def p_operand_equal_first(t):
"""operation : ident EQUALSFIRST operand"""
ops = {
'+': 'add',
'-': 'subtract',
'*': 'multiply',
'/': 'divide',
'<': 'lt',
'>': 'gt',
'^': 'power',
'**': 'power',
'<=': 'le',
'>=': 'ge',
'==': 'eq',
'>>': 'shift_right',
'<<': 'shift_left',
'&': 'iand',
'&&': 'and',
'!=': 'NE',
'|': 'ior',
'||': 'or',
'//': 'concat'
}
items = ops.items()
ef_dict = dict()
for itm in items:
ef_dict.setdefault(itm[0] + '=', itm[1])
t[0] = Builtin('equals_first', (Builtin(ef_dict[t[2]],
(t[1], t[3])), ))
def p_inc_dec(t):
"""operation : ident PLUSPLUS\n| ident MINUSMINUS\n| PLUSPLUS ident\n| MINUSMINUS ident"""
op = {'++': '_inc', '--': '_dec'}
if isinstance(t[1], str):
t[0] = Builtin('pre' + op[t[1]], (t[2], ))
else:
t[0] = Builtin('post' + op[t[2]], (t[1], ))
def p_vector(t):
"""vector_part : LBRACKET operand
| LBRACKET
| vector_part COMMA operand
vector : vector_part RBRACKET"""
if isinstance(t[1], str):
if len(t) == 2:
t[0] = Builtin('vector', tuple())
t[0].isarray = True
else:
t[0] = Builtin('vector', (t[2], ))
t[0].isarray = isinstance(t[2], Scalar) or isinstance(
t[2], Array)
elif t[2] == ',':
args = list(t[1].args)
if len(args) > 250:
args = [Builtin('vector', tuple(args)), t[3]]
else:
args.append(t[3])
t[1].args = tuple(args)
t[0] = t[1]
t[0].isarray = t[1].isarray and (isinstance(t[3], Scalar)
or isinstance(t[3], Array))
else:
if t[1].isarray:
t[0] = Data.evaluate(t[1])
else:
t[0] = Builtin('vector', t[1].args)
def p_statements(t):
"""statements : statement\n| statements statement\n| statements braced_statements"""
if len(t) == 2:
t[0] = Builtin('statement', (t[1], ))
else:
if t[2] is None:
t[0] = t[1]
elif len(t[1].args) < 250:
t[1].args = tuple(list(t[1].args) + [t[2]])
t[0] = t[1]
else:
t[0] = Builtin('statement', (t[1], t[2]))
def p_case(t):
"""case : CASE LPAREN operand RPAREN braced_statements\n| CASE LPAREN operand RPAREN statement
| CASE LPAREN operand RPAREN\n| CASE DEFAULT braced_statements
| CASE DEFAULT statement\n| statement"""
if len(t)==4:
t[0]=Builtin('default',(t[3],))
elif len(t)==5:
t[0]=Builtin('case',(None,None))
t[0].args=(t[3],)
t[0].doAppendCase=True
elif len(t)==6:
t[0]=Builtin('case',(t[3],t[5]))
else:
t[0]=t[1]
def p_binop(t):
"""operation : operand PLUS operand
| operand MINUS operand\n| operand TIMES operand\n| operand DIVIDE operand
| operand RAISE operand\n| operand RSHIFT operand\n| operand LSHIFT operand
| operand LESS operand\n| operand GREATER operand\n| operand LESS_EQUAL operand
| operand GREATER_EQUAL operand\n| operand EQUALS operand \n| operand IAND operand
| operand AND operand \n| operand OR operand \n| operand NOT_EQUAL operand
| operand IOR operand\n| operand AND_S operand \n| operand OR_S operand\n| operand NOR_S operand
| operand MOD_S operand
| MOD_S LPAREN operand COMMA operand RPAREN
| operand GT_S operand\n| operand GE_S operand\n| operand LT_S operand\n| operand LE_S operand
| operand EQ_S operand\n| operand NE_S operand
"""
ops = {
'+': 'add',
'-': 'subtract',
'*': 'multiply',
'/': 'divide',
'<': 'lt',
'>': 'gt',
'^': 'power',
'**': 'power',
'<=': 'le',
'>=': 'ge',
'==': 'eq',
'>>': 'shift_right',
'<<': 'shift_left',
'&': 'iand',
'&&': 'and',
'!=': 'NE',
'<>': 'NE',
'|': 'ior',
'||': 'or',
'and': 'and',
'or': 'or',
'nor': 'nor',
'mod': 'MOD',
'gt': 'gt',
'ge': 'ge',
'lt': 'lt',
'le': 'le',
'eq': 'eq',
'ne': 'ne'
}
if len(t) == 4:
t[0] = Builtin(ops[t[2].lower()], (t[1], t[3]))
else:
t[0] = Builtin(ops[t[1].lower()], (t[3], t[5]))
def buildPath(args):
if isinstance(args[0], (str, String)):
name = str(args[0])
if len(name) > 1 and name[0:2] == '\\\\':
name = name[1:]
ans = TreePath(name)
else:
ans = Builtin('build_path', args)
return ans
def p_fun(t):
"""operation : IDENTTYPE FUN NAME fun_args braced_statements
| FUN IDENTTYPE NAME fun_args braced_statements
| FUN NAME fun_args braced_statements"""
args = list()
if len(t) == 6:
if t[1].lower() == 'fun':
itype = t[2]
else:
itype = t[1]
args.append(Builtin(itype, (t[3], )))
args.append(t[5])
for arg in t[4]:
args.append(arg)
else:
args.append(t[2])
args.append(t[4])
for arg in t[3]:
args.append(arg)
t[0] = Builtin('fun', tuple(args))
def t_IDENT(t):
if t.value.lower() == "$roprand":
import numpy as np
t.value = np.frombuffer(np.getbuffer(np.int32(2147483647)),
dtype=np.float32)[0]
else:
try:
t.value = Builtin(t.value, ())
except Exception:
t.value = Ident(t.value)
return t
def p_case(t):
"""case : CASE LPAREN operand RPAREN braced_statements\n| CASE LPAREN operand RPAREN statement
| CASE LPAREN operand RPAREN\n| CASE DEFAULT braced_statements
| CASE DEFAULT statement\n| statement"""
if len(t) == 4:
t[0] = Builtin('default', (t[3], ))
elif len(t) == 5:
t[0] = Builtin('case', (None, None))
t[0].args = (t[3], )
t[0].doAppendCase = True
elif len(t) == 6:
t[0] = Builtin('case', (t[3], t[5]))
else:
t[0] = t[1]
def p_vector(t):
"""vector_part : LBRACKET operand
| LBRACKET
| vector_part COMMA operand
vector : vector_part RBRACKET"""
if isinstance(t[1],str):
if len(t)==2:
t[0]=Builtin('vector',tuple())
t[0].isarray=True
else:
t[0]=Builtin('vector',(t[2],))
t[0].isarray = isinstance(t[2],Scalar) or isinstance(t[2],Array)
elif t[2] == ',':
args=list(t[1].args)
if len(args) > 250:
args=[Builtin('vector',tuple(args)),t[3]]
else:
args.append(t[3])
t[1].args=tuple(args)
t[0]=t[1]
t[0].isarray = t[1].isarray and (isinstance(t[3],Scalar) or isinstance(t[3],Array))
else:
if t[1].isarray:
t[0]=Data.evaluate(t[1])
else:
t[0]=Builtin('vector',t[1].args)
def get(self):
compile_time_concat = True
for arg in self:
if not isinstance(arg, (str, String)):
compile_time_concat = False
break
if compile_time_concat:
c = list()
c.append(self[0])
if len(self) % 2 == 0:
for arg in self[1:-1]:
c[-1] = str(c[-1]) + str(arg)
c.append(self[-1])
else:
for arg in self[1:]:
c[-1] = String(str(c[-1]) + str(arg))
if len(c) > 1:
return Builtin('concat', tuple(c))
else:
return c[0]
else:
return Builtin('concat', tuple(self))
def p_subscript(t):
"""operation : operand vector"""
if len(t) == 2:
t[0] = t[1]
else:
args = [
t[1],
]
if isinstance(t[2], Builtin):
for arg in t[2].args:
args.append(arg)
else:
for arg in t[2]:
args.append(arg)
t[0] = Builtin('subscript', tuple(args))
def p_unaryop(t):
"""operation : NOT operand %prec UNOP\n| INOT operand %prec UNOP\n| MINUS operand %prec UNOP\n| PLUS operand %prec UNOP
| NOT_S operand %prec UNOP"""
ops = {
'!': 'NOT',
'~': 'INOT',
'-': 'UNARY_MINUS',
'not': 'NOT',
'+': 'UNARY_PLUS'
}
if t[1] == '-' and isinstance(t[2], Scalar):
t[0] = makeData(-t[2].data())
elif t[1] == '+' and isinstance(t[2], Scalar):
t[0] = t[2]
else:
t[0] = Builtin(ops[t[1].lower()], (t[2], ))
def p_fun_arg(t):
"""fun_arg : ARGTYPE IDENT\n| ARGTYPE ARGTYPE IDENT\n| IDENT\n| ARGTYPE LPAREN IDENT RPAREN\n| ARGTYPE ARGTYPE LPAREN IDENT RPAREN"""
if len(t) == 2:
t[0] = t[1]
elif len(t) == 3:
t[0] = Builtin(t[1], (str(t[2]), ))
elif len(t) == 4:
t[0] = Builtin(t[1], (Builtin(t[2], (str(t[3]), )), ))
elif len(t) == 5:
t[0] = Builtin(t[1], (t[3], ))
else:
t[0] = Builtin(t[1], (Builtin(t[2], (t[4], )), ))
def buildUsing(args_in):
def restoreTreePaths(arg):
if isinstance(arg, Compound):
args = list()
for a in arg.args:
args.append(restoreTreePaths(a))
arg.args = tuple(args)
ans = arg
elif isinstance(arg, (TreePath, TreeNode)) and hasattr(
arg, 'original_value'):
ans = TreePath(arg.original_value)
else:
ans = arg
return ans
args = list()
for arg in args_in:
args.append(restoreTreePaths(arg))
ans = Builtin('using', tuple(args))
return ans
def p_arglist(t):
"""arglist : LPAREN args RPAREN\n args :\n| args operand\n| args COMMA\n| args ARGTYPE LPAREN operand RPAREN"""
if len(t) == 4:
t[0] = t[2]
elif len(t) == 1:
t[0] = list()
else:
if len(t) == 6:
t[2] = Builtin(t[2], (t[4], ))
if isinstance(t[2], str):
if len(t[1]) == 0:
t[1].append(None)
t[1].append(None)
else:
if len(t[1]) > 0 and (t[1][-1] is None
or isinstance(t[1][-1], EmptyData)):
t[1][-1] = t[2]
else:
t[1].append(t[2])
t[0] = t[1]
def p_assignment(t):
'operation : operand EQUAL operand %prec EQUAL'
t[0] = Builtin('EQUALS', (t[1], t[3]))
def p_loop_control(t):
'operation : BREAK\n| CONTINUE'
t[0] = Builtin(t[1], tuple())
def p_while(t):
"""operation : WHILE LPAREN operand RPAREN braced_statements
| WHILE LPAREN operand RPAREN statement"""
t[0] = Builtin('while', (t[3], t[5]))
def p_if(t):
"""operation : if_begin ifelse_body\n| if_begin ifelse_body ELSE ifelse_body"""
args = [t[1], t[2]]
if len(t) > 3:
args.append(t[4])
t[0] = Builtin('if', tuple(args))
def p_for(t):
"""operation : FOR LPAREN optional_operand SEMICOLON operand SEMICOLON optional_operand RPAREN braced_statements
| FOR LPAREN optional_operand SEMICOLON operand SEMICOLON optional_operand RPAREN statement"""
t[0] = Builtin('for', (t[3], t[5], t[7], t[9]))
def p_switch(t):
"""operation : SWITCH LPAREN operand RPAREN LBRACE cases RBRACE"""
t[0] = Builtin('switch', (t[3], t[6]))
def get(self):
return Builtin('comma', tuple(self))
def p_ident(t):
"""ident : IDENT\n| PLACEHOLDER\n| IDENTTYPE IDENT"""
if len(t) == 2:
t[0] = t[1]
else:
t[0] = Builtin(t[1], (str(t[2]), ))
def p_function(t):
"""operation : NAME arglist\n| EQ_S arglist\n| NE_S arglist\n| LE_S arglist
| LT_S arglist\n| GT_S arglist\n| GE_S arglist"""
def doBuild(name, args):
def build_with_units(args):
args[0].units = args[1]
return args[0]
def build_with_error(args):
args[0].error = args[1]
return args[0]
def build_param(args):
try:
args[0].help = args[1]
args[0].validation = args[2]
except:
pass
return args[0]
def build_slope(args):
new_args = list()
if len(args) > 1:
new_args.append(args[1])
else:
new_args.append(None)
if len(args) > 2:
new_args.append(args[2])
else:
new_args.append(None)
new_args.append(args[0])
return Range(tuple(new_args))
def buildPath(args):
if isinstance(args[0], (str, String)):
name = str(args[0])
if len(name) > 1 and name[0:2] == '\\\\':
name = name[1:]
ans = TreePath(name)
else:
ans = Builtin('build_path', args)
return ans
def buildCall(args):
ans = Call(args[1:])
ans.retType = args[0]
return ans
### retain original node specifiers when building a using function
def buildUsing(args_in):
def restoreTreePaths(arg):
if isinstance(arg, Compound):
args = list()
for a in arg.args:
args.append(restoreTreePaths(a))
arg.args = tuple(args)
ans = arg
elif isinstance(arg, (TreePath, TreeNode)) and hasattr(
arg, 'original_value'):
ans = TreePath(arg.original_value)
else:
ans = arg
return ans
args = list()
for arg in args_in:
args.append(restoreTreePaths(arg))
ans = Builtin('using', tuple(args))
return ans
known_builds = {
'BUILD_ACTION': Action,
#BUILD_CONDITION':Condition,
'BUILD_CONGLOM': Conglom,
'BUILD_DEPENDENCY': Dependency,
'BUILD_DIM': Dimension,
'BUILD_DISPATCH': Dispatch,
'BUILD_EVENT': Event,
'BUILD_FUNCTION': Builtin,
'BUILD_METHOD': Method,
'BUILD_PARAM': build_param,
'BUILD_PROCEDURE': Procedure,
'BUILD_PROGRAM': Program,
'BUILD_RANGE': Range,
'BUILD_ROUTINE': Routine,
'BUILD_SIGNAL': Signal,
'BUILD_SLOPE': build_slope,
'BUILD_WINDOW': Window,
'BUILD_WITH_UNITS': build_with_units,
'BUILD_CALL': buildCall,
'BUILD_WITH_ERROR': build_with_error,
'BUILD_OPAQUE': Opaque,
'BUILD_PATH': buildPath,
'USING': buildUsing,
}
return known_builds[name.upper()](args)
def doMake(name, args):
for arg in args:
if not isinstance(
arg, (Array, Scalar, EmptyData)) and arg is not None:
raise Exception('use make opcode')
name = name.upper().replace('MAKE_', 'BUILD_')
if 'BUILD_' in name:
return doBuild(name, tuple(args))
else:
raise Exception("not a make_ call")
try:
t[0] = doBuild(t[1], tuple(t[2]))
except Exception:
try:
t[0] = doMake(t[1], tuple(t[2]))
except Exception:
try:
numbers = [
'byte', 'byte_unsigned', 'unsigned_byte', 'word',
'word_unsigned', 'unsigned_word', 'long',
'long_unsigned', 'unsigned_long', 'quadword',
'quadword_unsigned', 'unsigned_quadword', 'float',
'double', 'f_float', 'g_float', 'd_float', 'fs_float',
'ft_float'
]
if t[1].lower() in numbers and (isinstance(
t[2][0], Scalar) or isinstance(t[2][0], Array)):
t[0] = Data.evaluate(Builtin(t[1], tuple(t[2])))
else:
t[0] = Builtin(t[1], tuple(t[2]))
except Exception:
t[0] = Builtin('ext_function', tuple([None, t[1]] + t[2]))
def p_conditional(t):
'operation : operand QUESTION operand COLON operand'
t[0] = Builtin('conditional', (t[3], t[5], t[1]))
