WholeNumber

com.phasmidsoftware.number.algebra.eager.WholeNumber
See theWholeNumber companion object
case class WholeNumber(x: BigInt)(maybeName: Option[String] = ...) extends ExactNumber, Z, CanAddAndSubtract[WholeNumber], CanMultiply[WholeNumber, WholeNumber]

A case class representing a whole number.

The WholeNumber class models any integer in the Z domain and its associated operations, enabling addition, inversion, comparison, and rendering.

Value parameters

x

a BigInt value representing the whole number

Attributes

Companion
object
Graph
Supertypes
trait Serializable
trait Product
trait Equals
trait Can[WholeNumber]
trait Z
trait ExactNumber
trait CanPower[Eager]
trait Q
trait R
trait Exact
trait Number
trait Ordered[Scalar]
trait Comparable[Scalar]
trait Scalar
trait Structure
trait Eager
trait DyadicOps
trait Approximate
trait Valuable
trait TypeSafe
trait Exactitude
trait Unitary
trait Zeroable
trait Numeric
trait Renderable
class Object
trait Matchable
class Any
Show all

Members list

Value members

Concrete methods

infix def *(factor: Rational): ExactNumber

Scales the current instance by the given factor.

Scales the current instance by the given factor.

This method applies a scaling operation on the instance using the provided rational factor and returns the resulting scaled instance.

The result is not guaranteed to be normalized.

Value parameters

factor

the rational number representing the scale factor

Attributes

Returns

the scaled instance of type T

def -(that: WholeNumber)(using AdditiveCommutativeGroup[WholeNumber]): WholeNumber

Subtracts the specified WholeNumber from this WholeNumber.

Subtracts the specified WholeNumber from this WholeNumber.

Value parameters

that

the WholeNumber to subtract from this WholeNumber

Attributes

Returns

the result of subtracting the specified WholeNumber from this WholeNumber

def compareExact(that: Scalar): Option[Int]

Compares this instance with another Scalar for exact equivalence. This method attempts to compare the two instances based on their exact numerical representation.

Compares this instance with another Scalar for exact equivalence. This method attempts to compare the two instances based on their exact numerical representation.

Value parameters

that

the Scalar instance to compare against

Attributes

Returns

an Option[Int] value: - Some(-1) if this Scalar is less than that - Some(0) if this Scalar is equal to that - Some(1) if this Scalar is greater than that - None if the exact comparison is not possible

def convert[T <: Structure : ClassTag](t: T): Option[T]

Converts the given Structure instance to an optional transformed instance of the same type. The conversion will vary depending on the specific subclass of Structure. If the input type is unsupported for conversion, None is returned.

Converts the given Structure instance to an optional transformed instance of the same type. The conversion will vary depending on the specific subclass of Structure. If the input type is unsupported for conversion, None is returned.

Type parameters

T

the type parameter constrained to subtypes of Structure with a ClassTag evidence.

Value parameters

t

the input object of type T, which must be a subtype of Structure. The input is expected to be of a type that matches the patterns in the conversion logic.

Attributes

Returns

an Option containing a converted instance of the same type T if the conversion is successful, or None otherwise.

def doScale(that: Number): Option[WholeNumber]

Scales the current WholeNumber instance using the provided Number.

Scales the current WholeNumber instance using the provided Number.

This method leverages the scale function to perform the scaling operation and ensures the result is downcast to an Option[WholeNumber] if possible. The operation may return None if the scaling cannot be performed or the resulting type is not compatible.

Value parameters

that

the Number to be used as the scaling factor

Attributes

Returns

an Option[WholeNumber] containing the scaled result, or None if the operation fails or the result is not a WholeNumber

override def eqv(that: Eager): Try[Boolean]

Determines if the current WholeNumber instance is equivalent to another Eager instance. NOTE no normalization is performed or required here.

Determines if the current WholeNumber instance is equivalent to another Eager instance. NOTE no normalization is performed or required here.

This method compares the current instance with the provided that instance. If both instances are WholeNumber and their values are the same, it returns Success(true). Otherwise, it delegates to the super implementation of eqv.

Value parameters

that

the Eager instance to compare against

Attributes

Returns

a Try[Boolean] yielding: - Success(true) if the instances are WholeNumber with equivalent values, - Success(false) if they are not equivalent, - Failure if any error occurs during comparison

Definition Classes
def scale(scalar: Scalar): Option[Number]

Scales the current instance by a given scalar.

Scales the current instance by a given scalar.

Value parameters

scalar

the scalar by which the instance should be scaled

Attributes

Returns

an Option[Number] representing the scaled value: - Some(Number) containing the result of scaling when the operation is successful - None if the operation cannot be performed or is not supported for the given scalar

def signum: Int

Computes the signum of this WholeNumber.

Computes the signum of this WholeNumber.

Attributes

Returns

an integer value representing the sign of the number: - 0 if the number is zero, - 1 if the number is positive, - -1 if the number is negative.

override def toString: String

Returns a string representation of the object.

Returns a string representation of the object.

The default representation is platform dependent.

Attributes

Returns

a string representation of the object.

Definition Classes
Any

Negates the current WholeNumber instance, returning its additive inverse.

Negates the current WholeNumber instance, returning its additive inverse.

Attributes

Returns

A new WholeNumber instance representing the negation of the current number.

Inherited methods

def *(that: WholeNumber)(using MultiplicativeMonoid[WholeNumber]): WholeNumber

Multiplies the current instance of type T with another instance of type T, using the provided MultiplicativeMonoid context.

Multiplies the current instance of type T with another instance of type T, using the provided MultiplicativeMonoid context.

Value parameters

that

the instance of type T to be multiplied with the current instance.

Attributes

Returns

the result of multiplying the current instance by the given instance of type T.

Inherited from:
CanMultiply
infix def *(factor: Int): ExactNumber

Multiplies the current instance by the specified integer factor.

Multiplies the current instance by the specified integer factor.

Value parameters

factor

the integer value to multiply with the current instance

Attributes

Returns

a new instance of type T representing the result of the multiplication

Inherited from:
Scalable
def *(other: Number): Number

Multiplies the current number with another number using the defined multiplicative group.

Multiplies the current number with another number using the defined multiplicative group.

Value parameters

other

The number to be multiplied with the current number.

Attributes

Returns

The result of the multiplication as a number.

Inherited from:
Number
def +(that: WholeNumber)(using AdditiveCommutativeMonoid[WholeNumber], Convertible[WholeNumber, WholeNumber]): WholeNumber

Adds the given instance of the same type to this instance, leveraging the properties of an AdditiveCommutativeMonoid to ensure associativity, commutativity, and identity. CONSIDER keeping percentage if both are percentages. CONSIDER rewriting this in such a way that no exception will ever be thrown (use compiler to check, not runtime).

Adds the given instance of the same type to this instance, leveraging the properties of an AdditiveCommutativeMonoid to ensure associativity, commutativity, and identity. CONSIDER keeping percentage if both are percentages. CONSIDER rewriting this in such a way that no exception will ever be thrown (use compiler to check, not runtime).

Value parameters

that

The instance of the same type to be added to this instance.

Attributes

Returns

The result of adding this instance and the provided instance.

Inherited from:
CanAdd
def +(other: Number): Number

Adds this Number instance to another Number instance and returns the result.

Adds this Number instance to another Number instance and returns the result.

CONSIDER: there is an alternative way of adding Numbers and that is to summon an commutative addend. Which should we be using? This method allows for appropriate conversions whereas the other method does not.

The addition is performed based on the types of the two Number instances:

  • If both are WholeNumber, their values are added directly.
  • If one is a RationalNumber and the other is an ExactNumber, the ExactNumber is converted to match the type of the RationalNumber before addition.
  • If one is a Real, an attempt is made to convert the other number to match the type of the Real before addition.
  • For unsupported or invalid type combinations, an AlgebraException is thrown.

Value parameters

other

the Number instance to add to this instance

Attributes

Returns

a Number instance representing the sum of this instance and the provided other instance

Note

Throws an com.phasmidsoftware.number.algebra.util.AlgebraException if the addition cannot be performed due to unsupported or invalid type combinations

Inherited from:
Number
def -(other: Number): Number

Subtracts another Number from this Number instance and returns the result.

Subtracts another Number from this Number instance and returns the result.

The subtraction is performed based on the types of the two Number instances:

  • If both are WholeNumber, their values are subtracted directly.
  • If one is a RationalNumber and the other is an ExactNumber, the ExactNumber is converted to match the type of the RationalNumber before subtraction.
  • If one is a Real, an attempt is made to convert the other number to match the type of the Real before subtraction.
  • For unsupported or invalid type combinations, an AlgebraException is thrown.

Value parameters

other

the Number instance to subtract from this instance

Attributes

Returns

a Number instance representing the difference of this instance and the provided other instance

Note

Throws an com.phasmidsoftware.number.algebra.util.AlgebraException if the subtraction cannot be performed due to unsupported or invalid type combinations

Inherited from:
Number
def /(other: Number): Number

Divides this Number by another Number.

Divides this Number by another Number.

The division is performed based on the type of the input Number:

  • If the input is an ExactNumber, it computes the reciprocal of the input, converts it to a RationalNumber, multiplies it with this Number, and normalizes the result.
  • For unsupported types, an AlgebraException is thrown.

Value parameters

other

the Number by which this Number is to be divided

Attributes

Returns

the result of division as a Number

Throws
com.phasmidsoftware.number.algebra.util.AlgebraException

if the division is unsupported for the provided other type

Inherited from:
Number
def <(that: Scalar): Boolean

Returns true if this is less than that

Returns true if this is less than that

Value parameters

that

the instance to compare against

Attributes

Inherited from:
Ordered
def <=(that: Scalar): Boolean

Returns true if this is less than or equal to that.

Returns true if this is less than or equal to that.

Attributes

Inherited from:
Ordered
def >(that: Scalar): Boolean

Returns true if this is greater than that.

Returns true if this is greater than that.

Value parameters

that

the instance to compare against

Attributes

Inherited from:
Ordered
def >=(that: Scalar): Boolean

Returns true if this is greater than or equal to that.

Returns true if this is greater than or equal to that.

Attributes

Inherited from:
Ordered
def add(other: Number): Try[Number]

Adds the given number to the current instance and returns the result.

Adds the given number to the current instance and returns the result.

Value parameters

other

the number to be added to the current instance

Attributes

Returns

a Try containing the result of the addition if successful, or a failure if an exception occurs

Inherited from:
Number
infix def add[B <: Scalar](y: B): Try[Scalar]

Adds the specified Scalar instance to this Scalar and returns the result. The addition operation is performed for compatible scalar types. If the types are incompatible or the operation fails, a Failure is returned.

Adds the specified Scalar instance to this Scalar and returns the result. The addition operation is performed for compatible scalar types. If the types are incompatible or the operation fails, a Failure is returned.

Value parameters

y

the Scalar instance to add to this instance

Attributes

Returns

a Try[Scalar] containing the resulting Scalar if the addition is successful, or a Failure if the operation cannot be performed

Inherited from:
Scalar
def add(y: Structure): Try[Structure]

Adds the specified Structure instance to the current instance, producing a new Structure.

Adds the specified Structure instance to the current instance, producing a new Structure.

Value parameters

y

The Structure instance to be added.

Attributes

Returns

A Try wrapping the resulting Structure instance, or a failure if the operation cannot be completed.

Inherited from:
Structure
infix def add(y: Eager): Try[Eager]

Adds the current Eager instance to another Eager instance using the DyadicOperator mechanism. The addition operation is implemented by delegating to the addEagers function for specific behavior, ensuring proper handling of various subtypes of Eager.

Adds the current Eager instance to another Eager instance using the DyadicOperator mechanism. The addition operation is implemented by delegating to the addEagers function for specific behavior, ensuring proper handling of various subtypes of Eager.

Value parameters

y

the Eager instance to be added to this Eager instance

Attributes

Returns

a Try[Eager] containing the result of the addition if successful, or a failure if the operation fails

Inherited from:
Eager

Computes an approximate representation of the current value.

Computes an approximate representation of the current value.

This method utilizes the approximation mechanism to derive the most likely value in the form of a Real. Should the approximation fail, an AlgebraException will be raised to indicate the error.

Attributes

Returns

the approximate value as a Real if successful; throws an AlgebraException otherwise.

Inherited from:
Approximate
def approximation(force: Boolean = ...): Option[Real]

Attempts to approximate the current instance to a Real value. If the instance is already of type Real, it is simply returned, wrapped inside Some. Otherwise, depending on the value of force, it either attempts a conversion to a default Real (if force is true), or returns None.

Attempts to approximate the current instance to a Real value. If the instance is already of type Real, it is simply returned, wrapped inside Some. Otherwise, depending on the value of force, it either attempts a conversion to a default Real (if force is true), or returns None.

NOTE that this method tries to keep exact quantities exact.

Value parameters

force

a boolean flag indicating whether to force the conversion to a default Real value when the current instance is not of type Real

Attributes

Returns

an Option[Real] containing the approximated value if successful, or None if approximation fails

Inherited from:
Structure
def approximationComplex(force: Boolean = ...): Option[Eager]

Attempts to compute an approximate complex representation of the current value.

Attempts to compute an approximate complex representation of the current value.

This method provides an optional approximation in the form of an Eager type. By default, it does not perform the computation unless explicitly requested through the force flag. The method may return None if no approximation can be computed or if the operation fails.

Value parameters

force

a boolean flag indicating whether to force computation of the approximation. If true, the method will attempt to perform a complex approximation even if it is resource-intensive or otherwise unwarranted.

Attributes

Returns

an Option containing the approximate value as an Eager if successful, or None if no approximation is available.

Inherited from:
Approximate
def asJavaNumber: Option[Number]

Converts this Structure object into an optional java.lang.Number provided that the conversion can be performed without loss of precision.

Converts this Structure object into an optional java.lang.Number provided that the conversion can be performed without loss of precision.

The method determines whether the current Structure object can be represented as a java.lang.Number by leveraging the asNumber method and further evaluating certain conditions:

  • If the Structure object is an ExactNumber and its factor is PureNumber, the result is converted using Value.asJavaNumber.
  • If the Structure object is a Real with a wiggle value below a specified tolerance, the result is also converted using Value.asJavaNumber.
  • In all other cases, None is returned.

Attributes

Returns

an optional java.lang.Number representation of this object. The result is Some(java.lang.Number) if the conversion is successful under the stated conditions; otherwise, None.

Inherited from:
Structure

Casts the current instance to the type parameter T of the enclosing Can trait.

Casts the current instance to the type parameter T of the enclosing Can trait.

This method performs a type-safe cast using the ClassTag to verify at runtime that the cast is valid. If the current instance cannot be cast to type T, an AlgebraException is thrown.

Attributes

Returns

the current instance as an instance of type T

Throws
AlgebraException

if the cast is invalid

Inherited from:
Can
def category: String

Returns the category of this value in the Valuable type hierarchy.

Returns the category of this value in the Valuable type hierarchy.

Attributes

Returns

a string indicating the high-level category (e.g., "Expression", "Structure", "Nat", "Complex")

Inherited from:
TypeSafe
def compare(that: Number): Int

Compares the current Number instance with another Number instance.

Compares the current Number instance with another Number instance.

This method performs a comparison of two Number instances. If both numbers are exact, it uses exact comparison. If one or both numbers are not exact, it attempts to approximate and compare. Note that in some cases, this method may throw an exception if an invalid approximation logic is encountered.

Value parameters

that

the Number instance to compare the current instance against

Attributes

Returns

an integer value: - a negative value if this Number is lower than that - zero if this Number is equal to that - a positive value if this Number is greater than that

Note

Throws an com.phasmidsoftware.number.algebra.util.AlgebraException if the comparison cannot be performed due to invalid approximation logic

Inherited from:
Number
def compare(that: Scalar): Int

Compares this Number instance with a Scalar instance.

Compares this Number instance with a Scalar instance.

This method matches the type of the input Scalar and performs a comparison based on its type. If the input is a Number, it delegates to the compare(Number) method. If the input is a Radians, it first attempts to convert the Radians into a comparable value and then performs the comparison.

Value parameters

that

the Scalar instance to compare the current instance against.

Attributes

Returns

an integer value: - a negative value if the current instance is less than that. - zero if the current instance is equal to that. - a positive value if the current instance is greater than that.

Note

Throws an com.phasmidsoftware.number.algebra.util.AlgebraException if the conversion to a comparable value is not possible

Inherited from:
Number
override def compare(x: Eager, y: Eager): Try[Int]

Compares two instances of Eager and determines their relative ordering. This method is not yet implemented and will raise an com.phasmidsoftware.number.algebra.util.AlgebraException if called.

Compares two instances of Eager and determines their relative ordering. This method is not yet implemented and will raise an com.phasmidsoftware.number.algebra.util.AlgebraException if called.

Value parameters

x

the first Eager instance to compare

y

the second Eager instance to compare

Attributes

Returns

a Try[Int] that contains the comparison result: - 0 if x and y are equal, - a negative result if x is less than y, - and a positive result if x is greater than y. As the method is unimplemented, it will always return a failure with an AlgebraException.

Definition Classes
Inherited from:
Scalar
def compareTo(that: Scalar): Int

Result of comparing this with operand that.

Result of comparing this with operand that.

Value parameters

that

the instance to compare against

Attributes

Inherited from:
Ordered
def describe: String

Returns a descriptive string combining category and type name. Useful for debugging to understand both the hierarchy level and concrete type.

Returns a descriptive string combining category and type name. Useful for debugging to understand both the hierarchy level and concrete type.

Attributes

Returns

a string in the format "Category.TypeName" (e.g., "Structure.WholeNumber")

Inherited from:
TypeSafe
def divide(other: Number): Try[Number]

Divides the current number by the given number.

Divides the current number by the given number.

Value parameters

other

The number to divide the current number by.

Attributes

Returns

A Try[Number] containing the result of the division if successful, or a failure if an exception occurs (e.g., division by zero).

Inherited from:
Number
def divide[B <: Scalar](y: B): Try[Scalar]

Divides this Scalar instance by another Scalar instance of type B. The result of the division is wrapped in a Try to safely handle potential failures.

Divides this Scalar instance by another Scalar instance of type B. The result of the division is wrapped in a Try to safely handle potential failures.

Value parameters

y

The Scalar instance to divide by. Must be a subtype of Scalar.

Attributes

Returns

A Try containing the result of the division as a Scalar, or a failure if the division cannot be performed.

Inherited from:
Scalar
def divide(y: Structure): Try[Structure]

Divides the current Structure instance by another Structure instance. The operation is performed using the DyadicOperator defined for Structure. The result is wrapped in a Try to handle potential failures during the operation.

Divides the current Structure instance by another Structure instance. The operation is performed using the DyadicOperator defined for Structure. The result is wrapped in a Try to handle potential failures during the operation.

Value parameters

y

the Structure instance to divide the current instance by

Attributes

Returns

a Try[Structure] containing the result of the division if successful, or a failure if the operation cannot be performed

Inherited from:
Structure
infix def divide(y: Eager): Try[Eager]

Performs division of the current Eager instance by another Eager instance. This operation is implemented using the DyadicOperator mechanism, delegating the actual division logic to the divideEagers function.

Performs division of the current Eager instance by another Eager instance. This operation is implemented using the DyadicOperator mechanism, delegating the actual division logic to the divideEagers function.

Value parameters

y

the Eager instance to divide the current instance by

Attributes

Returns

a Try[Eager] containing the result of the division if successful, or a failure if the operation cannot be performed

Inherited from:
Eager
def fuzzy: Eager

Attempts to convert the current object to an instance of Eager using an approximation method. If the conversion fails, it recovers by throwing an AlgebraException with a descriptive error message.

Attempts to convert the current object to an instance of Eager using an approximation method. If the conversion fails, it recovers by throwing an AlgebraException with a descriptive error message.

Attributes

Returns

An instance of Eager if the approximation is successful.

Inherited from:
Eager
def fuzzyCompare(p: Double)(x: Eager, y: Eager): Try[Int]

Performs a fuzzy comparison between two Eager instances. The comparison is based on a specified tolerance and determines their relative ordering. If the comparison cannot be performed, an AlgebraException is returned as a failure.

Performs a fuzzy comparison between two Eager instances. The comparison is based on a specified tolerance and determines their relative ordering. If the comparison cannot be performed, an AlgebraException is returned as a failure.

Value parameters

p

the tolerance (as a Double) to be used for the comparison

x

the first Eager instance to be compared

y

the second Eager instance to be compared

Attributes

Returns

a Try[Int] representing the result of the comparison: - A negative integer if x is less than y - Zero if x is approximately equal to y within the tolerance p - A positive integer if x is greater than y - A Failure(AlgebraException) if the comparison cannot be performed

Inherited from:
Eager
override def fuzzyEqv(confidence: Double)(that: Eager): Try[Boolean]

Performs a fuzzy equivalence comparison between this Number instance and another Eager instance.

Performs a fuzzy equivalence comparison between this Number instance and another Eager instance.

This method evaluates whether two instances are approximately equal within a given tolerance p. If both instances are of type Number, it converts them to Real for the comparison. If either of the approximations fails, or the comparison is not applicable, it delegates to the super implementation.

Value parameters

confidence

the tolerance level for the fuzzy equality comparison. A higher value increases the permissible difference.

that

the Eager instance to compare this Number instance against.

Attributes

Returns

a Try[Boolean] indicating whether the two instances are approximately equal (true) or not (false). Returns Failure if the comparison cannot be performed or encounters an error.

Definition Classes
Inherited from:
Number
def isExact: Boolean

Determines if the current instance of RationalNumber is represented exactly.

Determines if the current instance of RationalNumber is represented exactly.

Attributes

Returns

true as the instance is always exact.

Inherited from:
ExactNumber
def isUnity: Boolean

Determines whether this object represents unity.

Determines whether this object represents unity.

Attributes

Returns

true if the object represents unity, false otherwise

Inherited from:
ExactNumber
def isZero: Boolean

Determines if the current number is equal to zero.

Determines if the current number is equal to zero.

Attributes

Returns

true if the number is zero, false otherwise

Inherited from:
ExactNumber
def maybeDouble: Option[Double]

If this Valuable is exact, it returns the exact value as a Double. Otherwise, it returns None. NOTE: do NOT implement this method to return a Double for a fuzzy Real--only for exact numbers.

If this Valuable is exact, it returns the exact value as a Double. Otherwise, it returns None. NOTE: do NOT implement this method to return a Double for a fuzzy Real--only for exact numbers.

Attributes

Returns

Some(x) where x is a Double if this is exact, else None.

Inherited from:
Eager
def maybeFactor(context: Context): Option[Factor]

Attempts to obtain a Factor representation in a specific Context.

Attempts to obtain a Factor representation in a specific Context.

A Factor could represent entities like PureNumber, Radian, etc., that provide numerical or dimensional meaning to a value. This method evaluates the current instance within the given Context to determine if a valid factor can be generated.

Value parameters

context

the evaluation context in which to determine the factor. The Context specifies the criteria under which the factorization is valid.

Attributes

Returns

an Option[Factor] containing the factor if it can be determined, or None if no suitable factor exists within the provided Context.

Inherited from:
Number
def maybeInt: Option[Int]

Attempts to retrieve an optional integer representation of the current exact number. The value is returned as an Option[Int] if the underlying rational number is a whole number and fits within the range of a 32-bit signed integer. Otherwise, None is returned.

Attempts to retrieve an optional integer representation of the current exact number. The value is returned as an Option[Int] if the underlying rational number is a whole number and fits within the range of a 32-bit signed integer. Otherwise, None is returned.

Attributes

Returns

an optional integer representation of the number.

Inherited from:
ExactNumber
def multiply(other: Number): Try[Number]

Multiplies this number by the given number and returns the result wrapped in a Try.

Multiplies this number by the given number and returns the result wrapped in a Try.

Value parameters

other

the number to multiply with this number

Attributes

Returns

a Try containing the product of this number and the given number, or a Failure if an error occurs during multiplication

Inherited from:
Number
def multiply[B <: Scalar](y: B): Try[Scalar]

Multiplies this Scalar instance by another Scalar of type B. The operation uses a dyadic operator to compute the product of the two scalars. The result is wrapped in a Try to handle any potential failures during the operation.

Multiplies this Scalar instance by another Scalar of type B. The operation uses a dyadic operator to compute the product of the two scalars. The result is wrapped in a Try to handle any potential failures during the operation.

Value parameters

y

the Scalar instance to multiply with this instance. Must be a subtype of Scalar.

Attributes

Returns

a Try[Scalar] representing the product of the multiplication, or a failure if the operation is not possible.

Inherited from:
Scalar
def multiply(y: Structure): Try[Structure]

Multiplies the current Structure instance by the specified Structure operand. The result of the operation is wrapped in a Try, allowing for safe handling of failures.

Multiplies the current Structure instance by the specified Structure operand. The result of the operation is wrapped in a Try, allowing for safe handling of failures.

Value parameters

y

the Structure operand with which the current instance is multiplied

Attributes

Returns

a Try[Structure] containing the result of the multiplication if successful, or a failure if the operation is not valid or cannot be performed

Inherited from:
Structure
infix def multiply(y: Eager): Try[Eager]

Multiplies the current Eager instance with another Eager instance. The multiplication operation is carried out using the DyadicOperator mechanism, which delegates to the multiplyEagers function for specific behavior. This ensures proper handling of various subtypes of Eager.

Multiplies the current Eager instance with another Eager instance. The multiplication operation is carried out using the DyadicOperator mechanism, which delegates to the multiplyEagers function for specific behavior. This ensures proper handling of various subtypes of Eager.

Value parameters

y

the Eager instance to multiply with this Eager instance

Attributes

Returns

a Try[Eager] containing the result of the multiplication if successful, or a failure if the operation cannot be performed

Inherited from:
Eager
def negate(using AdditiveCommutativeGroup[WholeNumber]): WholeNumber

Computes the additive inverse (negation) of an instance of type T.

Computes the additive inverse (negation) of an instance of type T.

Value parameters

AdditiveCommutativeGroup[T]

an implicit instance of AdditiveCommutativeGroup for the type T, providing the necessary additive group operations.

Attributes

Returns

the negated value of the current instance as an instance of type T.

Inherited from:
CanNegate

Returns a new instance of Structure that is the negation of the current instance. CONSIDER sorting out the use of CanNegate so that we can extend that for Structure.

Returns a new instance of Structure that is the negation of the current instance. CONSIDER sorting out the use of CanNegate so that we can extend that for Structure.

Attributes

Returns

a Structure representing the negation of this instance

Inherited from:
Scalar
infix def plus(that: Structure)(using AdditiveCommutativeMonoid[WholeNumber]): Option[WholeNumber]

Computes the addition of this object and the given Structure object using the additive properties of an AdditiveCommutativeMonoid. The operation returns an optional result where the addition succeeds if a valid transformation and combination can be performed.

Computes the addition of this object and the given Structure object using the additive properties of an AdditiveCommutativeMonoid. The operation returns an optional result where the addition succeeds if a valid transformation and combination can be performed.

CONSIDER eliminate this method and use with + instead.

Value parameters

that

the Structure object to be added to this object.

Attributes

Returns

an Option containing the result of the addition if successful, or None if the operation cannot be completed.

Inherited from:
CanAdd
infix def pow(that: ExactNumber): Option[ExactNumber]

Raises the current ExactNumber to the power of the given ExactNumber. The operation leverages the underlying rational representations of both numbers and computes the result exactly if possible.

Raises the current ExactNumber to the power of the given ExactNumber. The operation leverages the underlying rational representations of both numbers and computes the result exactly if possible.

Value parameters

that

the exponent as an ExactNumber to which the current number is raised

Attributes

Returns

an Option[ExactNumber] containing the resulting value if the power operation can be computed exactly, or None if it cannot

Inherited from:
ExactNumber
def product(other: Valuable): Valuable

Obtains the product of this Valuable instance and another Valuable instance. The behavior of the method is determined by whether the instances are of type Lazy or Eager. If the provided instances do not conform to the expected types, an AlgebraException is thrown. CONSIDER supporting sum also.

Obtains the product of this Valuable instance and another Valuable instance. The behavior of the method is determined by whether the instances are of type Lazy or Eager. If the provided instances do not conform to the expected types, an AlgebraException is thrown. CONSIDER supporting sum also.

CONSIDER using lazify

Value parameters

other

the other Valuable instance to compute the product with

Attributes

Returns

a Valuable instance representing the product of this and the other instance

Note

throws AlgebraException if the computation involves unsupported Valuable types

Inherited from:
Valuable
def productElementNames: Iterator[String]

An iterator over the names of all the elements of this product.

An iterator over the names of all the elements of this product.

Attributes

Inherited from:
Product
def productIterator: Iterator[Any]

An iterator over all the elements of this product.

An iterator over all the elements of this product.

Attributes

Returns

in the default implementation, an Iterator[Any]

Inherited from:
Product
def scale(scale: Rational): Number

Scales the current WholeNumber by a given Rational multiplier and returns the result wrapped as an Option[Structure]. CONSIDER renaming as *

Scales the current WholeNumber by a given Rational multiplier and returns the result wrapped as an Option[Structure]. CONSIDER renaming as *

Value parameters

scale

the Rational multiplier to scale the current WholeNumber

Attributes

Returns

an Option[Structure] representing the scaled result

Inherited from:
ExactNumber
def scale(x: Int): Scalar

Scales the current scalar instance by a factor derived from the specified integer.

Scales the current scalar instance by a factor derived from the specified integer.

Value parameters

x

the integer factor by which to scale the scalar

Attributes

Returns

a new Scalar instance representing the scaled value

Inherited from:
Scalar
def show: String

Renders and returns a string representation of the object. By default, this is the same as render but it can be overridden in subclasses.

Renders and returns a string representation of the object. By default, this is the same as render but it can be overridden in subclasses.

Attributes

Returns

a string representing the object

Inherited from:
Valuable
def subtract(other: Number): Try[Number]

Subtracts the given number from the current number and returns the result.

Subtracts the given number from the current number and returns the result.

Value parameters

other

the number to be subtracted from the current number

Attributes

Returns

a Try containing the result of the subtraction as a Number, or a failure if an error occurs

Inherited from:
Number
def subtract[B <: Scalar](y: B): Try[Scalar]

Subtracts the given scalar from this scalar and returns the result wrapped in a Try. The operation is performed using the dyadic operator logic powered by DyadicOperator, with the subtraction behavior provided by subtractScalars.

Subtracts the given scalar from this scalar and returns the result wrapped in a Try. The operation is performed using the dyadic operator logic powered by DyadicOperator, with the subtraction behavior provided by subtractScalars.

Value parameters

y

The scalar value to subtract, which must be a subtype of Scalar.

Attributes

Returns

A Try[Scalar] containing the result of the subtraction if successful, or a failure if the operation cannot be completed (e.g., type mismatch or invalid operation).

Inherited from:
Scalar
def subtract(y: Structure): Try[Structure]

Subtracts the given Structure instance (y) from the current instance. The operation is performed using a dyadic operator that ensures type safety and handles any failures during the subtraction via a Try.

Subtracts the given Structure instance (y) from the current instance. The operation is performed using a dyadic operator that ensures type safety and handles any failures during the subtraction via a Try.

Value parameters

y

the Structure instance to be subtracted from the current instance

Attributes

Returns

a Try[Structure] containing the result of the subtraction if successful, or a failure if the subtraction operation cannot be performed

Inherited from:
Structure
infix def subtract(y: Eager): Try[Eager]

Subtracts the given Eager instance y from the current Eager instance. This operation is performed using the DyadicOperator mechanism, which delegates to the subtractEagers function to handle the specific subtraction behavior.

Subtracts the given Eager instance y from the current Eager instance. This operation is performed using the DyadicOperator mechanism, which delegates to the subtractEagers function to handle the specific subtraction behavior.

Value parameters

y

the Eager instance to be subtracted from this Eager instance

Attributes

Returns

a Try[Eager] containing the result of the subtraction if successful, or a failure if the operation fails

Inherited from:
Eager

Converts this ExactNumber into a RationalNumber representation.

Converts this ExactNumber into a RationalNumber representation.

Attributes

Returns

A RationalNumber instance representing the current value.

Inherited from:
ExactNumber
def typeName: String

Returns a simple string representation of the runtime type. Useful for debugging and logging.

Returns a simple string representation of the runtime type. Useful for debugging and logging.

Attributes

Returns

the simple class name (e.g., "WholeNumber", "RationalNumber")

Inherited from:
TypeSafe

Concrete fields

val maybeName: Option[String]

Retrieves an optional name associated with this instance.

Retrieves an optional name associated with this instance.

Attributes

Returns

an Option[String] containing the name if present, otherwise None

lazy val maybeQ: Option[Q]

Converts the current instance of WholeNumber to an optional Q.

Converts the current instance of WholeNumber to an optional Q.

Attributes

Returns

an Option[Q] representing the current WholeNumber as a Q, or None if the conversion is not possible. The returned value will typically encapsulate the WholeNumber as a rational representation.

lazy val maybeZ: Option[Z]

Retrieves an Option containing this instance as an object of type Z.

Retrieves an Option containing this instance as an object of type Z.

Attributes

Returns

an Option[Z] that wraps the current instance, which is always Some(this).

Normalizes the current object and returns a standardized or canonical form of it.

Normalizes the current object and returns a standardized or canonical form of it.

Attributes

Returns

A normalized instance of the current object represented as a Valuable.

lazy val one: WholeNumber

Represents the multiplicative identity for WholeNumbers.

Represents the multiplicative identity for WholeNumbers.

This value denotes one, serving as the identity element in the group structure of WholeNumbers under multiplication.

Attributes

lazy val render: String

Renders the WholeNumber instance as a string representation.

Renders the WholeNumber instance as a string representation.

Attributes

Returns

the string representation of this WholeNumber instance

lazy val toInt: Int

Converts this instance to its corresponding integer representation.

Converts this instance to its corresponding integer representation.

Attributes

Returns

the integer value corresponding to this instance

Note

Throws an com.phasmidsoftware.number.algebra.util.AlgebraException if the conversion is not possible.

lazy val toRational: Rational

Converts the WholeNumber instance into a Rational equivalent.

Converts the WholeNumber instance into a Rational equivalent.

Attributes

Returns

a Rational representation of the current WholeNumber.

lazy val zero: WholeNumber

Represents the zero element of the WholeNumber type, adhering to the identity element defined in the commutative ring algebraic structure for whole numbers.

Represents the zero element of the WholeNumber type, adhering to the identity element defined in the commutative ring algebraic structure for whole numbers.

This lazy val provides a reference to the identity of the additive group, which is a WholeNumber with a value of zero. It delegates the instantiation to WholeNumberIsCommutativeRing.empty.

Attributes

Inherited fields

lazy val asDouble: Double

Converts this WholeNumber instance to its Double representation.

Converts this WholeNumber instance to its Double representation.

Attributes

Returns

the Double value obtained by converting this WholeNumber to a Rational and then to a Double.

Inherited from:
ExactNumber
lazy val asMonotone: Structure

Casts this Valuable instance into a Structure type if it already is a Structure. If the instance is not a Structure, an AlgebraException is thrown. CONSIDER returning Option[Structure] instead.

Casts this Valuable instance into a Structure type if it already is a Structure. If the instance is not a Structure, an AlgebraException is thrown. CONSIDER returning Option[Structure] instead.

Attributes

Returns

the current instance as a Structure

Note

Throws com.phasmidsoftware.number.algebra.util.AlgebraException if the instance is not of type Structure

Inherited from:
Valuable
lazy val asNumber: Option[Number]

Attempts to cast this instance to a Number. If the instance is of type Number, it is wrapped in an Option and returned. Otherwise, returns None.

Attempts to cast this instance to a Number. If the instance is of type Number, it is wrapped in an Option and returned. Otherwise, returns None.

Attributes

Returns

an Option containing the instance as a Number if applicable, or None if not.

Inherited from:
Valuable
lazy val fuzz: Option[Fuzziness[Double]]

Retrieves an optional fuzziness value associated with this instance.

Retrieves an optional fuzziness value associated with this instance.

The fuzziness value, if present, provides information about the level of uncertainty or imprecision, modeled as a Fuzziness[Double].

Attributes

Returns

an Option containing the Fuzziness[Double] value if defined, or None if no fuzziness is specified.

Inherited from:
Exact
lazy val materialize: Eager

Converts the current Lazy instance into an Eager instance by forcing the resolution or evaluation of its underlying value.

Converts the current Lazy instance into an Eager instance by forcing the resolution or evaluation of its underlying value.

The materialize method ensures that the computation of the value represented by this Lazy instance is completed and encapsulated within an appropriate Eager representation. This is particularly useful in scenarios where deferred computation needs to be explicitly resolved prior to further processing.

Attributes

Returns

the materialized Eager instance representing the resolved value

Inherited from:
Eager
lazy val scaleFactor: Double

A scale factor applied to this Number.

A scale factor applied to this Number.

The scaleFactor represents a multiplier that influences computations or adjustments involving this number. It is commonly used to scaleFactor or manipulate the magnitude of the number in various arithmetic or operational contexts.

Attributes

Inherited from:
Number
lazy val toDouble: Double

Converts the approximate representation of this number into a Double.

Converts the approximate representation of this number into a Double.

This method attempts to approximate the value of this number by invoking the approximation method with force = true. If the approximation exists, it is converted to a Double. If no approximation can be obtained, an AlgebraException is thrown to indicate a logic error.

Attributes

Returns

the approximate value as a Double.

Note

Throws an com.phasmidsoftware.number.algebra.util.AlgebraException if no approximation can be obtained.

Inherited from:
Approximate