WOS: 000395063500007For a real-valued continuous function f(x) on , we define s(x) = integral(x)(0) f(u)du and sigma(alpha) (x) = integral(x)(0) (1 - u/x)(alpha) f(u)du for x > 0. We say that integral(infinity)(0) f(u)du is (C, alpha) integrable to L for some alpha > -1 if the limit(x ->infinity) exists. It is known that implies for all . The aim of this paper is twofold. First, we introduce some new Tauberian conditions for the integrability method under which the converse implication is satisfied, and improve classical Tauberian theorems for the integrability method. Next we give short proofs of some classical Tauberian theorems as special cases of some of our results
WOS: 000458493700035For a continuous function f(T, S) on R-+(2) = [0,infinity) x [0,infinity), we de...
WOS: 000458123500016Let p be a positive weight function on which is integrable in Lebesgue's sense o...
Given a real-valued integrable function f(x, y, z) which is integrable over [ 0 , ?) × [ 0 , ?) × [ ...
WOS: 000395063500007For a real-valued continuous function f(x) on , we define s(x) = integral(x)(0) ...
For a real-valued continuous function f(x) on [ 0 , ?) , we define (Fomula presented.) for x> 0. ...
For a locally integrable function f on [0, infinity), we define F(t) = integral(t)(0) f(u) du and si...
###EgeUn###For a locally integrable function f on [ 0, ?), we define F(t) = ? t 0 f(u)du and ? ? (t)...
###EgeUn###Let f be a real or complex-valued function on [1 , ?) which is continuous over every fini...
WOS: 000487634200009Let f be a real or complex-valued function on [1,infinity) by sigma k(s(x))={1/x...
3rd International Conference of Mathematical Sciences (ICMS) -- SEP 04-08, 2019 -- Maltepe Univ, Ist...
WOS: 000441473800007Let p be a function on R+ := [0, infinity) which is integrable in Lebesgue's sen...
Let p(x) be a nondecreasing continuous function on [0,?) such that p(0) = 0 and p(t) › ? as t › ?. F...
Let p be a function on R+ := [0, ?) which is integrable in Lebesgue's sense over every finite interv...
WOS: 000299541100014Let f be a real valued function which is continuous on [0, infinity). In this pa...
WOS: 000329124200005We investigate some Tauberian conditions in terms of the general control modulo ...
WOS: 000458493700035For a continuous function f(T, S) on R-+(2) = [0,infinity) x [0,infinity), we de...
WOS: 000458123500016Let p be a positive weight function on which is integrable in Lebesgue's sense o...
Given a real-valued integrable function f(x, y, z) which is integrable over [ 0 , ?) × [ 0 , ?) × [ ...
WOS: 000395063500007For a real-valued continuous function f(x) on , we define s(x) = integral(x)(0) ...
For a real-valued continuous function f(x) on [ 0 , ?) , we define (Fomula presented.) for x> 0. ...
For a locally integrable function f on [0, infinity), we define F(t) = integral(t)(0) f(u) du and si...
###EgeUn###For a locally integrable function f on [ 0, ?), we define F(t) = ? t 0 f(u)du and ? ? (t)...
###EgeUn###Let f be a real or complex-valued function on [1 , ?) which is continuous over every fini...
WOS: 000487634200009Let f be a real or complex-valued function on [1,infinity) by sigma k(s(x))={1/x...
3rd International Conference of Mathematical Sciences (ICMS) -- SEP 04-08, 2019 -- Maltepe Univ, Ist...
WOS: 000441473800007Let p be a function on R+ := [0, infinity) which is integrable in Lebesgue's sen...
Let p(x) be a nondecreasing continuous function on [0,?) such that p(0) = 0 and p(t) › ? as t › ?. F...
Let p be a function on R+ := [0, ?) which is integrable in Lebesgue's sense over every finite interv...
WOS: 000299541100014Let f be a real valued function which is continuous on [0, infinity). In this pa...
WOS: 000329124200005We investigate some Tauberian conditions in terms of the general control modulo ...
WOS: 000458493700035For a continuous function f(T, S) on R-+(2) = [0,infinity) x [0,infinity), we de...
WOS: 000458123500016Let p be a positive weight function on which is integrable in Lebesgue's sense o...
Given a real-valued integrable function f(x, y, z) which is integrable over [ 0 , ?) × [ 0 , ?) × [ ...