Strong convergence of an inertial algorithm for maximal monotone inclusions with applications

Fixed Point Theory and Applications Pub Date : 2020-08-21 DOI:10.1186/s13663-020-00680-2

C. E. Chidume, A. Adamu, M. O. Nnakwe

引用次数: 0

Abstract

An inertial iterative algorithm is proposed for approximating a solution of a maximal monotone inclusion in a uniformly convex and uniformly smooth real Banach space. The sequence generated by the algorithm is proved to converge strongly to a solution of the inclusion. Moreover, the theorem proved is applied to approximate a solution of a convex optimization problem and a solution of a Hammerstein equation. Furthermore, numerical experiments are given to compare, in terms of CPU time and number of iterations, the performance of the sequence generated by our algorithm with the performance of the sequences generated by three recent inertial type algorithms for approximating zeros of maximal monotone operators. In addition, the performance of the sequence generated by our algorithm is compared with the performance of a sequence generated by another recent algorithm for approximating a solution of a Hammerstein equation. Finally, a numerical example is given to illustrate the implementability of our algorithm for approximating a solution of a convex optimization problem.

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最大单调夹杂的惯性算法的强收敛性及其应用

本文提出了一种惯性迭代算法，用于逼近均匀凸均匀光滑实Banach空间中最大单调包含的解。该算法生成的序列被证明强收敛于该包含的解。此外，所证明的定理还被应用于近似凸优化问题的解和哈默斯坦方程的解。此外，我们还给出了数值实验，从 CPU 时间和迭代次数的角度，比较了我们的算法生成的序列与最近三种惯性型算法生成的序列在近似最大单调算子零点方面的性能。此外，我们还将算法生成序列的性能与另一种最新算法生成序列的性能进行了比较，后者用于逼近哈默斯坦方程的解。最后，我们给出了一个数值示例，以说明我们的算法在近似凸优化问题解时的可实施性。

本文章由计算机程序翻译，如有差异，请以英文原文为准。

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来源期刊

Fixed Point Theory and Applications MATHEMATICS, APPLIED-MATHEMATICS

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期刊介绍： In a wide range of mathematical, computational, economical, modeling and engineering problems, the existence of a solution to a theoretical or real world problem is equivalent to the existence of a fixed point for a suitable map or operator. Fixed points are therefore of paramount importance in many areas of mathematics, sciences and engineering. The theory itself is a beautiful mixture of analysis (pure and applied), topology and geometry. Over the last 60 years or so, the theory of fixed points has been revealed as a very powerful and important tool in the study of nonlinear phenomena. In particular, fixed point techniques have been applied in such diverse fields as biology, chemistry, physics, engineering, game theory and economics. In numerous cases finding the exact solution is not possible; hence it is necessary to develop appropriate algorithms to approximate the requested result. This is strongly related to control and optimization problems arising in the different sciences and in engineering problems. Many situations in the study of nonlinear equations, calculus of variations, partial differential equations, optimal control and inverse problems can be formulated in terms of fixed point problems or optimization.