Sign, Exponented numerator, Exponented denominator, exponent. More...

Inheritance diagram for core.base_calculus.Quotient:

Public Member Functions
def	__init__
	Constructor.
def	get_sign
	Returns the sign of the object.
def	get_numerator
	Returns the numerator of the object.
def	get_denominator
	Returns the denominator of the object.
def	get_iteration_list
	Returns the list of elements to iter over.
def	get_minus_signs_nb
	Gets the number of '-' signs of the Quotient.
def	set_numerator
	Sets the numerator of the object.
def	set_denominator
	Sets the denominator of the object.
def	into_str
	Creates a string of the given object in the given ML.
def	evaluate
	Returns the value of a numerically evaluable object.
def	calculate_next_step
	Returns the Quotient in the next step of simplification.
def	dbg_str
	Raw display of the Quotient (debugging method)
def	__len__
	Returns the Quotient's length It is used in Product.into_str(), changing it will have consequences on sheets like Fractions Products & Quotients...
def	operator
	Defines the performed Operation as a Quotient.
def	multiply_symbol_is_required
	True if the usual writing rules require a × between two factors.
def	requires_brackets
	True if the argument requires brackets in a product For instance, a Sum with several terms or a negative Item.
def	requires_inner_brackets
	True if the argument requires inner brackets The reason for requiring them is having an exponent different from 1.
def	contains_exactly
	True if the Quotient contains exactly the given objct It can be used to detect objects embedded in this Quotient (with a denominator equal to 1)
def	contains_a_rounded_number
	To check if this contains a rounded number...
def	invert
	Returns the inverted Quotient.
def	is_null
	True if the numerator is null.
def	is_displ_as_a_single_1
	True if the Quotient contains only single 1-equivalent Calcs.
def	is_displ_as_a_single_minus_1
	True if the Quotient can be displayed as a single -1 If the Quotient is negative and its numerator and both are equivalent to single 1.
def	is_displ_as_a_single_0
	True if the Quotient can be displayed as a single 0 If the numerator is equivalent to a single 0.
def	is_displ_as_a_single_numeric_Item
	True if the object is or only contains one numeric Item.
def	is_displ_as_a_single_int
	True if the object can be displayed as a single int.
def	is_displ_as_a_single_neutral
	True if the object can be considered as a neutral element.
Public Attributes
	sign
	symbol
Properties
	numerator
	denominator

Detailed Description

Sign, Exponented numerator, Exponented denominator, exponent.

Definition at line 1992 of file base_calculus.py.

Constructor & Destructor Documentation

def core.base_calculus.Quotient.__init__	(	self,
		arg,
		options
	)

Constructor.

Warning:: Might raise an UncompatibleType exception.

Parameters:

arg	Quotient\|(sign, num, deno [, exponent [, symbol]]) If the argument isn't of the kinds listed above, an exception will be raised. num and deno are expected to be Exponented ; nevertheless if they are only Values they get turned into Items.
options	Can be use_divide_symbol

Todo:: Maybe : (RANDOMLY, num_max, deno_max) as possible argument ?

Returns:: One instance of Quotient

Reimplemented in core.base_calculus.Fraction.

Definition at line 2010 of file base_calculus.py.

References core.base_calculus.Quotient._denominator, core.base_calculus.Item._exponent, core.base_calculus.Function._exponent, core.base_calculus.Quotient._exponent, core.base_calculus.Quotient._numerator, core.base_calculus.Item._sign, core.base_calculus.Function._sign, core.base_calculus.SquareRoot._sign, core.base_calculus.Quotient._sign, core.base_calculus.Operation._symbol, core.base_calculus.Quotient._symbol, and core.base.Clonable.clone().

Referenced by core.calculus.Equation.__init__(), and core.root_calculus.Value.substitute().

Member Function Documentation

def core.base_calculus.Quotient.__len__ ( self )

Returns the Quotient's length It is used in Product.into_str(), changing it will have consequences on sheets like Fractions Products & Quotients...

Returns:: 1

Reimplemented from core.root_calculus.Calculable.

Definition at line 2398 of file base_calculus.py.

def core.base_calculus.Quotient.calculate_next_step	(	self,
		options
	)

Returns the Quotient in the next step of simplification.

Todo:: The case where exponent has to be calculated as well.

Reimplemented from core.root_calculus.Calculable.

Reimplemented in core.base_calculus.Fraction.

Definition at line 2309 of file base_calculus.py.

References core.base_calculus.Quotient.denominator, core.base_calculus.Item.evaluate(), core.base_calculus.Quotient.evaluate(), core.base_calculus.Item.exponent, core.root_calculus.Exponented.exponent, core.base_calculus.Fraction.exponent, core.base_calculus.Quotient.numerator, core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, core.base_calculus.Quotient.sign, core.base_calculus.Operation.symbol, and core.base_calculus.Quotient.symbol.

Referenced by core.base_calculus.Quotient.evaluate(), core.base_calculus.CommutativeOperation.evaluate(), core.base_calculus.Fraction.expand_and_reduce_next_step(), core.base_calculus.Product.expand_and_reduce_next_step(), and core.base_calculus.Sum.expand_and_reduce_next_step().

def core.base_calculus.Quotient.contains_a_rounded_number ( self )

To check if this contains a rounded number...

Returns:: True or False

Reimplemented from core.root_calculus.Evaluable.

Definition at line 2492 of file base_calculus.py.

def core.base_calculus.Quotient.contains_exactly	(	self,
		objct
	)

True if the Quotient contains exactly the given objct It can be used to detect objects embedded in this Quotient (with a denominator equal to 1)

Parameters:

objct The object to search for

Returns:: True if the Quotient contains exactly the given objct

Reimplemented from core.root_calculus.Evaluable.

Definition at line 2470 of file base_calculus.py.

References core.base_calculus.Quotient.numerator, core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, and core.base_calculus.Quotient.sign.

def core.base_calculus.Quotient.dbg_str	(	self,
		options
	)

Raw display of the Quotient (debugging method)

Parameters:

options No option available so far

Returns:: A string : "Q# sign ( numerator / denominator )^{ exponent }#Q"

Reimplemented in core.base_calculus.Fraction.

Definition at line 2377 of file base_calculus.py.

References core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, and core.base_calculus.Quotient.sign.

def core.base_calculus.Quotient.get_minus_signs_nb ( self )

Gets the number of '-' signs of the Quotient.

Returns:: The number of '-' signs of the Quotient

Reimplemented from core.root_calculus.Signed.

Definition at line 2118 of file base_calculus.py.

References core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, and core.base_calculus.Quotient.sign.

def core.base_calculus.Quotient.into_str	(	self,
		options
	)

Creates a string of the given object in the given ML.

Parameters:

options Any options

Returns:: The formated string

Reimplemented from core.base.Printable.

Definition at line 2170 of file base_calculus.py.

References core.base_calculus.Item.dbg_str(), core.base_calculus.SquareRoot.dbg_str(), core.base_calculus.Quotient.dbg_str(), core.base_calculus.Quotient.denominator, core.root_calculus.Exponented.exponent_must_be_displayed(), core.base_calculus.Quotient.numerator, core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, core.base_calculus.Quotient.sign, core.base_calculus.Operation.symbol, and core.base_calculus.Quotient.symbol.

def core.base_calculus.Quotient.is_displ_as_a_single_1 ( self )

True if the Quotient contains only single 1-equivalent Calcs.

So, if the Quotient has a positive sign and if its numerator and both are equivalent to single 1.

Reimplemented from core.root_calculus.Calculable.

Definition at line 2535 of file base_calculus.py.

References core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, and core.base_calculus.Quotient.sign.

Referenced by core.base_calculus.Quotient.is_displ_as_a_single_neutral(), core.base_calculus.Product.is_reducible(), core.base_calculus.Sum.is_reducible(), and core.base_calculus.Sum.requires_inner_brackets().

def core.base_calculus.Quotient.is_displ_as_a_single_minus_1 ( self )

True if the Quotient can be displayed as a single -1 If the Quotient is negative and its numerator and both are equivalent to single 1.

Todo:: Other cases should return True as well (use the sign_of_product())

Reimplemented from core.root_calculus.Calculable.

Definition at line 2554 of file base_calculus.py.

References core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, and core.base_calculus.Quotient.sign.

Referenced by core.base_calculus.Product.is_reducible(), and core.base_calculus.Sum.is_reducible().

def core.base_calculus.Quotient.multiply_symbol_is_required	(	self,
		objct,
		position
	)

True if the usual writing rules require a × between two factors.

Parameters:

objct	The other one
position	The position (integer) of self in the Product

Returns:: True if the writing rules require × between self & obj

Reimplemented from core.root_calculus.Calculable.

Definition at line 2420 of file base_calculus.py.

Referenced by core.base_calculus.Product.multiply_symbol_is_required(), and core.base_calculus.Sum.multiply_symbol_is_required().

def core.base_calculus.Quotient.requires_brackets	(	self,
		position
	)

True if the argument requires brackets in a product For instance, a Sum with several terms or a negative Item.

Parameters:

position The position of the object in the Product

Returns:: True if the object requires brackets in a Product

Reimplemented from core.root_calculus.Calculable.

Definition at line 2441 of file base_calculus.py.

References core.base_calculus.Item.sign, core.base_calculus.SquareRoot.sign, and core.base_calculus.Quotient.sign.

def core.base_calculus.Quotient.requires_inner_brackets ( self )

True if the argument requires inner brackets The reason for requiring them is having an exponent different from 1.

Returns:: True if the object requires inner brackets

Reimplemented from core.root_calculus.Calculable.

Definition at line 2456 of file base_calculus.py.

References core.root_calculus.Exponented.exponent_must_be_displayed().

Referenced by core.base_calculus.Product.into_str().

Property Documentation

core::base_calculus.Quotient::denominator [static]

Initial value:

property(get_denominator,
                           doc = "denominator field of Quotient")

Definition at line 2132 of file base_calculus.py.

Referenced by core.base_calculus.Fraction.__cmp__(), core.base_calculus.Fraction.__init__(), core.base_calculus.Quotient.calculate_next_step(), core.base_calculus.Fraction.calculate_next_step(), core.base_calculus.Quotient.get_iteration_list(), core.base_calculus.Fraction.get_simplification_in_progress(), core.base_calculus.Quotient.into_str(), core.base_calculus.Quotient.invert(), core.base_calculus.Fraction.is_reducible(), core.base_calculus.Fraction.set_down_numerator_s_minus_sign(), and core.base_calculus.Fraction.simplification_line().

core::base_calculus.Quotient::numerator [static]

Initial value:

property(get_numerator,
                         doc = "numerator field of Quotient")

Definition at line 2129 of file base_calculus.py.

The documentation for this class was generated from the following file:

mathmaker_dev/core/base_calculus.py

Public Member Functions

Public Attributes

Properties

Detailed Description

Constructor & Destructor Documentation

Member Function Documentation

Property Documentation