Abstract

AbstractThe convex feasibility problem (CFP) of finding a point in the nonempty intersection "Equation missing" is considered, where "Equation missing" is an integer and the "Equation missing"'s are assumed to be convex closed subsets of a Banach space "Equation missing". By using hybrid iterative methods, we prove theorems on the strong convergence to a common fixed point for a finite family of relatively nonexpansive mappings. Then, we apply our results for solving convex feasibility problems in Banach spaces.

Highlights

  • We are concerned with the convex feasibility problem CFPN finding an x ∈ Ci, i1 where N 1 is an integer, and C1, . . . , CN are intersecting closed convex subsets of a Banach space E

  • There is a considerable investigation on CFP in the framework of Hilbert spaces which captures applications in various disciplines such as image restoration

  • In computer tomography with limited data, in which an unknown image has to be reconstructed from a priori knowledge and from measured results, each piece of information gives a constraint which in turn, gives rise to a convex set Ci to which the unknown image should belong see 7

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Summary

Introduction

N finding an x ∈ Ci, i1 where N 1 is an integer, and C1, . . . , CN are intersecting closed convex subsets of a Banach space E. Our purpose in the present paper is to obtain an analogous result for a finite family of relatively nonexpansive mappings in Banach spaces. Plubtieng and Ungchittrakool 22 studied the strong convergence to a common fixed point of two relatively nonexpansive mappings of the sequence {xn} generated by x0 x ∈ C, yn J−1 αnJxn 1 − αn Jzn , zn J−1 βn[1] Jxn βn[2] JT xn βn[3] JSxn , xn 1 PHn∩Wn x, n 0, 1, 2, . In 2008, Plubtieng and Ungchittrakool 25 established strong convergence theorems of block iterative methods for a finite family of relatively nonexpansive mappings in a Banach space by using the hybrid method in mathematical programming. I → for strong convergence and for weak convergence; ii ωw xn {x : ∃xnr x} denotes the weak ω-limit set of {xn}

Preliminaries
Main result
Maximal monotone operators
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