FEE method

In mathematics, the FEE method, or fast E-function evaluation method, is the method of fast summation of series of a special form. It was constructed in 1990 by and is so-named because it makes fast computations of the Siegel E-functions possible, in particular of . A class of functions, which are "similar to the exponential function," was given the name "E-functions" by Carl Ludwig Siegel. Among these functions are such special functions as the hypergeometric function, cylinder, spherical functions and so on. Using the FEE, it is possible to prove the following theorem:

Comment
enIn mathematics, the FEE method, or fast E-function evaluation method, is the method of fast summation of series of a special form. It was constructed in 1990 by and is so-named because it makes fast computations of the Siegel E-functions possible, in particular of . A class of functions, which are "similar to the exponential function," was given the name "E-functions" by Carl Ludwig Siegel. Among these functions are such special functions as the hypergeometric function, cylinder, spherical functions and so on. Using the FEE, it is possible to prove the following theorem:
Has abstract
enIn mathematics, the FEE method, or fast E-function evaluation method, is the method of fast summation of series of a special form. It was constructed in 1990 by and is so-named because it makes fast computations of the Siegel E-functions possible, in particular of . A class of functions, which are "similar to the exponential function," was given the name "E-functions" by Carl Ludwig Siegel. Among these functions are such special functions as the hypergeometric function, cylinder, spherical functions and so on. Using the FEE, it is possible to prove the following theorem: Theorem: Let be an elementary transcendental function, that is the exponential function, or a trigonometric function, or an elementary algebraic function, or their superposition, or their inverse, or a superposition of the inverses. Then Here is the complexity of computation (bit) of the function with accuracy up to digits, is the complexity of multiplication of two -digit integers. The algorithms based on the method FEE include the algorithms for fast calculation of any elementary transcendental function for any value of the argument, the classical constants e, the Euler constant the Catalan and the Apéry constants, such higher transcendental functions as the Euler gamma function and its derivatives, the hypergeometric, spherical, cylinder (including the Bessel) functions and some other functions foralgebraic values of the argument and parameters, the Riemann zeta function for integer values of the argument and the Hurwitz zeta function for integer argument and algebraic values of the parameter, and also such special integrals as the integral of probability, the Fresnel integrals, the integral exponential function, the trigonometric integrals, and some other integrals for algebraic values of the argument with the complexity bound which is close to the optimal one, namely At present, only the FEE makes it possible to calculate fast the values of the functions from the class of higher transcendental functions, certain special integrals of mathematical physics and such classical constants as Euler's, Catalan's and Apéry's constants. An additional advantage of the method FEE is the possibility of parallelizing the algorithms based on the FEE.
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FEE method
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AGM method
Algebraic function
Algebraic number
Analysis of algorithms
Apéry's constant
Bessel function
Carl Ludwig Siegel
Catalan's constant
Category:Computer arithmetic algorithms
Category:Numerical analysis
Category:Pi algorithms
Complexity of computation (bit)
E (mathematical constant)
E-function
Ekaterina Karatsuba
Error function
Euler–Mascheroni constant
Exponential function
Exponential integral
Fast algorithms
Fresnel integral
Gamma function
Hurwitz zeta function
Hypergeometric function
Inverse function
Pi
Riemann zeta function
Special functions
Spherical harmonics
Transcendental function
Trigonometric functions
Trigonometric integral
SameAs
3yLhE
FEE method
m.05mv1zs
Q4291816
Метод БВЕ
روش FEE
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Category:Computer arithmetic algorithms
Category:Numerical analysis
Category:Pi algorithms
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