2016
DOI: 10.1515/auom-2016-0021
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Some characteristic properties of analytic functions

Abstract: In this paper, we consider a class L(λ, μ; ϕ) of analytic functions f defined in the open unit disk U satisfying the subordination condition that,where is the Sălăgean operator and ϕ(z) is a convex function with positive real part in U. We obtain some characteristic properties giving the coefficient inequality, radius and subordination results, and an inclusion result for the above class when the function ϕ(z) is a bilinear mapping in the open unit disk. For these functions f (z) ; sharp bounds for the initia… Show more

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“…We note that the fractional operator D ν,0 0 defined by (1.2) is precisely the Ruscheweyh derivative operator R ν of order ν (ν > −1) and D 0,0 λ is the fractional differintegral operator Ω λ z of order λ (−∞ < λ < 2) , while D 0,n 0 = D n and D 1−λ,n λ = D n+1 are the Sȃlȃgean operators, respectively, of order n and n + 1 (n ∈ N 0 ) . There are numerous results in the literature on the Geometric Function Theory which are based on the use of the Ruscheweyh, Sȃlȃgean, and the fractional differintegral operators (see, for instance, the works in [6][7][8][9][10]13,17,[19][20][21][22][23]26,28,29]; see also [27] (and the references cited therein).…”
Section: Introductionmentioning
confidence: 99%
“…We note that the fractional operator D ν,0 0 defined by (1.2) is precisely the Ruscheweyh derivative operator R ν of order ν (ν > −1) and D 0,0 λ is the fractional differintegral operator Ω λ z of order λ (−∞ < λ < 2) , while D 0,n 0 = D n and D 1−λ,n λ = D n+1 are the Sȃlȃgean operators, respectively, of order n and n + 1 (n ∈ N 0 ) . There are numerous results in the literature on the Geometric Function Theory which are based on the use of the Ruscheweyh, Sȃlȃgean, and the fractional differintegral operators (see, for instance, the works in [6][7][8][9][10]13,17,[19][20][21][22][23]26,28,29]; see also [27] (and the references cited therein).…”
Section: Introductionmentioning
confidence: 99%