Abstract
In the present chapter, we demonstrate an application of fixed point iterative methods to construct fractals (Mandelbrot and Julia sets) and anti-fractals (tricorns, multicorns and Anti-Julia sets) for the complex polynomials and antipolynomials of the type \(F_{d}(z) = z^{n}+d\) and \(A_{d}(z)=\bar{z}^{m}+d\), respectively, where \(d\in \mathbb {C}\) and \(n,m\ge 2\). We derive some escape criteria to generate fractals and anti-fractals by adopting the Suantai type iterative method. Moreover, we graphically visualize and examine the dynamics of these fractals and anti-fractals for certain complex polynomials and antipolynomials, respectively. Several beautiful aesthetic patterns have been obtained which explore the geometry of fractals and anti-fractals and therefore enrich the theory of fixed points.
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Kumari, S., Nandal, A., Chugh, R. (2021). Application of Fixed Point Iterative Methods to Construct Fractals and Anti-fractals. In: Debnath, P., Konwar, N., Radenović, S. (eds) Metric Fixed Point Theory. Forum for Interdisciplinary Mathematics. Springer, Singapore. https://doi.org/10.1007/978-981-16-4896-0_13
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