def compileLetMacro(comp, form):
if len(form) < 3:
raise CompilerException("alias-properties takes at least two args", form)
form = form.next()
s = RT.seq(form.first())
syms = []
while s is not None:
sym = s.first()
syms.append(sym)
s = s.next()
if s is None:
raise CompilerException("let-macro takes a even number of bindings")
macro = s.first()
comp.pushAlias(sym, LocalMacro(sym, macro))
s = s.next()
body = form.next()
code = compileImplcitDo(comp, body)
comp.popAliases(syms)
return code
def __eq__(self, other):
if self is other:
return True
if not (isinstance(other, Sequential)
or isinstance(other, list)
or isinstance(other, tuple)):
return False
se = RT.seq(other)
ms = self.seq()
for s in se.interate():
if ms is None or not (s.first() == ms.first()):
return False
return ms is None
def __eq__(self, other):
if self is other:
return True
se = RT.seq(other)
if isinstance(se, RT.NotSeq):
return False
ms = self.seq()
while se is not None:
if ms is None or not se.first() == ms.first():
return False
ms = ms.next()
se = se.next()
return ms is None
def conjToAssoc(self, o):
if isinstance(o, MapEntry):
return self.assoc(o.getKey(), o.getValue())
if hasattr(o, "__getitem__") and hasattr(o, "__len__"):
if len(o) != 2:
raise InvalidArgumentException("Vector arg must be a pair")
return self.assoc(o[0], o[1])
s = RT.seq(o)
map = self
for s in s.interator():
m = s.first()
map = map.assoc(m.getKey(), m.getValue())
return map
def __init__(self, comp, form):
form = RT.seq(form)
if len(form) < 2:
raise CompilerException("FN defs must have at least two vars", form)
argv = form.first()
if not isinstance(argv, PersistentVector):
raise CompilerException("FN arg list must be a vector", form)
body = form.next()
self.locals, self.args, self.lastisargs, self.argsname = unpackArgs(argv)
endLabel = Label("endLabel")
argcode = [(LOAD_FAST, '__argsv__'),
(LOAD_ATTR, '__len__'),
(CALL_FUNCTION, 0),
(LOAD_CONST, len(self.args) - (1 if self.lastisargs else 0)),
(COMPARE_OP, ">=" if self.lastisargs else "==")]
argcode.extend(emitJump(endLabel))
for x in range(len(self.args)):
if self.lastisargs and x == len(self.args) - 1:
offset = len(self.args) - 1
argcode.extend([(LOAD_FAST, '__argsv__'),
(LOAD_CONST, offset),
(SLICE_1, None),
(STORE_FAST, self.argsname.name)])
argcode.extend(cleanRest(self.argsname.name))
else:
argcode.extend([(LOAD_FAST, '__argsv__'),
(LOAD_CONST, x),
(BINARY_SUBSCR, None),
(STORE_FAST, self.args[x])])
for x in self.locals:
comp.pushAlias(x, FnArgument(x))
recurlabel = Label("recurLabel")
recur = {"label": recurlabel,
"args": self.args}
bodycode = [(recurlabel, None)]
comp.pushRecur(recur)
bodycode.extend(compileImplcitDo(comp, body))
bodycode.append((RETURN_VALUE, None))
bodycode.extend(emitLanding(endLabel))
comp.popRecur()
comp.popAliases(self.locals)
self.argcode = argcode
self.bodycode = bodycode
def __init__(self, comp, form):
form = RT.seq(form)
if len(form) < 2:
raise CompilerException("FN defs must have at least two vars", form)
argv = form.first()
if not isinstance(argv, PersistentVector):
raise CompilerException("FN arg list must be a vector", form)
body = form.next()
self.locals, self.args, self.lastisargs, self.argsname = unpackArgs(argv)
endLabel = Label("endLabel")
code = [(LOAD_FAST, '__argsv__'),
(LOAD_ATTR, '__len__'),
(CALL_FUNCTION, 0),
(LOAD_CONST, len(self.args) - (1 if self.lastisargs else 0)),
(COMPARE_OP, ">=" if self.lastisargs else "=="),
(POP_JUMP_IF_FALSE, endLabel)]
for x in range(len(self.args)):
if self.lastisargs and x == len(self.args) - 1:
offset = len(self.args) - 1
code.extend([(LOAD_FAST, '__argsv__'),
(LOAD_CONST, offset),
(SLICE_1, None),
(STORE_FAST, self.argsname.name)])
else:
code.extend([(LOAD_FAST, '__argsv__'),
(LOAD_CONST, x),
(BINARY_SUBSCR, None),
(STORE_FAST, self.args[x])])
comp.pushLocals(self.locals)
recurlabel = Label("recurLabel")
recur = {"label": recurlabel,
"args": self.args}
code.append((recurlabel, None))
comp.pushRecur(recur)
code.extend(compileImplcitDo(comp, body))
code.append((RETURN_VALUE, None))
code.append((endLabel, None))
comp.popRecur()
comp.popLocals(self.locals)
self.code = code
def __eq__(self, other):
s = self.seq()
o = RT.seq(other)
return s == o
def __eq__(self, other):
return isinstance(other, (Sequential, list, tuple)) and RT.seq(other) is None
def __eq__(self, other):
return (isinstance(other, Sequential)
or isinstance(other, list)
or isinstance(other, tuple)) \
and RT.seq(other) is None