AbstractThe classical term-by-term integration technique used for obtaining asymptotic expansions of integrals requires the integrand to have an uniform asymptotic expansion in the integration variable. A modification of this method is presented in which the uniformity requirement is substituted by a much weaker condition. As we show in some examples, the relaxation of the uniformity condition provides the term-by-term integration technique a large range of applicability. As a consequence of this generality, Watson's lemma and the integration by parts technique applied to Laplace's and a special family of Fourier's transforms become corollaries of the term-by-term integration method
Watson’s lemma and Laplace’s method provide asymptotic expansions of Laplace integrals F (z) := ∫ ∞ ...
A modification of Watson''s lemma for Laplace transforms (Formula presented.) was introduced in Niel...
The paper discusses asymptotic methods for integrals, in particular uniform approximations. We discu...
AbstractThe classical term-by-term integration technique used for obtaining asymptotic expansions of...
We give an overview of basic methods that can be used for obtaining asymptotic expansions of integra...
AbstractFor the frequently required uniform asymptotic expansion of a certain class of integrals tha...
AbstractA standard method for deriving asymptotic expansion consists of applying integration by part...
AbstractOn the occasion of the conference we mention examples of Stieltjes' work on asymptotics of s...
We revise Laplace’s and Steepest Descents methods of asymptotic expansions of integrals. The main di...
On the occasion of the conference we mention examples of Stieltjes' work on asymptotics of special ...
A technique for obtaining asymptotic expansions of integrals by approximating the integrand and then...
1 1 Integration by Parts 1 2 Laplace Integrals 3 3 Laplace's Method 5 4 Fourier Integrals 8 5 S...
Asymptotic Approximations of Integrals deals with the methods used in the asymptotic approximation o...
AbstractFor the uniform asymptotic expansio of Incomplete Cylindrical Functions of Bessel form a mod...
Product integration methods for Cauchy principal value integrals based on piecewise Lagrangian inter...
Watson’s lemma and Laplace’s method provide asymptotic expansions of Laplace integrals F (z) := ∫ ∞ ...
A modification of Watson''s lemma for Laplace transforms (Formula presented.) was introduced in Niel...
The paper discusses asymptotic methods for integrals, in particular uniform approximations. We discu...
AbstractThe classical term-by-term integration technique used for obtaining asymptotic expansions of...
We give an overview of basic methods that can be used for obtaining asymptotic expansions of integra...
AbstractFor the frequently required uniform asymptotic expansion of a certain class of integrals tha...
AbstractA standard method for deriving asymptotic expansion consists of applying integration by part...
AbstractOn the occasion of the conference we mention examples of Stieltjes' work on asymptotics of s...
We revise Laplace’s and Steepest Descents methods of asymptotic expansions of integrals. The main di...
On the occasion of the conference we mention examples of Stieltjes' work on asymptotics of special ...
A technique for obtaining asymptotic expansions of integrals by approximating the integrand and then...
1 1 Integration by Parts 1 2 Laplace Integrals 3 3 Laplace's Method 5 4 Fourier Integrals 8 5 S...
Asymptotic Approximations of Integrals deals with the methods used in the asymptotic approximation o...
AbstractFor the uniform asymptotic expansio of Incomplete Cylindrical Functions of Bessel form a mod...
Product integration methods for Cauchy principal value integrals based on piecewise Lagrangian inter...
Watson’s lemma and Laplace’s method provide asymptotic expansions of Laplace integrals F (z) := ∫ ∞ ...
A modification of Watson''s lemma for Laplace transforms (Formula presented.) was introduced in Niel...
The paper discusses asymptotic methods for integrals, in particular uniform approximations. We discu...