“…6. Theorem 3.1 of Chang [4], generalizes and improves the results in [16,17,18,21,27,28,30], so Theorems 3.1 and 3.3 extend and establish random generalization of the work of [16,17,18,21,27,28,30].…”
Abstract. In this paper, we study the strong convergence and stability of a new two step random iterative scheme with errors for accretive Lipschitzian mapping in real Banach spaces. The new iterative scheme is more acceptable because of much better convergence rate and less restrictions on parameters as compared to random Ishikawa iterative scheme with errors. We support our analytic proofs by providing numerical examples. Applications of random iterative schemes with errors to variational inequality are also given. Our results improve and establish random generalization of results obtained by Chang [4], Zhang [31] and many others.
“…6. Theorem 3.1 of Chang [4], generalizes and improves the results in [16,17,18,21,27,28,30], so Theorems 3.1 and 3.3 extend and establish random generalization of the work of [16,17,18,21,27,28,30].…”
Abstract. In this paper, we study the strong convergence and stability of a new two step random iterative scheme with errors for accretive Lipschitzian mapping in real Banach spaces. The new iterative scheme is more acceptable because of much better convergence rate and less restrictions on parameters as compared to random Ishikawa iterative scheme with errors. We support our analytic proofs by providing numerical examples. Applications of random iterative schemes with errors to variational inequality are also given. Our results improve and establish random generalization of results obtained by Chang [4], Zhang [31] and many others.
“…(III) If for all x, y ∈ K, η(y, x) = y − x, and f (x) = 0, then problem (1) reduces to the strongly nonlinear variational inequality problem considered by Siddiqi and Ansari [10] , and Zeng [12,13] : find x * ∈ K such that…”
The purpose of this paper is to investigate the iterative algorithm for finding approximate solutions of a class of mixed variational-like inequalities in a real Hilbert space, where the iterative algorithm is presented by virtue of the auxiliary principle technique. On one hand, the existence of approximate solutions of this class of mixed variational-like inequalities is proven. On the other hand, it is shown that the approximate solutions converge strongly to the exact solution of this class of mixed variational-like inequalities.
“…In the setting of Hilbert spaces, one of the most efficient numerical techniques is the projection method and its variant forms; see 4,[6][7][8][9][10][11][12][13][14][15] . Since the standard projection method strictly depends on the inner product property of Hilbert spaces, it can no longer be applied for general mixed type variational inequalities in Banach spaces.…”
Section: Fixed Point Theory and Applicationsmentioning
Let B be a real Banach space with the dual space B * . Let φ : B → R ∪ { ∞} be a proper functional and let Θ : B × B → R be a bifunction. In this paper, a new concept of η-proximal mapping of φ with respect to Θ is introduced. The existence and Lipschitz continuity of the η-proximal mapping of φ with respect to Θ are proved. By using properties of the η-proximal mapping of φ with respect to Θ, a generalized mixed equilibrium problem with perturbation for short, GMEPP is introduced and studied in Banach space B. An existence theorem of solutions of the GMEPP is established and a new iterative algorithm for computing approximate solutions of the GMEPP is suggested. The strong convergence criteria of the iterative sequence generated by the new algorithm are established in a uniformly smooth Banach space B, and the weak convergence criteria of the iterative sequence generated by this new algorithm are also derived in B H a Hilbert space.
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