A family of eighth-order iterative methods for the solution of nonlinear equations is presented. The new family of eighth-order methods is based on King's fourth-order methods and the family of sixth-order iteration methods developed by Chun et al. Per iteration the new methods require three evaluat
A class of iterative methods with third-order convergence to solve nonlinear equations
✍ Scribed by M. Çetin Koçak
- Publisher
- Elsevier Science
- Year
- 2008
- Tongue
- English
- Weight
- 223 KB
- Volume
- 218
- Category
- Article
- ISSN
- 0377-0427
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✦ Synopsis
Algebraic and differential equations generally co-build mathematical models. Either lack or intractability of their analytical solution often forces workers to resort to an iterative method and face the likely challenges of slow convergence, non-convergence or even divergence. This manuscript presents a novel class of third-order iterative techniques in the form of
to solve a nonlinear equation f with the aid of a weight function u. The class currently contains an invert-and-average (g Kia ), an average-and-invert (g Kai ), and an invert-and-exponentiate (g Ke ) branch. Each branch has several members some of which embed second-order Newton's (g N ), third-order Chebychev's (g C ) or Halley's (g H ) solvers. Class members surpassed stand-alone applications of these three well-known methods. Other methods are also permitted as auxiliaries provided they are at least of second order. Asymptotic convergence constants are calculated. Assignment of class parameters to non-members carries them to a common basis for comparison. This research also generated a one-step "solver" that is usable for post-priori analysis, trouble shooting, and comparison.
📜 SIMILAR VOLUMES
In this work, a class of iterative Newton's methods, known as power mean Newton's methods, is proposed. Some known results can be regarded as particular cases. It is shown that the order of convergence of the proposed methods is 3. Numerical results are given to verify the theory and demonstrate the
x,,, -J, m = 1, 2, 3 . . be an iteration method for solving the nonlinear problem F(X) = 0, where F(X) and its derivatives possess all of the properties required by T(x,,,). Then ifit can be established thatfor the problem at hand jlF(~,+ 1)i/ < &,, llF(x& V m > M,, (M, < co) and 0 < &,, < 1, dejini