#!/usr/bin/env python2.7
# -*- coding: utf-8 -*-
"""
Built-in Functions
==================

The Python interpreter has a number of functions built into it that are always
available.  They are listed here in alphabetical order.

===================  =================  ==================  =================  ====================
..                ..              Built-in Functions  ..              ..
===================  =================  ==================  =================  ====================
:func:`abs`          :func:`divmod`     :func:`input`       :func:`open`       :func:`staticmethod`
:func:`all`          :func:`enumerate`  :func:`int`         :func:`ord`        :func:`str`
:func:`any`          :func:`eval`       :func:`isinstance`  :func:`pow`        :func:`sum`
:func:`basestring`   :func:`execfile`   :func:`issubclass`  :func:`print`      :func:`super`
:func:`bin`          :func:`file`       :func:`iter`        :func:`property`   :func:`tuple`
:func:`bool`         :func:`filter`     :func:`len`         :func:`range`      :func:`type`
:func:`bytearray`    :func:`float`      :func:`list`        :func:`raw_input`  :func:`unichr`
:func:`callable`     :func:`format`     :func:`locals`      :func:`reduce`     :func:`unicode`
:func:`chr`          :func:`frozenset`  :func:`long`        :func:`reload`     :func:`vars`
:func:`classmethod`  :func:`getattr`    :func:`map`         :func:`repr`       :func:`xrange`
:func:`cmp`          :func:`globals`    :func:`max`         :func:`reversed`   :func:`zip`
:func:`compile`      :func:`hasattr`    :func:`memoryview`  :func:`round`      :func:`__import__`
:func:`complex`      :func:`hash`       :func:`min`         :func:`set`        :func:`apply`
:func:`delattr`      :func:`help`       :func:`next`        :func:`setattr`    :func:`buffer`
:func:`dict`         :func:`hex`        :func:`object`      :func:`slice`      :func:`coerce`
:func:`dir`          :func:`id`         :func:`oct`         :func:`sorted`     :func:`intern`
===================  =================  ==================  =================  ====================

"""
def abs(x):
	"""
	Return the absolute value of a number.  The argument may be a plain or long
	integer or a floating point number.  If the argument is a complex number, its
	magnitude is returned.
	
	
	"""
	pass
	
def all(iterable):
	"""
	Return True if all elements of the *iterable* are true (or if the iterable
	is empty).  Equivalent to::
	
	def all(iterable):
	for element in iterable:
	if not element:
	return False
	return True
	
	"""
	pass
	
def any(iterable):
	"""
	Return True if any element of the *iterable* is true.  If the iterable
	is empty, return False.  Equivalent to::
	
	def any(iterable):
	for element in iterable:
	if element:
	return True
	return False
	
	"""
	pass
	
def basestring():
	"""
	This abstract type is the superclass for :class:`str` and :class:`unicode`. It
	cannot be called or instantiated, but it can be used to test whether an object
	is an instance of :class:`str` or :class:`unicode`. ``isinstance(obj,
	basestring)`` is equivalent to ``isinstance(obj, (str, unicode))``.
	
	"""
	pass
	
def bin(x):
	"""
	Convert an integer number to a binary string. The result is a valid Python
	expression.  If *x* is not a Python :class:`int` object, it has to define an
	:meth:`__index__` method that returns an integer.
	
	"""
	pass
	
def bool(x):
	"""
	Convert a value to a Boolean, using the standard truth testing procedure.  If
	*x* is false or omitted, this returns :const:`False`; otherwise it returns
	:const:`True`. :class:`bool` is also a class, which is a subclass of
	:class:`int`. Class :class:`bool` cannot be subclassed further.  Its only
	instances are :const:`False` and :const:`True`.
	
	"""
	pass
	
def bytearray(source,encoding,errors):
	"""
	Return a new array of bytes.  The :class:`bytearray` type is a mutable
	sequence of integers in the range 0 <= x < 256.  It has most of the usual
	methods of mutable sequences, described in :ref:`typesseq-mutable`, as well
	as most methods that the :class:`str` type has, see :ref:`string-methods`.
	
	The optional *source* parameter can be used to initialize the array in a few
	different ways:
	
	* If it is a *string*, you must also give the *encoding* (and optionally,
	*errors*) parameters; :func:`bytearray` then converts the string to
	bytes using :meth:`str.encode`.
	
	* If it is an *integer*, the array will have that size and will be
	initialized with null bytes.
	
	* If it is an object conforming to the *buffer* interface, a read-only buffer
	of the object will be used to initialize the bytes array.
	
	* If it is an *iterable*, it must be an iterable of integers in the range
	``0 <= x < 256``, which are used as the initial contents of the array.
	
	Without an argument, an array of size 0 is created.
	
	
	"""
	pass
	
def callable(object):
	"""
	Return :const:`True` if the *object* argument appears callable,
	:const:`False` if not.  If this
	returns true, it is still possible that a call fails, but if it is false,
	calling *object* will never succeed.  Note that classes are callable (calling a
	class returns a new instance); class instances are callable if they have a
	:meth:`__call__` method.
	
	
	"""
	pass
	
def chr(i):
	"""
	Return a string of one character whose ASCII code is the integer *i*.  For
	example, ``chr(97)`` returns the string ``'a'``. This is the inverse of
	:func:`ord`.  The argument must be in the range [0..255], inclusive;
	:exc:`ValueError` will be raised if *i* is outside that range. See
	also :func:`unichr`.
	
	
	"""
	pass
	
def _classmethod(function):
	"""
	Return a class method for *function*.
	
	A class method receives the class as implicit first argument, just like an
	instance method receives the instance. To declare a class method, use this
	idiom::
	
	class C:
	@classmethod
	def f(cls, arg1, arg2, more): more
	
	The ``@classmethod`` form is a function :term:`decorator` -- see the description
	of function definitions in :ref:`function` for details.
	
	It can be called either on the class (such as ``C.f()``) or on an instance (such
	as ``C().f()``).  The instance is ignored except for its class. If a class
	method is called for a derived class, the derived class object is passed as the
	implied first argument.
	
	Class methods are different than C++ or Java static methods. If you want those,
	see :func:`staticmethod` in this section.
	
	For more information on class methods, consult the documentation on the standard
	type hierarchy in :ref:`types`.
	
	"""
	pass
	
def cmp(x,y):
	"""
	Compare the two objects *x* and *y* and return an integer according to the
	outcome.  The return value is negative if ``x < y``, zero if ``x == y`` and
	strictly positive if ``x > y``.
	
	
	"""
	pass
	
def compile(source,filename,mode,flags,dont_inherit):
	"""
	Compile the *source* into a code or AST object.  Code objects can be executed
	by an :keyword:`exec` statement or evaluated by a call to :func:`eval`.
	*source* can either be a string or an AST object.  Refer to the :mod:`ast`
	module documentation for information on how to work with AST objects.
	
	The *filename* argument should give the file from which the code was read;
	pass some recognizable value if it wasn't read from a file (``'<string>'`` is
	commonly used).
	
	The *mode* argument specifies what kind of code must be compiled; it can be
	``'exec'`` if *source* consists of a sequence of statements, ``'eval'`` if it
	consists of a single expression, or ``'single'`` if it consists of a single
	interactive statement (in the latter case, expression statements that
	evaluate to something other than ``None`` will be printed).
	
	The optional arguments *flags* and *dont_inherit* control which future
	statements (see :pep:`236`) affect the compilation of *source*.  If neither
	is present (or both are zero) the code is compiled with those future
	statements that are in effect in the code that is calling compile.  If the
	*flags* argument is given and *dont_inherit* is not (or is zero) then the
	future statements specified by the *flags* argument are used in addition to
	those that would be used anyway. If *dont_inherit* is a non-zero integer then
	the *flags* argument is it -- the future statements in effect around the call
	to compile are ignored.
	
	Future statements are specified by bits which can be bitwise ORed together to
	specify multiple statements.  The bitfield required to specify a given feature
	can be found as the :attr:`compiler_flag` attribute on the :class:`_Feature`
	instance in the :mod:`__future__` module.
	
	This function raises :exc:`SyntaxError` if the compiled source is invalid,
	and :exc:`TypeError` if the source contains null bytes.
	
	"""
	pass
	
def complex(real,imag):
	"""
	Create a complex number with the value *real* + *imag*\*j or convert a string or
	number to a complex number.  If the first parameter is a string, it will be
	interpreted as a complex number and the function must be called without a second
	parameter.  The second parameter can never be a string. Each argument may be any
	numeric type (including complex). If *imag* is omitted, it defaults to zero and
	the function serves as a numeric conversion function like :func:`int`,
	:func:`long` and :func:`float`.  If both arguments are omitted, returns ``0j``.
	
	The complex type is described in :ref:`typesnumeric`.
	
	
	"""
	pass
	
def delattr(object,name):
	"""
	This is a relative of :func:`setattr`.  The arguments are an object and a
	string.  The string must be the name of one of the object's attributes.  The
	function deletes the named attribute, provided the object allows it.  For
	example, ``delattr(x, 'foobar')`` is equivalent to ``del x.foobar``.
	
	
	"""
	pass
	
def dict(arg):
	""":noindex:
	
	Create a new data dictionary, optionally with items taken from *arg*.
	The dictionary type is described in :ref:`typesmapping`.
	
	For other containers see the built in :class:`list`, :class:`set`, and
	:class:`tuple` classes, and the :mod:`collections` module.
	
	
	"""
	pass
	
def dir(object):
	"""
	Without arguments, return the list of names in the current local scope.  With an
	argument, attempt to return a list of valid attributes for that object.
	
	If the object has a method named :meth:`__dir__`, this method will be called and
	must return the list of attributes. This allows objects that implement a custom
	:func:`__getattr__` or :func:`__getattribute__` function to customize the way
	:func:`dir` reports their attributes.
	
	If the object does not provide :meth:`__dir__`, the function tries its best to
	gather information from the object's :attr:`__dict__` attribute, if defined, and
	from its type object.  The resulting list is not necessarily complete, and may
	be inaccurate when the object has a custom :func:`__getattr__`.
	
	The default :func:`dir` mechanism behaves differently with different types of
	objects, as it attempts to produce the most relevant, rather than complete,
	information:
	
	* If the object is a module object, the list contains the names of the module's
	attributes.
	
	* If the object is a type or class object, the list contains the names of its
	attributes, and recursively of the attributes of its bases.
	
	* Otherwise, the list contains the object's attributes' names, the names of its
	class's attributes, and recursively of the attributes of its class's base
	classes.
	
	The resulting list is sorted alphabetically.  For example:
	
	>>> import struct
	>>> dir()   # doctest: +SKIP
	['__builtins__', '__doc__', '__name__', 'struct']
	>>> dir(struct)   # doctest: +NORMALIZE_WHITESPACE
	['Struct', '__builtins__', '__doc__', '__file__', '__name__',
	'__package__', '_clearcache', 'calcsize', 'error', 'pack', 'pack_into',
	'unpack', 'unpack_from']
	>>> class Foo(object):
	more     def __dir__(self):
	more         return ["kan", "ga", "roo"]
	more
	>>> f = Foo()
	>>> dir(f)
	['ga', 'kan', 'roo']
	
	"""
	pass
	
def divmod(a,b):
	"""
	Take two (non complex) numbers as arguments and return a pair of numbers
	consisting of their quotient and remainder when using long division.  With mixed
	operand types, the rules for binary arithmetic operators apply.  For plain and
	long integers, the result is the same as ``(a // b, a % b)``. For floating point
	numbers the result is ``(q, a % b)``, where *q* is usually ``math.floor(a / b)``
	but may be 1 less than that.  In any case ``q * b + a % b`` is very close to
	*a*, if ``a % b`` is non-zero it has the same sign as *b*, and ``0 <= abs(a % b)
	< abs(b)``.
	
	"""
	pass
	
def enumerate(sequence,start=0):
	"""
	Return an enumerate object. *sequence* must be a sequence, an
	:term:`iterator`, or some other object which supports iteration.  The
	:meth:`!next` method of the iterator returned by :func:`enumerate` returns a
	tuple containing a count (from *start* which defaults to 0) and the
	corresponding value obtained from iterating over *iterable*.
	:func:`enumerate` is useful for obtaining an indexed series: ``(0, seq[0])``,
	``(1, seq[1])``, ``(2, seq[2])``, more. For example:
	
	>>> for i, season in enumerate(['Spring', 'Summer', 'Fall', 'Winter']):
	more     print i, season
	0 Spring
	1 Summer
	2 Fall
	3 Winter
	
	"""
	pass
	
def eval(expression,globals,locals):
	"""
	The arguments are a string and optional globals and locals.  If provided,
	*globals* must be a dictionary.  If provided, *locals* can be any mapping
	object.
	
	"""
	pass
	
def execfile(filename,globals,locals):
	"""
	This function is similar to the :keyword:`exec` statement, but parses a file
	instead of a string.  It is different from the :keyword:`import` statement in
	that it does not use the module administration --- it reads the file
	unconditionally and does not create a new module. [#]_
	
	The arguments are a file name and two optional dictionaries.  The file is parsed
	and evaluated as a sequence of Python statements (similarly to a module) using
	the *globals* and *locals* dictionaries as global and local namespace. If
	provided, *locals* can be any mapping object.
	
	"""
	pass
	
def file(filename,mode,bufsize):
	"""
	Constructor function for the :class:`file` type, described further in section
	:ref:`bltin-file-objects`.  The constructor's arguments are the same as those
	of the :func:`open` built-in function described below.
	
	When opening a file, it's preferable to use :func:`open` instead of  invoking
	this constructor directly.  :class:`file` is more suited to type testing (for
	example, writing ``isinstance(f, file)``).
	
	"""
	pass
	
def filter(function,iterable):
	"""
	Construct a list from those elements of *iterable* for which *function* returns
	true.  *iterable* may be either a sequence, a container which supports
	iteration, or an iterator.  If *iterable* is a string or a tuple, the result
	also has that type; otherwise it is always a list.  If *function* is ``None``,
	the identity function is assumed, that is, all elements of *iterable* that are
	false are removed.
	
	Note that ``filter(function, iterable)`` is equivalent to ``[item for item in
	iterable if function(item)]`` if function is not ``None`` and ``[item for item
	in iterable if item]`` if function is ``None``.
	
	See :func:`itertools.ifilter` and :func:`itertools.ifilterfalse` for iterator
	versions of this function, including a variation that filters for elements
	where the *function* returns false.
	
	
	"""
	pass
	
def float(x):
	"""
	Convert a string or a number to floating point.  If the argument is a string, it
	must contain a possibly signed decimal or floating point number, possibly
	embedded in whitespace. The argument may also be [+|-]nan or [+|-]inf.
	Otherwise, the argument may be a plain or long integer
	or a floating point number, and a floating point number with the same value
	(within Python's floating point precision) is returned.  If no argument is
	given, returns ``0.0``.
	
	"""
	pass
	
def format(value,format_spec):
	"""
	"""
	pass
	
def frozenset(iterable):
	""":noindex:
	
	Return a frozenset object, optionally with elements taken from *iterable*.
	The frozenset type is described in :ref:`types-set`.
	
	For other containers see the built in :class:`dict`, :class:`list`, and
	:class:`tuple` classes, and the :mod:`collections` module.
	
	"""
	pass
	
def getattr(object,name,default):
	"""
	Return the value of the named attribute of *object*.  *name* must be a string.
	If the string is the name of one of the object's attributes, the result is the
	value of that attribute.  For example, ``getattr(x, 'foobar')`` is equivalent to
	``x.foobar``.  If the named attribute does not exist, *default* is returned if
	provided, otherwise :exc:`AttributeError` is raised.
	
	
	"""
	pass
	
def globals():
	"""
	Return a dictionary representing the current global symbol table. This is always
	the dictionary of the current module (inside a function or method, this is the
	module where it is defined, not the module from which it is called).
	
	
	"""
	pass
	
def hasattr(object,name):
	"""
	The arguments are an object and a string.  The result is ``True`` if the string
	is the name of one of the object's attributes, ``False`` if not. (This is
	implemented by calling ``getattr(object, name)`` and seeing whether it raises an
	exception or not.)
	
	
	"""
	pass
	
def hash(object):
	"""
	Return the hash value of the object (if it has one).  Hash values are integers.
	They are used to quickly compare dictionary keys during a dictionary lookup.
	Numeric values that compare equal have the same hash value (even if they are of
	different types, as is the case for 1 and 1.0).
	
	
	"""
	pass
	
def help(object):
	"""
	Invoke the built-in help system.  (This function is intended for interactive
	use.)  If no argument is given, the interactive help system starts on the
	interpreter console.  If the argument is a string, then the string is looked up
	as the name of a module, function, class, method, keyword, or documentation
	topic, and a help page is printed on the console.  If the argument is any other
	kind of object, a help page on the object is generated.
	
	This function is added to the built-in namespace by the :mod:`site` module.
	
	"""
	pass
	
def hex(x):
	"""
	Convert an integer number (of any size) to a hexadecimal string. The result is a
	valid Python expression.
	
	"""
	pass
	
def id(object):
	"""
	Return the "identity" of an object.  This is an integer (or long integer) which
	is guaranteed to be unique and constant for this object during its lifetime.
	Two objects with non-overlapping lifetimes may have the same :func:`id`
	value.
	
	"""
	pass
	
def input(prompt):
	"""
	Equivalent to ``eval(raw_input(prompt))``.
	
	"""
	pass
	
def int(x,base):
	"""
	Convert a string or number to a plain integer.  If the argument is a string,
	it must contain a possibly signed decimal number representable as a Python
	integer, possibly embedded in whitespace.  The *base* parameter gives the
	base for the conversion (which is 10 by default) and may be any integer in
	the range [2, 36], or zero.  If *base* is zero, the proper radix is
	determined based on the contents of string; the interpretation is the same as
	for integer literals.  (See :ref:`numbers`.)  If *base* is specified and *x*
	is not a string, :exc:`TypeError` is raised. Otherwise, the argument may be a
	plain or long integer or a floating point number.  Conversion of floating
	point numbers to integers truncates (towards zero).  If the argument is
	outside the integer range a long object will be returned instead.  If no
	arguments are given, returns ``0``.
	
	The integer type is described in :ref:`typesnumeric`.
	
	
	"""
	pass
	
def isinstance(object,_classinfo):
	"""
	Return true if the *object* argument is an instance of the *classinfo* argument,
	or of a (direct or indirect) subclass thereof.  Also return true if *classinfo*
	is a type object (new-style class) and *object* is an object of that type or of
	a (direct or indirect) subclass thereof.  If *object* is not a class instance or
	an object of the given type, the function always returns false.  If *classinfo*
	is neither a class object nor a type object, it may be a tuple of class or type
	objects, or may recursively contain other such tuples (other sequence types are
	not accepted).  If *classinfo* is not a class, type, or tuple of classes, types,
	and such tuples, a :exc:`TypeError` exception is raised.
	
	"""
	pass
	
def issub_class(_class,_classinfo):
	"""
	Return true if *class* is a subclass (direct or indirect) of *classinfo*.  A
	class is considered a subclass of itself. *classinfo* may be a tuple of class
	objects, in which case every entry in *classinfo* will be checked. In any other
	case, a :exc:`TypeError` exception is raised.
	
	"""
	pass
	
def iter(o,sentinel):
	"""
	Return an :term:`iterator` object.  The first argument is interpreted very differently
	depending on the presence of the second argument. Without a second argument, *o*
	must be a collection object which supports the iteration protocol (the
	:meth:`__iter__` method), or it must support the sequence protocol (the
	:meth:`__getitem__` method with integer arguments starting at ``0``).  If it
	does not support either of those protocols, :exc:`TypeError` is raised. If the
	second argument, *sentinel*, is given, then *o* must be a callable object.  The
	iterator created in this case will call *o* with no arguments for each call to
	its :meth:`~iterator.next` method; if the value returned is equal to *sentinel*,
	:exc:`StopIteration` will be raised, otherwise the value will be returned.
	
	One useful application of the second form of :func:`iter` is to read lines of
	a file until a certain line is reached.  The following example reads a file
	until ``"STOP"`` is reached: ::
	
	with open("mydata.txt") as fp:
	for line in iter(fp.readline, "STOP"):
	process_line(line)
	
	"""
	pass
	
def len(s):
	"""
	Return the length (the number of items) of an object.  The argument may be a
	sequence (string, tuple or list) or a mapping (dictionary).
	
	
	"""
	pass
	
def list(iterable):
	"""
	Return a list whose items are the same and in the same order as *iterable*'s
	items.  *iterable* may be either a sequence, a container that supports
	iteration, or an iterator object.  If *iterable* is already a list, a copy is
	made and returned, similar to ``iterable[:]``.  For instance, ``list('abc')``
	returns ``['a', 'b', 'c']`` and ``list( (1, 2, 3) )`` returns ``[1, 2, 3]``.  If
	no argument is given, returns a new empty list, ``[]``.
	
	:class:`list` is a mutable sequence type, as documented in
	:ref:`typesseq`. For other containers see the built in :class:`dict`,
	:class:`set`, and :class:`tuple` classes, and the :mod:`collections` module.
	
	
	"""
	pass
	
def locals():
	"""
	Update and return a dictionary representing the current local symbol table.
	Free variables are returned by :func:`locals` when it is called in function
	blocks, but not in class blocks.
	
	"""
	pass
	
def long(x,base):
	"""
	Convert a string or number to a long integer.  If the argument is a string, it
	must contain a possibly signed number of arbitrary size, possibly embedded in
	whitespace. The *base* argument is interpreted in the same way as for
	:func:`int`, and may only be given when *x* is a string. Otherwise, the argument
	may be a plain or long integer or a floating point number, and a long integer
	with the same value is returned.    Conversion of floating point numbers to
	integers truncates (towards zero).  If no arguments are given, returns ``0L``.
	
	The long type is described in :ref:`typesnumeric`.
	
	
	"""
	pass
	
def map(function,iterable,more):
	"""
	Apply *function* to every item of *iterable* and return a list of the results.
	If additional *iterable* arguments are passed, *function* must take that many
	arguments and is applied to the items from all iterables in parallel.  If one
	iterable is shorter than another it is assumed to be extended with ``None``
	items.  If *function* is ``None``, the identity function is assumed; if there
	are multiple arguments, :func:`map` returns a list consisting of tuples
	containing the corresponding items from all iterables (a kind of transpose
	operation).  The *iterable* arguments may be a sequence  or any iterable object;
	the result is always a list.
	
	
	"""
	pass
	
def max(iterable,argsmorekey):
	"""
	With a single argument *iterable*, return the largest item of a non-empty
	iterable (such as a string, tuple or list).  With more than one argument, return
	the largest of the arguments.
	
	The optional *key* argument specifies a one-argument ordering function like that
	used for :meth:`list.sort`.  The *key* argument, if supplied, must be in keyword
	form (for example, ``max(a,b,c,key=func)``).
	
	"""
	pass
	
def memoryview(obj):
	""":noindex:
	
	Return a "memory view" object created from the given argument.  See
	:ref:`typememoryview` for more information.
	
	
	"""
	pass
	
def min(iterable,argsmorekey):
	"""
	With a single argument *iterable*, return the smallest item of a non-empty
	iterable (such as a string, tuple or list).  With more than one argument, return
	the smallest of the arguments.
	
	The optional *key* argument specifies a one-argument ordering function like that
	used for :meth:`list.sort`.  The *key* argument, if supplied, must be in keyword
	form (for example, ``min(a,b,c,key=func)``).
	
	"""
	pass
	
def next(iterator,default):
	"""
	Retrieve the next item from the *iterator* by calling its
	:meth:`~iterator.next` method.  If *default* is given, it is returned if the
	iterator is exhausted, otherwise :exc:`StopIteration` is raised.
	
	"""
	pass
	
def object():
	"""
	Return a new featureless object.  :class:`object` is a base for all new style
	classes.  It has the methods that are common to all instances of new style
	classes.
	
	"""
	pass
	
def oct(x):
	"""
	Convert an integer number (of any size) to an octal string.  The result is a
	valid Python expression.
	
	"""
	pass
	
def open(filename,mode,bufsize):
	"""
	Open a file, returning an object of the :class:`file` type described in
	section :ref:`bltin-file-objects`.  If the file cannot be opened,
	:exc:`IOError` is raised.  When opening a file, it's preferable to use
	:func:`open` instead of invoking the :class:`file` constructor directly.
	
	The first two arguments are the same as for ``stdio``'s :cfunc:`fopen`:
	*filename* is the file name to be opened, and *mode* is a string indicating how
	the file is to be opened.
	
	The most commonly-used values of *mode* are ``'r'`` for reading, ``'w'`` for
	writing (truncating the file if it already exists), and ``'a'`` for appending
	(which on *some* Unix systems means that *all* writes append to the end of the
	file regardless of the current seek position).  If *mode* is omitted, it
	defaults to ``'r'``.  The default is to use text mode, which may convert
	``'\n'`` characters to a platform-specific representation on writing and back
	on reading.  Thus, when opening a binary file, you should append ``'b'`` to
	the *mode* value to open the file in binary mode, which will improve
	portability.  (Appending ``'b'`` is useful even on systems that don't treat
	binary and text files differently, where it serves as documentation.)  See below
	for more possible values of *mode*.
	
	"""
	pass
	
def ord(c):
	"""
	Given a string of length one, return an integer representing the Unicode code
	point of the character when the argument is a unicode object, or the value of
	the byte when the argument is an 8-bit string. For example, ``ord('a')`` returns
	the integer ``97``, ``ord(u'\u2020')`` returns ``8224``.  This is the inverse of
	:func:`chr` for 8-bit strings and of :func:`unichr` for unicode objects.  If a
	unicode argument is given and Python was built with UCS2 Unicode, then the
	character's code point must be in the range [0..65535] inclusive; otherwise the
	string length is two, and a :exc:`TypeError` will be raised.
	
	
	"""
	pass
	
def pow(x,y,z):
	"""
	Return *x* to the power *y*; if *z* is present, return *x* to the power *y*,
	modulo *z* (computed more efficiently than ``pow(x, y) % z``). The two-argument
	form ``pow(x, y)`` is equivalent to using the power operator: ``x**y``.
	
	The arguments must have numeric types.  With mixed operand types, the coercion
	rules for binary arithmetic operators apply.  For int and long int operands, the
	result has the same type as the operands (after coercion) unless the second
	argument is negative; in that case, all arguments are converted to float and a
	float result is delivered.  For example, ``10**2`` returns ``100``, but
	``10**-2`` returns ``0.01``.  (This last feature was added in Python 2.2.  In
	Python 2.1 and before, if both arguments were of integer types and the second
	argument was negative, an exception was raised.) If the second argument is
	negative, the third argument must be omitted. If *z* is present, *x* and *y*
	must be of integer types, and *y* must be non-negative.  (This restriction was
	added in Python 2.2.  In Python 2.1 and before, floating 3-argument ``pow()``
	returned platform-dependent results depending on floating-point rounding
	accidents.)
	
	
	"""
	pass
	
def property(fget,fset,fdel,doc):
	"""
	Return a property attribute for :term:`new-style class`\es (classes that
	derive from :class:`object`).
	
	*fget* is a function for getting an attribute value, likewise *fset* is a
	function for setting, and *fdel* a function for del'ing, an attribute.  Typical
	use is to define a managed attribute ``x``::
	
	class C(object):
	def __init__(self):
	self._x = None
	
	def getx(self):
	return self._x
	def setx(self, value):
	self._x = value
	def delx(self):
	del self._x
	x = property(getx, setx, delx, "I'm the 'x' property.")
	
	If then *c* is an instance of *C*, ``c.x`` will invoke the getter,
	``c.x = value`` will invoke the setter and ``del c.x`` the deleter.
	
	If given, *doc* will be the docstring of the property attribute. Otherwise, the
	property will copy *fget*'s docstring (if it exists).  This makes it possible to
	create read-only properties easily using :func:`property` as a :term:`decorator`::
	
	class Parrot(object):
	def __init__(self):
	self._voltage = 100000
	
	@property
	def voltage(self):
	 " " " Get the current voltage. " " " 
	return self._voltage
	
	turns the :meth:`voltage` method into a "getter" for a read-only attribute
	with the same name.
	
	A property object has :attr:`getter`, :attr:`setter`, and :attr:`deleter`
	methods usable as decorators that create a copy of the property with the
	corresponding accessor function set to the decorated function.  This is
	best explained with an example::
	
	class C(object):
	def __init__(self):
	self._x = None
	
	@property
	def x(self):
	 " " " I'm the 'x' property. " " " 
	return self._x
	
	@x.setter
	def x(self, value):
	self._x = value
	
	@x.deleter
	def x(self):
	del self._x
	
	This code is exactly equivalent to the first example.  Be sure to give the
	additional functions the same name as the original property (``x`` in this
	case.)
	
	The returned property also has the attributes ``fget``, ``fset``, and
	``fdel`` corresponding to the constructor arguments.
	
	"""
	pass
	
def range(start,stop,step):
	"""
	This is a versatile function to create lists containing arithmetic progressions.
	It is most often used in :keyword:`for` loops.  The arguments must be plain
	integers.  If the *step* argument is omitted, it defaults to ``1``.  If the
	*start* argument is omitted, it defaults to ``0``.  The full form returns a list
	of plain integers ``[start, start + step, start + 2 * step, more]``.  If *step*
	is positive, the last element is the largest ``start + i * step`` less than
	*stop*; if *step* is negative, the last element is the smallest ``start + i *
	step`` greater than *stop*.  *step* must not be zero (or else :exc:`ValueError`
	is raised).  Example:
	
	>>> range(10)
	[0, 1, 2, 3, 4, 5, 6, 7, 8, 9]
	>>> range(1, 11)
	[1, 2, 3, 4, 5, 6, 7, 8, 9, 10]
	>>> range(0, 30, 5)
	[0, 5, 10, 15, 20, 25]
	>>> range(0, 10, 3)
	[0, 3, 6, 9]
	>>> range(0, -10, -1)
	[0, -1, -2, -3, -4, -5, -6, -7, -8, -9]
	>>> range(0)
	[]
	>>> range(1, 0)
	[]
	
	
	"""
	pass
	
def raw_input(prompt):
	"""
	If the *prompt* argument is present, it is written to standard output without a
	trailing newline.  The function then reads a line from input, converts it to a
	string (stripping a trailing newline), and returns that. When EOF is read,
	:exc:`EOFError` is raised. Example::
	
	>>> s = raw_input('--> ')
	--> Monty Python's Flying Circus
	>>> s
	"Monty Python's Flying Circus"
	
	If the :mod:`readline` module was loaded, then :func:`raw_input` will use it to
	provide elaborate line editing and history features.
	
	
	"""
	pass
	
def reduce(function,iterable,initializer):
	"""
	Apply *function* of two arguments cumulatively to the items of *iterable*, from
	left to right, so as to reduce the iterable to a single value.  For example,
	``reduce(lambda x, y: x+y, [1, 2, 3, 4, 5])`` calculates ``((((1+2)+3)+4)+5)``.
	The left argument, *x*, is the accumulated value and the right argument, *y*, is
	the update value from the *iterable*.  If the optional *initializer* is present,
	it is placed before the items of the iterable in the calculation, and serves as
	a default when the iterable is empty.  If *initializer* is not given and
	*iterable* contains only one item, the first item is returned.
	
	
	"""
	pass
	
def reload(module):
	"""
	Reload a previously imported *module*.  The argument must be a module object, so
	it must have been successfully imported before.  This is useful if you have
	edited the module source file using an external editor and want to try out the
	new version without leaving the Python interpreter.  The return value is the
	module object (the same as the *module* argument).
	
	When ``reload(module)`` is executed:
	
	* Python modules' code is recompiled and the module-level code reexecuted,
	defining a new set of objects which are bound to names in the module's
	dictionary.  The ``init`` function of extension modules is not called a second
	time.
	
	* As with all other objects in Python the old objects are only reclaimed after
	their reference counts drop to zero.
	
	* The names in the module namespace are updated to point to any new or changed
	objects.
	
	* Other references to the old objects (such as names external to the module) are
	not rebound to refer to the new objects and must be updated in each namespace
	where they occur if that is desired.
	
	There are a number of other caveats:
	
	If a module is syntactically correct but its initialization fails, the first
	:keyword:`import` statement for it does not bind its name locally, but does
	store a (partially initialized) module object in ``sys.modules``.  To reload the
	module you must first :keyword:`import` it again (this will bind the name to the
	partially initialized module object) before you can :func:`reload` it.
	
	When a module is reloaded, its dictionary (containing the module's global
	variables) is retained.  Redefinitions of names will override the old
	definitions, so this is generally not a problem.  If the new version of a module
	does not define a name that was defined by the old version, the old definition
	remains.  This feature can be used to the module's advantage if it maintains a
	global table or cache of objects --- with a :keyword:`try` statement it can test
	for the table's presence and skip its initialization if desired::
	
	try:
	cache
	except NameError:
	cache = {}
	
	It is legal though generally not very useful to reload built-in or dynamically
	loaded modules, except for :mod:`sys`, :mod:`__main__` and :mod:`__builtin__`.
	In many cases, however, extension modules are not designed to be initialized
	more than once, and may fail in arbitrary ways when reloaded.
	
	If a module imports objects from another module using :keyword:`from` more
	:keyword:`import` more, calling :func:`reload` for the other module does not
	redefine the objects imported from it --- one way around this is to re-execute
	the :keyword:`from` statement, another is to use :keyword:`import` and qualified
	names (*module*.*name*) instead.
	
	If a module instantiates instances of a class, reloading the module that defines
	the class does not affect the method definitions of the instances --- they
	continue to use the old class definition.  The same is true for derived classes.
	
	
	"""
	pass
	
def repr(object):
	"""
	Return a string containing a printable representation of an object.  This is
	the same value yielded by conversions (reverse quotes).  It is sometimes
	useful to be able to access this operation as an ordinary function.  For many
	types, this function makes an attempt to return a string that would yield an
	object with the same value when passed to :func:`eval`, otherwise the
	representation is a string enclosed in angle brackets that contains the name
	of the type of the object together with additional information often
	including the name and address of the object.  A class can control what this
	function returns for its instances by defining a :meth:`__repr__` method.
	
	
	"""
	pass
	
def reversed(seq):
	"""
	Return a reverse :term:`iterator`.  *seq* must be an object which has
	a :meth:`__reversed__` method or supports the sequence protocol (the
	:meth:`__len__` method and the :meth:`__getitem__` method with integer
	arguments starting at ``0``).
	
	"""
	pass
	
def round(x,n):
	"""
	Return the floating point value *x* rounded to *n* digits after the decimal
	point.  If *n* is omitted, it defaults to zero. The result is a floating point
	number.  Values are rounded to the closest multiple of 10 to the power minus
	*n*; if two multiples are equally close, rounding is done away from 0 (so. for
	example, ``round(0.5)`` is ``1.0`` and ``round(-0.5)`` is ``-1.0``).
	
	
	"""
	pass
	
def set(iterable):
	""":noindex:
	
	Return a new set, optionally with elements taken from *iterable*.
	The set type is described in :ref:`types-set`.
	
	For other containers see the built in :class:`dict`, :class:`list`, and
	:class:`tuple` classes, and the :mod:`collections` module.
	
	"""
	pass
	
def setattr(object,name,value):
	"""
	This is the counterpart of :func:`getattr`.  The arguments are an object, a
	string and an arbitrary value.  The string may name an existing attribute or a
	new attribute.  The function assigns the value to the attribute, provided the
	object allows it.  For example, ``setattr(x, 'foobar', 123)`` is equivalent to
	``x.foobar = 123``.
	
	
	"""
	pass
	
def slice(start,stop,step):
	"""
	"""
	pass
	
def sorted(iterable,cmp,key,reverse):
	"""
	Return a new sorted list from the items in *iterable*.
	
	The optional arguments *cmp*, *key*, and *reverse* have the same meaning as
	those for the :meth:`list.sort` method (described in section
	:ref:`typesseq-mutable`).
	
	*cmp* specifies a custom comparison function of two arguments (iterable
	elements) which should return a negative, zero or positive number depending on
	whether the first argument is considered smaller than, equal to, or larger than
	the second argument: ``cmp=lambda x,y: cmp(x.lower(), y.lower())``.  The default
	value is ``None``.
	
	*key* specifies a function of one argument that is used to extract a comparison
	key from each list element: ``key=str.lower``.  The default value is ``None``
	(compare the elements directly).
	
	*reverse* is a boolean value.  If set to ``True``, then the list elements are
	sorted as if each comparison were reversed.
	
	In general, the *key* and *reverse* conversion processes are much faster
	than specifying an equivalent *cmp* function.  This is because *cmp* is
	called multiple times for each list element while *key* and *reverse* touch
	each element only once.  Use :func:`functools.cmp_to_key` to convert an
	old-style *cmp* function to a *key* function.
	
	For sorting examples and a brief sorting tutorial, see `Sorting HowTo
	<http://wiki.python.org/moin/HowTo/Sorting/>`_\.
	
	"""
	pass
	
def staticmethod(function):
	"""
	Return a static method for *function*.
	
	A static method does not receive an implicit first argument. To declare a static
	method, use this idiom::
	
	class C:
	@staticmethod
	def f(arg1, arg2, more): more
	
	The ``@staticmethod`` form is a function :term:`decorator` -- see the
	description of function definitions in :ref:`function` for details.
	
	It can be called either on the class (such as ``C.f()``) or on an instance (such
	as ``C().f()``).  The instance is ignored except for its class.
	
	Static methods in Python are similar to those found in Java or C++. For a more
	advanced concept, see :func:`classmethod` in this section.
	
	For more information on static methods, consult the documentation on the
	standard type hierarchy in :ref:`types`.
	
	"""
	pass
	
def str(object):
	"""
	Return a string containing a nicely printable representation of an object.  For
	strings, this returns the string itself.  The difference with ``repr(object)``
	is that ``str(object)`` does not always attempt to return a string that is
	acceptable to :func:`eval`; its goal is to return a printable string.  If no
	argument is given, returns the empty string, ``''``.
	
	For more information on strings see :ref:`typesseq` which describes sequence
	functionality (strings are sequences), and also the string-specific methods
	described in the :ref:`string-methods` section. To output formatted strings
	use template strings or the ``%`` operator described in the
	:ref:`string-formatting` section. In addition see the :ref:`stringservices`
	section. See also :func:`unicode`.
	
	
	"""
	pass
	
def sum(iterable,start):
	"""
	Sums *start* and the items of an *iterable* from left to right and returns the
	total.  *start* defaults to ``0``. The *iterable*'s items are normally numbers,
	and the start value is not allowed to be a string.
	
	For some use cases, there are good alternatives to :func:`sum`.
	The preferred, fast way to concatenate a sequence of strings is by calling
	``''.join(sequence)``.  To add floating point values with extended precision,
	see :func:`math.fsum`\.  To concatenate a series of iterables, consider using
	:func:`itertools.chain`.
	
	"""
	pass
	
def super(type,object_or_type):
	"""
	Return a proxy object that delegates method calls to a parent or sibling
	class of *type*.  This is useful for accessing inherited methods that have
	been overridden in a class. The search order is same as that used by
	:func:`getattr` except that the *type* itself is skipped.
	
	The :attr:`__mro__` attribute of the *type* lists the method resolution
	search order used by both :func:`getattr` and :func:`super`.  The attribute
	is dynamic and can change whenever the inheritance hierarchy is updated.
	
	If the second argument is omitted, the super object returned is unbound.  If
	the second argument is an object, ``isinstance(obj, type)`` must be true.  If
	the second argument is a type, ``issubclass(type2, type)`` must be true (this
	is useful for classmethods).
	
	"""
	pass
	
def tuple(iterable):
	"""
	Return a tuple whose items are the same and in the same order as *iterable*'s
	items.  *iterable* may be a sequence, a container that supports iteration, or an
	iterator object. If *iterable* is already a tuple, it is returned unchanged.
	For instance, ``tuple('abc')`` returns ``('a', 'b', 'c')`` and ``tuple([1, 2,
	3])`` returns ``(1, 2, 3)``.  If no argument is given, returns a new empty
	tuple, ``()``.
	
	:class:`tuple` is an immutable sequence type, as documented in
	:ref:`typesseq`. For other containers see the built in :class:`dict`,
	:class:`list`, and :class:`set` classes, and the :mod:`collections` module.
	
	
	"""
	pass
	
def type(object):
	"""
	"""
	pass
	
def type(name,bases,dict):
	""":noindex:
	
	Return a new type object.  This is essentially a dynamic form of the
	:keyword:`class` statement. The *name* string is the class name and becomes the
	:attr:`__name__` attribute; the *bases* tuple itemizes the base classes and
	becomes the :attr:`__bases__` attribute; and the *dict* dictionary is the
	namespace containing definitions for class body and becomes the :attr:`__dict__`
	attribute.  For example, the following two statements create identical
	:class:`type` objects:
	
	>>> class X(object):
	more     a = 1
	more
	>>> X = type('X', (object,), dict(a=1))
	
	"""
	pass
	
def unichr(i):
	"""
	Return the Unicode string of one character whose Unicode code is the integer
	*i*.  For example, ``unichr(97)`` returns the string ``u'a'``.  This is the
	inverse of :func:`ord` for Unicode strings.  The valid range for the argument
	depends how Python was configured -- it may be either UCS2 [0..0xFFFF] or UCS4
	[0..0x10FFFF]. :exc:`ValueError` is raised otherwise. For ASCII and 8-bit
	strings see :func:`chr`.
	
	"""
	pass
	
def unicode(object,encoding,errors):
	"""
	Return the Unicode string version of *object* using one of the following modes:
	
	If *encoding* and/or *errors* are given, ``unicode()`` will decode the object
	which can either be an 8-bit string or a character buffer using the codec for
	*encoding*. The *encoding* parameter is a string giving the name of an encoding;
	if the encoding is not known, :exc:`LookupError` is raised. Error handling is
	done according to *errors*; this specifies the treatment of characters which are
	invalid in the input encoding.  If *errors* is ``'strict'`` (the default), a
	:exc:`ValueError` is raised on errors, while a value of ``'ignore'`` causes
	errors to be silently ignored, and a value of ``'replace'`` causes the official
	Unicode replacement character, ``U+FFFD``, to be used to replace input
	characters which cannot be decoded.  See also the :mod:`codecs` module.
	
	If no optional parameters are given, ``unicode()`` will mimic the behaviour of
	``str()`` except that it returns Unicode strings instead of 8-bit strings. More
	precisely, if *object* is a Unicode string or subclass it will return that
	Unicode string without any additional decoding applied.
	
	For objects which provide a :meth:`__unicode__` method, it will call this method
	without arguments to create a Unicode string. For all other objects, the 8-bit
	string version or representation is requested and then converted to a Unicode
	string using the codec for the default encoding in ``'strict'`` mode.
	
	For more information on Unicode strings see :ref:`typesseq` which describes
	sequence functionality (Unicode strings are sequences), and also the
	string-specific methods described in the :ref:`string-methods` section. To
	output formatted strings use template strings or the ``%`` operator described
	in the :ref:`string-formatting` section. In addition see the
	:ref:`stringservices` section. See also :func:`str`.
	
	"""
	pass
	
def vars(object):
	"""
	Without an argument, act like :func:`locals`.
	
	With a module, class or class instance object as argument (or anything else that
	has a :attr:`__dict__` attribute), return that attribute.
	
	"""
	pass
	
def xrange(start,stop,step):
	"""
	This function is very similar to :func:`range`, but returns an "xrange object"
	instead of a list.  This is an opaque sequence type which yields the same values
	as the corresponding list, without actually storing them all simultaneously.
	The advantage of :func:`xrange` over :func:`range` is minimal (since
	:func:`xrange` still has to create the values when asked for them) except when a
	very large range is used on a memory-starved machine or when all of the range's
	elements are never used (such as when the loop is usually terminated with
	:keyword:`break`).
	
	"""
	pass
	
def zip(iterable,more):
	"""
	This function returns a list of tuples, where the *i*-th tuple contains the
	*i*-th element from each of the argument sequences or iterables. The returned
	list is truncated in length to the length of the shortest argument sequence.
	When there are multiple arguments which are all of the same length, :func:`zip`
	is similar to :func:`map` with an initial argument of ``None``. With a single
	sequence argument, it returns a list of 1-tuples. With no arguments, it returns
	an empty list.
	
	The left-to-right evaluation order of the iterables is guaranteed. This
	makes possible an idiom for clustering a data series into n-length groups
	using ``zip(*[iter(s)]*n)``.
	
	:func:`zip` in conjunction with the ``*`` operator can be used to unzip a
	list::
	
	>>> x = [1, 2, 3]
	>>> y = [4, 5, 6]
	>>> zipped = zip(x, y)
	>>> zipped
	[(1, 4), (2, 5), (3, 6)]
	>>> x2, y2 = zip(*zipped)
	>>> x == list(x2) and y == list(y2)
	True
	
	"""
	pass
	
def __import__(name,globals,locals,_fromlist,level):
	"""
	"""
	pass
	
def apply(function,args,keywords):
	"""
	The *function* argument must be a callable object (a user-defined or built-in
	function or method, or a class object) and the *args* argument must be a
	sequence.  The *function* is called with *args* as the argument list; the number
	of arguments is the length of the tuple. If the optional *keywords* argument is
	present, it must be a dictionary whose keys are strings.  It specifies keyword
	arguments to be added to the end of the argument list. Calling :func:`apply` is
	different from just calling ``function(args)``, since in that case there is
	always exactly one argument.  The use of :func:`apply` is equivalent to
	``function(*args, **keywords)``.
	
	"""
	pass
	
def buffer(object,offset,size):
	"""
	The *object* argument must be an object that supports the buffer call interface
	(such as strings, arrays, and buffers).  A new buffer object will be created
	which references the *object* argument. The buffer object will be a slice from
	the beginning of *object* (or from the specified *offset*). The slice will
	extend to the end of *object* (or will have a length given by the *size*
	argument).
	
	
	"""
	pass
	
def coerce(x,y):
	"""
	Return a tuple consisting of the two numeric arguments converted to a common
	type, using the same rules as used by arithmetic operations. If coercion is not
	possible, raise :exc:`TypeError`.
	
	
	"""
	pass
	
def intern(string):
	"""
	Enter *string* in the table of "interned" strings and return the interned string
	-- which is *string* itself or a copy. Interning strings is useful to gain a
	little performance on dictionary lookup -- if the keys in a dictionary are
	interned, and the lookup key is interned, the key comparisons (after hashing)
	can be done by a pointer compare instead of a string compare.  Normally, the
	names used in Python programs are automatically interned, and the dictionaries
	used to hold module, class or instance attributes have interned keys.
	
	"""
	pass