Uses of Class
org.apfloat.ApfloatRuntimeException

Packages that use ApfloatRuntimeException

Package	Description
org.apfloat	The apfloat Application Programming Interface (API).
org.apfloat.aparapi	Transforms for using a GPU via the aparapi library.
org.apfloat.internal	Default implementations of the apfloat Service Provider Interface (SPI).
org.apfloat.samples	Sample applications demonstrating apfloat use.
org.apfloat.spi	The apfloat Service Provider Interface (SPI).

Uses of ApfloatRuntimeException in org.apfloat

Subclasses of ApfloatRuntimeException in org.apfloat

Modifier and Type	Class	Description
class	ApfloatConfigurationException	Exception indicating an error in the apfloat configuration.
class	ApfloatInterruptedException	Exception indicating that the computation was interrupted.
class	InfiniteExpansionException	Exception indicating that the result of an operation would have infinite size.
class	LossOfPrecisionException	Exception indicating a result that would have no significant digits.
class	NumericComputationException	Exception indicating that something went wrong in a numeric computation.
class	OverflowException	Exception indicating an overflow in a calculation.

Methods in org.apfloat that throw ApfloatRuntimeException

Modifier and Type	Method	Description
static Apfloat	ApcomplexMath.abs(Apcomplex z)	Absolute value.
static Apfloat	ApfloatMath.abs(Apfloat x)	Absolute value.
static Apint	ApintMath.abs(Apint x)	Absolute value.
static Aprational	AprationalMath.abs(Aprational x)	Absolute value.
Apfloat	FixedPrecisionApcomplexHelper.abs(Apcomplex z)	Absolute value.
Apfloat	FixedPrecisionApfloatHelper.abs(Apfloat x)	Absolute value.
static Apcomplex	ApcomplexMath.acos(Apcomplex z)	Inverse cosine.
static Apfloat	ApfloatMath.acos(Apfloat x)	Inverse cosine.
Apcomplex	FixedPrecisionApcomplexHelper.acos(Apcomplex z)	Arc cosine.
Apfloat	FixedPrecisionApfloatHelper.acos(Apfloat x)	Arc cosine.
static Apcomplex	ApcomplexMath.acosh(Apcomplex z)	Inverse hyperbolic cosine.
static Apfloat	ApfloatMath.acosh(Apfloat x)	Inverse hyperbolic cosine.
Apcomplex	FixedPrecisionApcomplexHelper.acosh(Apcomplex z)	Hyperbolic arc cosine.
Apfloat	FixedPrecisionApfloatHelper.acosh(Apfloat x)	Hyperbolic arc cosine.
Apcomplex	Apcomplex.add(Apcomplex z)	Adds two apcomplex numbers.
Apfloat	Apfloat.add(Apfloat x)	Adds two apfloats.
Apint	Apint.add(Apint x)	Adds two apints.
Aprational	Aprational.add(Aprational x)	Adds two aprational numbers.
Apcomplex	FixedPrecisionApcomplexHelper.add(Apcomplex z, Apcomplex w)	Addition.
Apfloat	FixedPrecisionApfloatHelper.add(Apfloat x, Apfloat y)	Addition.
static Apcomplex	ApcomplexMath.agm(Apcomplex a, Apcomplex b)	Arithmetic-geometric mean.
static Apfloat	ApfloatMath.agm(Apfloat a, Apfloat b)	Arithmetic-geometric mean.
Apcomplex	FixedPrecisionApcomplexHelper.agm(Apcomplex a, Apcomplex b)	Arithmetic-geometric mean.
Apfloat	FixedPrecisionApfloatHelper.agm(Apfloat a, Apfloat b)	Arithmetic-geometric mean.
static Apcomplex	ApcomplexMath.airyAi(Apcomplex z)	Airy function Ai.
static Apfloat	ApfloatMath.airyAi(Apfloat x)	Airy function Ai.
Apcomplex	FixedPrecisionApcomplexHelper.airyAi(Apcomplex z)	Airy function Ai.
Apfloat	FixedPrecisionApfloatHelper.airyAi(Apfloat x)	Airy function Ai.
static Apcomplex	ApcomplexMath.airyAiPrime(Apcomplex z)	Derivative of the Airy function Ai.
static Apfloat	ApfloatMath.airyAiPrime(Apfloat x)	Derivative of the Airy function Ai.
Apcomplex	FixedPrecisionApcomplexHelper.airyAiPrime(Apcomplex z)	Derivative of the Airy function Ai.
Apfloat	FixedPrecisionApfloatHelper.airyAiPrime(Apfloat x)	Derivative of the Airy function Ai.
static Apcomplex	ApcomplexMath.airyBi(Apcomplex z)	Airy function Bi.
static Apfloat	ApfloatMath.airyBi(Apfloat x)	Airy function Bi.
Apcomplex	FixedPrecisionApcomplexHelper.airyBi(Apcomplex z)	Airy function Bi.
Apfloat	FixedPrecisionApfloatHelper.airyBi(Apfloat x)	Airy function Bi.
static Apcomplex	ApcomplexMath.airyBiPrime(Apcomplex z)	Derivative of the Airy function Bi.
static Apfloat	ApfloatMath.airyBiPrime(Apfloat x)	Derivative of the Airy function Bi.
Apcomplex	FixedPrecisionApcomplexHelper.airyBiPrime(Apcomplex z)	Derivative of the Airy function Bi.
Apfloat	FixedPrecisionApfloatHelper.airyBiPrime(Apfloat x)	Derivative of the Airy function Bi.
static Apcomplex[]	ApcomplexMath.allRoots(Apcomplex z, int n)	All values of the positive integer root.
Apcomplex[]	FixedPrecisionApcomplexHelper.allRoots(Apcomplex z, int n)	All branches of a root.
static Apfloat	ApcomplexMath.arg(Apcomplex z)	Angle of the complex vector in the complex plane.
Apfloat	FixedPrecisionApcomplexHelper.arg(Apcomplex z)	Complex angle.
static Apcomplex	ApcomplexMath.asin(Apcomplex z)	Inverse sine.
static Apfloat	ApfloatMath.asin(Apfloat x)	Inverse sine.
Apcomplex	FixedPrecisionApcomplexHelper.asin(Apcomplex z)	Arc sine.
Apfloat	FixedPrecisionApfloatHelper.asin(Apfloat x)	Arc sine.
static Apcomplex	ApcomplexMath.asinh(Apcomplex z)	Inverse hyperbolic sine.
static Apfloat	ApfloatMath.asinh(Apfloat x)	Inverse hyperbolic sine.
Apcomplex	FixedPrecisionApcomplexHelper.asinh(Apcomplex z)	Hyperbolic arc sine.
Apfloat	FixedPrecisionApfloatHelper.asinh(Apfloat x)	Hyperbolic arc sine.
static Apcomplex	ApcomplexMath.atan(Apcomplex z)	Inverse tangent.
static Apfloat	ApfloatMath.atan(Apfloat x)	Inverse tangent.
Apcomplex	FixedPrecisionApcomplexHelper.atan(Apcomplex z)	Arc tangent.
Apfloat	FixedPrecisionApfloatHelper.atan(Apfloat x)	Arc tangent.
static Apfloat	ApfloatMath.atan2(Apfloat y, Apfloat x)	Converts cartesian coordinates to polar coordinates.
Apfloat	FixedPrecisionApfloatHelper.atan2(Apfloat x, Apfloat y)	Angle of point.
static Apcomplex	ApcomplexMath.atanh(Apcomplex z)	Inverse hyperbolic tangent.
static Apfloat	ApfloatMath.atanh(Apfloat x)	Inverse hyperbolic tangent.
Apcomplex	FixedPrecisionApcomplexHelper.atanh(Apcomplex z)	Hyperbolic arc tangent.
Apfloat	FixedPrecisionApfloatHelper.atanh(Apfloat x)	Hyperbolic arc tangent.
static Aprational	AprationalMath.bernoulli(long n)	Returns the specified Bernoulli number.
static Aprational	AprationalMath.bernoulli(long n, int radix)	Returns the specified Bernoulli number in the given radix.
Apfloat	FixedPrecisionApcomplexHelper.bernoulli(long n)	Bernoulli number.
Apfloat	FixedPrecisionApcomplexHelper.bernoulli(long n, int radix)	Bernoulli number.
static Apcomplex	ApcomplexMath.bernoulliB(long n, Apcomplex z)	Bernoulli polynomial.
static Apfloat	ApfloatMath.bernoulliB(long n, Apfloat x)	Bernoulli polynomial.
Apcomplex	FixedPrecisionApcomplexHelper.bernoulliB(long n, Apcomplex z)	Bernoulli polynomial.
Apfloat	FixedPrecisionApfloatHelper.bernoulliB(long n, Apfloat x)	Bernoulli polynomial.
static Apcomplex	ApcomplexMath.besselI(Apcomplex ν, Apcomplex z)	Modified Bessel function of the first kind.
static Apfloat	ApfloatMath.besselI(Apfloat ν, Apfloat x)	Modified Bessel function of the first kind.
Apcomplex	FixedPrecisionApcomplexHelper.besselI(Apcomplex ν, Apcomplex z)	Modified Bessel function of the first kind.
Apfloat	FixedPrecisionApfloatHelper.besselI(Apfloat ν, Apfloat x)	Modified Bessel function of the first kind.
static Apcomplex	ApcomplexMath.besselJ(Apcomplex ν, Apcomplex z)	Bessel function of the first kind.
static Apfloat	ApfloatMath.besselJ(Apfloat ν, Apfloat x)	Bessel function of the first kind.
Apcomplex	FixedPrecisionApcomplexHelper.besselJ(Apcomplex ν, Apcomplex z)	Bessel function of the first kind.
Apfloat	FixedPrecisionApfloatHelper.besselJ(Apfloat ν, Apfloat x)	Bessel function of the first kind.
static Apcomplex	ApcomplexMath.besselK(Apcomplex ν, Apcomplex z)	Modified Bessel function of the second kind.
static Apfloat	ApfloatMath.besselK(Apfloat ν, Apfloat x)	Modified Bessel function of the second kind.
Apcomplex	FixedPrecisionApcomplexHelper.besselK(Apcomplex ν, Apcomplex z)	Modified Bessel function of the second kind.
Apfloat	FixedPrecisionApfloatHelper.besselK(Apfloat ν, Apfloat x)	Modified Bessel function of the second kind.
static Apcomplex	ApcomplexMath.besselY(Apcomplex ν, Apcomplex z)	Bessel function of the second kind.
static Apfloat	ApfloatMath.besselY(Apfloat ν, Apfloat x)	Bessel function of the second kind.
Apcomplex	FixedPrecisionApcomplexHelper.besselY(Apcomplex ν, Apcomplex z)	Bessel function of the second kind.
Apfloat	FixedPrecisionApfloatHelper.besselY(Apfloat ν, Apfloat x)	Bessel function of the second kind.
static Apcomplex	ApcomplexMath.beta(Apcomplex a, Apcomplex b)	Beta function.
static Apcomplex	ApcomplexMath.beta(Apcomplex z, Apcomplex a, Apcomplex b)	Incomplete beta function.
static Apcomplex	ApcomplexMath.beta(Apcomplex z1, Apcomplex z2, Apcomplex a, Apcomplex b)	Generalized incomplete beta function.
static Apfloat	ApfloatMath.beta(Apfloat a, Apfloat b)	Beta function.
static Apfloat	ApfloatMath.beta(Apfloat x, Apfloat a, Apfloat b)	Incomplete beta function.
static Apfloat	ApfloatMath.beta(Apfloat x1, Apfloat x2, Apfloat a, Apfloat b)	Generalized incomplete beta function.
Apcomplex	FixedPrecisionApcomplexHelper.beta(Apcomplex a, Apcomplex b)	Beta function.
Apcomplex	FixedPrecisionApcomplexHelper.beta(Apcomplex z, Apcomplex a, Apcomplex b)	Incomplete beta function.
Apcomplex	FixedPrecisionApcomplexHelper.beta(Apcomplex z1, Apcomplex z2, Apcomplex a, Apcomplex b)	Generalized incomplete beta function.
Apfloat	FixedPrecisionApfloatHelper.beta(Apfloat a, Apfloat b)	Beta function.
Apfloat	FixedPrecisionApfloatHelper.beta(Apfloat x, Apfloat a, Apfloat b)	Incomplete beta function.
Apfloat	FixedPrecisionApfloatHelper.beta(Apfloat x1, Apfloat x2, Apfloat a, Apfloat b)	Generalized incomplete beta function.
static Apcomplex	ApcomplexMath.binomial(Apcomplex n, Apcomplex k)	Binomial coefficient.
static Apfloat	ApfloatMath.binomial(Apfloat n, Apfloat k)	Binomial coefficient.
static Apint	ApintMath.binomial(long n, long k)	Binomial coefficient.
static Apint	ApintMath.binomial(long n, long k, int radix)	Binomial coefficient.
static Apint	ApintMath.binomial(Apint n, Apint k)	Binomial coefficient.
static Aprational	AprationalMath.binomial(Aprational n, Aprational k)	Binomial coefficient.
Apfloat	FixedPrecisionApcomplexHelper.binomial(long n, long k)	Binomial coefficient.
Apfloat	FixedPrecisionApcomplexHelper.binomial(long n, long k, int radix)	Binomial coefficient.
Apcomplex	FixedPrecisionApcomplexHelper.binomial(Apcomplex n, Apcomplex k)	Binomial coefficient.
Apfloat	FixedPrecisionApfloatHelper.binomial(Apfloat n, Apfloat k)	Binomial coefficient.
static Apfloat	ApfloatMath.catalan(long precision)	Calculates Catalan's constant, G.
static Apfloat	ApfloatMath.catalan(long precision, int radix)	Calculates Catalan's constant, G.
Apfloat	FixedPrecisionApcomplexHelper.catalan()	Catalan's constant G.
Apfloat	FixedPrecisionApcomplexHelper.catalan(int radix)	Catalan's constant G.
static Apcomplex	ApcomplexMath.cbrt(Apcomplex z)	Cube root.
static Apfloat	ApfloatMath.cbrt(Apfloat x)	Cube root.
static Apint[]	ApintMath.cbrt(Apint x)	Cube root and remainder.
Apcomplex	FixedPrecisionApcomplexHelper.cbrt(Apcomplex z)	Cube root.
Apfloat	FixedPrecisionApfloatHelper.cbrt(Apfloat x)	Cube root.
Apint	Apfloat.ceil()	Ceiling function.
static Apint	ApfloatMath.ceil(Apfloat x)	Ceiling function.
Apint	Aprational.ceil()	Ceiling function.
Apfloat	FixedPrecisionApfloatHelper.ceil(Apfloat x)	Ceiling function.
static Apcomplex	ApcomplexMath.chebyshevT(Apcomplex ν, Apcomplex z)	Chebyshev function of the first kind.
static Apfloat	ApfloatMath.chebyshevT(Apfloat ν, Apfloat x)	Chebyshev function of the first kind.
Apcomplex	FixedPrecisionApcomplexHelper.chebyshevT(Apcomplex ν, Apcomplex z)	Chebyshev function of the first kind.
Apfloat	FixedPrecisionApfloatHelper.chebyshevT(Apfloat ν, Apfloat x)	Chebyshev function of the first kind.
static Apcomplex	ApcomplexMath.chebyshevU(Apcomplex ν, Apcomplex z)	Chebyshev function of the second kind.
static Apfloat	ApfloatMath.chebyshevU(Apfloat ν, Apfloat x)	Chebyshev function of the second kind.
Apcomplex	FixedPrecisionApcomplexHelper.chebyshevU(Apcomplex ν, Apcomplex z)	Chebyshev function of the second kind.
Apfloat	FixedPrecisionApfloatHelper.chebyshevU(Apfloat ν, Apfloat x)	Chebyshev function of the second kind.
Apcomplex	Apcomplex.conj()	Returns the complex conjugate of this apcomplex.
Apcomplex	FixedPrecisionApcomplexHelper.conj(Apcomplex z)	Complex conjugate.
Apfloat[]	FixedPrecisionApfloatHelper.continuedFraction(Apfloat x, int n)	Continued fraction.
Apfloat[]	FixedPrecisionApfloatHelper.convergents(Apfloat x, int n)	Convergents.
static Apfloat	ApfloatMath.copySign(Apfloat x, Apfloat y)	Copy sign from one argument to another.
static Apint	ApintMath.copySign(Apint x, Apint y)	Copy sign from one argument to another.
static Aprational	AprationalMath.copySign(Aprational x, Aprational y)	Copy sign from one argument to another.
Apfloat	FixedPrecisionApfloatHelper.copySign(Apfloat x, Apfloat y)	Copies the sign from one number to another.
static Apcomplex	ApcomplexMath.cos(Apcomplex z)	Cosine.
static Apfloat	ApfloatMath.cos(Apfloat x)	Cosine.
Apcomplex	FixedPrecisionApcomplexHelper.cos(Apcomplex z)	Cosine.
Apfloat	FixedPrecisionApfloatHelper.cos(Apfloat x)	Cosine.
static Apcomplex	ApcomplexMath.cosh(Apcomplex z)	Hyperbolic cosine.
static Apfloat	ApfloatMath.cosh(Apfloat x)	Hyperbolic cosine.
Apcomplex	FixedPrecisionApcomplexHelper.cosh(Apcomplex z)	Hyperbolic cosine.
Apfloat	FixedPrecisionApfloatHelper.cosh(Apfloat x)	Hyperbolic cosine.
static Apcomplex	ApcomplexMath.coshIntegral(Apcomplex z)	Hyperbolic cosine integral.
static Apfloat	ApfloatMath.coshIntegral(Apfloat x)	Hyperbolic cosine integral.
Apcomplex	FixedPrecisionApcomplexHelper.coshIntegral(Apcomplex z)	Hyperbolic cosine integral.
Apfloat	FixedPrecisionApfloatHelper.coshIntegral(Apfloat x)	Hyperbolic cosine integral.
static Apcomplex	ApcomplexMath.cosIntegral(Apcomplex z)	Cosine integral.
static Apfloat	ApfloatMath.cosIntegral(Apfloat x)	Cosine integral.
Apcomplex	FixedPrecisionApcomplexHelper.cosIntegral(Apcomplex z)	Cosine integral.
Apfloat	FixedPrecisionApfloatHelper.cosIntegral(Apfloat x)	Cosine integral.
static Apcomplex	ApcomplexMath.digamma(Apcomplex z)	Digamma function.
static Apfloat	ApfloatMath.digamma(Apfloat x)	Digamma function.
Apcomplex	FixedPrecisionApcomplexHelper.digamma(Apcomplex z)	Digamma function.
Apfloat	FixedPrecisionApfloatHelper.digamma(Apfloat x)	Digamma function.
static Apint[]	ApintMath.div(Apint x, Apint y)	Quotient and remainder.
Apcomplex	Apcomplex.divide(Apcomplex z)	Divides two apcomplex numbers.
Apfloat	Apfloat.divide(Apfloat x)	Divides two apfloats.
Apint	Apint.divide(Apint x)	Divides two apints.
Aprational	Aprational.divide(Aprational x)	Divides two aprational numbers.
Apcomplex	FixedPrecisionApcomplexHelper.divide(Apcomplex z, Apcomplex w)	Division.
Apfloat	FixedPrecisionApfloatHelper.divide(Apfloat x, Apfloat y)	Division.
static Apint	ApintMath.doubleFactorial(long n)	Double factorial function.
static Apint	ApintMath.doubleFactorial(long n, int radix)	Double factorial function.
Apfloat	FixedPrecisionApfloatHelper.doubleFactorial(long n)	Double factorial.
Apfloat	FixedPrecisionApfloatHelper.doubleFactorial(long n, int radix)	Double factorial.
static Apfloat	ApfloatMath.e(long precision)	Calculates e.
static Apfloat	ApfloatMath.e(long precision, int radix)	Calculates e.
Apfloat	FixedPrecisionApcomplexHelper.e()	e.
Apfloat	FixedPrecisionApcomplexHelper.e(int radix)	e.
static Apcomplex	ApcomplexMath.ellipticE(Apcomplex z)	Complete elliptic integral of the second kind.
static Apfloat	ApfloatMath.ellipticE(Apfloat x)	Complete elliptic integral of the second kind.
Apcomplex	FixedPrecisionApcomplexHelper.ellipticE(Apcomplex z)	Complete elliptic integral of the second kind.
Apfloat	FixedPrecisionApfloatHelper.ellipticE(Apfloat x)	Complete elliptic integral of the second kind.
static Apcomplex	ApcomplexMath.ellipticK(Apcomplex z)	Complete elliptic integral of the first kind.
static Apfloat	ApfloatMath.ellipticK(Apfloat x)	Complete elliptic integral of the first kind.
Apcomplex	FixedPrecisionApcomplexHelper.ellipticK(Apcomplex z)	Complete elliptic integral of the first kind.
Apfloat	FixedPrecisionApfloatHelper.ellipticK(Apfloat x)	Complete elliptic integral of the first kind.
long	Apcomplex.equalDigits(Apcomplex z)	Computes number of equal digits.
long	Apfloat.equalDigits(Apfloat x)	Computes number of equal digits.
static Apcomplex	ApcomplexMath.erf(Apcomplex z)	Error function.
static Apfloat	ApfloatMath.erf(Apfloat x)	Error function.
Apcomplex	FixedPrecisionApcomplexHelper.erf(Apcomplex z)	Error function.
Apfloat	FixedPrecisionApfloatHelper.erf(Apfloat x)	Error function.
static Apcomplex	ApcomplexMath.erfc(Apcomplex z)	Complementary error function.
static Apfloat	ApfloatMath.erfc(Apfloat x)	Complementary error function.
Apcomplex	FixedPrecisionApcomplexHelper.erfc(Apcomplex z)	Complementary error function.
Apfloat	FixedPrecisionApfloatHelper.erfc(Apfloat x)	Complementary error function.
static Apcomplex	ApcomplexMath.erfi(Apcomplex z)	Imaginary error function.
static Apfloat	ApfloatMath.erfi(Apfloat x)	Imaginary error function.
Apcomplex	FixedPrecisionApcomplexHelper.erfi(Apcomplex z)	Imaginary error function.
Apfloat	FixedPrecisionApfloatHelper.erfi(Apfloat x)	Imaginary error function.
static Apfloat	ApfloatMath.euler(long precision)	Calculates γ, the Euler-Mascheroni constant.
static Apfloat	ApfloatMath.euler(long precision, int radix)	Calculates γ, the Euler-Mascheroni constant.
Apfloat	FixedPrecisionApcomplexHelper.euler()	γ, the Euler-Mascheroni constant.
Apfloat	FixedPrecisionApcomplexHelper.euler(int radix)	γ, the Euler-Mascheroni constant.
static Apcomplex	ApcomplexMath.eulerE(long n, Apcomplex z)	Euler polynomial.
static Apfloat	ApfloatMath.eulerE(long n, Apfloat x)	Euler polynomial.
Apcomplex	FixedPrecisionApcomplexHelper.eulerE(long n, Apcomplex z)	Euler polynomial.
Apfloat	FixedPrecisionApfloatHelper.eulerE(long n, Apfloat x)	Euler polynomial.
static Apcomplex	ApcomplexMath.exp(Apcomplex z)	Exponent function.
static Apfloat	ApfloatMath.exp(Apfloat x)	Exponent function.
Apcomplex	FixedPrecisionApcomplexHelper.exp(Apcomplex z)	Exponential function.
Apfloat	FixedPrecisionApfloatHelper.exp(Apfloat x)	Exponential function.
static Apcomplex	ApcomplexMath.expIntegralE(Apcomplex ν, Apcomplex z)	Exponential integral E.
static Apfloat	ApfloatMath.expIntegralE(Apfloat ν, Apfloat x)	Exponential integral E.
Apcomplex	FixedPrecisionApcomplexHelper.expIntegralE(Apcomplex ν, Apcomplex z)	Exponential integral E.
Apfloat	FixedPrecisionApfloatHelper.expIntegralE(Apfloat ν, Apfloat x)	Exponential integral E.
static Apcomplex	ApcomplexMath.expIntegralEi(Apcomplex z)	Exponential integral Ei.
static Apfloat	ApfloatMath.expIntegralEi(Apfloat x)	Exponential integral Ei.
Apcomplex	FixedPrecisionApcomplexHelper.expIntegralEi(Apcomplex z)	Exponential integral Ei.
Apfloat	FixedPrecisionApfloatHelper.expIntegralEi(Apfloat x)	Exponential integral Ei.
static Apint	ApintMath.factorial(long n)	Factorial function.
static Apint	ApintMath.factorial(long n, int radix)	Factorial function.
Apfloat	FixedPrecisionApfloatHelper.factorial(long n)	Factorial.
Apfloat	FixedPrecisionApfloatHelper.factorial(long n, int radix)	Factorial.
static Apcomplex	ApcomplexMath.fibonacci(Apcomplex ν, Apcomplex z)	Fibonacci function.
static Apfloat	ApfloatMath.fibonacci(Apfloat ν, Apfloat x)	Fibonacci function.
Apcomplex	FixedPrecisionApcomplexHelper.fibonacci(Apcomplex ν, Apcomplex z)	Fibonacci function.
Apfloat	FixedPrecisionApfloatHelper.fibonacci(Apfloat ν, Apfloat x)	Fibonacci function.
Apint	Apfloat.floor()	Floor function.
static Apint	ApfloatMath.floor(Apfloat x)	Floor function.
Apint	Aprational.floor()	Floor function.
Apfloat	FixedPrecisionApfloatHelper.floor(Apfloat x)	Floor function.
static Apfloat	ApfloatMath.fmod(Apfloat x, Apfloat y)	Returns x modulo y.
Apfloat	FixedPrecisionApfloatHelper.fmod(Apfloat x, Apfloat y)	Modulus.
Apfloat	Apfloat.frac()	Returns the fractional part.
static Apfloat	ApfloatMath.frac(Apfloat x)	Extracts fractional part.
Apint	Apint.frac()	Returns the fractional part.
Aprational	Aprational.frac()	Returns the fractional part.
Apfloat	FixedPrecisionApfloatHelper.frac(Apfloat x)	Extract fractional part.
static Apcomplex	ApcomplexMath.fresnelC(Apcomplex z)	Fresnel integral C.
static Apfloat	ApfloatMath.fresnelC(Apfloat x)	Fresnel integral C.
Apcomplex	FixedPrecisionApcomplexHelper.fresnelC(Apcomplex z)	Fresnel integral C.
Apfloat	FixedPrecisionApfloatHelper.fresnelC(Apfloat x)	Fresnel integral C.
static Apcomplex	ApcomplexMath.fresnelS(Apcomplex z)	Fresnel integral S.
static Apfloat	ApfloatMath.fresnelS(Apfloat x)	Fresnel integral S.
Apcomplex	FixedPrecisionApcomplexHelper.fresnelS(Apcomplex z)	Fresnel integral S.
Apfloat	FixedPrecisionApfloatHelper.fresnelS(Apfloat x)	Fresnel integral S.
static Apcomplex	ApcomplexMath.gamma(Apcomplex z)	Gamma function.
static Apcomplex	ApcomplexMath.gamma(Apcomplex a, Apcomplex z)	Incomplete gamma function.
static Apcomplex	ApcomplexMath.gamma(Apcomplex a, Apcomplex z0, Apcomplex z1)	Generalized incomplete gamma function.
static Apfloat	ApfloatMath.gamma(Apfloat x)	Gamma function.
static Apfloat	ApfloatMath.gamma(Apfloat a, Apfloat x)	Incomplete gamma function.
static Apfloat	ApfloatMath.gamma(Apfloat a, Apfloat x0, Apfloat x1)	Generalized incomplete gamma function.
Apcomplex	FixedPrecisionApcomplexHelper.gamma(Apcomplex z)	Gamma function.
Apcomplex	FixedPrecisionApcomplexHelper.gamma(Apcomplex a, Apcomplex z)	Incomplete gamma function.
Apcomplex	FixedPrecisionApcomplexHelper.gamma(Apcomplex a, Apcomplex z0, Apcomplex z1)	Generalized incomplete gamma function.
Apfloat	FixedPrecisionApfloatHelper.gamma(Apfloat x)	Gamma function.
Apfloat	FixedPrecisionApfloatHelper.gamma(Apfloat a, Apfloat x)	Incomplete gamma function.
Apfloat	FixedPrecisionApfloatHelper.gamma(Apfloat a, Apfloat x0, Apfloat x1)	Generalized incomplete gamma function.
static Apint	ApintMath.gcd(Apint a, Apint b)	Greatest common divisor.
static Apcomplex	ApcomplexMath.gegenbauerC(Apcomplex ν, Apcomplex z)	Renormalized Gegenbauer function.
static Apcomplex	ApcomplexMath.gegenbauerC(Apcomplex ν, Apcomplex λ, Apcomplex z)	Gegenbauer function.
static Apfloat	ApfloatMath.gegenbauerC(Apfloat ν, Apfloat x)	Renormalized Gegenbauer function.
static Apfloat	ApfloatMath.gegenbauerC(Apfloat ν, Apfloat λ, Apfloat x)	Gegenbauer function.
Apcomplex	FixedPrecisionApcomplexHelper.gegenbauerC(Apcomplex ν, Apcomplex z)	Renormalized Gegenbauer function.
Apcomplex	FixedPrecisionApcomplexHelper.gegenbauerC(Apcomplex ν, Apcomplex λ, Apcomplex z)	Gegenbauer function.
Apfloat	FixedPrecisionApfloatHelper.gegenbauerC(Apfloat ν, Apfloat x)	Renormalized Gegenbauer function.
Apfloat	FixedPrecisionApfloatHelper.gegenbauerC(Apfloat ν, Apfloat λ, Apfloat x)	Gegenbauer function.
protected ApfloatImpl	Apfloat.getImpl(long precision)	Returns an ApfloatImpl representing the actual instance of this apfloat up to the requested precision.
protected ApfloatImpl	Apint.getImpl(long precision)	Returns an ApfloatImpl representing this apint up to the requested precision.
protected ApfloatImpl	Aprational.getImpl(long precision)	Returns an ApfloatImpl representing the approximation of this aprational up to the requested precision.
static Apfloat	ApfloatMath.glaisher(long precision)	Calculates the Glaisher‐Kinkelin constant, A.
static Apfloat	ApfloatMath.glaisher(long precision, int radix)	Calculates the Glaisher‐Kinkelin constant, A.
Apfloat	FixedPrecisionApcomplexHelper.glaisher()	The Glaisher-Kinkelin constant A.
Apfloat	FixedPrecisionApcomplexHelper.glaisher(int radix)	The Glaisher-Kinkelin constant A.
static Apcomplex	ApcomplexMath.harmonicNumber(Apcomplex z)	Harmonic number.
static Apcomplex	ApcomplexMath.harmonicNumber(Apcomplex z, Apcomplex r)	Generalized harmonic number.
static Apfloat	ApfloatMath.harmonicNumber(Apfloat x)	Harmonic number.
static Apfloat	ApfloatMath.harmonicNumber(Apfloat x, Apfloat r)	Generalized harmonic number.
static Aprational	AprationalMath.harmonicNumber(Apint n)	Harmonic number.
static Aprational	AprationalMath.harmonicNumber(Apint n, Apint r)	Generalized harmonic number.
Apcomplex	FixedPrecisionApcomplexHelper.harmonicNumber(Apcomplex z)	Harmonic number.
Apcomplex	FixedPrecisionApcomplexHelper.harmonicNumber(Apcomplex z, Apcomplex r)	Generalized harmonic number.
Apfloat	FixedPrecisionApfloatHelper.harmonicNumber(Apfloat x)	Harmonic number.
Apfloat	FixedPrecisionApfloatHelper.harmonicNumber(Apfloat x, Apfloat r)	Generalized harmonic number.
static Apcomplex	ApcomplexMath.hermiteH(Apcomplex ν, Apcomplex z)	Hermite function.
static Apfloat	ApfloatMath.hermiteH(Apfloat ν, Apfloat x)	Hermite function.
Apcomplex	FixedPrecisionApcomplexHelper.hermiteH(Apcomplex ν, Apcomplex z)	Hermite function.
Apfloat	FixedPrecisionApfloatHelper.hermiteH(Apfloat ν, Apfloat x)	Hermite function.
static Apcomplex	ApcomplexMath.hypergeometric0F1(Apcomplex a, Apcomplex z)	Confluent hypergeometric function 0F1.
static Apfloat	ApfloatMath.hypergeometric0F1(Apfloat a, Apfloat x)	Confluent hypergeometric function 0F1.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometric0F1(Apcomplex a, Apcomplex z)	Confluent hypergeometric function 0F1.
Apfloat	FixedPrecisionApfloatHelper.hypergeometric0F1(Apfloat a, Apfloat x)	Confluent hypergeometric function 0F1.
static Apcomplex	ApcomplexMath.hypergeometric0F1Regularized(Apcomplex a, Apcomplex z)	Regularized confluent hypergeometric function 0F̃1.
static Apfloat	ApfloatMath.hypergeometric0F1Regularized(Apfloat a, Apfloat x)	Regularized confluent hypergeometric function 0F̃1.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometric0F1Regularized(Apcomplex a, Apcomplex z)	Regularized confluent hypergeometric function 0F̃1.
Apfloat	FixedPrecisionApfloatHelper.hypergeometric0F1Regularized(Apfloat a, Apfloat x)	Regularized confluent hypergeometric function 0F̃1.
static Apcomplex	ApcomplexMath.hypergeometric1F1(Apcomplex a, Apcomplex b, Apcomplex z)	Kummer confluent hypergeometric function 1F1.
static Apfloat	ApfloatMath.hypergeometric1F1(Apfloat a, Apfloat b, Apfloat x)	Kummer confluent hypergeometric function 1F1.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometric1F1(Apcomplex a, Apcomplex b, Apcomplex z)	Kummer confluent hypergeometric function 1F1.
Apfloat	FixedPrecisionApfloatHelper.hypergeometric1F1(Apfloat a, Apfloat b, Apfloat x)	Kummer confluent hypergeometric function 1F1.
static Apcomplex	ApcomplexMath.hypergeometric1F1Regularized(Apcomplex a, Apcomplex b, Apcomplex z)	Regularized Kummer confluent hypergeometric function 1F̃1.
static Apfloat	ApfloatMath.hypergeometric1F1Regularized(Apfloat a, Apfloat b, Apfloat x)	Regularized Kummer confluent hypergeometric function 1F̃1.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometric1F1Regularized(Apcomplex a, Apcomplex b, Apcomplex z)	Regularized Kummer confluent hypergeometric function 1F̃1.
Apfloat	FixedPrecisionApfloatHelper.hypergeometric1F1Regularized(Apfloat a, Apfloat b, Apfloat x)	Regularized Kummer confluent hypergeometric function 1F̃1.
static Apcomplex	ApcomplexMath.hypergeometric2F1(Apcomplex a, Apcomplex b, Apcomplex c, Apcomplex z)	Hypergeometric function 2F1.
static Apfloat	ApfloatMath.hypergeometric2F1(Apfloat a, Apfloat b, Apfloat c, Apfloat x)	Hypergeometric function 2F1.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometric2F1(Apcomplex a, Apcomplex b, Apcomplex c, Apcomplex z)	Hypergeometric function 2F1.
Apfloat	FixedPrecisionApfloatHelper.hypergeometric2F1(Apfloat a, Apfloat b, Apfloat c, Apfloat x)	Hypergeometric function 2F1.
static Apcomplex	ApcomplexMath.hypergeometric2F1Regularized(Apcomplex a, Apcomplex b, Apcomplex c, Apcomplex z)	Regularized hypergeometric function 2F̃1.
static Apfloat	ApfloatMath.hypergeometric2F1Regularized(Apfloat a, Apfloat b, Apfloat c, Apfloat x)	Regularized hypergeometric function 2F̃1.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometric2F1Regularized(Apcomplex a, Apcomplex b, Apcomplex c, Apcomplex z)	Regularized hypergeometric function 2F̃1.
Apfloat	FixedPrecisionApfloatHelper.hypergeometric2F1Regularized(Apfloat a, Apfloat b, Apfloat c, Apfloat x)	Regularized hypergeometric function 2F̃1.
static Apcomplex	ApcomplexMath.hypergeometricU(Apcomplex a, Apcomplex b, Apcomplex z)	Tricomi's confluent hypergeometric function U.
static Apfloat	ApfloatMath.hypergeometricU(Apfloat a, Apfloat b, Apfloat x)	Tricomi's confluent hypergeometric function U.
Apcomplex	FixedPrecisionApcomplexHelper.hypergeometricU(Apcomplex a, Apcomplex b, Apcomplex z)	Tricomi's confluent hypergeometric function U.
Apfloat	FixedPrecisionApfloatHelper.hypergeometricU(Apfloat a, Apfloat b, Apfloat x)	Tricomi's confluent hypergeometric function U.
static Apfloat	ApfloatMath.inverseErf(Apfloat x)	Inverse error function.
Apfloat	FixedPrecisionApfloatHelper.inverseErf(Apfloat x)	Inverse error function.
static Apfloat	ApfloatMath.inverseErfc(Apfloat x)	Inverse complementary error function.
Apfloat	FixedPrecisionApfloatHelper.inverseErfc(Apfloat x)	Inverse complementary error function.
static Apcomplex	ApcomplexMath.inverseRoot(Apcomplex z, long n)	Inverse positive integer root.
static Apcomplex	ApcomplexMath.inverseRoot(Apcomplex z, long n, long k)	Inverse positive integer root.
static Apfloat	ApfloatMath.inverseRoot(Apfloat x, long n)	Inverse positive integer root.
static Apfloat	ApfloatMath.inverseRoot(Apfloat x, long n, long targetPrecision)	Inverse positive integer root.
static Apfloat	ApfloatMath.inverseRoot(Apfloat x, long n, long targetPrecision, Apfloat initialGuess)	Inverse positive integer root.
static Apfloat	ApfloatMath.inverseRoot(Apfloat x, long n, long targetPrecision, Apfloat initialGuess, long initialPrecision)	Inverse positive integer root.
Apcomplex	FixedPrecisionApcomplexHelper.inverseRoot(Apcomplex z, long n)	Inverse root.
Apcomplex	FixedPrecisionApcomplexHelper.inverseRoot(Apcomplex z, long n, long k)	Inverse root with branch.
Apfloat	FixedPrecisionApfloatHelper.inverseRoot(Apfloat x, long n)	Inverse root.
boolean	Apcomplex.isInteger()	Returns if this number has an integer value.
boolean	Apfloat.isInteger()	Returns if this number has an integer value.
boolean	Apint.isInteger()	Returns if this number has an integer value.
boolean	Aprational.isInteger()	Returns if this number has an integer value.
boolean	Apfloat.isShort()	Returns if this apfloat is "short".
boolean	Apint.isShort()	Returns if this apint is "short".
boolean	Aprational.isShort()	Returns if this aprational is "short".
boolean	Apcomplex.isZero()	Returns if this number is zero.
static Apcomplex	ApcomplexMath.jacobiP(Apcomplex ν, Apcomplex a, Apcomplex b, Apcomplex z)	Jacobi function.
static Apfloat	ApfloatMath.jacobiP(Apfloat ν, Apfloat a, Apfloat b, Apfloat x)	Jacobi function.
Apcomplex	FixedPrecisionApcomplexHelper.jacobiP(Apcomplex ν, Apcomplex a, Apcomplex b, Apcomplex z)	Jacobi function.
Apfloat	FixedPrecisionApfloatHelper.jacobiP(Apfloat ν, Apfloat a, Apfloat b, Apfloat x)	Jacobi function.
static Apfloat	ApfloatMath.khinchin(long precision)	Calculates Khinchin's constant, K.Uses the default radix.
static Apfloat	ApfloatMath.khinchin(long precision, int radix)	Calculates Khinchin's constant, K.
Apfloat	FixedPrecisionApcomplexHelper.khinchin()	Khinchin's constant K.
Apfloat	FixedPrecisionApcomplexHelper.khinchin(int radix)	Khinchin's constant K.
static Apcomplex	ApcomplexMath.laguerreL(Apcomplex ν, Apcomplex z)	Laguerre function.
static Apcomplex	ApcomplexMath.laguerreL(Apcomplex ν, Apcomplex λ, Apcomplex z)	Generalized Laguerre function.
static Apfloat	ApfloatMath.laguerreL(Apfloat ν, Apfloat x)	Laguerre function.
static Apfloat	ApfloatMath.laguerreL(Apfloat ν, Apfloat λ, Apfloat x)	Generalized Laguerre function.
Apcomplex	FixedPrecisionApcomplexHelper.laguerreL(Apcomplex ν, Apcomplex z)	Laguerre function.
Apcomplex	FixedPrecisionApcomplexHelper.laguerreL(Apcomplex ν, Apcomplex λ, Apcomplex z)	Generalized Laguerre function.
Apfloat	FixedPrecisionApfloatHelper.laguerreL(Apfloat ν, Apfloat x)	Laguerre function.
Apfloat	FixedPrecisionApfloatHelper.laguerreL(Apfloat ν, Apfloat λ, Apfloat x)	Generalized Laguerre function.
static Apint	ApintMath.lcm(Apint a, Apint b)	Least common multiple.
static Apcomplex	ApcomplexMath.legendreP(Apcomplex ν, Apcomplex z)	Legendre function.
static Apcomplex	ApcomplexMath.legendreP(Apcomplex ν, Apcomplex μ, Apcomplex z)	Associated Legendre function of the first kind.
static Apfloat	ApfloatMath.legendreP(Apfloat ν, Apfloat x)	Legendre function.
static Apfloat	ApfloatMath.legendreP(Apfloat ν, Apfloat μ, Apfloat x)	Associated Legendre function of the first kind.
Apcomplex	FixedPrecisionApcomplexHelper.legendreP(Apcomplex ν, Apcomplex z)	Legendre function.
Apcomplex	FixedPrecisionApcomplexHelper.legendreP(Apcomplex ν, Apcomplex μ, Apcomplex z)	Associated Legendre function of the first kind.
Apfloat	FixedPrecisionApfloatHelper.legendreP(Apfloat ν, Apfloat x)	Legendre function.
Apfloat	FixedPrecisionApfloatHelper.legendreP(Apfloat ν, Apfloat μ, Apfloat x)	Associated Legendre function of the first kind.
static Apcomplex	ApcomplexMath.legendreQ(Apcomplex ν, Apcomplex z)	Legendre function of the second kind.
static Apcomplex	ApcomplexMath.legendreQ(Apcomplex ν, Apcomplex μ, Apcomplex z)	Associated Legendre function of the second kind.
static Apfloat	ApfloatMath.legendreQ(Apfloat ν, Apfloat x)	Legendre function of the second kind.
static Apfloat	ApfloatMath.legendreQ(Apfloat ν, Apfloat μ, Apfloat x)	Associated Legendre function of the second kind.
Apcomplex	FixedPrecisionApcomplexHelper.legendreQ(Apcomplex ν, Apcomplex z)	Legendre function of the second kind.
Apcomplex	FixedPrecisionApcomplexHelper.legendreQ(Apcomplex ν, Apcomplex μ, Apcomplex z)	Associated Legendre function of the second kind.
Apfloat	FixedPrecisionApfloatHelper.legendreQ(Apfloat ν, Apfloat x)	Legendre function of the second kind.
Apfloat	FixedPrecisionApfloatHelper.legendreQ(Apfloat ν, Apfloat μ, Apfloat x)	Associated Legendre function of the second kind.
static Properties	ApfloatContext.loadProperties()	Loads properties from a properties file or resource bundle.
static Apcomplex	ApcomplexMath.log(Apcomplex z)	Natural logarithm.
static Apcomplex	ApcomplexMath.log(Apcomplex z, Apcomplex w)	Logarithm in arbitrary base.
static Apfloat	ApfloatMath.log(Apfloat x)	Natural logarithm.
static Apfloat	ApfloatMath.log(Apfloat x, Apfloat b)	Logarithm in arbitrary base.
Apcomplex	FixedPrecisionApcomplexHelper.log(Apcomplex z)	Natural logarithm.
Apcomplex	FixedPrecisionApcomplexHelper.log(Apcomplex z, Apcomplex w)	Logarithm in specified base.
Apfloat	FixedPrecisionApfloatHelper.log(Apfloat x)	Natural logarithm.
Apfloat	FixedPrecisionApfloatHelper.log(Apfloat x, Apfloat b)	Logarithm in specified base.
static Apcomplex	ApcomplexMath.logGamma(Apcomplex z)	Logarithm of the gamma function.
static Apfloat	ApfloatMath.logGamma(Apfloat x)	Logarithm of the gamma function.
Apcomplex	FixedPrecisionApcomplexHelper.logGamma(Apcomplex z)	Logarithm of the gamma function.
Apfloat	FixedPrecisionApfloatHelper.logGamma(Apfloat x)	Logarithm of the gamma function.
static Apcomplex	ApcomplexMath.logIntegral(Apcomplex z)	Logarithmic integral.
static Apfloat	ApfloatMath.logIntegral(Apfloat x)	Logarithmic integral.
Apcomplex	FixedPrecisionApcomplexHelper.logIntegral(Apcomplex z)	Logarithmic integral.
Apfloat	FixedPrecisionApfloatHelper.logIntegral(Apfloat x)	Logarithmic integral.
static Apcomplex	ApcomplexMath.logisticSigmoid(Apcomplex z)	Logistic sigmoid.
static Apfloat	ApfloatMath.logisticSigmoid(Apfloat x)	Logistic sigmoid.
Apcomplex	FixedPrecisionApcomplexHelper.logisticSigmoid(Apcomplex z)	Logistic sigmoid.
Apfloat	FixedPrecisionApfloatHelper.logisticSigmoid(Apfloat x)	Logistic sigmoid.
static Apfloat	ApfloatMath.logRadix(long precision, int radix)	Gets or calculates logarithm of a radix to required precision.
Apfloat	FixedPrecisionApfloatHelper.logRadix(int radix)	Logarithm.
static Aprational	AprationalMath.max(Aprational x, Aprational y)	Returns the greater of the two values.
Apfloat	FixedPrecisionApfloatHelper.max(Apfloat x, Apfloat y)	Maximum value.
static Aprational	AprationalMath.min(Aprational x, Aprational y)	Returns the smaller of the two values.
Apfloat	FixedPrecisionApfloatHelper.min(Apfloat x, Apfloat y)	Minimum value.
Apfloat	Apfloat.mod(Apfloat x)	Calculates the remainder when divided by an apfloat.
Apint	Apint.mod(Apint x)	Calculates the remainder when divided by an apint.
Aprational	Aprational.mod(Aprational x)	Calculates the remainder when divided by an aprational.
Apfloat	FixedPrecisionApfloatHelper.mod(Apfloat x, Apfloat y)	Modulus.
static Apfloat[]	ApfloatMath.modf(Apfloat x)	Split to integer and fractional parts.
Apfloat[]	FixedPrecisionApfloatHelper.modf(Apfloat x)	Split to integer and fractional parts.
static Apint	ApintMath.modMultiply(Apint a, Apint b, Apint m)	Modular multiplication.
static Apint	ApintMath.modPow(Apint a, Apint b, Apint m)	Modular power.
Apcomplex	Apcomplex.multiply(Apcomplex z)	Multiplies two apcomplex numbers.
Apfloat	Apfloat.multiply(Apfloat x)	Multiplies two apfloats.
Apint	Apint.multiply(Apint x)	Multiplies two apints.
Aprational	Aprational.multiply(Aprational x)	Multiplies two aprational numbers.
Apcomplex	FixedPrecisionApcomplexHelper.multiply(Apcomplex z, Apcomplex w)	Multiplication.
Apfloat	FixedPrecisionApfloatHelper.multiply(Apfloat x, Apfloat y)	Multiplication.
static Apfloat	ApfloatMath.multiplyAdd(Apfloat a, Apfloat b, Apfloat c, Apfloat d)	Fused multiply-add.
Apfloat	FixedPrecisionApfloatHelper.multiplyAdd(Apfloat a, Apfloat b, Apfloat c, Apfloat d)	Fused multiply-add.
static Apfloat	ApfloatMath.multiplySubtract(Apfloat a, Apfloat b, Apfloat c, Apfloat d)	Fused multiply-subtract.
Apfloat	FixedPrecisionApfloatHelper.multiplySubtract(Apfloat a, Apfloat b, Apfloat c, Apfloat d)	Fused multiply-subtract.
Apcomplex	Apcomplex.negate()	Negative value.
static Apcomplex	ApcomplexMath.negate(Apcomplex z)	Deprecated. Use Apcomplex.negate().
Apfloat	Apfloat.negate()	Negative value.
static Apfloat	ApfloatMath.negate(Apfloat x)	Deprecated. Use Apfloat.negate().
Apint	Apint.negate()	Negative value.
static Apint	ApintMath.negate(Apint x)	Deprecated. Use Apint.negate().
Aprational	Aprational.negate()	Negative value.
static Aprational	AprationalMath.negate(Aprational x)	Deprecated. Use Aprational.negate().
Apcomplex	FixedPrecisionApcomplexHelper.negate(Apcomplex z)	Negation.
Apfloat	FixedPrecisionApfloatHelper.negate(Apfloat x)	Negation.
Apfloat	FixedPrecisionApfloatHelper.nextAfter(Apfloat x, Apfloat y)	The number adjacent to the first argument in the direction of the second argument.
Apfloat	FixedPrecisionApfloatHelper.nextDown(Apfloat x)	The adjacent value closer to negative infinity.
Apfloat	FixedPrecisionApfloatHelper.nextUp(Apfloat x)	The adjacent value closer to positive infinity.
static Apfloat	ApcomplexMath.norm(Apcomplex z)	Norm.
Apfloat	FixedPrecisionApcomplexHelper.norm(Apcomplex z)	Norm.
static Apfloat	ApfloatMath.pi(long precision)	Calculates π.
static Apfloat	ApfloatMath.pi(long precision, int radix)	Calculates π.
Apfloat	FixedPrecisionApfloatHelper.pi()	π.
Apfloat	FixedPrecisionApfloatHelper.pi(int radix)	π.
static Apcomplex	ApcomplexMath.pochhammer(Apcomplex z, Apcomplex n)	Pochhammer symbol.
static Apfloat	ApfloatMath.pochhammer(Apfloat x, Apfloat n)	Pochhammer symbol.
Apcomplex	FixedPrecisionApcomplexHelper.pochhammer(Apcomplex z, Apcomplex n)	Pochhammer symbol.
Apfloat	FixedPrecisionApfloatHelper.pochhammer(Apfloat x, Apfloat n)	Pochhammer symbol.
static Apcomplex	ApcomplexMath.polygamma(long n, Apcomplex z)	Polygamma function.
static Apfloat	ApfloatMath.polygamma(long n, Apfloat x)	Polygamma function.
Apcomplex	FixedPrecisionApcomplexHelper.polygamma(long n, Apcomplex z)	Polygamma function.
Apfloat	FixedPrecisionApfloatHelper.polygamma(long n, Apfloat x)	Polygamma function.
static Apcomplex	ApcomplexMath.polylog(Apcomplex ν, Apcomplex z)	Polylogarithm.
static Apfloat	ApfloatMath.polylog(Apfloat ν, Apfloat x)	Polylogarithm.
Apcomplex	FixedPrecisionApcomplexHelper.polylog(Apcomplex ν, Apcomplex z)	Polylogarithm.
Apfloat	FixedPrecisionApfloatHelper.polylog(Apfloat ν, Apfloat x)	Polylogarithm.
static Apcomplex	ApcomplexMath.pow(Apcomplex z, long n)	Integer power.
static Apcomplex	ApcomplexMath.pow(Apcomplex z, Apcomplex w)	Arbitrary power.
static Apfloat	ApfloatMath.pow(Apfloat x, long n)	Integer power.
static Apfloat	ApfloatMath.pow(Apfloat x, Apfloat y)	Arbitrary power.
static Apint	ApintMath.pow(Apint x, long n)	Integer power.
static Aprational	AprationalMath.pow(Aprational x, long n)	Integer power.
Apcomplex	FixedPrecisionApcomplexHelper.pow(Apcomplex z, long n)	Integer power.
Apcomplex	FixedPrecisionApcomplexHelper.pow(Apcomplex z, Apcomplex w)	Power.
Apfloat	FixedPrecisionApfloatHelper.pow(Apfloat x, long n)	Integer power.
Apfloat	FixedPrecisionApfloatHelper.pow(Apfloat x, Apfloat y)	Power.
long	Apcomplex.precision()	Returns the precision of this apcomplex.
Apcomplex	Apcomplex.precision(long precision)	Returns an apcomplex with the same value as this apcomplex accurate to the specified precision.
long	Apfloat.precision()	Returns the precision of this apfloat.
Apfloat	Apfloat.precision(long precision)	Returns an apfloat with the same value as this apfloat accurate to the specified precision.
long	Aprational.precision()	Returns the precision of this aprational.
static Apcomplex	ApcomplexMath.product(Apcomplex... z)	Product of numbers.
static Apfloat	ApfloatMath.product(Apfloat... x)	Product of numbers.
static Apint	ApintMath.product(Apint... x)	Product of numbers.
static Aprational	AprationalMath.product(Aprational... x)	Product of numbers.
Apcomplex	FixedPrecisionApcomplexHelper.product(Apcomplex... z)	Product.
Apfloat	FixedPrecisionApfloatHelper.product(Apfloat... x)	Product.
Apfloat	FixedPrecisionApfloatHelper.random()	Return a uniformly distributed random number 0 ≤ x < 1.
Apfloat	FixedPrecisionApfloatHelper.random(int radix)	Return a uniformly distributed random number 0 ≤ x < 1.
Apfloat	FixedPrecisionApfloatHelper.randomGaussian()	Return a normally distributed random number with mean 0 and standard deviation 1.
Apfloat	FixedPrecisionApfloatHelper.randomGaussian(int radix)	Return a normally distributed random number with mean 0 and standard deviation 1.
static Apcomplex	ApcomplexMath.root(Apcomplex z, long n)	Positive integer root.
static Apcomplex	ApcomplexMath.root(Apcomplex z, long n, long k)	Positive integer root.
static Apfloat	ApfloatMath.root(Apfloat x, long n)	Positive integer root.
static Apint[]	ApintMath.root(Apint x, long n)	Positive integer root and remainder.
Apcomplex	FixedPrecisionApcomplexHelper.root(Apcomplex z, long n)	Root.
Apcomplex	FixedPrecisionApcomplexHelper.root(Apcomplex z, long n, long k)	Root with branch.
Apfloat	FixedPrecisionApfloatHelper.root(Apfloat x, long n)	Root.
static Apfloat	ApfloatMath.round(Apfloat x, long precision, RoundingMode roundingMode)	Deprecated. Use ApfloatMath.roundToPrecision(Apfloat,long,RoundingMode).
static Apfloat	AprationalMath.round(Aprational x, long precision, RoundingMode roundingMode)	Deprecated. Use AprationalMath.roundToPrecision(Aprational,long,RoundingMode).
Apfloat	FixedPrecisionApfloatHelper.round(Apfloat x, RoundingMode roundingMode)	Deprecated. Use FixedPrecisionApfloatHelper.roundToPrecision(Apfloat,RoundingMode).
static Apint	ApfloatMath.roundToInteger(Apfloat x, RoundingMode roundingMode)	Rounds x to integer using the specified rounding mode.
static Apint	AprationalMath.roundToInteger(Aprational x, RoundingMode roundingMode)	Rounds x to integer using the specified rounding mode.
Apfloat	FixedPrecisionApfloatHelper.roundToInteger(Apfloat x, RoundingMode roundingMode)	Round to integer with specified rounding mode.
static Apfloat	ApfloatMath.roundToMultiple(Apfloat x, Apfloat y, RoundingMode roundingMode)	Rounds x to the nearest multiple of y using the specified rounding mode.
static Aprational	AprationalMath.roundToMultiple(Aprational x, Aprational y, RoundingMode roundingMode)	Rounds x to the nearest multiple of y using the specified rounding mode.
Apfloat	FixedPrecisionApfloatHelper.roundToMultiple(Apfloat x, Apfloat y, RoundingMode roundingMode)	Round to multiple with specified rounding mode.
static Apfloat	ApfloatMath.roundToPlaces(Apfloat x, long places, RoundingMode roundingMode)	Rounds x to the specified number of places using the specified rounding mode.
static Apfloat	AprationalMath.roundToPlaces(Aprational x, long places, RoundingMode roundingMode)	Rounds x to the specified number of places using the specified rounding mode.
Apfloat	FixedPrecisionApfloatHelper.roundToPlaces(Apfloat x, long places, RoundingMode roundingMode)	Round to specified number of places with specified rounding mode.
static Apfloat	ApfloatMath.roundToPrecision(Apfloat x, long precision, RoundingMode roundingMode)	Rounds the given number to the specified precision with the specified rounding mode.
static Apfloat	AprationalMath.roundToPrecision(Aprational x, long precision, RoundingMode roundingMode)	Rounds the given number to the specified precision with the specified rounding mode.
Apfloat	FixedPrecisionApfloatHelper.roundToPrecision(Apfloat x, RoundingMode roundingMode)	Round to precision with specified rounding mode.
long	Apcomplex.scale()	Returns the scale of this apcomplex.
static Apcomplex	ApcomplexMath.scale(Apcomplex z, long scale)	Multiply by a power of the radix.
long	Apfloat.scale()	Returns the scale of this apfloat.
static Apfloat	ApfloatMath.scale(Apfloat x, long scale)	Multiply by a power of the radix.
long	Apint.scale()	Returns the scale of this apint.
static Apint	ApintMath.scale(Apint x, long scale)	Multiply by a power of the radix.
long	Aprational.scale()	Returns the scale of this aprational.
static Aprational	AprationalMath.scale(Aprational x, long scale)	Multiply by a power of the radix.
Apcomplex	FixedPrecisionApcomplexHelper.scale(Apcomplex z, long scale)	Move the radix point.
Apfloat	FixedPrecisionApfloatHelper.scale(Apfloat x, long scale)	Move the radix point.
static Apcomplex	ApcomplexMath.sin(Apcomplex z)	Sine.
static Apfloat	ApfloatMath.sin(Apfloat x)	Sine.
Apcomplex	FixedPrecisionApcomplexHelper.sin(Apcomplex z)	Sine.
Apfloat	FixedPrecisionApfloatHelper.sin(Apfloat x)	Sine.
static Apcomplex	ApcomplexMath.sinc(Apcomplex z)	Sinc.
static Apfloat	ApfloatMath.sinc(Apfloat x)	Sinc.
Apcomplex	FixedPrecisionApcomplexHelper.sinc(Apcomplex z)	Sinc.
Apfloat	FixedPrecisionApfloatHelper.sinc(Apfloat x)	Sinc.
static Apcomplex	ApcomplexMath.sinh(Apcomplex z)	Hyperbolic sine.
static Apfloat	ApfloatMath.sinh(Apfloat x)	Hyperbolic sine.
Apcomplex	FixedPrecisionApcomplexHelper.sinh(Apcomplex z)	Hyperbolic sine.
Apfloat	FixedPrecisionApfloatHelper.sinh(Apfloat x)	Hyperbolic sine.
static Apcomplex	ApcomplexMath.sinhIntegral(Apcomplex z)	Hyperbolic sine integral.
static Apfloat	ApfloatMath.sinhIntegral(Apfloat x)	Hyperbolic sine integral.
Apcomplex	FixedPrecisionApcomplexHelper.sinhIntegral(Apcomplex z)	Hyperbolic sine integral.
Apfloat	FixedPrecisionApfloatHelper.sinhIntegral(Apfloat x)	Hyperbolic sine integral.
static Apcomplex	ApcomplexMath.sinIntegral(Apcomplex z)	Sine integral.
static Apfloat	ApfloatMath.sinIntegral(Apfloat x)	Sine integral.
Apcomplex	FixedPrecisionApcomplexHelper.sinIntegral(Apcomplex z)	Sine integral.
Apfloat	FixedPrecisionApfloatHelper.sinIntegral(Apfloat x)	Sine integral.
long	Apcomplex.size()	Returns the size of this apcomplex.
long	Apfloat.size()	Returns the size of this apfloat.
long	Apint.size()	Returns the size of this apint.
long	Aprational.size()	Returns the size of this aprational.
static Apcomplex	ApcomplexMath.sphericalHarmonicY(Apcomplex λ, Apcomplex μ, Apcomplex ϑ, Apcomplex ϕ)	Spherical harmonic function.
Apcomplex	FixedPrecisionApcomplexHelper.sphericalHarmonicY(Apcomplex λ, Apcomplex μ, Apcomplex ϑ, Apcomplex ϕ)	Spherical harmonic function.
static Apcomplex	ApcomplexMath.sqrt(Apcomplex z)	Square root.
static Apfloat	ApfloatMath.sqrt(Apfloat x)	Square root.
static Apint[]	ApintMath.sqrt(Apint x)	Square root and remainder.
Apcomplex	FixedPrecisionApcomplexHelper.sqrt(Apcomplex z)	Square root.
Apfloat	FixedPrecisionApfloatHelper.sqrt(Apfloat x)	Square root.
Apcomplex	Apcomplex.subtract(Apcomplex z)	Subtracts two apcomplex numbers.
Apfloat	Apfloat.subtract(Apfloat x)	Subtracts two apfloats.
Apint	Apint.subtract(Apint x)	Subtracts two apints.
Aprational	Aprational.subtract(Aprational x)	Subtracts two aprational numbers.
Apcomplex	FixedPrecisionApcomplexHelper.subtract(Apcomplex z, Apcomplex w)	Subtraction.
Apfloat	FixedPrecisionApfloatHelper.subtract(Apfloat x, Apfloat y)	Subtraction.
static Apcomplex	ApcomplexMath.sum(Apcomplex... z)	Sum of numbers.
static Apfloat	ApfloatMath.sum(Apfloat... x)	Sum of numbers.
static Apint	ApintMath.sum(Apint... x)	Sum of numbers.
static Aprational	AprationalMath.sum(Aprational... x)	Sum of numbers.
Apcomplex	FixedPrecisionApcomplexHelper.sum(Apcomplex... z)	Sum.
Apfloat	FixedPrecisionApfloatHelper.sum(Apfloat... x)	Sum.
static Apcomplex	ApcomplexMath.tan(Apcomplex z)	Tangent.
static Apfloat	ApfloatMath.tan(Apfloat x)	Tangent.
Apcomplex	FixedPrecisionApcomplexHelper.tan(Apcomplex z)	Tangent.
Apfloat	FixedPrecisionApfloatHelper.tan(Apfloat x)	Tangent.
static Apcomplex	ApcomplexMath.tanh(Apcomplex z)	Hyperbolic tangent.
static Apfloat	ApfloatMath.tanh(Apfloat x)	Hyperbolic tangent.
Apcomplex	FixedPrecisionApcomplexHelper.tanh(Apcomplex z)	Hyperbolic tangent.
Apfloat	FixedPrecisionApfloatHelper.tanh(Apfloat x)	Hyperbolic tangent.
boolean	Apcomplex.test(Apcomplex z)	Tests two apcomplex numbers for equality.
boolean	Apfloat.test(Apfloat x)	Tests two apfloat numbers for equality.
boolean	Aprational.test(Apfloat x)
static Apfloat	ApfloatMath.toDegrees(Apfloat x)	Converts an angle measured in radians to degrees.
Apfloat	FixedPrecisionApfloatHelper.toDegrees(Apfloat x)	Convert radians to degrees.
static Apfloat	ApfloatMath.toRadians(Apfloat x)	Converts an angle measured in degrees to radians.
Apfloat	FixedPrecisionApfloatHelper.toRadians(Apfloat x)	Convert degrees to radians.
Apcomplex	Apcomplex.toRadix(int radix)	Convert this apcomplex to the specified radix.
Apfloat	Apfloat.toRadix(int radix)	Convert this apfloat to the specified radix.
Apint	Apint.toRadix(int radix)	Convert this apint to the specified radix.
Aprational	Aprational.toRadix(int radix)	Convert this aprational to the specified radix.
String	Apcomplex.toString(boolean pretty)	Returns a string representation of this apcomplex.
String	Apfloat.toString(boolean pretty)	Returns a string representation of this apfloat.
String	Apint.toString(boolean pretty)	Returns a string representation of this aprational.
String	Aprational.toString(boolean pretty)	Returns a string representation of this aprational.
Apint	Apfloat.truncate()	Truncates fractional part.
static Apint	ApfloatMath.truncate(Apfloat x)	Truncates fractional part.
Apint	Aprational.truncate()	Truncates fractional part.
Apfloat	FixedPrecisionApfloatHelper.truncate(Apfloat x)	Truncate fractional part.
Apfloat	FixedPrecisionApcomplexHelper.ulp(Apcomplex z)	Unit in the last place.
Apfloat	FixedPrecisionApfloatHelper.ulp(Apfloat x)	Unit in the last place.
Apcomplex	FixedPrecisionApcomplexHelper.valueOf(Apcomplex z)	Returns the value with the specified precision.
static Apcomplex	ApcomplexMath.w(Apcomplex z)	Lambert W function.
static Apcomplex	ApcomplexMath.w(Apcomplex z, long k)	Lambert W function for the specified branch.
static Apfloat	ApfloatMath.w(Apfloat x)	Lambert W function.
Apcomplex	FixedPrecisionApcomplexHelper.w(Apcomplex z)	Lambert W function.
Apcomplex	FixedPrecisionApcomplexHelper.w(Apcomplex z, long k)	Lambert W function for the specified branch.
Apfloat	FixedPrecisionApfloatHelper.w(Apfloat x)	Lambert W function.
void	Apcomplex.writeTo(Writer out)	Write a string representation of this apcomplex to a Writer.
void	Apcomplex.writeTo(Writer out, boolean pretty)	Write a string representation of this apcomplex to a Writer.
void	Apfloat.writeTo(Writer out, boolean pretty)	Write a string representation of this apfloat to a Writer.
void	Apint.writeTo(Writer out, boolean pretty)	Write a string representation of this aprational to a Writer.
void	Aprational.writeTo(Writer out)	Write a string representation of this aprational to a Writer.
void	Aprational.writeTo(Writer out, boolean pretty)	Write a string representation of this aprational to a Writer.
static Apcomplex	ApcomplexMath.zeta(Apcomplex s)	Riemann zeta function.
static Apcomplex	ApcomplexMath.zeta(Apcomplex s, Apcomplex a)	Hurwitz zeta function.
static Apfloat	ApfloatMath.zeta(Apfloat s)	Riemann zeta function.
static Apfloat	ApfloatMath.zeta(Apfloat s, Apfloat a)	Hurwitz zeta function.
Apcomplex	FixedPrecisionApcomplexHelper.zeta(Apcomplex s)	Riemann zeta function.
Apcomplex	FixedPrecisionApcomplexHelper.zeta(Apcomplex s, Apcomplex a)	Hurwitz zeta function.
Apfloat	FixedPrecisionApfloatHelper.zeta(Apfloat s)	Riemann zeta function.
Apfloat	FixedPrecisionApfloatHelper.zeta(Apfloat s, Apfloat a)	Hurwitz zeta function.

Constructors in org.apfloat that throw ApfloatRuntimeException

Modifier	Constructor	Description
	Apcomplex(PushbackReader in)	Reads an apcomplex from a reader.
	Apcomplex(String value)	Constructs an apcomplex from a string.
	Apfloat(double value)	Constructs an apfloat from the specified double.
	Apfloat(double value, long precision)	Constructs an apfloat from the specified double and precision.
	Apfloat(double value, long precision, int radix)	Constructs an apfloat from the specified double, precision and radix.
	Apfloat(float value)	Constructs an apfloat from the specified float.
	Apfloat(float value, long precision)	Constructs an apfloat from the specified float and precision.
	Apfloat(float value, long precision, int radix)	Constructs an apfloat from the specified float, precision and radix.
	Apfloat(long value)	Constructs an apfloat from the specified long.
	Apfloat(long value, long precision)	Constructs an apfloat from the specified long and precision.
	Apfloat(long value, long precision, int radix)	Constructs an apfloat from the specified long, precision and radix.
	Apfloat(PushbackReader in)	Reads an apfloat from a stream using default precision and radix.
	Apfloat(PushbackReader in, long precision)	Reads an apfloat from a stream using the specified precision.
	Apfloat(PushbackReader in, long precision, int radix)	Reads an apfloat from a stream using the specified precision and radix.
	Apfloat(String value)	Constructs an apfloat from the specified string.
	Apfloat(String value, long precision)	Constructs an apfloat from the specified string and precision.
	Apfloat(String value, long precision, int radix)	Constructs an apfloat from the specified string, precision and radix.
	Apfloat(BigDecimal value)	Creates an apfloat from a BigDecimal.
	Apfloat(BigDecimal value, long precision)	Creates an apfloat from a BigDecimal.
	Apfloat(BigInteger value)	Constructs an apfloat from a BigInteger.
	Apfloat(BigInteger value, long precision)	Constructs an apfloat from a BigInteger with the specified precision.
	Apfloat(BigInteger value, long precision, int radix)	Constructs an apfloat from a BigInteger with the specified precision and radix.
	Apint(long value)	Constructs an apfloat from the specified long.
	Apint(long value, int radix)	Constructs an apfloat from the specified long and radix.
	Apint(PushbackReader in)	Reads an apint from a stream using the default radix.
	Apint(PushbackReader in, int radix)	Reads an apint from a stream using the specified radix.
	Apint(String value)	Constructs an apfloat from the specified string.
	Apint(String value, int radix)	Constructs an apfloat from the specified string and radix.
	Apint(BigInteger value)	Constructs an apint from a BigInteger.
	Apint(BigInteger value, int radix)	Constructs an apint from a BigInteger using the specified radix.
	Aprational(double value)	Constructs an aprational from a double.
	Aprational(double value, int radix)	Constructs an aprational from a double using the specified radix.
	Aprational(PushbackReader in)	Reads an aprational from a reader.
	Aprational(PushbackReader in, int radix)	Reads an aprational from a reader.
	Aprational(String value)	Constructs an aprational from a string.
	Aprational(String value, int radix)	Constructs an aprational from a string with the specified radix.
	Aprational(BigInteger value)	Constructs an aprational from a BigInteger.
	Aprational(BigInteger value, int radix)	Constructs an aprational from a BigInteger using the specified radix.
	Aprational(Apint value)	Construct an integer aprational whose denominator is one.
	Aprational(Apint numerator, Apint denominator)	Construct an aprational with the specified numerator and denominator.

Uses of ApfloatRuntimeException in org.apfloat.aparapi

Methods in org.apfloat.aparapi that throw ApfloatRuntimeException

Modifier and Type	Method	Description
void	IntAparapiFactor3NTTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	LongAparapiFactor3NTTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	IntAparapiNTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)
void	LongAparapiNTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)
void	IntAparapiMatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)
void	LongAparapiMatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)
void	IntAparapiMatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)
void	LongAparapiMatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)
void	IntAparapiFactor3NTTStrategy.transform(DataStorage dataStorage, int modulus)
void	LongAparapiFactor3NTTStrategy.transform(DataStorage dataStorage, int modulus)
void	IntAparapiFactor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)
void	LongAparapiFactor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)
void	IntAparapiNTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Transform the columns of the data matrix.
void	LongAparapiNTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Transform the columns of the data matrix.
void	IntAparapiMatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)
void	LongAparapiMatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)
void	IntAparapiMatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)
void	LongAparapiMatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)

Uses of ApfloatRuntimeException in org.apfloat.internal

Subclasses of ApfloatRuntimeException in org.apfloat.internal

Modifier and Type	Class	Description
class	ApfloatInternalException	Exception indicating some unexpected apfloat implementation specific error situation.
class	BackingStorageException	Exception indicating a backing storage failure.
class	ImplementationMismatchException	Exception indicating a different implementation of the apfloat SPI being used in two operands of a calculation.
class	RadixMismatchException	Exception indicating a different radix being used in two operands of a calculation.
class	TransformLengthExceededException	Exception indicating that the "size" of the numbers used in a multiplication is too large.

Methods in org.apfloat.internal that throw ApfloatRuntimeException

Modifier and Type	Method	Description
ApfloatImpl	DoubleApfloatImpl.absCeil()
ApfloatImpl	FloatApfloatImpl.absCeil()
ApfloatImpl	IntApfloatImpl.absCeil()
ApfloatImpl	LongApfloatImpl.absCeil()
ApfloatImpl	DoubleApfloatImpl.absFloor()
ApfloatImpl	FloatApfloatImpl.absFloor()
ApfloatImpl	IntApfloatImpl.absFloor()
ApfloatImpl	LongApfloatImpl.absFloor()
Double	DoubleAdditionStrategy.add(DataStorage.Iterator src1, DataStorage.Iterator src2, Double carry, DataStorage.Iterator dst, long size)
Float	FloatAdditionStrategy.add(DataStorage.Iterator src1, DataStorage.Iterator src2, Float carry, DataStorage.Iterator dst, long size)
Integer	IntAdditionStrategy.add(DataStorage.Iterator src1, DataStorage.Iterator src2, Integer carry, DataStorage.Iterator dst, long size)
Long	LongAdditionStrategy.add(DataStorage.Iterator src1, DataStorage.Iterator src2, Long carry, DataStorage.Iterator dst, long size)
ApfloatImpl	DoubleApfloatImpl.addOrSubtract(ApfloatImpl x, boolean subtract)
ApfloatImpl	FloatApfloatImpl.addOrSubtract(ApfloatImpl x, boolean subtract)
ApfloatImpl	IntApfloatImpl.addOrSubtract(ApfloatImpl x, boolean subtract)
ApfloatImpl	LongApfloatImpl.addOrSubtract(ApfloatImpl x, boolean subtract)
protected DataStorage	ThreeNTTConvolutionStrategy.autoConvolute(DataStorage x, long resultSize)	Convolutes a data set with itself.
protected DataStorage	ThreeNTTConvolutionStrategy.autoConvoluteOne(DataStorage x, long length, int modulus, boolean cached)	Performs an autoconvolution modulo one modulus, of the specified transform length.
double	DoubleBaseMath.baseAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, double carry, DataStorage.Iterator dst, long size)	Addition in some base.
float	FloatBaseMath.baseAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, float carry, DataStorage.Iterator dst, long size)	Addition in some base.
int	IntBaseMath.baseAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, int carry, DataStorage.Iterator dst, long size)	Addition in some base.
long	LongBaseMath.baseAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, long carry, DataStorage.Iterator dst, long size)	Addition in some base.
double	DoubleBaseMath.baseDivide(DataStorage.Iterator src1, double src2, double carry, DataStorage.Iterator dst, long size)	Division in some base.
float	FloatBaseMath.baseDivide(DataStorage.Iterator src1, float src2, float carry, DataStorage.Iterator dst, long size)	Division in some base.
int	IntBaseMath.baseDivide(DataStorage.Iterator src1, int src2, int carry, DataStorage.Iterator dst, long size)	Division in some base.
long	LongBaseMath.baseDivide(DataStorage.Iterator src1, long src2, long carry, DataStorage.Iterator dst, long size)	Division in some base.
double	DoubleBaseMath.baseMultiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, double src3, double carry, DataStorage.Iterator dst, long size)	Multiplication and addition in some base.
float	FloatBaseMath.baseMultiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, float src3, float carry, DataStorage.Iterator dst, long size)	Multiplication and addition in some base.
int	IntBaseMath.baseMultiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, int src3, int carry, DataStorage.Iterator dst, long size)	Multiplication and addition in some base.
long	LongBaseMath.baseMultiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, long src3, long carry, DataStorage.Iterator dst, long size)	Multiplication and addition in some base.
double	DoubleBaseMath.baseSubtract(DataStorage.Iterator src1, DataStorage.Iterator src2, double carry, DataStorage.Iterator dst, long size)	Subtraction in some base.
float	FloatBaseMath.baseSubtract(DataStorage.Iterator src1, DataStorage.Iterator src2, float carry, DataStorage.Iterator dst, long size)	Subtraction in some base.
int	IntBaseMath.baseSubtract(DataStorage.Iterator src1, DataStorage.Iterator src2, int carry, DataStorage.Iterator dst, long size)	Subtraction in some base.
long	LongBaseMath.baseSubtract(DataStorage.Iterator src1, DataStorage.Iterator src2, long carry, DataStorage.Iterator dst, long size)	Subtraction in some base.
double[]	DoubleCarryCRTStepStrategy.carry(DataStorage dataStorage, long size, long resultSize, long offset, long length, double[] results, double[] previousResults)
float[]	FloatCarryCRTStepStrategy.carry(DataStorage dataStorage, long size, long resultSize, long offset, long length, float[] results, float[] previousResults)
int[]	IntCarryCRTStepStrategy.carry(DataStorage dataStorage, long size, long resultSize, long offset, long length, int[] results, int[] previousResults)
long[]	LongCarryCRTStepStrategy.carry(DataStorage dataStorage, long size, long resultSize, long offset, long length, long[] results, long[] previousResults)
DataStorage	StepCarryCRTStrategy.carryCRT(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, long resultSize)	Calculate the final result of a three-NTT convolution.
void	DoubleMemoryArrayAccess.close()
void	FloatMemoryArrayAccess.close()
void	IntMemoryArrayAccess.close()
void	LongMemoryArrayAccess.close()
int	DoubleApfloatImpl.compareTo(ApfloatImpl x)
int	FloatApfloatImpl.compareTo(ApfloatImpl x)
int	IntApfloatImpl.compareTo(ApfloatImpl x)
int	LongApfloatImpl.compareTo(ApfloatImpl x)
DataStorage	DoubleKaratsubaConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	DoubleMediumConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	DoubleShortConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	FloatKaratsubaConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	FloatMediumConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	FloatShortConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	IntKaratsubaConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	IntMediumConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	IntShortConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	LongKaratsubaConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	LongMediumConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	LongShortConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
DataStorage	ThreeNTTConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)
protected DataStorage	ThreeNTTConvolutionStrategy.convoluteOne(DataStorage x, DataStorage y, long length, int modulus, boolean cached)	Performs a convolution modulo one modulus, of the specified transform length.
ApfloatImpl	DoubleApfloatBuilder.createApfloat(double value, long precision, int radix)
ApfloatImpl	DoubleApfloatBuilder.createApfloat(long value, long precision, int radix)
ApfloatImpl	DoubleApfloatBuilder.createApfloat(PushbackReader in, long precision, int radix, boolean isInteger)
ApfloatImpl	DoubleApfloatBuilder.createApfloat(String value, long precision, int radix, boolean isInteger)
ApfloatImpl	FloatApfloatBuilder.createApfloat(double value, long precision, int radix)
ApfloatImpl	FloatApfloatBuilder.createApfloat(long value, long precision, int radix)
ApfloatImpl	FloatApfloatBuilder.createApfloat(PushbackReader in, long precision, int radix, boolean isInteger)
ApfloatImpl	FloatApfloatBuilder.createApfloat(String value, long precision, int radix, boolean isInteger)
ApfloatImpl	IntApfloatBuilder.createApfloat(double value, long precision, int radix)
ApfloatImpl	IntApfloatBuilder.createApfloat(long value, long precision, int radix)
ApfloatImpl	IntApfloatBuilder.createApfloat(PushbackReader in, long precision, int radix, boolean isInteger)
ApfloatImpl	IntApfloatBuilder.createApfloat(String value, long precision, int radix, boolean isInteger)
ApfloatImpl	LongApfloatBuilder.createApfloat(double value, long precision, int radix)
ApfloatImpl	LongApfloatBuilder.createApfloat(long value, long precision, int radix)
ApfloatImpl	LongApfloatBuilder.createApfloat(PushbackReader in, long precision, int radix, boolean isInteger)
ApfloatImpl	LongApfloatBuilder.createApfloat(String value, long precision, int radix, boolean isInteger)
protected abstract DataStorage	AbstractDataStorageBuilder.createCachedDataStorage()	Create a cached data storage.
DataStorage	AbstractDataStorageBuilder.createCachedDataStorage(long size)
protected DataStorage	DoubleDataStorageBuilder.createCachedDataStorage()
protected DataStorage	FloatDataStorageBuilder.createCachedDataStorage()
protected DataStorage	IntDataStorageBuilder.createCachedDataStorage()
protected DataStorage	LongDataStorageBuilder.createCachedDataStorage()
protected DataStorage	ThreeNTTConvolutionStrategy.createCachedDataStorage(long size)	Create a cached (if possible) data storage for the specified number of elements.
DataStorage	AbstractDataStorageBuilder.createDataStorage(long size)
DataStorage	AbstractDataStorageBuilder.createDataStorage(DataStorage dataStorage)
protected DataStorage	ThreeNTTConvolutionStrategy.createDataStorage(DataStorage dataStorage)	Create a cached data storage from the (possibly) cached data storage.
protected ParallelRunnable	DoubleNTTStepStrategy.createMultiplyElementsParallelRunnable(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)	Create a ParallelRunnable object for multiplying the elements of the matrix.
protected ParallelRunnable	FloatNTTStepStrategy.createMultiplyElementsParallelRunnable(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)	Create a ParallelRunnable object for multiplying the elements of the matrix.
protected ParallelRunnable	IntNTTStepStrategy.createMultiplyElementsParallelRunnable(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)	Create a ParallelRunnable object for multiplying the elements of the matrix.
protected ParallelRunnable	LongNTTStepStrategy.createMultiplyElementsParallelRunnable(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)	Create a ParallelRunnable object for multiplying the elements of the matrix.
protected abstract DataStorage	AbstractDataStorageBuilder.createNonCachedDataStorage()	Create a non-cached data storage.
protected DataStorage	DoubleDataStorageBuilder.createNonCachedDataStorage()
protected DataStorage	FloatDataStorageBuilder.createNonCachedDataStorage()
protected DataStorage	IntDataStorageBuilder.createNonCachedDataStorage()
protected DataStorage	LongDataStorageBuilder.createNonCachedDataStorage()
protected ParallelRunnable	DoubleNTTStepStrategy.createTransformRowsParallelRunnable(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Create a ParallelRunnable object for transforming the rows of the matrix.
protected ParallelRunnable	FloatNTTStepStrategy.createTransformRowsParallelRunnable(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Create a ParallelRunnable object for transforming the rows of the matrix.
protected ParallelRunnable	IntNTTStepStrategy.createTransformRowsParallelRunnable(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Create a ParallelRunnable object for transforming the rows of the matrix.
protected ParallelRunnable	LongNTTStepStrategy.createTransformRowsParallelRunnable(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Create a ParallelRunnable object for transforming the rows of the matrix.
double[]	DoubleCarryCRTStepStrategy.crt(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, DataStorage dataStorage, long size, long resultSize, long offset, long length)
float[]	FloatCarryCRTStepStrategy.crt(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, DataStorage dataStorage, long size, long resultSize, long offset, long length)
int[]	IntCarryCRTStepStrategy.crt(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, DataStorage dataStorage, long size, long resultSize, long offset, long length)
long[]	LongCarryCRTStepStrategy.crt(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, DataStorage dataStorage, long size, long resultSize, long offset, long length)
Double	DoubleAdditionStrategy.divide(DataStorage.Iterator src1, Double src2, Double carry, DataStorage.Iterator dst, long size)
Float	FloatAdditionStrategy.divide(DataStorage.Iterator src1, Float src2, Float carry, DataStorage.Iterator dst, long size)
Integer	IntAdditionStrategy.divide(DataStorage.Iterator src1, Integer src2, Integer carry, DataStorage.Iterator dst, long size)
Long	LongAdditionStrategy.divide(DataStorage.Iterator src1, Long src2, Long carry, DataStorage.Iterator dst, long size)
ApfloatImpl	DoubleApfloatImpl.divideShort(ApfloatImpl x)
ApfloatImpl	FloatApfloatImpl.divideShort(ApfloatImpl x)
ApfloatImpl	IntApfloatImpl.divideShort(ApfloatImpl x)
ApfloatImpl	LongApfloatImpl.divideShort(ApfloatImpl x)
long	DoubleApfloatImpl.equalDigits(ApfloatImpl x)
long	FloatApfloatImpl.equalDigits(ApfloatImpl x)
long	IntApfloatImpl.equalDigits(ApfloatImpl x)
long	LongApfloatImpl.equalDigits(ApfloatImpl x)
ApfloatImpl	DoubleApfloatImpl.frac()
ApfloatImpl	FloatApfloatImpl.frac()
ApfloatImpl	IntApfloatImpl.frac()
ApfloatImpl	LongApfloatImpl.frac()
void	DoubleBuilderFactory.gc()
void	FloatBuilderFactory.gc()
void	IntBuilderFactory.gc()
void	LongBuilderFactory.gc()
protected void	DiskDataStorage.implCopyFrom(DataStorage dataStorage, long size)
protected void	DoubleMemoryDataStorage.implCopyFrom(DataStorage dataStorage, long size)
protected void	FloatMemoryDataStorage.implCopyFrom(DataStorage dataStorage, long size)
protected void	IntMemoryDataStorage.implCopyFrom(DataStorage dataStorage, long size)
protected void	LongMemoryDataStorage.implCopyFrom(DataStorage dataStorage, long size)
protected ArrayAccess	DiskDataStorage.implGetArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	DoubleDiskDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	DoubleMemoryDataStorage.implGetArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	DoubleMemoryDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	FloatDiskDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	FloatMemoryDataStorage.implGetArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	FloatMemoryDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	IntDiskDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	IntMemoryDataStorage.implGetArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	IntMemoryDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	LongDiskDataStorage.implGetArray(int mode, long offset, int length)
protected ArrayAccess	LongMemoryDataStorage.implGetArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	LongMemoryDataStorage.implGetArray(int mode, long offset, int length)
protected long	DiskDataStorage.implGetSize()
protected ArrayAccess	DiskDataStorage.implGetTransposedArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	DoubleMemoryDataStorage.implGetTransposedArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	FloatMemoryDataStorage.implGetTransposedArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	IntMemoryDataStorage.implGetTransposedArray(int mode, int startColumn, int columns, int rows)
protected ArrayAccess	LongMemoryDataStorage.implGetTransposedArray(int mode, int startColumn, int columns, int rows)
protected void	DiskDataStorage.implSetSize(long size)
protected void	DoubleMemoryDataStorage.implSetSize(long size)
protected void	FloatMemoryDataStorage.implSetSize(long size)
protected void	IntMemoryDataStorage.implSetSize(long size)
protected void	LongMemoryDataStorage.implSetSize(long size)
protected DataStorage	DoubleDiskDataStorage.implSubsequence(long offset, long length)
protected DataStorage	DoubleMemoryDataStorage.implSubsequence(long offset, long length)
protected DataStorage	FloatDiskDataStorage.implSubsequence(long offset, long length)
protected DataStorage	FloatMemoryDataStorage.implSubsequence(long offset, long length)
protected DataStorage	IntDiskDataStorage.implSubsequence(long offset, long length)
protected DataStorage	IntMemoryDataStorage.implSubsequence(long offset, long length)
protected DataStorage	LongDiskDataStorage.implSubsequence(long offset, long length)
protected DataStorage	LongMemoryDataStorage.implSubsequence(long offset, long length)
void	DoubleTableFNT.inverseTableFNT(ArrayAccess arrayAccess, double[] wTable, int[] permutationTable)	Inverse (Cooley-Tukey) fast Number Theoretic Transform.
void	FloatTableFNT.inverseTableFNT(ArrayAccess arrayAccess, float[] wTable, int[] permutationTable)	Inverse (Cooley-Tukey) fast Number Theoretic Transform.
void	IntTableFNT.inverseTableFNT(ArrayAccess arrayAccess, int[] wTable, int[] permutationTable)	Inverse (Cooley-Tukey) fast Number Theoretic Transform.
void	LongTableFNT.inverseTableFNT(ArrayAccess arrayAccess, long[] wTable, int[] permutationTable)	Inverse (Cooley-Tukey) fast Number Theoretic Transform.
protected abstract void	AbstractStepFNTStrategy.inverseTransform(DataStorage dataStorage, int n1, int n2, long length, long totalTransformLength, int modulus)	Inverse transform the data in steps.
void	AbstractStepFNTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	DoubleTableFNTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	Factor3NTTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	FloatTableFNTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	IntTableFNTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
void	LongTableFNTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)
protected void	SixStepFNTStrategy.inverseTransform(DataStorage dataStorage, int n1, int n2, long length, long totalTransformLength, int modulus)
protected void	TwoPassFNTStrategy.inverseTransform(DataStorage dataStorage, int n1, int n2, long length, long totalTransformLength, int modulus)
protected abstract boolean	AbstractDataStorageBuilder.isCached(DataStorage dataStorage)	Test if the data storage is of cached type.
protected boolean	DoubleDataStorageBuilder.isCached(DataStorage dataStorage)
protected boolean	FloatDataStorageBuilder.isCached(DataStorage dataStorage)
protected boolean	IntDataStorageBuilder.isCached(DataStorage dataStorage)
protected boolean	LongDataStorageBuilder.isCached(DataStorage dataStorage)
boolean	DoubleApfloatImpl.isOne()
boolean	FloatApfloatImpl.isOne()
boolean	IntApfloatImpl.isOne()
boolean	LongApfloatImpl.isOne()
boolean	DoubleApfloatImpl.isShort()
boolean	FloatApfloatImpl.isShort()
boolean	IntApfloatImpl.isShort()
boolean	LongApfloatImpl.isShort()
DataStorage.Iterator	DoubleDiskDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	DoubleMemoryDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	FloatDiskDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	FloatMemoryDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	IntDiskDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	IntMemoryDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	LongDiskDataStorage.iterator(int mode, long startPosition, long endPosition)
DataStorage.Iterator	LongMemoryDataStorage.iterator(int mode, long startPosition, long endPosition)
ApfloatImpl	DoubleApfloatImpl.multiply(ApfloatImpl x)
ApfloatImpl	FloatApfloatImpl.multiply(ApfloatImpl x)
ApfloatImpl	IntApfloatImpl.multiply(ApfloatImpl x)
ApfloatImpl	LongApfloatImpl.multiply(ApfloatImpl x)
Double	DoubleAdditionStrategy.multiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, Double src3, Double carry, DataStorage.Iterator dst, long size)
Float	FloatAdditionStrategy.multiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, Float src3, Float carry, DataStorage.Iterator dst, long size)
Integer	IntAdditionStrategy.multiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, Integer src3, Integer carry, DataStorage.Iterator dst, long size)
Long	LongAdditionStrategy.multiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, Long src3, Long carry, DataStorage.Iterator dst, long size)
void	DoubleNTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)
void	FloatNTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)
void	IntNTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)
void	LongNTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)
void	DoubleNTTConvolutionStepStrategy.multiplyInPlace(DataStorage sourceAndDestination, DataStorage source, int modulus)
void	FloatNTTConvolutionStepStrategy.multiplyInPlace(DataStorage sourceAndDestination, DataStorage source, int modulus)
void	IntNTTConvolutionStepStrategy.multiplyInPlace(DataStorage sourceAndDestination, DataStorage source, int modulus)
void	LongNTTConvolutionStepStrategy.multiplyInPlace(DataStorage sourceAndDestination, DataStorage source, int modulus)
ApfloatImpl	DoubleApfloatImpl.negate()
ApfloatImpl	FloatApfloatImpl.negate()
ApfloatImpl	IntApfloatImpl.negate()
ApfloatImpl	LongApfloatImpl.negate()
void	DoubleMatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a n1/2 x 2*n2 matrix.
void	FloatMatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a n1/2 x 2*n2 matrix.
void	IntMatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a n1/2 x 2*n2 matrix.
void	LongMatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a n1/2 x 2*n2 matrix.
void	DoubleMatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a 2*n1 x n2/2 matrix.
void	FloatMatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a 2*n1 x n2/2 matrix.
void	IntMatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a 2*n1 x n2/2 matrix.
void	LongMatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a 2*n1 x n2/2 matrix.
V	MessagePasser.receiveMessage(K receiver)	Receive a message.
static void	ParallelRunner.runParallel(ParallelRunnable parallelRunnable)	Run a ParallelRunnable object in parallel using multiple threads.
long	DoubleApfloatImpl.scale()
long	FloatApfloatImpl.scale()
long	IntApfloatImpl.scale()
long	LongApfloatImpl.scale()
protected void	DiskDataStorage.setArray(ArrayAccess arrayAccess, int startColumn, int columns, int rows)	Write the data back to the same location in the file that was retrieved with DiskDataStorage.implGetArray(int,int,int,int).
protected void	DiskDataStorage.setTransposedArray(ArrayAccess arrayAccess, int startColumn, int columns, int rows)	Write the data back to the same location in the file that was retrieved with DiskDataStorage.implGetTransposedArray(int,int,int,int).
void	DoubleBuilderFactory.shutdown()
void	FloatBuilderFactory.shutdown()
void	IntBuilderFactory.shutdown()
void	LongBuilderFactory.shutdown()
long	DoubleApfloatImpl.size()
long	FloatApfloatImpl.size()
long	IntApfloatImpl.size()
long	LongApfloatImpl.size()
void	DoubleNTTConvolutionStepStrategy.squareInPlace(DataStorage sourceAndDestination, int modulus)
void	FloatNTTConvolutionStepStrategy.squareInPlace(DataStorage sourceAndDestination, int modulus)
void	IntNTTConvolutionStepStrategy.squareInPlace(DataStorage sourceAndDestination, int modulus)
void	LongNTTConvolutionStepStrategy.squareInPlace(DataStorage sourceAndDestination, int modulus)
Double	DoubleAdditionStrategy.subtract(DataStorage.Iterator src1, DataStorage.Iterator src2, Double carry, DataStorage.Iterator dst, long size)
Float	FloatAdditionStrategy.subtract(DataStorage.Iterator src1, DataStorage.Iterator src2, Float carry, DataStorage.Iterator dst, long size)
Integer	IntAdditionStrategy.subtract(DataStorage.Iterator src1, DataStorage.Iterator src2, Integer carry, DataStorage.Iterator dst, long size)
Long	LongAdditionStrategy.subtract(DataStorage.Iterator src1, DataStorage.Iterator src2, Long carry, DataStorage.Iterator dst, long size)
void	DoubleTableFNT.tableFNT(ArrayAccess arrayAccess, double[] wTable, int[] permutationTable)	Forward (Sande-Tukey) fast Number Theoretic Transform.
void	FloatTableFNT.tableFNT(ArrayAccess arrayAccess, float[] wTable, int[] permutationTable)	Forward (Sande-Tukey) fast Number Theoretic Transform.
void	IntTableFNT.tableFNT(ArrayAccess arrayAccess, int[] wTable, int[] permutationTable)	Forward (Sande-Tukey) fast Number Theoretic Transform.
void	LongTableFNT.tableFNT(ArrayAccess arrayAccess, long[] wTable, int[] permutationTable)	Forward (Sande-Tukey) fast Number Theoretic Transform.
String	DoubleApfloatImpl.toString(boolean pretty)
String	FloatApfloatImpl.toString(boolean pretty)
String	IntApfloatImpl.toString(boolean pretty)
String	LongApfloatImpl.toString(boolean pretty)
protected void	DiskDataStorage.transferFrom(ReadableByteChannel in, long position, long size)	Transfer from a readable channel, possibly in multiple chunks.
protected void	DiskDataStorage.transferTo(WritableByteChannel out, long position, long size)	Transfer to a writable channel, possibly in multiple chunks.
void	AbstractStepFNTStrategy.transform(DataStorage dataStorage, int modulus)
protected abstract void	AbstractStepFNTStrategy.transform(DataStorage dataStorage, int n1, int n2, long length, int modulus)	Transform the data in steps.
void	DoubleTableFNTStrategy.transform(DataStorage dataStorage, int modulus)
void	Factor3NTTStrategy.transform(DataStorage dataStorage, int modulus)
void	FloatTableFNTStrategy.transform(DataStorage dataStorage, int modulus)
void	IntTableFNTStrategy.transform(DataStorage dataStorage, int modulus)
void	LongTableFNTStrategy.transform(DataStorage dataStorage, int modulus)
protected void	SixStepFNTStrategy.transform(DataStorage dataStorage, int n1, int n2, long length, int modulus)
protected void	TwoPassFNTStrategy.transform(DataStorage dataStorage, int n1, int n2, long length, int modulus)
void	DoubleFactor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)
void	FloatFactor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)
void	IntFactor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)
void	LongFactor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)
void	DoubleNTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)
void	FloatNTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)
void	IntNTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)
void	LongNTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)
void	DoubleMatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)	Transpose a n1 x n2 matrix.
void	FloatMatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)	Transpose a n1 x n2 matrix.
void	IntMatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)	Transpose a n1 x n2 matrix.
void	LongMatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)	Transpose a n1 x n2 matrix.
void	DoubleMatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)	Transpose a square n1 x n1 block of n1 x n2 matrix.
void	FloatMatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)	Transpose a square n1 x n1 block of n1 x n2 matrix.
void	IntMatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)	Transpose a square n1 x n1 block of n1 x n2 matrix.
void	LongMatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)	Transpose a square n1 x n1 block of n1 x n2 matrix.
void	DoubleApfloatImpl.writeTo(Writer out, boolean pretty)
void	FloatApfloatImpl.writeTo(Writer out, boolean pretty)
void	IntApfloatImpl.writeTo(Writer out, boolean pretty)
void	LongApfloatImpl.writeTo(Writer out, boolean pretty)

Constructors in org.apfloat.internal that throw ApfloatRuntimeException

Modifier	Constructor	Description
protected	DiskDataStorage()	Default constructor.
	DoubleApfloatImpl(double value, long precision, int radix)	Create a new DoubleApfloatImpl instance from a double.
	DoubleApfloatImpl(long value, long precision, int radix)	Create a new DoubleApfloatImpl instance from a long.
	DoubleApfloatImpl(PushbackReader in, long precision, int radix, boolean isInteger)	Create a new DoubleApfloatImpl instance reading from a stream.
	DoubleApfloatImpl(String value, long precision, int radix, boolean isInteger)	Create a new DoubleApfloatImpl instance from a String.
	DoubleDiskDataStorage()	Default constructor.
	FloatApfloatImpl(double value, long precision, int radix)	Create a new FloatApfloatImpl instance from a double.
	FloatApfloatImpl(long value, long precision, int radix)	Create a new FloatApfloatImpl instance from a long.
	FloatApfloatImpl(PushbackReader in, long precision, int radix, boolean isInteger)	Create a new FloatApfloatImpl instance reading from a stream.
	FloatApfloatImpl(String value, long precision, int radix, boolean isInteger)	Create a new FloatApfloatImpl instance from a String.
	FloatDiskDataStorage()	Default constructor.
	IntApfloatImpl(double value, long precision, int radix)	Create a new IntApfloatImpl instance from a double.
	IntApfloatImpl(long value, long precision, int radix)	Create a new IntApfloatImpl instance from a long.
	IntApfloatImpl(PushbackReader in, long precision, int radix, boolean isInteger)	Create a new IntApfloatImpl instance reading from a stream.
	IntApfloatImpl(String value, long precision, int radix, boolean isInteger)	Create a new IntApfloatImpl instance from a String.
	IntDiskDataStorage()	Default constructor.
	LongApfloatImpl(double value, long precision, int radix)	Create a new LongApfloatImpl instance from a double.
	LongApfloatImpl(long value, long precision, int radix)	Create a new LongApfloatImpl instance from a long.
	LongApfloatImpl(PushbackReader in, long precision, int radix, boolean isInteger)	Create a new LongApfloatImpl instance reading from a stream.
	LongApfloatImpl(String value, long precision, int radix, boolean isInteger)	Create a new LongApfloatImpl instance from a String.
	LongDiskDataStorage()	Default constructor.

Uses of ApfloatRuntimeException in org.apfloat.samples

Methods in org.apfloat.samples that throw ApfloatRuntimeException

Modifier and Type	Method	Description
Apfloat	Pi.BinarySplittingSeries.a(long n)	Binary splitting term.
Apfloat	Pi.ChudnovskyBinarySplittingSeries.a(long n)
Apfloat	Pi.RamanujanBinarySplittingSeries.a(long n)
protected Operation<Apfloat>	PiAWT.getOperation(long precision, int radix)	Get the calculation operation to execute.
protected Operation<Apfloat>	PiParallelAWT.getOperation(long precision, int radix)
static void	Pi.main(String[] args)	Command-line entry point.
static void	PiDistributed.main(String[] args)	Command-line entry point.
static void	PiParallel.main(String[] args)	Command-line entry point.
Apfloat	Pi.BinarySplittingSeries.p(long n)	Binary splitting term.
Apfloat	Pi.ChudnovskyBinarySplittingSeries.p(long n)
Apfloat	Pi.RamanujanBinarySplittingSeries.p(long n)
Apfloat	Pi.BinarySplittingSeries.q(long n)	Binary splitting term.
Apfloat	Pi.ChudnovskyBinarySplittingSeries.q(long n)
Apfloat	Pi.RamanujanBinarySplittingSeries.q(long n)
void	Pi.BinarySplittingPiCalculator.r(long n1, long n2, ApfloatHolder T, ApfloatHolder Q, ApfloatHolder P, Pi.BinarySplittingProgressIndicator progressIndicator)	Entry point for the binary splitting algorithm.
void	PiDistributed.DistributedBinarySplittingPiCalculator.r(long n1, long n2, ApfloatHolder T, ApfloatHolder Q, ApfloatHolder P, ApfloatHolder F, PiDistributed.Node[] nodes)	Entry point for the distributed binary splitting algorithm.
void	PiParallel.ParallelBinarySplittingPiCalculator.r(long n1, long n2, ApfloatHolder T, ApfloatHolder Q, ApfloatHolder P, Pi.BinarySplittingProgressIndicator progressIndicator)
static void	Pi.run(long precision, int radix, Operation<Apfloat> operation)	Execute an operation and display some additional information.

Constructors in org.apfloat.samples that throw ApfloatRuntimeException

Modifier	Constructor	Description
	ChudnovskyPiCalculator(long precision, int radix)	Construct a pi calculator with the specified precision and radix.
protected	ChudnovskyPiCalculator(Pi.BinarySplittingPiCalculator calculator, long precision, int radix)	Construct a pi calculator with the specified binary splitting algorithm.
	DistributedChudnovskyPiCalculator(long precision, int radix)	Construct a pi calculator with the specified precision and radix.
	DistributedRamanujanPiCalculator(long precision, int radix)	Construct a pi calculator with the specified precision and radix.
	ParallelBinarySplittingPiCalculator(Pi.BinarySplittingSeries series)	Construct a parallel pi calculator with the specified precision and radix.
	ParallelChudnovskyPiCalculator(long precision, int radix)	Construct a pi calculator with the specified precision and radix.
protected	ParallelChudnovskyPiCalculator(Pi.BinarySplittingPiCalculator calculator, long precision, int radix)	Construct a pi calculator with the specified binary splitting algorithm.
	ParallelRamanujanPiCalculator(long precision, int radix)	Construct a pi calculator with the specified precision and radix.
protected	ParallelRamanujanPiCalculator(Pi.BinarySplittingPiCalculator calculator, long precision, int radix)	Construct a pi calculator with the specified binary splitting algorithm.
	RamanujanPiCalculator(long precision, int radix)	Construct a pi calculator with the specified precision and radix.
protected	RamanujanPiCalculator(Pi.BinarySplittingPiCalculator calculator, long precision, int radix)	Construct a pi calculator with the specified binary splitting algorithm.

Uses of ApfloatRuntimeException in org.apfloat.spi

Methods in org.apfloat.spi that throw ApfloatRuntimeException

Modifier and Type	Method	Description
ApfloatImpl	ApfloatImpl.absCeil()	Returns this ApfloatImpl rounded away from zero.
ApfloatImpl	ApfloatImpl.absFloor()	Returns this ApfloatImpl rounded towards zero.
T	AdditionStrategy.add(DataStorage.Iterator src1, DataStorage.Iterator src2, T carry, DataStorage.Iterator dst, long size)	Addition in some base.
ApfloatImpl	ApfloatImpl.addOrSubtract(ApfloatImpl x, boolean subtract)	Add or subtract an ApfloatImpl to this object.
T	CarryCRTStepStrategy.carry(DataStorage dataStorage, long size, long resultSize, long offset, long length, T results, T previousResults)	Propagate carries from the previous block computed with the CRT method.
DataStorage	CarryCRTStrategy.carryCRT(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, long resultSize)	Calculate the final result of a three-NTT convolution.
abstract void	ArrayAccess.close()	Close this array access and commit any changes to the underlying data storage if applicable.
void	DataStorage.Iterator.close()	Closes the iterator.
int	ApfloatImpl.compareTo(ApfloatImpl x)	Compare this ApfloatImpl and another number.
DataStorage	ConvolutionStrategy.convolute(DataStorage x, DataStorage y, long resultSize)	Convolutes the two sets of data.
final void	DataStorage.copyFrom(DataStorage dataStorage)	Copies all data from another data storage to this data storage.
final void	DataStorage.copyFrom(DataStorage dataStorage, long size)	Copies the specified number of elements from another data storage to this data storage.
ApfloatImpl	ApfloatBuilder.createApfloat(double value, long precision, int radix)	Create a new ApfloatImpl instance from a double.
ApfloatImpl	ApfloatBuilder.createApfloat(long value, long precision, int radix)	Create a new ApfloatImpl instance from a long.
ApfloatImpl	ApfloatBuilder.createApfloat(PushbackReader in, long precision, int radix, boolean isInteger)	Create a new ApfloatImpl instance reading from a stream.
ApfloatImpl	ApfloatBuilder.createApfloat(String value, long precision, int radix, boolean isInteger)	Create a new ApfloatImpl instance from a String.
DataStorage	DataStorageBuilder.createCachedDataStorage(long size)	Get a data storage that is cached in memory, if possible, for the requested size of data.
DataStorage	DataStorageBuilder.createDataStorage(long size)	Get an appropriate type of data storage for the requested size of data.
DataStorage	DataStorageBuilder.createDataStorage(DataStorage dataStorage)	Convert cached data storage to the appropriate normal data storage type.
T	CarryCRTStepStrategy.crt(DataStorage resultMod0, DataStorage resultMod1, DataStorage resultMod2, DataStorage dataStorage, long size, long resultSize, long offset, long length)	Perform the Chinese Remainder Theorem (CRT) on each element of the three result data sets to get the result of each element modulo the product of the three moduli.
T	AdditionStrategy.divide(DataStorage.Iterator src1, T src2, T carry, DataStorage.Iterator dst, long size)	Division in some base.
ApfloatImpl	ApfloatImpl.divideShort(ApfloatImpl x)	Divide this ApfloatImpl by an ApfloatImpl that is "short".
long	ApfloatImpl.equalDigits(ApfloatImpl x)	The number of equal digits in this ApfloatImpl and another number.
ApfloatImpl	ApfloatImpl.frac()	Returns the fractional part of this ApfloatImpl.
void	BuilderFactory.gc()	Do garbage collection and related things such as empty any reference queues.
<T> T	DataStorage.Iterator.get(Class<T> type)	Gets the current element as a the specified element type.
final ArrayAccess	DataStorage.getArray(int mode, int startColumn, int columns, int rows)	Maps a block of data to a memory array when the data is treated as a matrix.
final ArrayAccess	DataStorage.getArray(int mode, long offset, int length)	Gets an array access to the data of this data storage when the data is treated as a linear block.
abstract Object	ArrayAccess.getData()	Returns the array of this array access.
double	DataStorage.AbstractIterator.getDouble()
double	DataStorage.Iterator.getDouble()	Gets the current element as a double.
double[]	ArrayAccess.getDoubleData()	Returns the array of this array access as a double[].
float	DataStorage.AbstractIterator.getFloat()
float	DataStorage.Iterator.getFloat()	Gets the current element as a float.
float[]	ArrayAccess.getFloatData()	Returns the array of this array access as a float[].
int	DataStorage.AbstractIterator.getInt()
int	DataStorage.Iterator.getInt()	Gets the current element as an int.
int[]	ArrayAccess.getIntData()	Returns the array of this array access as an int[].
long	DataStorage.AbstractIterator.getLong()
long	DataStorage.Iterator.getLong()	Gets the current element as a long.
long[]	ArrayAccess.getLongData()	Returns the array of this array access as a long[].
final long	DataStorage.getSize()	Return the size of the data storage, or the length of this sub-sequence if this data storage is a sub-sequence.
final ArrayAccess	DataStorage.getTransposedArray(int mode, int startColumn, int columns, int rows)	Maps a transposed block of data to a memory array when the data is treated as a matrix.
protected abstract void	DataStorage.implCopyFrom(DataStorage dataStorage, long size)	Copies the specified number of elements from another data storage to this data storage.
protected abstract ArrayAccess	DataStorage.implGetArray(int mode, int startColumn, int columns, int rows)	Maps a block of data to a memory array when the data is treated as a matrix.
protected abstract ArrayAccess	DataStorage.implGetArray(int mode, long offset, int length)	Gets an array access to the data of this data storage when it is treated as a linear block.
protected abstract long	DataStorage.implGetSize()	Return the size of the whole data storage, not including sub-sequence settings.
protected abstract ArrayAccess	DataStorage.implGetTransposedArray(int mode, int startColumn, int columns, int rows)	Maps a transposed block of data to a memory array when the data is treated as a matrix.
protected abstract void	DataStorage.implSetSize(long size)	Sets the size of the data storage.
protected abstract DataStorage	DataStorage.implSubsequence(long offset, long length)	Implementation of getting a subsequence of this data storage.
void	NTTStrategy.inverseTransform(DataStorage dataStorage, int modulus, long totalTransformLength)	Perform an inverse transform on the data.
boolean	ApfloatImpl.isOne()	Tests if this number is equal to 1.
boolean	ApfloatImpl.isShort()	Returns if this ApfloatImpl is "short".
abstract DataStorage.Iterator	DataStorage.iterator(int mode, long startPosition, long endPosition)	Constructs a new iterator.
ApfloatImpl	ApfloatImpl.multiply(ApfloatImpl x)	Multiply this object by an ApfloatImpl.
T	AdditionStrategy.multiplyAdd(DataStorage.Iterator src1, DataStorage.Iterator src2, T src3, T carry, DataStorage.Iterator dst, long size)	Multiplication and addition in some base.
void	NTTStepStrategy.multiplyElements(ArrayAccess arrayAccess, int startRow, int startColumn, int rows, int columns, long length, long totalTransformLength, boolean isInverse, int modulus)	Multiply each matrix element (i, j) by wi * j / totalTransformLength.
void	NTTConvolutionStepStrategy.multiplyInPlace(DataStorage sourceAndDestination, DataStorage source, int modulus)	Linear multiplication in the number theoretic domain.
ApfloatImpl	ApfloatImpl.negate()	Returns this ApfloatImpl negated.
void	DataStorage.AbstractIterator.next()	Advances the position in the stream by one element.
void	DataStorage.Iterator.next()	Advances the position in the stream by one element.
void	MatrixStrategy.permuteToDoubleWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a n1/2 x 2*n2 matrix.
void	MatrixStrategy.permuteToHalfWidth(ArrayAccess arrayAccess, int n1, int n2)	Permute the rows of the n1 x n2 matrix so that it is shaped like a 2*n1 x n2/2 matrix.
ApfloatImpl	ApfloatImpl.precision(long precision)	Returns this ApfloatImpl with the specified precision.
long	ApfloatImpl.scale()	Returns the scale of this ApfloatImpl.
<T> void	DataStorage.Iterator.set(Class<T> type, T value)	Sets the current element as the specified element type.
void	DataStorage.AbstractIterator.setDouble(double value)
void	DataStorage.Iterator.setDouble(double value)	Sets the current element as a double.
void	DataStorage.AbstractIterator.setFloat(float value)
void	DataStorage.Iterator.setFloat(float value)	Sets the current element as a float.
void	DataStorage.AbstractIterator.setInt(int value)
void	DataStorage.Iterator.setInt(int value)	Sets the current element as an int.
void	DataStorage.AbstractIterator.setLong(long value)
void	DataStorage.Iterator.setLong(long value)	Sets the current element as a long.
final void	DataStorage.setReadOnly()	Sets this data storage as read-only.
final void	DataStorage.setSize(long size)	Sets the size of the data storage.
void	BuilderFactory.shutdown()	Shuts down the builder factory.
long	ApfloatImpl.size()	Returns the size of the mantissa of this ApfloatImpl.
void	NTTConvolutionStepStrategy.squareInPlace(DataStorage sourceAndDestination, int modulus)	Linear squaring in the number theoretic domain.
final DataStorage	DataStorage.subsequence(long offset, long length)	Get a subsequence of this data storage.
T	AdditionStrategy.subtract(DataStorage.Iterator src1, DataStorage.Iterator src2, T carry, DataStorage.Iterator dst, long size)	Subtraction in some base.
String	ApfloatImpl.toString(boolean pretty)	Convert this ApfloatImpl to String.
void	NTTStrategy.transform(DataStorage dataStorage, int modulus)	Perform a forward transform on the data.
void	Factor3NTTStepStrategy.transformColumns(DataStorage dataStorage0, DataStorage dataStorage1, DataStorage dataStorage2, long startColumn, long columns, long power2length, long length, boolean isInverse, int modulus)	Transform the columns of a matrix using a 3-point transform.
void	NTTStepStrategy.transformRows(ArrayAccess arrayAccess, int length, int count, boolean isInverse, boolean permute, int modulus)	Transform the rows of the data matrix.
void	MatrixStrategy.transpose(ArrayAccess arrayAccess, int n1, int n2)	Transpose a n1 x n2 matrix.
void	MatrixStrategy.transposeSquare(ArrayAccess arrayAccess, int n1, int n2)	Transpose a square n1 x n1 block of n1 x n2 matrix.
void	ApfloatImpl.writeTo(Writer out, boolean pretty)	Print this ApfloatImpl to a stream.

Constructors in org.apfloat.spi that throw ApfloatRuntimeException

Modifier	Constructor	Description
protected	AbstractIterator(int mode, long startPosition, long endPosition)	Construct a new iterator.