
doi: 10.1007/bf01961003
N where SN= ~ c ~ and S_1=0. r t ~ 0 We shall denote by U, S and A the classes of functions fbelonging to C whose Fourier series converge uniformly, strongly uniformly and absolutely on [0, 2~], respectively. Tanovic--Miller showed that the set A is a real subset o f S which itself is a real subset of U ([2], Theorem 4). By the Fej6r theorem we can see that if fE U then f i s the sum of its Fourier series and in the cases f E S or fEA a similar conclusion is valid. Of course, if f is a sum of uniformly, strongly uniformly or absolutely convergent trigonometric series then fEU, f E S or fEA, respectively. To show the difference between the uniform and strong uniform convergence we have the following trivial
Convergence and absolute convergence of Fourier and trigonometric series
Convergence and absolute convergence of Fourier and trigonometric series
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