.declare_array(id_, lineno, p[6], p[4]) p[0] = p[2][0]
def p_decl_arr(p)
var_arr_decl : DIM idlist LP bound_list RP typedef
4.481827
4.402495
1.01802
def check_bound(boundlist, remaining): lineno = p.lineno(8) if not boundlist: # Returns on empty list if not isinstance(remaining, list): return True # It's OK :-) syntax_error(lineno, 'Unexpected extra vector dimensions. It should be %i' % len(remaining)) if not isinstance(remaining, list): syntax_error(lineno, 'Mismatched vector size. Missing %i extra dimension(s)' % len(boundlist)) return False if len(remaining) != boundlist[0].count: syntax_error(lineno, 'Mismatched vector size. Expected %i elements, got %i.' % (boundlist[0].count, len(remaining))) return False # It's wrong. :-( for row in remaining: if not check_bound(boundlist[1:], row): return False return True if p[8] is None: p[0] = None return if check_bound(p[4].children, p[8]): id_, lineno = p[2][0] SYMBOL_TABLE.declare_array(id_, lineno, p[6], p[4], default_value=p[8]) p[0] = None
def p_arr_decl_initialized(p)
var_arr_decl : DIM idlist LP bound_list RP typedef RIGHTARROW const_vector | DIM idlist LP bound_list RP typedef EQ const_vector
5.040039
4.800141
1.049977
p[0] = make_bound(make_number(OPTIONS.array_base.value, lineno=p.lineno(1)), p[1], p.lexer.lineno)
def p_bound(p)
bound : expr
12.765911
11.304193
1.129308
if p[1] is None: return if not is_static(p[1]): if isinstance(p[1], symbols.UNARY): tmp = make_constexpr(p.lineno(1), p[1]) else: api.errmsg.syntax_error_not_constant(p.lexer.lineno) p[0] = None return else: tmp = p[1] p[0] = [tmp]
def p_const_vector_elem_list(p)
const_number_list : expr
5.198276
5.060384
1.027249
if p[1] is None or p[3] is None: return if not is_static(p[3]): if isinstance(p[3], symbols.UNARY): tmp = make_constexpr(p.lineno(2), p[3]) else: api.errmsg.syntax_error_not_constant(p.lineno(2)) p[0] = None return else: tmp = p[3] if p[1] is not None: p[1].append(tmp) p[0] = p[1]
def p_const_vector_elem_list_list(p)
const_number_list : const_number_list COMMA expr
4.209883
4.047883
1.040021
if len(p[3]) != len(p[1][0]): syntax_error(p.lineno(2), 'All rows must have the same number of elements') p[0] = None return p[0] = p[1] + [p[3]]
def p_const_vector_vector_list(p)
const_vector_list : const_vector_list COMMA const_vector
3.578379
3.693376
0.968864
p[0] = make_sentence('BORDER', make_typecast(TYPE.ubyte, p[2], p.lineno(1)))
def p_statement_border(p)
statement : BORDER expr
22.071447
16.854486
1.30953
p[0] = make_sentence('PLOT', make_typecast(TYPE.ubyte, p[2], p.lineno(3)), make_typecast(TYPE.ubyte, p[4], p.lineno(3)))
def p_statement_plot(p)
statement : PLOT expr COMMA expr
7.613324
6.361716
1.196741
p[0] = make_sentence('PLOT', make_typecast(TYPE.ubyte, p[3], p.lineno(4)), make_typecast(TYPE.ubyte, p[5], p.lineno(4)), p[2])
def p_statement_plot_attr(p)
statement : PLOT attr_list expr COMMA expr
7.876998
7.262105
1.084671
p[0] = make_sentence('DRAW3', make_typecast(TYPE.integer, p[2], p.lineno(3)), make_typecast(TYPE.integer, p[4], p.lineno(5)), make_typecast(TYPE.float_, p[6], p.lineno(5)))
def p_statement_draw3(p)
statement : DRAW expr COMMA expr COMMA expr
4.570899
4.038651
1.131788
p[0] = make_sentence('DRAW3', make_typecast(TYPE.integer, p[3], p.lineno(4)), make_typecast(TYPE.integer, p[5], p.lineno(6)), make_typecast(TYPE.float_, p[7], p.lineno(6)), p[2])
def p_statement_draw3_attr(p)
statement : DRAW attr_list expr COMMA expr COMMA expr
4.80293
4.660244
1.030618
p[0] = make_sentence('DRAW', make_typecast(TYPE.integer, p[2], p.lineno(3)), make_typecast(TYPE.integer, p[4], p.lineno(3)))
def p_statement_draw(p)
statement : DRAW expr COMMA expr
6.246336
5.163878
1.209621
p[0] = make_sentence('DRAW', make_typecast(TYPE.integer, p[3], p.lineno(4)), make_typecast(TYPE.integer, p[5], p.lineno(4)), p[2])
def p_statement_draw_attr(p)
statement : DRAW attr_list expr COMMA expr
6.505994
5.980498
1.087868
p[0] = make_sentence('CIRCLE', make_typecast(TYPE.byte_, p[2], p.lineno(3)), make_typecast(TYPE.byte_, p[4], p.lineno(5)), make_typecast(TYPE.byte_, p[6], p.lineno(5)))
def p_statement_circle(p)
statement : CIRCLE expr COMMA expr COMMA expr
4.685649
3.963087
1.182323
p[0] = make_sentence('CIRCLE', make_typecast(TYPE.byte_, p[3], p.lineno(4)), make_typecast(TYPE.byte_, p[5], p.lineno(6)), make_typecast(TYPE.byte_, p[7], p.lineno(6)), p[2])
def p_statement_circle_attr(p)
statement : CIRCLE attr_list expr COMMA expr COMMA expr
5.039825
4.611659
1.092844
p[0] = make_sentence('RANDOMIZE', make_number(0, lineno=p.lineno(1), type_=TYPE.ulong))
def p_statement_randomize(p)
statement : RANDOMIZE
16.702524
13.506885
1.236593
p[0] = make_sentence('RANDOMIZE', make_typecast(TYPE.ulong, p[2], p.lineno(1)))
def p_statement_randomize_expr(p)
statement : RANDOMIZE expr
16.095369
11.592763
1.388398
p[0] = make_sentence('BEEP', make_typecast(TYPE.float_, p[2], p.lineno(1)), make_typecast(TYPE.float_, p[4], p.lineno(3)))
def p_statement_beep(p)
statement : BEEP expr COMMA expr
6.780757
4.964706
1.365792
if len(p) > 2 and p[2] is None: p[0] = None elif len(p) == 2: entry = SYMBOL_TABLE.get_entry(p[1]) if not entry or entry.class_ in (CLASS.label, CLASS.unknown): p[0] = make_label(p[1], p.lineno(1)) else: p[0] = make_sub_call(p[1], p.lineno(1), make_arg_list(None)) else: p[0] = make_sub_call(p[1], p.lineno(1), p[2])
def p_statement_call(p)
statement : ID arg_list | ID arguments | ID
3.043025
3.039309
1.001223
global LET_ASSIGNMENT LET_ASSIGNMENT = False # Mark we're no longer using LET p[0] = None q = p[1:] i = 1 if q[1] is None: return if isinstance(q[1], symbols.VAR) and q[1].class_ == CLASS.unknown: q[1] = SYMBOL_TABLE.access_var(q[1].name, p.lineno(i)) q1class_ = q[1].class_ if isinstance(q[1], symbols.VAR) else CLASS.unknown variable = SYMBOL_TABLE.access_id(q[0], p.lineno(i), default_type=q[1].type_, default_class=q1class_) if variable is None: return # HINT: This only happens if variable was not declared with DIM and --strict flag is in use if variable.class_ == CLASS.unknown: # The variable is implicit variable.class_ = CLASS.var if variable.class_ not in (CLASS.var, CLASS.array): api.errmsg.syntax_error_cannot_assing_not_a_var(p.lineno(i), variable.name) return if variable.class_ == CLASS.var and q1class_ == CLASS.array: syntax_error(p.lineno(i), 'Cannot assign an array to an scalar variable') return if variable.class_ == CLASS.array: if q1class_ != variable.class_: syntax_error(p.lineno(i), 'Cannot assign an scalar to an array variable') return if q[1].type_ != variable.type_: syntax_error(p.lineno(i), 'Arrays must have the same element type') return if variable.memsize != q[1].memsize: syntax_error(p.lineno(i), "Arrays '%s' and '%s' must have the same size" % (variable.name, q[1].name)) return if variable.count != q[1].count: warning(p.lineno(i), "Arrays '%s' and '%s' don't have the same number of dimensions" % (variable.name, q[1].name)) else: for b1, b2 in zip(variable.bounds, q[1].bounds): if b1.count != b2.count: warning(p.lineno(i), "Arrays '%s' and '%s' don't have the same dimensions" % (variable.name, q[1].name)) break # Array copy p[0] = make_sentence('ARRAYCOPY', variable, q[1]) return expr = make_typecast(variable.type_, q[1], p.lineno(i)) p[0] = make_sentence('LET', variable, expr)
def p_assignment(p)
statement : lexpr expr
3.421714
3.392555
1.008595
global LET_ASSIGNMENT LET_ASSIGNMENT = True # Mark we're about to start a LET sentence if p[1] == 'LET': p[0] = p[2] i = 2 else: p[0] = p[1] i = 1 SYMBOL_TABLE.access_id(p[i], p.lineno(i))
def p_lexpr(p)
lexpr : ID EQ | LET ID EQ | ARRAY_ID EQ | LET ARRAY_ID EQ
6.029499
5.861233
1.028708
i = 2 if p[1].upper() == 'LET' else 1 id_ = p[i] arg_list = p[i + 1] expr = p[i + 3] p[0] = None if arg_list is None or expr is None: return # There were errors entry = SYMBOL_TABLE.access_call(id_, p.lineno(i)) if entry is None: return if entry.type_ == TYPE.string: variable = gl.SYMBOL_TABLE.access_array(id_, p.lineno(i)) if len(variable.bounds) + 1 == len(arg_list): ss = arg_list.children.pop().value p[0] = make_array_substr_assign(p.lineno(i), id_, arg_list, (ss, ss), expr) return arr = make_array_access(id_, p.lineno(i), arg_list) if arr is None: return expr = make_typecast(arr.type_, expr, p.lineno(i)) if entry is None: return p[0] = make_sentence('LETARRAY', arr, expr)
def p_arr_assignment(p)
statement : ARRAY_ID arg_list EQ expr | LET ARRAY_ID arg_list EQ expr
5.265649
4.945099
1.064822
# This can be only a substr assignment like a$(i + 3) = ".", since arrays # have ARRAY_ID already entry = SYMBOL_TABLE.access_call(p[1], p.lineno(1)) if entry is None: return if entry.class_ == CLASS.unknown: entry.class_ = CLASS.var if p[6].type_ != TYPE.string: api.errmsg.syntax_error_expected_string(p.lineno(5), p[6].type_) lineno = p.lineno(2) base = make_number(OPTIONS.string_base.value, lineno, _TYPE(gl.STR_INDEX_TYPE)) substr = make_typecast(_TYPE(gl.STR_INDEX_TYPE), p[3], lineno) p[0] = make_sentence('LETSUBSTR', entry, make_binary(lineno, 'MINUS', substr, base, func=lambda x, y: x - y), make_binary(lineno, 'MINUS', substr, base, func=lambda x, y: x - y), p[6])
def p_substr_assignment_no_let(p)
statement : ID LP expr RP EQ expr
9.188406
8.704207
1.055628
if p[3] is None or p[5] is None: return # There were errors p[0] = None entry = SYMBOL_TABLE.access_call(p[2], p.lineno(2)) if entry is None: return if entry.class_ == CLASS.unknown: entry.class_ = CLASS.var assert entry.class_ == CLASS.var and entry.type_ == TYPE.string if p[5].type_ != TYPE.string: api.errmsg.syntax_error_expected_string(p.lineno(4), p[5].type_) if len(p[3]) > 1: syntax_error(p.lineno(2), "Accessing string with too many indexes. Expected only one.") return if len(p[3]) == 1: substr = ( make_typecast(_TYPE(gl.STR_INDEX_TYPE), p[3][0].value, p.lineno(2)), make_typecast(_TYPE(gl.STR_INDEX_TYPE), p[3][0].value, p.lineno(2))) else: substr = (make_typecast(_TYPE(gl.STR_INDEX_TYPE), make_number(gl.MIN_STRSLICE_IDX, lineno=p.lineno(2)), p.lineno(2)), make_typecast(_TYPE(gl.STR_INDEX_TYPE), make_number(gl.MAX_STRSLICE_IDX, lineno=p.lineno(2)), p.lineno(2))) lineno = p.lineno(2) base = make_number(OPTIONS.string_base.value, lineno, _TYPE(gl.STR_INDEX_TYPE)) p[0] = make_sentence('LETSUBSTR', entry, make_binary(lineno, 'MINUS', substr[0], base, func=lambda x, y: x - y), make_binary(lineno, 'MINUS', substr[1], base, func=lambda x, y: x - y), p[5])
def p_substr_assignment(p)
statement : LET ID arg_list EQ expr
3.763718
3.677683
1.023394
if p[1].upper() != 'LET': q = p[1] r = p[4] s = p[2] lineno = p.lineno(3) else: q = p[2] r = p[5] s = p[3] lineno = p.lineno(4) if q is None or s is None: p[0] = None return if r.type_ != TYPE.string: api.errmsg.syntax_error_expected_string(lineno, r.type_) entry = SYMBOL_TABLE.access_var(q, lineno, default_type=TYPE.string) if entry is None: p[0] = None return p[0] = make_sentence('LETSUBSTR', entry, s[0], s[1], r)
def p_str_assign(p)
statement : ID substr EQ expr | LET ID substr EQ expr
4.791351
4.319894
1.109136
entry = check_and_make_label(p[2], p.lineno(2)) if entry is not None: p[0] = make_sentence(p[1].upper(), entry) else: p[0] = None
def p_goto(p)
statement : goto NUMBER | goto ID
5.078885
5.003222
1.015123
cond_ = p[1] if len(p) == 6: lbl = make_label(p[3], p.lineno(3)) stat_ = make_block(lbl, p[4]) endif_ = p[5] elif len(p) == 5: stat_ = p[3] endif_ = p[4] else: stat_ = make_nop() endif_ = p[3] p[0] = make_sentence('IF', cond_, make_block(stat_, endif_), lineno=p.lineno(2))
def p_if_sentence(p)
statement : if_then_part NEWLINE program_co endif | if_then_part NEWLINE endif | if_then_part NEWLINE statements_co endif | if_then_part NEWLINE co_statements_co endif | if_then_part NEWLINE LABEL statements_co endif
3.227384
3.381415
0.954448
cond_ = p[1] stat_ = p[2] endif_ = p[3] p[0] = make_sentence('IF', cond_, make_block(stat_, endif_), lineno=p.lineno(1))
def p_statement_if_then_endif(p)
statement : if_then_part statements_co endif | if_then_part co_statements_co endif
4.933388
5.182218
0.951984
cond_ = p[1] stat_ = p[2] p[0] = make_sentence('IF', cond_, stat_, lineno=p.lineno(1))
def p_single_line_if(p)
if_inline : if_then_part statements %prec ID | if_then_part co_statements_co %prec NEWLINE | if_then_part statements_co %prec NEWLINE | if_then_part co_statements %prec ID
5.687667
6.952027
0.818131
cond_ = p[1] stats_ = p[3] if len(p) == 5 else make_nop() eliflist = p[4] if len(p) == 5 else p[3] p[0] = make_sentence('IF', cond_, stats_, eliflist, lineno=p.lineno(2))
def p_if_elseif(p)
statement : if_then_part NEWLINE program_co elseiflist | if_then_part NEWLINE elseiflist
4.846964
4.435759
1.092702
if p[1] == 'ELSEIF': label_ = make_nop() # No label cond_ = p[2] else: label_ = make_label(p[1], p.lineno(1)) cond_ = p[3] p[0] = label_, cond_
def p_elseif_part(p)
elseif_expr : ELSEIF expr then | LABEL ELSEIF expr then
5.130171
4.610179
1.112792
label_, cond_ = p[1] then_ = p[2] else_ = p[3] if isinstance(else_, list): # it's an else part else_ = make_block(*else_) else: then_ = make_block(then_, else_) else_ = None p[0] = make_block(label_, make_sentence('IF', cond_, then_, else_, lineno=p.lineno(1)))
def p_elseif_list(p)
elseiflist : elseif_expr program_co endif | elseif_expr program_co else_part
4.42933
4.24386
1.043703
label_, cond_ = p[1] then_ = p[2] else_ = p[3] p[0] = make_block(label_, make_sentence('IF', cond_, then_, else_, lineno=p.lineno(1)))
def p_elseif_elseiflist(p)
elseiflist : elseif_expr program_co elseiflist
4.989252
5.080045
0.982127
if p[2] == '\n': if len(p) == 4: p[0] = [make_nop(), p[3]] elif len(p) == 6: p[0] = [make_label(p[3], p.lineno(3)), p[4], p[5]] else: p[0] = [p[3], p[4]] else: p[0] = [p[2], p[3]]
def p_else_part_endif(p)
else_part_inline : ELSE NEWLINE program_co endif | ELSE NEWLINE statements_co endif | ELSE NEWLINE co_statements_co endif | ELSE NEWLINE endif | ELSE NEWLINE LABEL statements_co endif | ELSE NEWLINE LABEL co_statements_co endif | ELSE statements_co endif | ELSE co_statements_co endif
2.307885
2.448145
0.942708
lbl = make_label(p[1], p.lineno(1)) p[0] = [make_block(lbl, p[3]), p[4]]
def p_else_part_label(p)
else_part : LABEL ELSE program_co endif | LABEL ELSE statements_co endif | LABEL ELSE co_statements_co endif
4.864051
4.535889
1.072348
if is_number(p[2]): api.errmsg.warning_condition_is_always(p.lineno(1), bool(p[2].value)) p[0] = p[2]
def p_if_then_part(p)
if_then_part : IF expr then
10.876682
10.962524
0.992169
cond_ = p[1] then_ = p[3] else_ = p[4][0] endif = p[4][1] p[0] = make_sentence('IF', cond_, then_, make_block(else_, endif), lineno=p.lineno(2))
def p_if_else(p)
statement : if_then_part NEWLINE program_co else_part
4.663681
4.426946
1.053476
p[0] = p[1] if is_null(p[0]): return p[1].appendChild(make_block(p[2], p[3])) gl.LOOPS.pop()
def p_for_sentence(p)
statement : for_start program_co label_next | for_start co_statements_co label_next
8.238317
8.532762
0.965493
if p[1] == 'NEXT': p1 = make_nop() p3 = p[2] else: p1 = make_label(p[1], p.lineno(1)) p3 = p[3] if p3 != gl.LOOPS[-1][1]: api.errmsg.syntax_error_wrong_for_var(p.lineno(2), gl.LOOPS[-1][1], p3) p[0] = make_nop() return p[0] = p1
def p_next1(p)
label_next : LABEL NEXT ID | NEXT ID
4.692103
4.48729
1.045643
gl.LOOPS.append(('FOR', p[2])) p[0] = None if p[4] is None or p[6] is None or p[7] is None: return if is_number(p[4], p[6], p[7]): if p[4].value != p[6].value and p[7].value == 0: warning(p.lineno(5), 'STEP value is 0 and FOR might loop forever') if p[4].value > p[6].value and p[7].value > 0: warning(p.lineno(5), 'FOR start value is greater than end. This FOR loop is useless') if p[4].value < p[6].value and p[7].value < 0: warning(p.lineno(2), 'FOR start value is lower than end. This FOR loop is useless') id_type = common_type(common_type(p[4], p[6]), p[7]) variable = SYMBOL_TABLE.access_var(p[2], p.lineno(2), default_type=id_type) if variable is None: return variable.accessed = True expr1 = make_typecast(variable.type_, p[4], p.lineno(3)) expr2 = make_typecast(variable.type_, p[6], p.lineno(5)) expr3 = make_typecast(variable.type_, p[7], p.lexer.lineno) p[0] = make_sentence('FOR', variable, expr1, expr2, expr3)
def p_for_sentence_start(p)
for_start : FOR ID EQ expr TO expr step
3.252173
3.146719
1.033512
q = make_number(0, lineno=p.lineno(1)) if len(p) == 2 else p[2] p[0] = make_sentence('END', q)
def p_end(p)
statement : END expr | END
6.510886
6.084955
1.069997
q = make_number(1, lineno=p.lineno(2)) r = make_binary(p.lineno(1), 'MINUS', make_typecast(TYPE.ubyte, p[2], p.lineno(1)), q, lambda x, y: x - y) p[0] = make_sentence('ERROR', r)
def p_error_raise(p)
statement : ERROR expr
8.958942
8.017915
1.117366
q = make_number(9, lineno=p.lineno(1)) if len(p) == 2 else p[2] z = make_number(1, lineno=p.lineno(1)) r = make_binary(p.lineno(1), 'MINUS', make_typecast(TYPE.ubyte, q, p.lineno(1)), z, lambda x, y: x - y) p[0] = make_sentence('STOP', r)
def p_stop_raise(p)
statement : STOP expr | STOP
6.531615
6.184954
1.056049
if len(p) == 4: q = make_block(p[2], p[3]) else: q = p[2] if p[1] == 'DO': gl.LOOPS.append(('DO',)) if q is None: warning(p.lineno(1), 'Infinite empty loop') # An infinite loop and no warnings p[0] = make_sentence('DO_LOOP', q) gl.LOOPS.pop()
def p_do_loop(p)
statement : do_start program_co label_loop | do_start label_loop | DO label_loop
7.141396
6.653656
1.073304
label_ = make_label(gl.DATA_PTR_CURRENT, lineno=p.lineno(1)) datas_ = [] funcs = [] if p[2] is None: p[0] = None return for d in p[2].children: value = d.value if is_static(value): datas_.append(d) continue new_lbl = '__DATA__FUNCPTR__{0}'.format(len(gl.DATA_FUNCTIONS)) entry = make_func_declaration(new_lbl, p.lineno(1), type_=value.type_) if not entry: continue func = entry.entry func.convention = CONVENTION.fastcall SYMBOL_TABLE.enter_scope(new_lbl) func.local_symbol_table = SYMBOL_TABLE.table[SYMBOL_TABLE.current_scope] func.locals_size = SYMBOL_TABLE.leave_scope() gl.DATA_FUNCTIONS.append(func) sent = make_sentence('RETURN', func, value) func.body = make_block(sent) datas_.append(entry) funcs.append(entry) gl.DATAS.append([label_, datas_]) id_ = api.utils.current_data_label() gl.DATA_PTR_CURRENT = id_
def p_data(p)
statement : DATA arguments
6.444692
6.35155
1.014664
if len(p) == 2: id_ = '__DATA__{0}'.format(len(gl.DATAS)) else: id_ = p[2] lbl = check_and_make_label(id_, p.lineno(1)) p[0] = make_sentence('RESTORE', lbl)
def p_restore(p)
statement : RESTORE | RESTORE ID | RESTORE NUMBER
7.479067
7.458977
1.002693
gl.DATA_IS_USED = True reads = [] if p[2] is None: return for arg in p[2]: entry = arg.value if entry is None: p[0] = None return if isinstance(entry, symbols.VARARRAY): api.errmsg.syntax_error(p.lineno(1), "Cannot read '%s'. It's an array" % entry.name) p[0] = None return if isinstance(entry, symbols.VAR): if entry.class_ != CLASS.var: api.errmsg.syntax_error_cannot_assing_not_a_var(p.lineno(2), entry.name) p[0] = None return entry.accessed = True if entry.type_ == TYPE.auto: entry.type_ = _TYPE(gl.DEFAULT_TYPE) api.errmsg.warning_implicit_type(p.lineno(2), p[2], entry.type_) reads.append(make_sentence('READ', entry)) continue if isinstance(entry, symbols.ARRAYLOAD): reads.append(make_sentence('READ', symbols.ARRAYACCESS(entry.entry, entry.args, entry.lineno))) continue api.errmsg.syntax_error(p.lineno(1), "Syntax error. Can only read a variable or an array element") p[0] = None return p[0] = make_block(*reads)
def p_read(p)
statement : READ arguments
4.425122
4.241477
1.043297
if len(p) == 6: q = make_block(p[2], p[3]) r = p[5] else: q = p[2] r = p[4] if p[1] == 'DO': gl.LOOPS.append(('DO',)) p[0] = make_sentence('DO_WHILE', r, q) gl.LOOPS.pop() if is_number(r): api.errmsg.warning_condition_is_always(p.lineno(3), bool(r.value)) if q is None: api.errmsg.warning_empty_loop(p.lineno(3))
def p_do_loop_while(p)
statement : do_start program_co label_loop WHILE expr | do_start label_loop WHILE expr | DO label_loop WHILE expr
5.429265
5.231165
1.037869
r = p[1] q = p[2] if q == 'LOOP': q = None p[0] = make_sentence('WHILE_DO', r, q) gl.LOOPS.pop() if is_number(r): api.errmsg.warning_condition_is_always(p.lineno(2), bool(r.value))
def p_do_while_loop(p)
statement : do_while_start program_co LOOP | do_while_start co_statements_co LOOP | do_while_start LOOP
11.783964
11.319669
1.041017
gl.LOOPS.pop() q = make_block(p[2], p[3]) if is_number(p[1]) and p[1].value: if q is None: warning(p[1].lineno, "Condition is always true and leads to an infinite loop.") else: warning(p[1].lineno, "Condition is always true and might lead to an infinite loop.") p[0] = make_sentence('WHILE', p[1], q)
def p_while_sentence(p)
statement : while_start co_statements_co label_end_while | while_start program_co label_end_while
5.800477
6.100562
0.95081
p[0] = p[2] gl.LOOPS.append(('WHILE',)) if is_number(p[2]) and not p[2].value: api.errmsg.warning_condition_is_always(p.lineno(1))
def p_while_start(p)
while_start : WHILE expr
11.961918
10.578426
1.130784
q = p[2] p[0] = make_sentence('EXIT_%s' % q) for i in gl.LOOPS: if q == i[0]: return syntax_error(p.lineno(1), 'Syntax Error: EXIT %s out of loop' % q)
def p_exit(p)
statement : EXIT WHILE | EXIT DO | EXIT FOR
9.004395
8.969726
1.003865
if p[1] in ('BOLD', 'ITALIC'): p[0] = make_sentence(p[1] + '_TMP', make_typecast(TYPE.ubyte, p[2], p.lineno(1))) else: p[0] = p[1]
def p_print_list_expr(p)
print_elem : expr | print_at | print_tab | attr | BOLD expr | ITALIC expr
8.233985
6.772344
1.215825
# ATTR_LIST are used by drawing commands: PLOT, DRAW, CIRCLE # BOLD and ITALIC are ignored by them, so we put them out of the # attr definition so something like DRAW BOLD 1; .... will raise # a syntax error p[0] = make_sentence(p[1] + '_TMP', make_typecast(TYPE.ubyte, p[2], p.lineno(1)))
def p_attr(p)
attr : OVER expr | INVERSE expr | INK expr | PAPER expr | BRIGHT expr | FLASH expr
21.969961
20.87598
1.052404
p[0] = p[1] p[0].eol = (p[3] is not None) if p[3] is not None: p[0].appendChild(p[3])
def p_print_list(p)
print_list : print_list SC print_elem
3.548031
3.248275
1.092282
p[0] = p[1] p[0].eol = (p[3] is not None) p[0].appendChild(make_sentence('PRINT_COMMA')) if p[3] is not None: p[0].appendChild(p[3])
def p_print_list_comma(p)
print_list : print_list COMMA print_elem
4.436068
4.251694
1.043365
p[0] = make_sentence('PRINT_AT', make_typecast(TYPE.ubyte, p[2], p.lineno(1)), make_typecast(TYPE.ubyte, p[4], p.lineno(3)))
def p_print_list_at(p)
print_at : AT expr COMMA expr
7.674461
6.276006
1.222826
p[0] = make_sentence('PRINT_TAB', make_typecast(TYPE.ubyte, p[2], p.lineno(1)))
def p_print_list_tab(p)
print_tab : TAB expr
18.348238
15.020764
1.221525