Nested and Inner Type Summary

Modifier and Type	Class and Description
public static enum	Interpolator.StepPosition Specifies the step position of a step interpolator.

Field Summary

Modifier and Type	Field and Description
public static final Interpolator	DISCRETE Built-in interpolator that provides discrete time interpolation.
public static final Interpolator	EASE_BOTH Built-in interpolator instance that provides ease in/out behavior.
public static final Interpolator	EASE_IN Built-in interpolator instance that provides ease in behavior.
public static final Interpolator	EASE_OUT Built-in interpolator instance that provides ease out behavior.
private static final double	EPSILON
public static final Interpolator	LINEAR Built-in interpolator instance that is equivalent to `ofLinear([0, 0], [1, 1])`.
public static final Interpolator	STEP_END Built-in interpolator instance that is equivalent to `Interpolator.ofSteps(1, StepPosition.END)`.
public static final Interpolator	STEP_START Built-in interpolator instance that is equivalent to `Interpolator.ofSteps(1, StepPosition.START)`.

Constructor Summary

Access	Constructor and Description
protected	Interpolator() The constructor of `Interpolator`.

Method Summary

Modifier and Type	Method and Description
private static double	clamp(double t)
protected abstract double	Returns: the curved value curve(double time, but normalized to the range [0.0..1.0], where 0.0 is the start of the current interval, while 1.0 is the end of the current interval. Usually a function that increases monotonically. t) Mapping from [0.0..1.0] to itself.
public Object	Returns: interpolated value interpolate(Object start value startValue, Object end value endValue, double a value between 0.0 and 1.0 fraction) This method takes two `Objects` along with a `fraction` between `0.0` and `1.0` and returns the interpolated value.
public boolean	Returns: the interpolated value interpolate(boolean the first data point startValue, boolean the second data point endValue, double the fraction in `[0.0...1.0]` fraction) This method takes two `boolean` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value.
public double	Returns: the interpolated value interpolate(double the first data point startValue, double the second data point endValue, double the fraction in `[0.0...1.0]` fraction) This method takes two `double` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value.
public int	Returns: the interpolated value interpolate(int the first data point startValue, int the second data point endValue, double the fraction in `[0.0...1.0]` fraction) This method takes two `int` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value.
public long	Returns: the interpolated value interpolate(long the first data point startValue, long the second data point endValue, double the fraction in `[0.0...1.0]` fraction) This method takes two `int` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value.
public static Interpolator	Returns: a linear interpolator ofLinear(Point2D... the control points controlPoints) Returns an interpolator that interpolates linearly between its specified control points.
public static Interpolator	Returns: a spline interpolator ofSpline(double x coordinate of the first control point x1, double y coordinate of the first control point y1, double x coordinate of the second control point x2, double y coordinate of the second control point y2) Returns an `Interpolator` whose `curve()` is shaped using the spline control points defined by (`x1`, `y1` ) and (`x2`, `y2`).
public static Interpolator	Returns: a step interpolator ofSteps(int the number of intervals in the step interpolator intervalCount, Interpolator.StepPosition the `StepPosition` of the step interpolator position) Returns a step interpolator that divides the input time into a series of intervals, each interval being equal in length, where each interval maps to a constant output time value.
public static Interpolator	Returns: a tangent interpolator ofTangent(Duration the delta time of the in-tangent, relative to the KeyFrame t1, double the value of the in-tangent v1, Duration the delta time of the out-tangent, relative to the KeyFrame t2, double the value of the out-tangent v2) Returns a tangent interpolator.
public static Interpolator	Returns: a tangent interpolator ofTangent(Duration the delta time of the tangent t, double the value of the tangent v) Returns a tangent interpolator, for which in-tangent and out-tangent are identical.
public static Interpolator	Returns: a spline interpolator SPLINE(double x coordinate of the first control point x1, double y coordinate of the first control point y1, double x coordinate of the second control point x2, double y coordinate of the second control point y2) Deprecated since 26. use `ofSpline(double, double, double, double)` instead This is a legacy method named inconsistently with method naming conventions, use `ofSpline(double, double, double, double)` instead.
public static Interpolator	Returns: a new step interpolator STEPS(int the number of intervals in the step interpolator intervalCount, Interpolator.StepPosition the `StepPosition` of the step interpolator position) Deprecated since 26. use `ofSteps(int, StepPosition)` instead This is a legacy method named inconsistently with method naming conventions, use `ofSteps(int, StepPosition)` instead.
public static Interpolator	Returns: a tangent interpolator TANGENT(Duration the delta time of the in-tangent, relative to the KeyFrame t1, double the value of the in-tangent v1, Duration the delta time of the out-tangent, relative to the KeyFrame t2, double the value of the out-tangent v2) Deprecated since 26. use `ofTangent(Duration, double, Duration, double)` instead This is a legacy method named inconsistently with method naming conventions, use `ofTangent(Duration, double, Duration, double)` instead.
public static Interpolator	Returns: a tangent interpolator TANGENT(Duration the delta time of the tangent t, double the value of the tangent v) Deprecated since 26. use `ofTangent(Duration, double)` instead This is a legacy method named inconsistently with method naming conventions, use `ofTangent(Duration, double)` instead.

Inherited from java.lang.Object:: clone equals finalize getClass hashCode notify notifyAll toString wait wait wait

Field Detail

DISCRETE	back to summary
public static final Interpolator DISCRETE Built-in interpolator that provides discrete time interpolation. The return value of `interpolate()` is `endValue` only when the input `fraction` is 1.0, and `startValue` otherwise.

EASE_BOTH	back to summary
public static final Interpolator EASE_BOTH Built-in interpolator instance that provides ease in/out behavior. An ease-both interpolator will make an animation start slow, then accelerate and slow down again towards the end, all in a smooth manner. The implementation uses the algorithm for easing defined in SMIL 3.0 with an acceleration and deceleration factor of 0.2, respectively.

EASE_BOTH

back to summary

public static final Interpolator EASE_BOTH

Built-in interpolator instance that provides ease in/out behavior.

An ease-both interpolator will make an animation start slow, then accelerate and slow down again towards the end, all in a smooth manner.

The implementation uses the algorithm for easing defined in SMIL 3.0 with an acceleration and deceleration factor of 0.2, respectively.

EASE_IN	back to summary
public static final Interpolator EASE_IN Built-in interpolator instance that provides ease in behavior. An ease-in interpolator will make an animation start slow and then accelerate smoothly. The implementation uses the algorithm for easing defined in SMIL 3.0 with an acceleration factor of 0.2.

EASE_IN

back to summary

public static final Interpolator EASE_IN

Built-in interpolator instance that provides ease in behavior.

An ease-in interpolator will make an animation start slow and then accelerate smoothly.

The implementation uses the algorithm for easing defined in SMIL 3.0 with an acceleration factor of 0.2.

EASE_OUT	back to summary
public static final Interpolator EASE_OUT Built-in interpolator instance that provides ease out behavior. An ease-out interpolator will make an animation slow down toward the end smoothly. The implementation uses the algorithm for easing defined in SMIL 3.0 with an deceleration factor of 0.2.

EASE_OUT

back to summary

public static final Interpolator EASE_OUT

Built-in interpolator instance that provides ease out behavior.

An ease-out interpolator will make an animation slow down toward the end smoothly.

The implementation uses the algorithm for easing defined in SMIL 3.0 with an deceleration factor of 0.2.

EPSILON	back to summary
private static final double EPSILON

LINEAR	back to summary
public static final Interpolator LINEAR Built-in interpolator instance that is equivalent to `ofLinear([0, 0], [1, 1])`.

STEP_END back to summary

STEP_END	back to summary
public static final Interpolator STEP_END Built-in interpolator instance that is equivalent to `Interpolator.ofSteps(1, StepPosition.END)`. Since 23

public static final Interpolator STEP_END

Built-in interpolator instance that is equivalent to Interpolator.ofSteps(1, StepPosition.END).

Since: 23

STEP_START back to summary

STEP_START	back to summary
public static final Interpolator STEP_START Built-in interpolator instance that is equivalent to `Interpolator.ofSteps(1, StepPosition.START)`. Since 23

public static final Interpolator STEP_START

Built-in interpolator instance that is equivalent to Interpolator.ofSteps(1, StepPosition.START).

Since: 23

Constructor Detail

Interpolator	back to summary
protected Interpolator() The constructor of `Interpolator`.

Method Detail

clamp	back to summary
private static double clamp(double t)

curve	back to summary
protected abstract double curve(double t) Mapping from [0.0..1.0] to itself. Parameters t:double time, but normalized to the range [0.0..1.0], where 0.0 is the start of the current interval, while 1.0 is the end of the current interval. Usually a function that increases monotonically. Returns:double the curved value

curve

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protected abstract double curve(double t)

Mapping from [0.0..1.0] to itself.

Parameters

t:double: time, but normalized to the range [0.0..1.0], where 0.0 is the start of the current interval, while 1.0 is the end of the current interval. Usually a function that increases monotonically.

Returns:double

the curved value

interpolate back to summary

interpolate	back to summary
public Object interpolate(Object startValue, Object endValue, double fraction) This method takes two `Objects` along with a `fraction` between `0.0` and `1.0` and returns the interpolated value. If both `Objects` implement `Number`, their values are interpolated. If `startValue` implements `Interpolatable` the calculation defined in `interpolate()` is used. If neither of these conditions are met, a discrete interpolation is used, i.e. `endValue` is returned if and only if `fraction` is `1.0`, otherwise `startValue` is returned. Before calculating the interpolated value, the fraction is altered according to the function defined in `curve()`. Parameters startValue:Object start value endValue:Object end value fraction:double a value between 0.0 and 1.0 Returns:Object interpolated value Annotations @SuppressWarnings:unchecked, rawtypes

public Object interpolate(Object startValue, Object endValue, double fraction)

This method takes two Objects along with a fraction between 0.0 and 1.0 and returns the interpolated value.

If both Objects implement Number, their values are interpolated. If startValue implements Interpolatable the calculation defined in interpolate() is used. If neither of these conditions are met, a discrete interpolation is used, i.e. endValue is returned if and only if fraction is 1.0, otherwise startValue is returned.

Before calculating the interpolated value, the fraction is altered according to the function defined in curve().

Parameters

startValue:Object: start value
endValue:Object: end value
fraction:double: a value between 0.0 and 1.0

Returns:Object

interpolated value

Annotations

@SuppressWarnings:unchecked, rawtypes

interpolate back to summary

interpolate	back to summary
public boolean interpolate(boolean startValue, boolean endValue, double fraction) This method takes two `boolean` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value. Before calculating the interpolated value, the fraction is altered according to the function defined in `curve()`. Parameters startValue:boolean the first data point endValue:boolean the second data point fraction:double the fraction in `[0.0...1.0]` Returns:boolean the interpolated value

public boolean interpolate(boolean startValue, boolean endValue, double fraction)

This method takes two boolean values along with a fraction between 0.0 and 1.0 and returns the interpolated value.

Before calculating the interpolated value, the fraction is altered according to the function defined in curve().

Parameters

startValue:boolean: the first data point
endValue:boolean: the second data point
fraction:double: the fraction in [0.0...1.0]

Returns:boolean

the interpolated value

interpolate back to summary

interpolate	back to summary
public double interpolate(double startValue, double endValue, double fraction) This method takes two `double` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value. Before calculating the interpolated value, the fraction is altered according to the function defined in `curve()`. Parameters startValue:double the first data point endValue:double the second data point fraction:double the fraction in `[0.0...1.0]` Returns:double the interpolated value

public double interpolate(double startValue, double endValue, double fraction)

This method takes two double values along with a fraction between 0.0 and 1.0 and returns the interpolated value.

Before calculating the interpolated value, the fraction is altered according to the function defined in curve().

Parameters

startValue:double: the first data point
endValue:double: the second data point
fraction:double: the fraction in [0.0...1.0]

Returns:double

the interpolated value

interpolate back to summary

interpolate	back to summary
public int interpolate(int startValue, int endValue, double fraction) This method takes two `int` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value. Before calculating the interpolated value, the fraction is altered according to the function defined in `curve()`. Parameters startValue:int the first data point endValue:int the second data point fraction:double the fraction in `[0.0...1.0]` Returns:int the interpolated value

public int interpolate(int startValue, int endValue, double fraction)

This method takes two int values along with a fraction between 0.0 and 1.0 and returns the interpolated value.

Before calculating the interpolated value, the fraction is altered according to the function defined in curve().

Parameters

startValue:int: the first data point
endValue:int: the second data point
fraction:double: the fraction in [0.0...1.0]

Returns:int

the interpolated value

interpolate back to summary

interpolate	back to summary
public long interpolate(long startValue, long endValue, double fraction) This method takes two `int` values along with a `fraction` between `0.0` and `1.0` and returns the interpolated value. Before calculating the interpolated value, the fraction is altered according to the function defined in `curve()`. Parameters startValue:long the first data point endValue:long the second data point fraction:double the fraction in `[0.0...1.0]` Returns:long the interpolated value

public long interpolate(long startValue, long endValue, double fraction)

This method takes two int values along with a fraction between 0.0 and 1.0 and returns the interpolated value.

Before calculating the interpolated value, the fraction is altered according to the function defined in curve().

Parameters

startValue:long: the first data point
endValue:long: the second data point
fraction:double: the fraction in [0.0...1.0]

Returns:long

the interpolated value

ofLinear back to summary

ofLinear	back to summary
public static Interpolator ofLinear(Point2D... controlPoints) Returns an interpolator that interpolates linearly between its specified control points. Each control point associates an input progress value (X) with an output progress value (Y). The input progress value is the normalized progress of the animation, while the output progress value is the normalized progress of the value change. This means that when the time has reached X of the animation, the animation should be at Y of its value change. Both values are specified in normalized coordinates, but are not required to fall within the `[0..1]` interval. If the input progress value (X) of a control point is unspecified (`Double#NaN`), it is distributed evenly between its neighboring control points. If the input progress value of the first or last control point is unspecified, it is set to 0 or 1, respectively. The control point list is canonicalized so that input progress values (X) are non-decreasing in the order provided. In particular, if a control point specifies an X value that is lower than any preceding control point's X value, it is adjusted to match the greatest preceding X value. Parameters controlPoints:Point2D[] the control points Returns:Interpolator a linear interpolator Exceptions NullPointerException: if `controlPoints` is `null` IllegalArgumentException: if `controlPoints` contains less than two items Since 26

public static Interpolator ofLinear(Point2D... controlPoints)

Returns an interpolator that interpolates linearly between its specified control points.

Each control point associates an input progress value (X) with an output progress value (Y). The input progress value is the normalized progress of the animation, while the output progress value is the normalized progress of the value change. This means that when the time has reached X of the animation, the animation should be at Y of its value change. Both values are specified in normalized coordinates, but are not required to fall within the [0..1] interval.

If the input progress value (X) of a control point is unspecified (Double#NaN), it is distributed evenly between its neighboring control points. If the input progress value of the first or last control point is unspecified, it is set to 0 or 1, respectively.

The control point list is canonicalized so that input progress values (X) are non-decreasing in the order provided. In particular, if a control point specifies an X value that is lower than any preceding control point's X value, it is adjusted to match the greatest preceding X value.

Parameters

controlPoints:Point2D[]: the control points

Returns:Interpolator

a linear interpolator

Exceptions

NullPointerException:: if controlPoints is null
IllegalArgumentException:: if controlPoints contains less than two items

Since

ofSpline back to summary

ofSpline	back to summary
public static Interpolator ofSpline(double x1, double y1, double x2, double y2) Returns an `Interpolator` whose `curve()` is shaped using the spline control points defined by (`x1`, `y1` ) and (`x2`, `y2`). The anchor points of the spline are implicitly defined as (`0.0`, `0.0`) and (`1.0`, `1.0`). Parameters x1:double x coordinate of the first control point y1:double y coordinate of the first control point x2:double x coordinate of the second control point y2:double y coordinate of the second control point Returns:Interpolator a spline interpolator Exceptions IllegalArgumentException: if `x1` or `x2` is outside of `[0, 1]` Since 26

public static Interpolator ofSpline(double x1, double y1, double x2, double y2)

Returns an Interpolator whose curve() is shaped using the spline control points defined by (x1, y1 ) and (x2, y2). The anchor points of the spline are implicitly defined as (0.0, 0.0) and (1.0, 1.0).

Parameters

x1:double: x coordinate of the first control point
y1:double: y coordinate of the first control point
x2:double: x coordinate of the second control point
y2:double: y coordinate of the second control point

Returns:Interpolator

a spline interpolator

Exceptions

IllegalArgumentException:: if x1 or x2 is outside of [0, 1]

Since

ofSteps back to summary

ofSteps	back to summary
public static Interpolator ofSteps(int intervalCount, Interpolator.StepPosition position) Returns a step interpolator that divides the input time into a series of intervals, each interval being equal in length, where each interval maps to a constant output time value. The output time value is determined by the `StepPosition`. Parameters intervalCount:int the number of intervals in the step interpolator position:Interpolator.StepPosition the `StepPosition` of the step interpolator Returns:Interpolator a step interpolator Exceptions IllegalArgumentException: if `intervals` is less than 1, or if `intervals` is less than 2 when `position` is `StepPosition#NONE` NullPointerException: if `position` is `null` Since 26

public static Interpolator ofSteps(int intervalCount, Interpolator.StepPosition position)

Returns a step interpolator that divides the input time into a series of intervals, each interval being equal in length, where each interval maps to a constant output time value. The output time value is determined by the StepPosition.

Parameters

intervalCount:int: the number of intervals in the step interpolator
position:Interpolator.StepPosition: the StepPosition of the step interpolator

Returns:Interpolator

a step interpolator

Exceptions

IllegalArgumentException:: if intervals is less than 1, or if intervals is less than 2 when position is StepPosition#NONE
NullPointerException:: if position is null

Since

ofTangent back to summary

ofTangent	back to summary
public static Interpolator ofTangent(Duration t1, double v1, Duration t2, double v2) Returns a tangent interpolator. A tangent interpolator allows to define the behavior of an animation curve very precisely by defining the tangents close to a key frame. A tangent interpolator defines the behavior to the left and to the right of a key frame, therefore it is only useful within a `Timeline`. If used in a `KeyFrame` after a KeyFrame that has different interpolator, it's treated as if the out-tangent of that KeyFrame was equal to the value in the KeyFrame. The parameters define the tangent of the animation curve for the in tangent (before a key frame) and out tangent (after a key frame). Each tangent is specified with a pair, the distance to the key frame and the value of the tangent at this moment. The interpolation then follows a bezier curve, with 2 control points defined by the specified tangent and positioned at 1/3 of the duration before the second KeyFrame or after the first KeyFrame. See the picture above. Parameters t1:Duration the delta time of the in-tangent, relative to the KeyFrame v1:double the value of the in-tangent t2:Duration the delta time of the out-tangent, relative to the KeyFrame v2:double the value of the out-tangent Returns:Interpolator a tangent interpolator Since 26

public static Interpolator ofTangent(Duration t1, double v1, Duration t2, double v2)

Returns a tangent interpolator. A tangent interpolator allows to define the behavior of an animation curve very precisely by defining the tangents close to a key frame. A tangent interpolator defines the behavior to the left and to the right of a key frame, therefore it is only useful within a Timeline. If used in a KeyFrame after a KeyFrame that has different interpolator, it's treated as if the out-tangent of that KeyFrame was equal to the value in the KeyFrame.

A tangent interpolator
defines the behavior to the left and to the right of a key frame,
therefore it is only useful within a Timeline

The parameters define the tangent of the animation curve for the in tangent (before a key frame) and out tangent (after a key frame). Each tangent is specified with a pair, the distance to the key frame and the value of the tangent at this moment.

The interpolation then follows a bezier curve, with 2 control points defined by the specified tangent and positioned at 1/3 of the duration before the second KeyFrame or after the first KeyFrame. See the picture above.

Parameters

t1:Duration: the delta time of the in-tangent, relative to the KeyFrame
v1:double: the value of the in-tangent
t2:Duration: the delta time of the out-tangent, relative to the KeyFrame
v2:double: the value of the out-tangent

Returns:Interpolator

a tangent interpolator

Since

ofTangent back to summary

ofTangent	back to summary
public static Interpolator ofTangent(Duration t, double v) Returns a tangent interpolator, for which in-tangent and out-tangent are identical. This is especially useful for the first and the last key frame of a `Timeline`, because for these key frames only one tangent is used. Parameters t:Duration the delta time of the tangent v:double the value of the tangent Returns:Interpolator a tangent interpolator Since 26 See Also `ofTangent(Duration, double, Duration, double)`

public static Interpolator ofTangent(Duration t, double v)

Returns a tangent interpolator, for which in-tangent and out-tangent are identical. This is especially useful for the first and the last key frame of a Timeline, because for these key frames only one tangent is used.

Parameters

t:Duration: the delta time of the tangent
v:double: the value of the tangent

Returns:Interpolator

a tangent interpolator

Since

SPLINE back to summary

SPLINE	back to summary
public static Interpolator SPLINE(double x1, double y1, double x2, double y2) Deprecated since 26. use `ofSpline(double, double, double, double)` instead This is a legacy method named inconsistently with method naming conventions, use `ofSpline(double, double, double, double)` instead. Parameters x1:double x coordinate of the first control point y1:double y coordinate of the first control point x2:double x coordinate of the second control point y2:double y coordinate of the second control point Returns:Interpolator a spline interpolator Annotations @Deprecated since:26 Exceptions IllegalArgumentException: if `x1` or `x2` is outside of `[0, 1]`

public static Interpolator SPLINE(double x1, double y1, double x2, double y2)

Deprecated

since 26.

use ofSpline(double, double, double, double) instead

This is a legacy method named inconsistently with method naming conventions, use ofSpline(double, double, double, double) instead.

Parameters

x1:double: x coordinate of the first control point
y1:double: y coordinate of the first control point
x2:double: x coordinate of the second control point
y2:double: y coordinate of the second control point

Returns:Interpolator

a spline interpolator

Annotations

@Deprecated
since:26

Exceptions

IllegalArgumentException:: if x1 or x2 is outside of [0, 1]

STEPS back to summary

STEPS	back to summary
public static Interpolator STEPS(int intervalCount, Interpolator.StepPosition position) Deprecated since 26. use `ofSteps(int, StepPosition)` instead This is a legacy method named inconsistently with method naming conventions, use `ofSteps(int, StepPosition)` instead. Parameters intervalCount:int the number of intervals in the step interpolator position:Interpolator.StepPosition the `StepPosition` of the step interpolator Returns:Interpolator a new step interpolator Annotations @Deprecated since:26 Exceptions IllegalArgumentException: if `intervals` is less than 1, or if `intervals` is less than 2 when `position` is `StepPosition#NONE` NullPointerException: if `position` is `null` Since 23

public static Interpolator STEPS(int intervalCount, Interpolator.StepPosition position)

Deprecated

since 26.

use ofSteps(int, StepPosition) instead

This is a legacy method named inconsistently with method naming conventions, use ofSteps(int, StepPosition) instead.

Parameters

intervalCount:int: the number of intervals in the step interpolator
position:Interpolator.StepPosition: the StepPosition of the step interpolator

Returns:Interpolator

a new step interpolator

Annotations

@Deprecated
since:26

Exceptions

IllegalArgumentException:: if intervals is less than 1, or if intervals is less than 2 when position is StepPosition#NONE
NullPointerException:: if position is null

Since

TANGENT back to summary

TANGENT	back to summary
public static Interpolator TANGENT(Duration t1, double v1, Duration t2, double v2) Deprecated since 26. use `ofTangent(Duration, double, Duration, double)` instead This is a legacy method named inconsistently with method naming conventions, use `ofTangent(Duration, double, Duration, double)` instead. Parameters t1:Duration the delta time of the in-tangent, relative to the KeyFrame v1:double the value of the in-tangent t2:Duration the delta time of the out-tangent, relative to the KeyFrame v2:double the value of the out-tangent Returns:Interpolator a tangent interpolator Annotations @Deprecated since:26

public static Interpolator TANGENT(Duration t1, double v1, Duration t2, double v2)

Deprecated

since 26.

use ofTangent(Duration, double, Duration, double) instead

This is a legacy method named inconsistently with method naming conventions, use ofTangent(Duration, double, Duration, double) instead.

Parameters

t1:Duration: the delta time of the in-tangent, relative to the KeyFrame
v1:double: the value of the in-tangent
t2:Duration: the delta time of the out-tangent, relative to the KeyFrame
v2:double: the value of the out-tangent

Returns:Interpolator

a tangent interpolator

Annotations

@Deprecated
since:26

TANGENT back to summary

TANGENT	back to summary
public static Interpolator TANGENT(Duration t, double v) Deprecated since 26. use `ofTangent(Duration, double)` instead This is a legacy method named inconsistently with method naming conventions, use `ofTangent(Duration, double)` instead. Parameters t:Duration the delta time of the tangent v:double the value of the tangent Returns:Interpolator a tangent interpolator Annotations @Deprecated since:26

public static Interpolator TANGENT(Duration t, double v)

Deprecated

since 26.

use ofTangent(Duration, double) instead

This is a legacy method named inconsistently with method naming conventions, use ofTangent(Duration, double) instead.

Parameters

t:Duration: the delta time of the tangent
v:double: the value of the tangent

Returns:Interpolator

a tangent interpolator

Annotations

@Deprecated
since:26

javafx.animation back to summary

public final Enum Interpolator.StepPosition

Class Inheritance

extends Enum<Interpolator.StepPosition>

java.lang.Object
java.lang.Enum
javafx.animation.Interpolator.StepPosition

Specifies the step position of a step interpolator.

The step position determines the location of rise points in the input progress interval, which are the locations on the input progress axis where the output progress value jumps from one step to the next.

Since: 23

Field Summary

Modifier and Type	Field and Description
public static final Interpolator.StepPosition	BOTH The interval starts with a rise point when the input progress value is 0, and ends with a rise point when the input progress value is 1.
public static final Interpolator.StepPosition	END The interval ends with a rise point when the input progress value is 1.
public static final Interpolator.StepPosition	NONE All rise points are within the open interval (0..1).
public static final Interpolator.StepPosition	START The interval starts with a rise point when the input progress value is 0.

Constructor Summary

Access	Constructor and Description
private	StepPosition()

Method Summary

Modifier and Type	Method and Description
public static Interpolator.StepPosition	valueOf(String name)
public static Interpolator.StepPosition[]	values()

Inherited from java.lang.Enum:: clone compareTo describeConstable equals finalize getDeclaringClass hashCode name ordinal toString valueOf

Field Detail

BOTH	back to summary
public static final Interpolator.StepPosition BOTH The interval starts with a rise point when the input progress value is 0, and ends with a rise point when the input progress value is 1.

BOTH

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public static final Interpolator.StepPosition BOTH

The interval starts with a rise point when the input progress value is 0, and ends with a rise point when the input progress value is 1.

BOTH