Odtnhj

I tried to run my program using Flask the file local from the Werkzeug file is not working. It has errors and I have no idea how to fix it so it works. Here is a copy of the code from the file. Does anyone know what the file is supposed to look like or knows how to correct it. It is the last step I need to get my program working. I tried to reinstall flask and it didn't work. File is still the same.

"""
 werkzeug.local
 ~~~~~~~~~~~~~~

 This module implements context-local objects.

 :copyright: (c) 2014 by the Werkzeug Team, see AUTHORS for more details.
 :license: BSD, see LICENSE for more details.
"""
import copy
from functools import update_wrapper
from werkzeug.wsgi import ClosingIterator
from werkzeug._compat import PY2, implements_bool


# since each thread has its own greenlet we can just use those as identifiers
# for the context. If greenlets are not available we fall back to the
# current thread ident depending on where it is.
try:
 from greenlet import getcurrent as get_ident
except ImportError:
 try:
 from thread import get_ident
 except ImportError:
 from _thread import get_ident


def release_local(local):
 """Releases the contents of the local for the current context.
 This makes it possible to use locals without a manager.

 Example::

 >>> loc = Local()
 >>> loc.foo = 42
 >>> release_local(loc)
 >>> hasattr(loc, 'foo')
 False

 With this function one can release :class:`Local` objects as well
 as :class:`LocalStack` objects. However it is not possible to
 release data held by proxies that way, one always has to retain
 a reference to the underlying local object in order to be able
 to release it.

 .. versionadded:: 0.6.1
 """
 local.__release_local__()


class Local(object):
 __slots__ = ('__storage__', '__ident_func__')

 def __init__(self):
 object.__setattr__(self, '__storage__', )
 object.__setattr__(self, '__ident_func__', get_ident)

 def __iter__(self):
 return iter(self.__storage__.items())

 def __call__(self, proxy):
 """Create a proxy for a name."""
 return LocalProxy(self, proxy)

 def __release_local__(self):
 self.__storage__.pop(self.__ident_func__(), None)

 def __getattr__(self, name):
 try:
 return self.__storage__[self.__ident_func__()][name]
 except KeyError:
 raise AttributeError(name)

 def __setattr__(self, name, value):
 ident = self.__ident_func__()
 storage = self.__storage__
 try:
 storage[ident][name] = value
 except KeyError:
 storage[ident] = name: value

 def __delattr__(self, name):
 try:
 del self.__storage__[self.__ident_func__()][name]
 except KeyError:
 raise AttributeError(name)


class LocalStack(object):

 """This class works similar to a :class:`Local` but keeps a stack
 of objects instead. This is best explained with an example::

 >>> ls = LocalStack()
 >>> ls.push(42)
 >>> ls.top
 42
 >>> ls.push(23)
 >>> ls.top
 23
 >>> ls.pop()
 23
 >>> ls.top
 42

 They can be force released by using a :class:`LocalManager` or with
 the :func:`release_local` function but the correct way is to pop the
 item from the stack after using. When the stack is empty it will
 no longer be bound to the current context (and as such released).

 By calling the stack without arguments it returns a proxy that resolves to
 the topmost item on the stack.

 .. versionadded:: 0.6.1
 """

 def __init__(self):
 self._local = Local()

 def __release_local__(self):
 self._local.__release_local__()

 def _get__ident_func__(self):
 return self._local.__ident_func__

 def _set__ident_func__(self, value):
 object.__setattr__(self._local, '__ident_func__', value)
 __ident_func__ = property(_get__ident_func__, _set__ident_func__)
 del _get__ident_func__, _set__ident_func__

 def __call__(self):
 def _lookup():
 rv = self.top
 if rv is None:
 raise RuntimeError('object unbound')
 return rv
 return LocalProxy(_lookup)

 def push(self, obj):
 """Pushes a new item to the stack"""
 rv = getattr(self._local, 'stack', None)
 if rv is None:
 self._local.stack = rv = 
 rv.append(obj)
 return rv

 def pop(self):
 """Removes the topmost item from the stack, will return the
 old value or `None` if the stack was already empty.
 """
 stack = getattr(self._local, 'stack', None)
 if stack is None:
 return None
 elif len(stack) == 1:
 release_local(self._local)
 return stack[-1]
 else:
 return stack.pop()

 @property
 def top(self):
 """The topmost item on the stack. If the stack is empty,
 `None` is returned.
 """
 try:
 return self._local.stack[-1]
 except (AttributeError, IndexError):
 return None


class LocalManager(object):

 """Local objects cannot manage themselves. For that you need a local
 manager. You can pass a local manager multiple locals or add them later
 by appending them to `manager.locals`. Every time the manager cleans up,
 it will clean up all the data left in the locals for this context.

 The `ident_func` parameter can be added to override the default ident
 function for the wrapped locals.

 .. versionchanged:: 0.6.1
 Instead of a manager the :func:`release_local` function can be used
 as well.

 .. versionchanged:: 0.7
 `ident_func` was added.
 """

 def __init__(self, locals=None, ident_func=None):
 if locals is None:
 self.locals = 
 elif isinstance(locals, Local):
 self.locals = [locals]
 else:
 self.locals = list(locals)
 if ident_func is not None:
 self.ident_func = ident_func
 for local in self.locals:
 object.__setattr__(local, '__ident_func__', ident_func)
 else:
 self.ident_func = get_ident

 def get_ident(self):
 """Return the context identifier the local objects use internally for
 this context. You cannot override this method to change the behavior
 but use it to link other context local objects (such as SQLAlchemy's
 scoped sessions) to the Werkzeug locals.

 .. versionchanged:: 0.7
 You can pass a different ident function to the local manager that
 will then be propagated to all the locals passed to the
 constructor.
 """
 return self.ident_func()

 def cleanup(self):
 """Manually clean up the data in the locals for this context. Call
 this at the end of the request or use `make_middleware()`.
 """
 for local in self.locals:
 release_local(local)

 def make_middleware(self, app):
 """Wrap a WSGI application so that cleaning up happens after
 request end.
 """
 def application(environ, start_response):
 return ClosingIterator(app(environ, start_response), self.cleanup)
 return application

 def middleware(self, func):
 """Like `make_middleware` but for decorating functions.

 Example usage::

 @manager.middleware
 def application(environ, start_response):
 ...

 The difference to `make_middleware` is that the function passed
 will have all the arguments copied from the inner application
 (name, docstring, module).
 """
 return update_wrapper(self.make_middleware(func), func)

 def __repr__(self):
 return '<%s storages: %d>' % (
 self.__class__.__name__,
 len(self.locals)
 )


@implements_bool
import os
import time
import uuid
import logging
import subprocess
from distutils.spawn import find_executableclass LocalProxy(object):
 """Acts as a proxy for a werkzeug local. Forwards all operations to
 a proxied object. The only operations not supported for forwarding
 are right handed operands and any kind of assignment.

 Example usage::

 from werkzeug.local import Local
 l = Local()

 # these are proxies
 request = l('request')
 user = l('user')


 from werkzeug.local import LocalStack
 _response_local = LocalStack()

 # this is a proxy
 response = _response_local()

 Whenever something is bound to l.user / l.request the proxy objects
 will forward all operations. If no object is bound a :exc:`RuntimeError`
 will be raised.

 To create proxies to :class:`Local` or :class:`LocalStack` objects,
 call the object as shown above. If you want to have a proxy to an
 object looked up by a function, you can (as of Werkzeug 0.6.1) pass
 a function to the :class:`LocalProxy` constructor::

 session = LocalProxy(lambda: get_current_request().session)

 .. versionchanged:: 0.6.1
 The class can be instantiated with a callable as well now.
 """
 __slots__ = ('__local', '__dict__', '__name__', '__wrapped__')

 def __init__(self, local, name=None):
 object.__setattr__(self, '_LocalProxy__local', local)
 object.__setattr__(self, '__name__', name)
 if callable(local) and not hasattr(local, '__release_local__'):
 # "local" is a callable that is not an instance of Local or
 # LocalManager: mark it as a wrapped function.
 object.__setattr__(self, '__wrapped__', local)

 def _get_current_object(self):
 """Return the current object. This is useful if you want the real
 object behind the proxy at a time for performance reasons or because
 you want to pass the object into a different context.
 """
 if not hasattr(self.__local, '__release_local__'):
 return self.__local()
 try:
 return getattr(self.__local, self.__name__)
 except AttributeError:
 raise RuntimeError('no object bound to %s' % self.__name__)

 @property
 def __dict__(self):
 try:
 return self._get_current_object().__dict__
 except RuntimeError:
 raise AttributeError('__dict__')

 def __repr__(self):
 try:
 obj = self._get_current_object()
 except RuntimeError:
 return '<%s unbound>' % self.__class__.__name__
 return repr(obj)

 def __bool__(self):
 try:
 return bool(self._get_current_object())
 except RuntimeError:
 return False

 def __unicode__(self):
 try:
 return unicode(self._get_current_object()) # noqa
 except RuntimeError:
 return repr(self)

 def __dir__(self):
 try:
 return dir(self._get_current_object())
 except RuntimeError:
 return 

 def __getattr__(self, name):
 if name == '__members__':
 return dir(self._get_current_object())
 return getattr(self._get_current_object(), name)

 def __setitem__(self, key, value):
 self._get_current_object()[key] = value

 def __delitem__(self, key):
 del self._get_current_object()[key]

 if PY2:
 __getslice__ = lambda x, i, j: x._get_current_object()[i:j]

 def __setslice__(self, i, j, seq):
 self._get_current_object()[i:j] = seq

 def __delslice__(self, i, j):
 del self._get_current_object()[i:j]

 __setattr__ = lambda x, n, v: setattr(x._get_current_object(), n, v)
 __delattr__ = lambda x, n: delattr(x._get_current_object(), n)
 __str__ = lambda x: str(x._get_current_object())
 __lt__ = lambda x, o: x._get_current_object() < o
 __le__ = lambda x, o: x._get_current_object() <= o
 __eq__ = lambda x, o: x._get_current_object() == o
 __ne__ = lambda x, o: x._get_current_object() != o
 __gt__ = lambda x, o: x._get_current_object() > o
 __ge__ = lambda x, o: x._get_current_object() >= o
 __cmp__ = lambda x, o: cmp(x._get_current_object(), o) # noqa
 __hash__ = lambda x: hash(x._get_current_object())
 __call__ = lambda x, *a, **kw: x._get_current_object()(*a, **kw)
 __len__ = lambda x: len(x._get_current_object())
 __getitem__ = lambda x, i: x._get_current_object()[i]
 __iter__ = lambda x: iter(x._get_current_object())
 __contains__ = lambda x, i: i in x._get_current_object()
 __add__ = lambda x, o: x._get_current_object() + o
 __sub__ = lambda x, o: x._get_current_object() - o
 __mul__ = lambda x, o: x._get_current_object() * o
 __floordiv__ = lambda x, o: x._get_current_object() // o
 __mod__ = lambda x, o: x._get_current_object() % o
 __divmod__ = lambda x, o: x._get_current_object().__divmod__(o)
 __pow__ = lambda x, o: x._get_current_object() ** o
 __lshift__ = lambda x, o: x._get_current_object() << o
 __rshift__ = lambda x, o: x._get_current_object() >> o
 __and__ = lambda x, o: x._get_current_object() & o
 __xor__ = lambda x, o: x._get_current_object() ^ o
 __or__ = lambda x, o: x._get_current_object() | o
 __div__ = lambda x, o: x._get_current_object().__div__(o)
 __truediv__ = lambda x, o: x._get_current_object().__truediv__(o)
 __neg__ = lambda x: -(x._get_current_object())
 __pos__ = lambda x: +(x._get_current_object())
 __abs__ = lambda x: abs(x._get_current_object())
 __invert__ = lambda x: ~(x._get_current_object())
 __complex__ = lambda x: complex(x._get_current_object())
 __int__ = lambda x: int(x._get_current_object())
 __long__ = lambda x: long(x._get_current_object()) # noqa
 __float__ = lambda x: float(x._get_current_object())
 __oct__ = lambda x: oct(x._get_current_object())
 __hex__ = lambda x: hex(x._get_current_object())
 __index__ = lambda x: x._get_current_object().__index__()
 __coerce__ = lambda x, o: x._get_current_object().__coerce__(x, o)
 __enter__ = lambda x: x._get_current_object().__enter__()
 __exit__ = lambda x, *a, **kw: x._get_current_object().__exit__(*a, **kw)
 __radd__ = lambda x, o: o + x._get_current_object()
 __rsub__ = lambda x, o: o - x._get_current_object()
 __rmul__ = lambda x, o: o * x._get_current_object()
 __rdiv__ = lambda x, o: o / x._get_current_object()
 if PY2:
 __rtruediv__ = lambda x, o: x._get_current_object().__rtruediv__(o)
 else:
 __rtruediv__ = __rdiv__
 __rfloordiv__ = lambda x, o: o // x._get_current_object()
 __rmod__ = lambda x, o: o % x._get_current_object()
 __rdivmod__ = lambda x, o: x._get_current_object().__rdivmod__(o)
 __copy__ = lambda x: copy.copy(x._get_current_object())
 __deepcopy__ = lambda x, memo: copy.deepcopy(x._get_current_object(), memo)