FloatSignalSource (BandM signal & music)

All Superinterfaces:

AbstractSignalSource, CompilableDataFlow, FloatSupplier

All Known Subinterfaces:

FloatADSR, FloatClockedSignalSource

All Known Implementing Classes:

CompilableFloatStoredSignalSource, FloatClockedSignalSource.AbstractRandom, FloatDelay, FloatMultiDelay, FloatOscillator, FloatSignalPort, FloatSignalSourceChooser, FloatSignalSourceChooser.OfEnum, FloatSignalSourceChooser.OfEnumInt, FloatSignalSourceChooser.OfInt, FloatStoredSignalSource, FloatUpsamplingSignalSource

Functional Interface:

This is a functional interface and can therefore be used as the assignment target for a lambda expression or method reference.
```
@FunctionalInterface
public interface FloatSignalSource
extends AbstractSignalSource, FloatSupplier
```
Interface of a signal (time-dependent value) source of primitive type float.
This basic interface is neutral with respect to whether values may change at arbitrary times or synchronously with respect to a clock, and to whether values are computed on the fly when demanded, or stored when available and then just retrieved.

See Also:

FloatClockedSignalSource

Method Summary

All Methods Static Methods Instance Methods Abstract Methods Default Methods Deprecated Methods
Modifier and Type	Method and Description
`default FloatSignalSource`	`abs()` Returns a new signal source whose value is the absolute of the value of this signal source.
`default FloatSignalSource`	`add(FloatSignalSource other)` Returns a new signal source whose value is the sum of the simultaneous values of this and another signal source.
`static FloatSignalSource`	`choose(BooleanSignalSource condition, FloatSignalSource inTrue, FloatSignalSource inFalse)` Returns a new signal source whose value is that of either of two given type-compatible signal sources, depending on the current value of a condition signal source.
`static <E extends Enum<E>> FloatSignalSource`	`choose(EnumSignalSource<E> selector, EnumMap<E,? extends FloatSignalSource> cases)` Returns a new signal source whose value is selected dynamically from a range of cases indexed by `enum` values.
`static <E extends Enum<E>> FloatSignalSource`	`choose(EnumSignalSource<E> selector, FloatSignalSource... cases)` Returns a new signal source whose value is selected dynamically from a range of cases indexed by `enum` values.
`static <E extends Enum<E>> FloatSignalSource`	`choose(SignalSource<E> selector, EnumMap<E,? extends FloatSignalSource> cases)` Returns a new signal source whose value is selected dynamically from a range of cases indexed by `enum` values.
`static FloatClockedSignalSource`	`clock(FloatSignalSource output, Process... processes)`
`default Consumer<CompilationContext>`	`compileDataFlow()` Returns a code generator for outputting the value of this entity.
`default void`	`compileMainSignalSource(CompilationContext context)`
`static FloatSignalSource`	`constant(float value)` Returns a signal source whose value is constant (never changes).
`default BooleanSignalSource`	`defined()` Returns a new signal source whose value is `true` iff the value of this signal source is a valid number.
`default FloatClockedSignalSource`	`delayed(float... initialValues)` Returns a new signal source that mirror the values of this signal source delayed by a given number of clock ticks.
`default FloatClockedSignalSource`	`delayed(float initialValue)` Returns a new signal source that mirrors the values of this signal source delayed by one clock tick.
`static FloatClockedSignalSource`	`delayedFeedback(Function<? super FloatClockedSignalSource,? extends FloatSignalSource> loop, float... initialValues)`
`static FloatClockedSignalSource`	`delayedFeedback(Function<? super FloatClockedSignalSource,? extends FloatSignalSource> loop, float initialValue)` Returns a new signal source that receives its own delayed output as input.
`default FloatSignalSource`	`divide(FloatSignalSource other)` Returns a new signal source whose value is the quotient of the simultaneous values of this and another signal source.
`default BooleanSignalSource`	`equal(FloatSignalSource other)` Returns a new signal source whose value is `true` iff the value of this signal source is equal to the simultaneous value of another signal source.
`float`	`getAsFloat()` Returns the current value of this signal source.
`default Optional<Float>`	`getConstantAsFloat()` Returns the constant value of this signal source, if applicable.
`default Class<?>`	`getValueClass()` Returns the type of values produced by this entity.
`default FloatClockedSignalSource`	`glidingAverage(int width)` Returns a signal source whose value at each clock index is the average of values of this signal source at a fixed number of preceding clock indices, including to the current one.
`default FloatClockedSignalSource`	`glidingStandardDeviation(int width)` Returns a signal source whose value at each clock index is the standard deviation of values of this signal source at a fixed number of preceding clock indices, including to the current one.
`default FloatClockedSignalSource`	`glidingSum(int width)` Returns a signal source whose value at each clock index is the sum of values of this signal source at a fixed number of preceding clock indices, including to the current one.
`default FloatClockedSignalSource`	`glidingVariance(int width)` Returns a signal source whose value at each clock index is the variance of values of this signal source at a fixed number of preceding clock indices, including to the current one.
`default BooleanSignalSource`	`greaterOrEqual(FloatSignalSource other)` Returns a new signal source whose value is `true` iff the value of this signal source is greater than or equal to the simultaneous value of another signal source.
`default BooleanSignalSource`	`greaterThan(FloatSignalSource other)` Returns a new signal source whose value is `true` iff the value of this signal source is greater than the simultaneous value of another signal source.
`default BooleanSignalSource`	`guard(FloatPredicate pred)` Returns a boolean signal source whose values are derived from the values of this signal source by applying a unary predicate.
`default boolean`	`hasConstantAsFloat()` Checks whether this signal source has a constant value.
`default FloatClockedSignalSource`	`invariant()`
`default BooleanSignalSource`	`lessOrEqual(FloatSignalSource other)` Returns a new signal source whose value is `true` iff the value of this signal source is less than or equal to the simultaneous value of another signal source.
`default BooleanSignalSource`	`lessThan(FloatSignalSource other)` Returns a new signal source whose value is `true` iff the value of this signal source is less than the simultaneous value of another signal source.
`default FloatSignalSource`	`map(FloatUnaryOperator op)` Returns a signal source whose values are derived from the values of this signal source by applying a unary function.
`default FloatSignalSource`	`max(FloatSignalSource other)` Returns a new signal source whose value is the maximum of the simultaneous values of this and another signal source.
`default FloatSignalSource`	`min(FloatSignalSource other)` Returns a new signal source whose value is the minimum of the simultaneous values of this and another signal source.
`default FloatSignalSource`	`modulo(FloatSignalSource other)` Returns a new signal source whose value is the division remainder of the simultaneous values of this and another signal source.
`default FloatSignalSource`	`multiply(FloatSignalSource other)` Returns a new signal source whose value is the product of the simultaneous values of this and another signal source.
`default FloatSignalSource`	`negate()` Returns a new signal source whose value is the negative of the value of this signal source.
`default BooleanSignalSource`	`negative()` Returns a new signal source whose value is `true` iff the value of this signal source is a negative number.
`default BooleanSignalSource`	`nonEqual(FloatSignalSource other)` Returns a new signal source whose value is `true` iff the value of this signal source is not equal to the simultaneous value of another signal source.
`default BooleanSignalSource`	`nonnegative()` Returns a new signal source whose value is `true` iff the value of this signal source is a nonnegative number.
`default BooleanSignalSource`	`nonpositive()` Returns a new signal source whose value is `true` iff the value of this signal source is a nonpositive number.
`default BooleanSignalSource`	`nonzero()` Returns a new signal source whose value is `true` iff the value of this signal source is not the number zero.
`default BooleanSignalSource`	`notANumber()` Returns a new signal source whose value is `true` iff the value of this signal source is not a valid number.
`default BooleanSignalSource`	`positive()` Returns a new signal source whose value is `true` iff the value of this signal source is a positive number.
`default FloatClockedSignalSource`	`power(BinaryOperator<FloatSignalSource> op, long n)`
`default Process`	`probe(Object key)` Returns a realtime event that, when fired, notifies the concerned observer of the current value of this signal source.
`default void`	`publishStoredValueVariable(CompilationContext context)`
`default BooleanSignalSource`	`relateWith(FloatBiPredicate pred, FloatSignalSource other)` Returns a boolean signal source whose values are derived from the simultaneous values of this and another signal source by applying a binary predicate.
`default FloatClockedSignalSource`	`sampleAndHold(BooleanSignalSource hold, float initialValue)` Returns a new clocked signal source whose value at each clock tick is either the current value of this signal source (sample mode), or its own value at the previous clock tick (hold mode), depending on the current value of a given boolean signal source.
`default FloatSignalSource`	`selectAffine(FloatSignalSource onOne, FloatSignalSource onZero)` Deprecated. FIXME
`default FloatClockedSignalSource`	`series()` Returns a signal source whose value at each clock index is the sum of all values of this signal source at all clock indices up to the current one.
`default FloatSignalSource`	`sqrt()` Returns a new signal source whose value is the square root of the value of this signal source.
`default FloatClockedSignalSource`	`stored()` Returns a new signal source that stores snapshot values of this signal source driven by a clock.
`default FloatSignalSource`	`subtract(FloatSignalSource other)` Returns a new signal source whose value is the difference of the simultaneous values of this and another signal source.
`default BooleanSignalSource`	`zero()` Returns a new signal source whose value is `true` iff the value of this signal source is the number zero.
`default BooleanClockedSignalSource`	`zeroCrossing()` Returns a signal source whose value at each clock index is `true` if the current value of this signal source has changed sign compared to its value at the preceding clock index.
`default FloatSignalSource`	`zipWith(FloatBinaryOperator op, FloatSignalSource other)` Returns a signal source whose values are derived from the simultaneous values of this and another signal source by applying a binary function.

Methods inherited from interface eu.bandm.sig.adlib2.compile.CompilableDataFlow
compileDataFlowTo, hasDataFlowIO

- Method Detail
  - getAsFloat
```
float getAsFloat()
```
    Returns the current value of this signal source.
    The value may be either computed on demand, or retrieved from storage.
    Implementations of this method should have no side effect.
    
    Specified by:
    
    getAsFloat in interface FloatSupplier
    
    Returns:
    
    the current value of this signal source
  - getValueClass
```
default Class<?> getValueClass()
```
    Returns the type of values produced by this entity.
    For signals of primitive value type, the result will be the corresponding pseudoclass.
    This implementation returns the primitive pseudoclass float.class.
    
    Specified by:
    
    getValueClass in interface CompilableDataFlow
    
    Returns:
    
    the type of signal values that this entity produces
    
    See Also:
    
    Class.isPrimitive()
  - getConstantAsFloat
```
default Optional<Float> getConstantAsFloat()
```
    Returns the constant value of this signal source, if applicable.
    
    Returns:
    
    an Optional containing the value of this signal source if it is constant, or Optional.empty() otherwise.
  - hasConstantAsFloat
```
default boolean hasConstantAsFloat()
```
    Checks whether this signal source has a constant value.
    
    Returns:
    
    true iff the value of this signal source does not change over time
  - compileDataFlow
```
default Consumer<CompilationContext> compileDataFlow()
```
    Returns a code generator for outputting the value of this entity.
    This implementation generates code to invoke this.getAsFloat().
    
    Specified by:
    
    compileDataFlow in interface CompilableDataFlow
  - constant
```
static FloatSignalSource constant(float value)
```
    Returns a signal source whose value is constant (never changes).
    
    Parameters:
    
    value - the value of the new signal source
    
    Returns:
    
    a signal source that always has the given value
  - map
```
default FloatSignalSource map(FloatUnaryOperator op)
```
    Returns a signal source whose values are derived from the values of this signal source by applying a unary function.
    The implementation yields a signal source that computes the derived value by applying the given function every time its getAsFloat() method is invoked. If the computation is costly and the value reused often, it may be convenient to compute and store the value proactively driven by a clock.
    
    Parameters:
    
    op - the function to apply to each value
    
    See Also:
    
    stored()
  - zipWith
```
default FloatSignalSource zipWith(FloatBinaryOperator op,
                                  FloatSignalSource other)
```
    Returns a signal source whose values are derived from the simultaneous values of this and another signal source by applying a binary function.
    The implementation yields a signal source that computes the derived value by applying the given function every time its getAsFloat() method is invoked. If the computation is costly and the value reused often, it may be convenient to compute the value proactively driven by a clock.
    
    Parameters:
    
    op - the function to apply to each pair of values
    
    other - the other signal source to consider
    
    See Also:
    
    stored()
  - guard
```
default BooleanSignalSource guard(FloatPredicate pred)
```
    Returns a boolean signal source whose values are derived from the values of this signal source by applying a unary predicate.
    The implementation yields a signal source that computes the derived value by applying the given predicate every time its getAsFloat() method is invoked. If the computation is costly and the value reused often, it may be convenient to compute the value proactively driven by a clock.
    
    Parameters:
    
    pred - the predicate to apply to each value
    
    See Also:
    
    stored()
  - relateWith
```
default BooleanSignalSource relateWith(FloatBiPredicate pred,
                                       FloatSignalSource other)
```
    Returns a boolean signal source whose values are derived from the simultaneous values of this and another signal source by applying a binary predicate.
    The implementation yields a signal source that computes the derived value by applying the given predicate every time its getAsFloat() method is invoked. If the computation is costly and the value reused often, it may be convenient to compute the value proactively driven by a clock.
    
    Parameters:
    
    pred - the predicate to apply to each value
    
    other - the other signal source to consider
    
    See Also:
    
    stored()
  - clock
```
@Undocumented
static FloatClockedSignalSource clock(FloatSignalSource output,
                                                    Process... processes)
```
  - invariant
```
@Undocumented
default FloatClockedSignalSource invariant()
```
  - stored
```
default FloatClockedSignalSource stored()
```
    Returns a new signal source that stores snapshot values of this signal source driven by a clock.
    The getAsFloat() method of the returned signal source is guaranteed to be extremely fast, both in interpreted and compiled mode. The computational effort of the underlying signal source is instead spent on the Process.step(RealtimeContext) method of the returned signal source, to be invoked at each clock tick.
    If the underlying signal source is constant, the value is forwarded when the Process.init() method of the returned signal source is invoked, where as its implementation of Process.step(RealtimeContext) does nothing.
    
    Returns:
    
    a new signal source that takes value snapshots of this signal source.
  - delayed
```
default FloatClockedSignalSource delayed(float initialValue)
```
    Returns a new signal source that mirrors the values of this signal source delayed by one clock tick.
    
    Parameters:
    
    initialValue - the initial value to output for the first clock tick
  - delayed
```
default FloatClockedSignalSource delayed(float... initialValues)
```
    Returns a new signal source that mirror the values of this signal source delayed by a given number of clock ticks.
    The length of the delay in clock ticks is specified implicitly by the number of initial values.
    
    Parameters:
    
    initialValues - the initial values to output for the first clock ticks
  - delayedFeedback
```
static FloatClockedSignalSource delayedFeedback(Function<? super FloatClockedSignalSource,? extends FloatSignalSource> loop,
                                                float initialValue)
```
    Returns a new signal source that receives its own delayed output as input.
    The circular data flow is constructed by specifying a function that receives as its argument a delayed signal source that will be fed back from the source that it returns. The passed function is applied exactly once.
    The output signal source is used both internally for the delayed feedback, and possibly externally by a consumer. Hence its value is stored implicitly in an intermediate variable in order to avoid duplicate computations.
    
    Parameters:
    
    loop - the function that creates the output signal source, given its delayed feedback
    
    initialValue - the initial value of the delayed feedback
  - delayedFeedback
```
@SafeVarargs
static FloatClockedSignalSource delayedFeedback(Function<? super FloatClockedSignalSource,? extends FloatSignalSource> loop,
                                                             float... initialValues)
```
  - probe
```
default Process probe(Object key)
```
    Returns a realtime event that, when fired, notifies the concerned observer of the current value of this signal source.
    
    Parameters:
    
    key - the key to associate the value of this signal source with
    
    See Also:
    
    RealtimeContext.getSignalProbe()
  - choose
```
static FloatSignalSource choose(BooleanSignalSource condition,
                                FloatSignalSource inTrue,
                                FloatSignalSource inFalse)
```
    Returns a new signal source whose value is that of either of two given type-compatible signal sources, depending on the current value of a condition signal source.
    At any point in time, choose(condition, x, y).getAsInt() == (this.getAsFloat() ? x : y).getAsInt() holds.
    
    Parameters:
    
    condition - the condition signal source
    
    inTrue - the signal source to consider when the value of the condition signal source is true
    
    inFalse - the signal source to consider when the value of the condition signal source is false
  - negate
```
default FloatSignalSource negate()
```
    Returns a new signal source whose value is the negative of the value of this signal source.
    For a signal source that = this.negate(), at any point in time, that.getAsFloat() == -this.getAsFloat() holds.
  - add
```
default FloatSignalSource add(FloatSignalSource other)
```
    Returns a new signal source whose value is the sum of the simultaneous values of this and another signal source.
    At any point in time, this.add(other).getAsFloat() == this.getAsFloat() + other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - multiply
```
default FloatSignalSource multiply(FloatSignalSource other)
```
    Returns a new signal source whose value is the product of the simultaneous values of this and another signal source.
    At any point in time, this.multiply(other).getAsFloat() == this.getAsFloat() * other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - subtract
```
default FloatSignalSource subtract(FloatSignalSource other)
```
    Returns a new signal source whose value is the difference of the simultaneous values of this and another signal source.
    At any point in time, this.subtract(other).getAsFloat() == this.getAsFloat() - other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - divide
```
default FloatSignalSource divide(FloatSignalSource other)
```
    Returns a new signal source whose value is the quotient of the simultaneous values of this and another signal source.
    At any point in time, this.divide(other).getAsFloat() == this.getAsFloat() / other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - modulo
```
default FloatSignalSource modulo(FloatSignalSource other)
```
    Returns a new signal source whose value is the division remainder of the simultaneous values of this and another signal source.
    At any point in time, this.modulo(other).getAsFloat() == this.getAsFloat() % other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - abs
```
default FloatSignalSource abs()
```
    Returns a new signal source whose value is the absolute of the value of this signal source.
    At any point in time, this.abs().getAsFloat() == Math.abs(this.getAsFloat()) holds.
  - min
```
default FloatSignalSource min(FloatSignalSource other)
```
    Returns a new signal source whose value is the minimum of the simultaneous values of this and another signal source.
    At any point in time, this.min(other).getAsFloat() == Math.min(this.getAsFloat(), other.getAsFloat()) holds.
    
    Parameters:
    
    other - the other signal source to consider
  - max
```
default FloatSignalSource max(FloatSignalSource other)
```
    Returns a new signal source whose value is the maximum of the simultaneous values of this and another signal source.
    At any point in time, this.max(other).getAsFloat() == Math.max(this.getAsFloat(), other.getAsFloat()) holds.
    
    Parameters:
    
    other - the other signal source to consider
  - positive
```
default BooleanSignalSource positive()
```
    Returns a new signal source whose value is true iff the value of this signal source is a positive number.
    At any point in time, this.positive().getAsBoolean() == this.getAsFloat() > 0 holds.
  - negative
```
default BooleanSignalSource negative()
```
    Returns a new signal source whose value is true iff the value of this signal source is a negative number.
    At any point in time, this.positive().getAsBoolean() == this.getAsFloat() < 0 holds.
  - nonpositive
```
default BooleanSignalSource nonpositive()
```
    Returns a new signal source whose value is true iff the value of this signal source is a nonpositive number.
    At any point in time, this.positive().getAsBoolean() == this.getAsFloat() <= 0 holds.
  - nonnegative
```
default BooleanSignalSource nonnegative()
```
    Returns a new signal source whose value is true iff the value of this signal source is a nonnegative number.
    At any point in time, this.positive().getAsBoolean() == this.getAsFloat() >= 0 holds.
  - zero
```
default BooleanSignalSource zero()
```
    Returns a new signal source whose value is true iff the value of this signal source is the number zero.
    At any point in time, this.positive().getAsBoolean() == this.getAsFloat() == 0 holds.
  - nonzero
```
default BooleanSignalSource nonzero()
```
    Returns a new signal source whose value is true iff the value of this signal source is not the number zero.
    At any point in time, this.positive().getAsBoolean() == this.getAsFloat() != 0 holds.
  - lessThan
```
default BooleanSignalSource lessThan(FloatSignalSource other)
```
    Returns a new signal source whose value is true iff the value of this signal source is less than the simultaneous value of another signal source.
    At any point in time, this.lessThan(other).getAsBoolean() == this.getAsFloat() < other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - greaterThan
```
default BooleanSignalSource greaterThan(FloatSignalSource other)
```
    Returns a new signal source whose value is true iff the value of this signal source is greater than the simultaneous value of another signal source.
    At any point in time, this.lessThan(other).getAsBoolean() == this.getAsFloat() > other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - lessOrEqual
```
default BooleanSignalSource lessOrEqual(FloatSignalSource other)
```
    Returns a new signal source whose value is true iff the value of this signal source is less than or equal to the simultaneous value of another signal source.
    At any point in time, this.lessOrEqua;(other).getAsBoolean() == this.getAsFloat() <= other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - greaterOrEqual
```
default BooleanSignalSource greaterOrEqual(FloatSignalSource other)
```
    Returns a new signal source whose value is true iff the value of this signal source is greater than or equal to the simultaneous value of another signal source.
    At any point in time, this.greaterOrEqual(other).getAsBoolean() == this.getAsFloat() >= other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - equal
```
default BooleanSignalSource equal(FloatSignalSource other)
```
    Returns a new signal source whose value is true iff the value of this signal source is equal to the simultaneous value of another signal source.
    At any point in time, this.equal(other).getAsBoolean() == this.getAsFloat() == other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - nonEqual
```
default BooleanSignalSource nonEqual(FloatSignalSource other)
```
    Returns a new signal source whose value is true iff the value of this signal source is not equal to the simultaneous value of another signal source.
    At any point in time, this.nonEqual(other).getAsBoolean() == this.getAsFloat() != other.getAsFloat() holds.
    
    Parameters:
    
    other - the other signal source to consider
  - defined
```
default BooleanSignalSource defined()
```
    Returns a new signal source whose value is true iff the value of this signal source is a valid number.
    At any point in time, this.defined().getAsBoolean() == !Float.isNan(this.getAsFloat()) holds.
  - notANumber
```
default BooleanSignalSource notANumber()
```
    Returns a new signal source whose value is true iff the value of this signal source is not a valid number.
    At any point in time, this.notANumber().getAsBoolean() == Float.isNan(this.getAsFloat()) holds.
  - sqrt
```
default FloatSignalSource sqrt()
```
    Returns a new signal source whose value is the square root of the value of this signal source.
    At any point in time, this.sqrt().getAsFloat() == (float)Math.sqrt(this.getAsFloat()) holds.
    
    Parameters:
    
    other - the other signal source to consider
  - series
```
default FloatClockedSignalSource series()
```
    Returns a signal source whose value at each clock index is the sum of all values of this signal source at all clock indices up to the current one.
    The sum is computed using Kahan's stable algorithm, which requires four additions per iteration.
  - glidingSum
```
default FloatClockedSignalSource glidingSum(int width)
```
    Returns a signal source whose value at each clock index is the sum of values of this signal source at a fixed number of preceding clock indices, including to the current one.
    The sum is computed using Kahan's stable algorithm, which requires five additions per iteration.
    
    Parameters:
    
    width - the number of clock cycles to sum over
    
    Throws:
    
    NegativeArraySizeException - if width <= 0
  - glidingAverage
```
default FloatClockedSignalSource glidingAverage(int width)
```
    Returns a signal source whose value at each clock index is the average of values of this signal source at a fixed number of preceding clock indices, including to the current one.
    The average is computed using Kahan's stable algorithm, which requires five additions and one division per iteration.
    
    Parameters:
    
    width - the number of clock cycles to average over
    
    Throws:
    
    NegativeArraySizeException - if width <= 0
  - glidingVariance
```
default FloatClockedSignalSource glidingVariance(int width)
```
    Returns a signal source whose value at each clock index is the variance of values of this signal source at a fixed number of preceding clock indices, including to the current one.
    
    Parameters:
    
    width - the number of clock cycles to compute over
    
    Throws:
    
    NegativeArraySizeException - if width <= 0
  - glidingStandardDeviation
```
default FloatClockedSignalSource glidingStandardDeviation(int width)
```
    Returns a signal source whose value at each clock index is the standard deviation of values of this signal source at a fixed number of preceding clock indices, including to the current one.
    
    Parameters:
    
    width - the number of clock cycles to compute over
    
    Throws:
    
    NegativeArraySizeException - if width <= 0
  - zeroCrossing
```
default BooleanClockedSignalSource zeroCrossing()
```
    Returns a signal source whose value at each clock index is true if the current value of this signal source has changed sign compared to its value at the preceding clock index.
    Corner cases, namly initial values, positive and negative zero, and NaNs, are handled robustly; they are not counted as sign changes.
  - selectAffine
```
@Deprecated
default FloatSignalSource selectAffine(FloatSignalSource onOne,
                                                   FloatSignalSource onZero)
```
    Deprecated. FIXME
    
    Returns a new signal source whose value is the affine combination of the simultaneous values of two signal sources.
    At any point in time, selectAffine(s, a, b).getAsFloat() == s.getAsFloat() * a.getAsFloat() + (1 - s.getAsFloat()) * b.getAsFloat() holds.
  - choose
```
static <E extends Enum<E>> FloatSignalSource choose(SignalSource<E> selector,
                                                    EnumMap<E,? extends FloatSignalSource> cases)
```
    Returns a new signal source whose value is selected dynamically from a range of cases indexed by enum values.
    At any point in time, choose(s, m).getAsFloat() == m.get(s.get()).getAsFloat() holds.
    The given map cases is assumed to be immutable and to contain an entry for every possible value of the enum type E.
    
    Type Parameters:
    
    E - the type of enum values
    
    Parameters:
    
    selector - the signal source that provides the enum value
    
    cases - a map of enum values to signal sources to select from
  - choose
```
static <E extends Enum<E>> FloatSignalSource choose(EnumSignalSource<E> selector,
                                                    EnumMap<E,? extends FloatSignalSource> cases)
```
    Returns a new signal source whose value is selected dynamically from a range of cases indexed by enum values.
    At any point in time, choose(s, m).getAsFloat() == m.get(E.values()[s.getAsInt()]).getAsFloat() holds.
    The given map cases is assumed to be immutable and to contain an entry for every possible value of the enum type E.
    
    Type Parameters:
    
    E - the type of enum values
    
    Parameters:
    
    selector - the signal source that provides the ordinal number of the enum value
    
    cases - a map of enum values to signal sources to select from
  - choose
```
@SafeVarargs
static <E extends Enum<E>> FloatSignalSource choose(EnumSignalSource<E> selector,
                                                                 FloatSignalSource... cases)
```
    Returns a new signal source whose value is selected dynamically from a range of cases indexed by enum values.
    At any point in time, choose(s, a).getAsFloat() == m[s.getAsInt()].getAsFloat() holds.
    The given array cases is assumed to be immutable and to contain an element for every possible value of the enum type E.
    
    Type Parameters:
    
    E - the type of enum values
    
    Parameters:
    
    selector - the signal source that provides the enum value
    
    cases - an array signal sources to select from, in the definition order of enum elements
  - sampleAndHold
```
default FloatClockedSignalSource sampleAndHold(BooleanSignalSource hold,
                                               float initialValue)
```
    Returns a new clocked signal source whose value at each clock tick is either the current value of this signal source (sample mode), or its own value at the previous clock tick (hold mode), depending on the current value of a given boolean signal source.
    
    Parameters:
    
    hold - a boolean signal source that, at each clock tick, selects hold mode if its value ist true, or sample mode if its value is false
    
    initialValue - the initial value to use if in hold mode at the first clock tick
  - power
```
@Undocumented
default FloatClockedSignalSource power(BinaryOperator<FloatSignalSource> op,
                                                     long n)
```
  - compileMainSignalSource
```
@Undocumented
default void compileMainSignalSource(CompilationContext context)
```
  - publishStoredValueVariable
```
@Undocumented
default void publishStoredValueVariable(CompilationContext context)
```

Interface FloatSignalSource

Method Summary

Methods inherited from interface eu.bandm.sig.adlib2.compile.CompilableDataFlow

Method Detail

getAsFloat

getValueClass

getConstantAsFloat

hasConstantAsFloat

compileDataFlow

constant

map

zipWith

guard

relateWith

clock

invariant

stored

delayed

delayed

delayedFeedback

delayedFeedback

probe

choose

negate

add

multiply

subtract

divide

modulo

abs

min

max

positive

negative

nonpositive

nonnegative

zero

nonzero

lessThan

greaterThan

lessOrEqual

greaterOrEqual

equal

nonEqual

defined

notANumber

sqrt

series

glidingSum

glidingAverage

glidingVariance

glidingStandardDeviation

zeroCrossing

selectAffine

choose

choose

choose

sampleAndHold

power

compileMainSignalSource

publishStoredValueVariable