A comprehensive design framework for all-dielectric metasurface by harnessing the interplay of controlled multiple multipoles excitation, Rayleigh anomaly, Mie, and lattice resonances

Khadar Basha Tummaluru; Faraz Ahmed Inam; Junaid Masud Laskar

doi:10.1039/d6na00100a

January 1, 2026Nanoscale AdvancesOpen Access

A comprehensive design framework for all-dielectric metasurface by harnessing the interplay of controlled multiple multipoles excitation, Rayleigh anomaly, Mie, and lattice resonances

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Key Points

This research aims to establish a design framework for all-dielectric metasurfaces that effectively manipulates electromagnetic multipoles.
Utilized a comprehensive approach to design all-dielectric metasurfaces
Investigated the interplay of multiple multipole excitation, Rayleigh anomalies, and higher-order resonances.
Analyzed the impact of structural scaling in photonic applications.
Successfully developed a framework that enhances light-matter interactions via controlled multipole excitation.
Achieved precise manipulation of light across various structural scales.
Demonstrated significant improvements in multifunctionality for photonics technologies.

Implication

Demonstrates the interaction of multiple resonances for enhanced photonics functionalities.

Abstract

Dielectric metasurfaces have emerged as promising candidates to control electromagnetic multipoles, crucial for precise manipulation of associated light-matter interaction, particularly for multi-functionality in photonics technologies spanning across structural scales and...

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Cite This Study

Tummaluru et al. (2026) studied this question.

synapsesocial.com/papers/69f6e5cf8071d4f1bdfc6642 https://doi.org/10.1039/d6na00100a

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A comprehensive design framework for all-dielectric metasurface by harnessing the interplay of controlled multiple multipoles excitation, Rayleigh anomaly, Mie, and lattice resonances

Key Points

Implication

Abstract

Discussion

Cite This Study

A comprehensive design framework for all-dielectric metasurface by harnessing the interplay of controlled multiple multipoles excitation, Rayleigh anomaly, Mie, and lattice resonances

Key Points

Implication

Abstract

Discussion

Cite This Study

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