2012
DOI: 10.1007/s11075-012-9613-7
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A perturbed version of an inexact generalized Newton method for solving nonsmooth equations

Abstract: In this paper, we present the combination of the inexact Newton method and the generalized Newton method for solving nonsmooth equations F(x) = 0, characterizing the local convergence in terms of the perturbations and residuals. We assume that both iteration matrices taken from the B-differential and vectors F(x (k) ) are perturbed at each step. Some results are motivated by the approach of Cȃtinaş regarding to smooth equations. We study the conditions, which determine admissible magnitude of perturbations t… Show more

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Cited by 3 publications
(2 citation statements)
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References 34 publications
(56 reference statements)
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“…We test many examples for arbitrary initial value, arbitrary test point and arbitrary parametric curve and find that our method remains more robust to converge than the H-H-H method. If the first order derivative f (t m ) of the iterative Equation (16) develops into 0, i.e., f (t m ) = 0 about some non-negative integer m, we use a perturbed method to solve the special problem, which adopts the idea in [23,45]. Namely, the function f (t m ) = 0 could be increased by a very small positive number ε, i.e., f (t m ) = f (t m ) + ε, and then the iteration by Equation (16) is continued in order to calculate the parameter value.…”
Section: The Improved Algorithmmentioning
confidence: 99%
“…We test many examples for arbitrary initial value, arbitrary test point and arbitrary parametric curve and find that our method remains more robust to converge than the H-H-H method. If the first order derivative f (t m ) of the iterative Equation (16) develops into 0, i.e., f (t m ) = 0 about some non-negative integer m, we use a perturbed method to solve the special problem, which adopts the idea in [23,45]. Namely, the function f (t m ) = 0 could be increased by a very small positive number ε, i.e., f (t m ) = f (t m ) + ε, and then the iteration by Equation (16) is continued in order to calculate the parameter value.…”
Section: The Improved Algorithmmentioning
confidence: 99%
“…where η k ∈ [0, 1) is the relative residual error tolerance and V k is an element of the Clarke generalized Jacobian of f at x k (for the definition of the Clarke generalized Jacobian, see [9]). More versions of inexact Newton-type methods for solving (1) include, but are not limited to, those in [7,8,16,32,34,35,36]. Our aim in this paper is to study the inexact Newton method (2) with feasible inexact projections (inexact Newton-InexP method) for solving smooth and nonsmooth equations subject to a set of constraints, i.e., to solve the following constrained equation: Find x ∈ R n such that…”
Section: Introductionmentioning
confidence: 99%