Class BCDFraction
- java.lang.Object
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- net.sourceforge.uiq3.math.BCDFraction
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Field Summary
Fields Modifier and Type Field Description static @NotNull BCDFraction
Approx_e
e approximation used for unit testsstatic @NotNull BCDFraction
Approx_π
π approximation used for unit testsprivate @NotNull BCDInteger
Denominator
The Denominator:private static Logger
Logger
Class logger instance.static @NotNull BCDFraction
Num_0
0static @NotNull BCDFraction
Num_1
1static @NotNull BCDFraction
Num_180
180static @NotNull BCDFraction
Num_2
2static @NotNull BCDFraction
Num_200
200private @NotNull BCDInteger
Numerator
The Numerator:private static String
TAG
Class logger tag.private static Pattern
Values_2
matches «2/3»private static Pattern
Values_3
matches «1 2/3»-
Fields inherited from interface net.sourceforge.uiq3.math.Number
Compare_Equal, Compare_Greater, Compare_Less, Effective_Precision, Max_Precision
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Constructor Summary
Constructors Constructor Description BCDFraction(long Whole)
create new fractionBCDFraction(long Whole, long Numerator, long Denominator)
create new fractionBCDFraction(@NotNull String Text)
create new fraction from a stringBCDFraction(@NotNull BCDFraction Value)
create new fractionBCDFraction(@NotNull BCDInteger Whole)
create new fractionBCDFraction(@NotNull BCDInteger Numerator, @NotNull BCDInteger Denominator)
create new fractionBCDFraction(@NotNull Number Whole, @NotNull Number Numerator, @NotNull BCDInteger Denominator)
create new fraction
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Method Summary
All Methods Instance Methods Concrete Methods Modifier and Type Method Description @NotNull Number
$div(@NotNull Number y)
x ÷ y@NotNull Number
$minus(@NotNull Number y)
x - y@NotNull Number
$plus(@NotNull Number y)
x + y@NotNull Number
$times(@NotNull Number y)
x × y@NotNull Number
$times$times(@NotNull Number y)
xy@NotNull BCDInteger
a()
Fraktur represented as «a b/c»@NotNull Number
abs()
|x|@NotNull Number
and(@NotNull Number y)
Logical and@NotNull Number
arc_cos()
arc cosine@NotNull Number
arc_cos(@NotNull Number Half_Circle)
arc cosine@NotNull Number
arc_cos_hyp()
area hyperbolic cosine: loge (x + √(x-1) × √(x+1))@NotNull Number
arc_sin()
arc sine@NotNull Number
arc_sin(@NotNull Number Half_Circle)
arc sine@NotNull Number
arc_sin_hyp()
area hyperbolic sine: loge (x + √(x² + 1))@NotNull Number
arc_tan()
arc tangent@NotNull Number
arc_tan(@NotNull Number Half_Circle)
arc tangent@NotNull Number
arc_tan_hyp()
area hyperbolic tangent: loge ((1 + x) ÷ (1 - x)) / 2@NotNull BCDFloat
As_BCDFloat()
Either convert to a BCDFloat or return this.@NotNull BCDFraction
As_BCDFraction()
Either convert to a or return this.@NotNull BCDInteger
As_BCDInteger()
Either convert to a BCDInteger or return this.@NotNull BCDInteger
b()
Fraktur represented as «a b/c»@NotNull BCDInteger
c()
Fraktur represented as «a b/c» or «d/c»@NotNull Object
clone()
clone the float - but it might be easier to use the provided copy Constructor instead.@NotNull Number
Clone()
clone the float - but it might be easier to use the provided copy Constructor instead.long
Coefficient_As_Long()
coefficient - while a 18 digits number can also be represented as an long an 18digits multiplication need a 36digits temporary and that is more then a long can do.int
Compare(@NotNull Number Value)
Compare valuesint
compareTo(@NotNull Number rightValue)
@NotNull Number
cos()
cos (x)@NotNull Number
cos(@NotNull Number Half_Circle)
cosine@NotNull Number
cos_hyp()
Hyperbolic cosine: (Exponent^x + Exponent^-x)/2@NotNull BCDInteger
d()
Fraktur represented as «d/c».byte[]
Digits()
number: sum(i = 0 ...boolean
equals(@NotNull Object rightValue)
@NotNull Number
exp_10()
10x@NotNull Number
exp_e()
exint
Exponent()
current exponent - note that the exponent is based on the internal representation where the radix point is right most.@NotNull Number
Fix(int Decimal, int Exponent)
Round to a given Precision after the decimal point.@NotNull Number
Frac()
Recompose a frac double from the given data.int
hashCode()
int
Indirect_Value(int Digit_Count)
Get valuef or indirect addressing.@NotNull Number
Integer()
integer part of the BCDFloatboolean
Is_Finite()
current value is a normal numberboolean
Is_Infinite()
current value is Infinity (but not N/A).boolean
Is_Integer()
Current value is integer value.boolean
Is_NaN()
current value is not a numberboolean
Is_Negative()
Current value us negativeboolean
Is_Zero()
value is 0@NotNull Number
log_10()
log10 (x)@NotNull Number
log_e()
loge (x)@NotNull Number
neg()
void
Normalize()
normalize the value@NotNull Number
not()
Logical notint
Num_Digits()
the current number of digits - not that when the number is not normalised there might be more 0's in the number then strictly needed.@NotNull Number
or(@NotNull Number y)
Logical or@NotNull Number
P_To_X(@NotNull Number θ)
Convert Polar to Rectangle Coordinates@NotNull Number
P_To_X(@NotNull Number θ, @NotNull Number Half_Circle)
Convert Polar to Rectangle Coordinates@NotNull Number
P_To_Y(@NotNull Number θ)
Convert Polar to Rectangle Coordinates@NotNull Number
P_To_Y(@NotNull Number θ, @NotNull Number Half_Circle)
Convert Polar to Rectangle Coordinates@NotNull Number
R_To_R(@NotNull Number y)
Convert Rectangle to Polar Coordinates@NotNull Number
R_To_θ(@NotNull Number y)
Convert Rectangle to Polar Coordinates@NotNull Number
R_To_θ(@NotNull Number y, @NotNull Number Half_Circle)
Convert Rectangle to Polar Coordinates@NotNull Number
root(@NotNull Number r)
r√x@NotNull Number
Round()
Round to effective Precision and Exponent.@NotNull Number
Round(int Precision, int Exponent)
Round to a given Precision and Exponent.@NotNull Number
sin()
sine@NotNull Number
sin(@NotNull Number Half_Circle)
sine@NotNull Number
sin_hyp()
hyperbolic sine: (ex - e-x) ÷ 2@NotNull Number
square()
x2@NotNull Number
square_root()
2√x@NotNull Number
tan()
tan x@NotNull Number
tan(@NotNull Number Half_Circle)
tangent@NotNull Number
tan_hyp()
Hyperbolic tangent: (e2x - 1) ÷ (e2x + 1)@NotNull String
To_Debug_String()
convert to native/debug string representationint
To_Integer()
Convert to integerlong
To_Long()
Convert to long integer@NotNull String
toString()
display as debug string@NotNull Number
xor(@NotNull Number y)
Logical xor
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Field Detail
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Logger
private static final Logger Logger
Class logger instance.
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TAG
private static final String TAG
Class logger tag.
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Values_2
private static final Pattern Values_2
matches «2/3»
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Values_3
private static final Pattern Values_3
matches «1 2/3»
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Approx_e
@NotNull public static final @NotNull BCDFraction Approx_e
e approximation used for unit tests
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Approx_π
@NotNull public static final @NotNull BCDFraction Approx_π
π approximation used for unit tests
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Num_0
@NotNull public static final @NotNull BCDFraction Num_0
0
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Num_1
@NotNull public static final @NotNull BCDFraction Num_1
1
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Num_180
@NotNull public static final @NotNull BCDFraction Num_180
180
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Num_2
@NotNull public static final @NotNull BCDFraction Num_2
2
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Num_200
@NotNull public static final @NotNull BCDFraction Num_200
200
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Denominator
@NotNull private @NotNull BCDInteger Denominator
The Denominator:
Whole + Numerator / Denominator
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Numerator
@NotNull private @NotNull BCDInteger Numerator
The Numerator:
Numerator / Denominator
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Constructor Detail
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BCDFraction
public BCDFraction(@NotNull @NotNull BCDFraction Value)
create new fraction
- Parameters:
Value
- value to copy
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BCDFraction
public BCDFraction(@NotNull @NotNull BCDInteger Whole)
create new fraction
- Parameters:
Whole
- The whole part of the number
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BCDFraction
public BCDFraction(@NotNull @NotNull BCDInteger Numerator, @NotNull @NotNull BCDInteger Denominator)
create new fraction
- Parameters:
Numerator
- The numeratorDenominator
- The denominator
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BCDFraction
public BCDFraction(long Whole)
create new fraction
- Parameters:
Whole
- The whole part of the number
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BCDFraction
public BCDFraction(long Whole, long Numerator, long Denominator)
create new fraction
- Parameters:
Whole
- The whole part of the numberNumerator
- The numeratorDenominator
- The denominator
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BCDFraction
public BCDFraction(@NotNull @NotNull Number Whole, @NotNull @NotNull Number Numerator, @NotNull @NotNull BCDInteger Denominator)
create new fraction
- Parameters:
Whole
- The whole part of the numberNumerator
- The numeratorDenominator
- The denominator
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BCDFraction
public BCDFraction(@NotNull @NotNull String Text)
create new fraction from a string
- Parameters:
Text
- A String of the type "999" or “999/999” or "999 999/999"
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Method Detail
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$minus
@Contract(pure=true) @NotNull public @NotNull Number $minus(@NotNull @NotNull Number y)
x - y
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$times
@Contract(pure=true) @NotNull public @NotNull Number $times(@NotNull @NotNull Number y)
x × y
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$times$times
@Contract(pure=true) @NotNull public @NotNull Number $times$times(@NotNull @NotNull Number y) throws BCDError
xy- Specified by:
$times$times
in interfaceNumber
- Parameters:
y
- power- Returns:
- xy
- Throws:
BCDError
- calculation error
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As_BCDFloat
@NotNull public @NotNull BCDFloat As_BCDFloat()
Either convert to a BCDFloat or return this.
- Specified by:
As_BCDFloat
in interfaceNumber
- Returns:
- value as java int
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As_BCDFraction
@NotNull public @NotNull BCDFraction As_BCDFraction()
Either convert to a or return this.
- Specified by:
As_BCDFraction
in interfaceNumber
- Returns:
- value as java int
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As_BCDInteger
@NotNull public @NotNull BCDInteger As_BCDInteger()
Either convert to a BCDInteger or return this.
- Specified by:
As_BCDInteger
in interfaceNumber
- Returns:
- value as java int
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Clone
@NotNull public @NotNull Number Clone()
clone the float - but it might be easier to use the provided copy Constructor instead.- Specified by:
Clone
in interfaceNumber
- Returns:
- a new BCDFloat from an existing one.
- See Also:
Object.clone()
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Coefficient_As_Long
public long Coefficient_As_Long() throws BCDError
coefficient - while a 18 digits number can also be represented as an long an 18digits multiplication need a 36digits temporary and that is more then a long can do.
- Specified by:
Coefficient_As_Long
in interfaceNumber
- Returns:
- Coefficient
- Throws:
BCDError
- when it's not a normal number
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Compare
public int Compare(@NotNull @NotNull Number Value)
Compare values
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Digits
public byte[] Digits()
number: sum(i = 0 ... Num_Digits-1; Digits[i]*10^i)
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Exponent
public int Exponent() throws BCDError
current exponent - note that the exponent is based on the internal representation where the radix point is right most. For example π is 314159265358979324×10-17.
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Fix
@NotNull public @NotNull Number Fix(int Decimal, int Exponent)
Round to a given Precision after the decimal point.
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Frac
@NotNull public @NotNull Number Frac()
Recompose a frac double from the given data.
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Indirect_Value
public int Indirect_Value(int Digit_Count)
Get valuef or indirect addressing.
- Specified by:
Indirect_Value
in interfaceNumber
- Parameters:
Digit_Count
- Should be 1 … 2 depending if value is used to access memory or perform a goto.- Returns:
- int value for indirect addressing.
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Integer
@NotNull public @NotNull Number Integer()
integer part of the BCDFloat
Do not mix up with To_Integer - This version returns another BCDFloat!
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Is_Finite
public boolean Is_Finite()
current value is a normal number
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Is_Infinite
public boolean Is_Infinite()
current value is Infinity (but not N/A).- Specified by:
Is_Infinite
in interfaceNumber
- Returns:
- true when x is infinite
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Is_Integer
public boolean Is_Integer()
Current value is integer value.- Specified by:
Is_Integer
in interfaceNumber
- Returns:
- true when x is an integer number
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Is_NaN
public boolean Is_NaN()
current value is not a number
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Is_Negative
public boolean Is_Negative()
Current value us negative- Specified by:
Is_Negative
in interfaceNumber
- Returns:
- true when x <= -0
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Is_Zero
public boolean Is_Zero()
value is 0
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Normalize
public void Normalize()
normalize the value
depending on type: remove leading zeros and / or trailing zeros
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Num_Digits
public int Num_Digits() throws BCDError
the current number of digits - not that when the number is not normalised there might be more 0's in the number then strictly needed.- Specified by:
Num_Digits
in interfaceNumber
- Returns:
- number of digits
- Throws:
BCDError
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P_To_X
@Contract(pure=true) @NotNull public @NotNull Number P_To_X(@NotNull @NotNull Number θ)
Convert Polar to Rectangle Coordinates
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P_To_X
@Contract(pure=true) @NotNull public @NotNull Number P_To_X(@NotNull @NotNull Number θ, @NotNull @NotNull Number Half_Circle)
Convert Polar to Rectangle Coordinates
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P_To_Y
@Contract(pure=true) @NotNull public @NotNull Number P_To_Y(@NotNull @NotNull Number θ)
Convert Polar to Rectangle Coordinates
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P_To_Y
@Contract(pure=true) @NotNull public @NotNull Number P_To_Y(@NotNull @NotNull Number θ, @NotNull @NotNull Number Half_Circle)
Convert Polar to Rectangle Coordinates
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R_To_R
@Contract(pure=true) @NotNull public @NotNull Number R_To_R(@NotNull @NotNull Number y)
Convert Rectangle to Polar Coordinates
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R_To_θ
@Contract(pure=true) @NotNull public @NotNull Number R_To_θ(@NotNull @NotNull Number y)
Convert Rectangle to Polar Coordinates
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R_To_θ
@Contract(pure=true) @NotNull public @NotNull Number R_To_θ(@NotNull @NotNull Number y, @NotNull @NotNull Number Half_Circle)
Convert Rectangle to Polar Coordinates
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Round
@NotNull public @NotNull Number Round()
Round to effective Precision and Exponent.
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Round
@NotNull public @NotNull Number Round(int Precision, int Exponent)
Round to a given Precision and Exponent.
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To_Debug_String
@NotNull public @NotNull String To_Debug_String()
convert to native/debug string representation- Specified by:
To_Debug_String
in interfaceNumber
- Returns:
- (Coefficient, Exponent)
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To_Integer
public int To_Integer()
Convert to integer Do not mix up with Integer - This version returns a Java int!- Specified by:
To_Integer
in interfaceNumber
- Returns:
- value as java int
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To_Long
public long To_Long()
Convert to long integer Do not mix up with Integer - This version returns a Java int!
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a
@NotNull public @NotNull BCDInteger a()
Fraktur represented as «a b/c»
- Returns:
- a
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abs
@Contract(pure=true) @NotNull public @NotNull Number abs()
|x|
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and
@Contract(pure=true) @NotNull public @NotNull Number and(@NotNull @NotNull Number y)
Logical and
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arc_cos
@Contract(pure=true) @NotNull public @NotNull Number arc_cos()
arc cosine
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arc_cos
@Contract(pure=true) @NotNull public @NotNull Number arc_cos(@NotNull @NotNull Number Half_Circle)
arc cosine
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arc_cos_hyp
@Contract(pure=true) @NotNull public @NotNull Number arc_cos_hyp()
area hyperbolic cosine: loge (x + √(x-1) × √(x+1))- Specified by:
arc_cos_hyp
in interfaceNumber
- Returns:
- Hyperbolic sine.
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arc_sin
@Contract(pure=true) @NotNull public @NotNull Number arc_sin()
arc sine
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arc_sin
@Contract(pure=true) @NotNull public @NotNull Number arc_sin(@NotNull @NotNull Number Half_Circle)
arc sine
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arc_sin_hyp
@Contract(pure=true) @NotNull public @NotNull Number arc_sin_hyp()
area hyperbolic sine: loge (x + √(x² + 1))- Specified by:
arc_sin_hyp
in interfaceNumber
- Returns:
- Hyperbolic sine.
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arc_tan
@Contract(pure=true) @NotNull public @NotNull Number arc_tan()
arc tangent
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arc_tan
@Contract(pure=true) @NotNull public @NotNull Number arc_tan(@NotNull @NotNull Number Half_Circle)
arc tangent
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arc_tan_hyp
@Contract(pure=true) @NotNull public @NotNull Number arc_tan_hyp()
area hyperbolic tangent: loge ((1 + x) ÷ (1 - x)) / 2- Specified by:
arc_tan_hyp
in interfaceNumber
- Returns:
- Hyperbolic sine.
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b
@NotNull public @NotNull BCDInteger b()
Fraktur represented as «a b/c»
- Returns:
- b
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c
@NotNull public @NotNull BCDInteger c()
Fraktur represented as «a b/c» or «d/c»
- Returns:
- c
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clone
@NotNull public @NotNull Object clone() throws CloneNotSupportedException
clone the float - but it might be easier to use the provided copy Constructor instead.- Overrides:
clone
in classObject
- Returns:
- a new BCDInteger from an existing one.
- Throws:
CloneNotSupportedException
- See Also:
Object.clone()
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compareTo
public int compareTo(@NotNull @NotNull Number rightValue)
- Specified by:
compareTo
in interfaceComparable<Number>
- Specified by:
compareTo
in interfaceNumber
- Parameters:
rightValue
- value to compare with- Returns:
- Compare_Equal
- Values are the same
- Compare_Less
- Left value less the right value
- Compare_Greater
- Left value greater the right value
- See Also:
Comparable.compareTo(Object)
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cos
@Contract(pure=true) @NotNull public @NotNull Number cos()
cos (x)
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cos
@Contract(pure=true) @NotNull public @NotNull Number cos(@NotNull @NotNull Number Half_Circle)
cosine
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cos_hyp
@Contract(pure=true) @NotNull public @NotNull Number cos_hyp()
Hyperbolic cosine: (Exponent^x + Exponent^-x)/2
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d
@NotNull public @NotNull BCDInteger d()
Fraktur represented as «d/c».
- Returns:
- d
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equals
public boolean equals(@NotNull @NotNull Object rightValue)
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exp_e
@Contract(pure=true) @NotNull public @NotNull Number exp_e()
ex
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log_10
@Contract(pure=true) @NotNull public @NotNull Number log_10()
log10 (x)
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log_e
@Contract(pure=true) @NotNull public @NotNull Number log_e()
loge (x)
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neg
@Contract(pure=true) @NotNull public @NotNull Number neg()
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not
@Contract(pure=true) @NotNull public @NotNull Number not()
Logical not
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sin
@Contract(pure=true) @NotNull public @NotNull Number sin()
sine
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sin
@Contract(pure=true) @NotNull public @NotNull Number sin(@NotNull @NotNull Number Half_Circle)
sine
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sin_hyp
@Contract(pure=true) @NotNull public @NotNull Number sin_hyp()
hyperbolic sine: (ex - e-x) ÷ 2
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square
@Contract(pure=true) @NotNull public @NotNull Number square()
x2
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square_root
@Contract(pure=true) @NotNull public @NotNull Number square_root()
2√x- Specified by:
square_root
in interfaceNumber
- Returns:
- 2√x
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tan
@Contract(pure=true) @NotNull public @NotNull Number tan()
tan x
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tan
@Contract(pure=true) @NotNull public @NotNull Number tan(@NotNull @NotNull Number Half_Circle)
tangent
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tan_hyp
@NotNull public @NotNull Number tan_hyp()
Hyperbolic tangent: (e2x - 1) ÷ (e2x + 1)
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toString
@NotNull public @NotNull String toString()
display as debug string
- Specified by:
toString
in interfaceNumber
- Overrides:
toString
in classObject
- Returns:
- string representation
- See Also:
Object.toString()
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