Emergence of Pascal's triangle in cascaded polarization optics: an intuitive framework for field transformation
Ata Ur Rahman Khalid, Naeem Ullah, Nannan Li, Hui Li, Muhammad Ali Babar Abbasi, Robert M Bowman

TL;DR
This paper reveals that Pascal's triangle naturally appears in multilayer polarization optics, providing a universal, intuitive, and computationally efficient framework for field transformation across the electromagnetic spectrum.
Contribution
It introduces a recursive Pascal's triangle pattern in Jones matrices for multilayered optical components, unifying various devices and simplifying complex polarization transformations.
Findings
Pascal's triangle pattern embedded in Jones matrices
Universal framework applicable across the electromagnetic spectrum
Reduces computational complexity in polarization optics
Abstract
Nature is imbued with mathematics, manifested through its stunning patterns, symmetries, and structures. Here, we unveil that in a multilayered framework of twisted birefringent optical components, a recursive number pattern of Pascal's triangle is naturally embedded in the structure of the Jones matrix which intuitively provide a generalized solution for pixel-to-pixel field transformation. The resulting standalone solution is universal across the electromagnetic spectrum, unifies N-layered metasurface and conventional bulk waveplates in a single framework, offers comprehensive insights about the bidirectional complex amplitude modulation and wavefront engineering in linear and circular polarization bases, and at the same time substantially reduces the computational cost. In essence, the discovery of number patterns in polarization optics/photonics will have broad impact across quantum…
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Taxonomy
TopicsMetamaterials and Metasurfaces Applications · Advanced Wireless Communication Technologies · Electromagnetic Scattering and Analysis
