Uses of Class
org.hipparchus.analysis.differentiation.UnivariateDerivative1
Packages that use UnivariateDerivative1
Package
Description
This package holds the main interfaces and basic building block classes
dealing with differentiation.
-
Uses of UnivariateDerivative1 in org.hipparchus.analysis.differentiation
Fields in org.hipparchus.analysis.differentiation declared as UnivariateDerivative1Modifier and TypeFieldDescriptionstatic final UnivariateDerivative1UnivariateDerivative1.PIThe constant value of π as aUnivariateDerivative1.Methods in org.hipparchus.analysis.differentiation that return UnivariateDerivative1Modifier and TypeMethodDescriptionUnivariateDerivative1.abs()absolute value.UnivariateDerivative1.add(UnivariateDerivative1 a) Compute this + a.UnivariateDerivative1.atan2(UnivariateDerivative1 x) Two arguments arc tangent operation.UnivariateDerivative1.compose(double... f) Compute composition of the instance by a univariate function.UnivariateDerivative1.compose(double ff0, double ff1) Compute composition of the instance by a univariate function differentiable at order 1.UnivariateDerivative1.copySign(double sign) Returns the instance with the sign of the argument.UnivariateDerivative1.copySign(UnivariateDerivative1 sign) Returns the instance with the sign of the argument.UnivariateDerivative1.divide(double a) '÷' operator.UnivariateDerivative1.divide(UnivariateDerivative1 a) Compute this ÷ a.UnivariateDerivative1Field.getOne()Get the multiplicative identity of the field.UnivariateDerivative1.getPi()Get the Archimedes constant π.UnivariateDerivative1Field.getZero()Get the additive identity of the field.UnivariateDerivative1.hypot(UnivariateDerivative1 y) Returns the hypotenuse of a triangle with sidesthisandy- sqrt(this2 +y2) avoiding intermediate overflow or underflow.UnivariateDerivative1.linearCombination(double[] a, UnivariateDerivative1[] b) Compute a linear combination.UnivariateDerivative1.linearCombination(double a1, UnivariateDerivative1 b1, double a2, UnivariateDerivative1 b2) Compute a linear combination.UnivariateDerivative1.linearCombination(double a1, UnivariateDerivative1 b1, double a2, UnivariateDerivative1 b2, double a3, UnivariateDerivative1 b3) Compute a linear combination.UnivariateDerivative1.linearCombination(double a1, UnivariateDerivative1 b1, double a2, UnivariateDerivative1 b2, double a3, UnivariateDerivative1 b3, double a4, UnivariateDerivative1 b4) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1[] a, UnivariateDerivative1[] b) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1 a1, UnivariateDerivative1 b1, UnivariateDerivative1 a2, UnivariateDerivative1 b2) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1 a1, UnivariateDerivative1 b1, UnivariateDerivative1 a2, UnivariateDerivative1 b2, UnivariateDerivative1 a3, UnivariateDerivative1 b3) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1 a1, UnivariateDerivative1 b1, UnivariateDerivative1 a2, UnivariateDerivative1 b2, UnivariateDerivative1 a3, UnivariateDerivative1 b3, UnivariateDerivative1 a4, UnivariateDerivative1 b4) Compute a linear combination.UnivariateDerivative1.multiply(double a) '×' operator.UnivariateDerivative1.multiply(int n) Compute n × this.UnivariateDerivative1.multiply(UnivariateDerivative1 a) Compute this × a.UnivariateDerivative1.negate()Returns the additive inverse ofthiselement.UnivariateDerivative1.newInstance(double value) Create an instance corresponding to a constant real value.UnivariateDerivative1.pow(double p) Power operation.static UnivariateDerivative1UnivariateDerivative1.pow(double a, UnivariateDerivative1 x) Compute ax where a is a double and x aUnivariateDerivative1UnivariateDerivative1.pow(int n) Integer power operation.UnivariateDerivative1.remainder(UnivariateDerivative1 a) IEEE remainder operator.UnivariateDerivative1.scalb(int n) Multiply the instance by a power of 2.UnivariateDerivative1.subtract(UnivariateDerivative1 a) Compute this - a.UnivariateDerivative1.toDegrees()Convert radians to degrees, with error of less than 0.5 ULPUnivariateDerivative1.toRadians()Convert degrees to radians, with error of less than 0.5 ULPUnivariateDerivative1.withValue(double value) Create a new object with new value (zeroth-order derivative, as passed as input) and same derivatives of order one and above.Methods in org.hipparchus.analysis.differentiation that return types with arguments of type UnivariateDerivative1Modifier and TypeMethodDescriptionUnivariateDerivative1Field.getRuntimeClass()Returns the runtime class of the FieldElement.Methods in org.hipparchus.analysis.differentiation with parameters of type UnivariateDerivative1Modifier and TypeMethodDescriptionUnivariateDerivative1.add(UnivariateDerivative1 a) Compute this + a.UnivariateDerivative1.atan2(UnivariateDerivative1 x) Two arguments arc tangent operation.intUnivariateDerivative1.compareTo(UnivariateDerivative1 o) UnivariateDerivative1.copySign(UnivariateDerivative1 sign) Returns the instance with the sign of the argument.UnivariateDerivative1.divide(UnivariateDerivative1 a) Compute this ÷ a.UnivariateDerivative1.hypot(UnivariateDerivative1 y) Returns the hypotenuse of a triangle with sidesthisandy- sqrt(this2 +y2) avoiding intermediate overflow or underflow.UnivariateDerivative1.linearCombination(double[] a, UnivariateDerivative1[] b) Compute a linear combination.UnivariateDerivative1.linearCombination(double a1, UnivariateDerivative1 b1, double a2, UnivariateDerivative1 b2) Compute a linear combination.UnivariateDerivative1.linearCombination(double a1, UnivariateDerivative1 b1, double a2, UnivariateDerivative1 b2, double a3, UnivariateDerivative1 b3) Compute a linear combination.UnivariateDerivative1.linearCombination(double a1, UnivariateDerivative1 b1, double a2, UnivariateDerivative1 b2, double a3, UnivariateDerivative1 b3, double a4, UnivariateDerivative1 b4) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1[] a, UnivariateDerivative1[] b) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1 a1, UnivariateDerivative1 b1, UnivariateDerivative1 a2, UnivariateDerivative1 b2) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1 a1, UnivariateDerivative1 b1, UnivariateDerivative1 a2, UnivariateDerivative1 b2, UnivariateDerivative1 a3, UnivariateDerivative1 b3) Compute a linear combination.UnivariateDerivative1.linearCombination(UnivariateDerivative1 a1, UnivariateDerivative1 b1, UnivariateDerivative1 a2, UnivariateDerivative1 b2, UnivariateDerivative1 a3, UnivariateDerivative1 b3, UnivariateDerivative1 a4, UnivariateDerivative1 b4) Compute a linear combination.UnivariateDerivative1.multiply(UnivariateDerivative1 a) Compute this × a.static UnivariateDerivative1UnivariateDerivative1.pow(double a, UnivariateDerivative1 x) Compute ax where a is a double and x aUnivariateDerivative1UnivariateDerivative1.remainder(UnivariateDerivative1 a) IEEE remainder operator.UnivariateDerivative1.subtract(UnivariateDerivative1 a) Compute this - a.